im 'ftti . K \) I Onl? # STATE NORMAL SCHOOL LOS ANGJfiLES* CALiFOfUUA FARMERS' CYCLOPEDIA ABRIDGED AGRICULTURAL RECORDS IN 'SEVEN VOLUMES From the 'Publications of the UNITED STATES DEPARTMENT OF AGRICULTURE AND THE EXPERIMENT STATIONS :> 6 9t I A Compilation of sucb Bulletins and Reports as are Indispensable to the Practical Farmer VOLUME I FARM ANIMALS BREEDING, FEEDING, CARE DAIRY FARMING GARDEN CITY NEW YORK DOUBLEDAY, PAGE & COMPANY 1914 Copyright, 1912 by Agricultural Service Company Washington, D. C. All rights reserved V-\ INTRODUCTION PRACTICALLY all the matter in the seven volumes of this series is taken bodily from the bulletins, circulars, annual re- ports, year books, and other documents of the Departments of Agriculture and the Experiment Stations of the United States and Canada. Quotation marks are omitted because almost every paragraph would be enclosed by the marks, a useless and ex- pensive step, in view of the acknowledgment now broadly made that almost every paragraph is taken from such documents. Owing to the fact that on some pages from five to twelve extracts are used from different authorities and that the majority of the pages of the seven volumes contain from two to five of such extracts, it was found cumber- some and deemed useless to place in all cases the authority at the conclusion of each extract. In many cases, therefore, the authorities of sections, chapters or parts are grouped at the conclusion of the general subject under treatment. When the Secretary of Agriculture learned the scope of this work, he issued directions to Mr. AT nold, Chief of the Division of Publications, to supply the Publishers with a free copy of every docu- ment desired that was in possession of the Department of Agriculture and was available. This direction was faithfully carried out and thousands of documents bearing on every subject of American hus- bandry were delivered to the offices of this Company in Washington, D. C., and used in making the abridgments as shown on almost every page herein. Many duplicates were likewise kindly furnished by Mr. Harding and Mr. Cleary, which act saved the Publishers from the heavy cost of having to copy many thousands of words to avoid for- cing compositors to set from both sides of printed pages. Documents which were out of print at the Department and which were thus not available for free distribution there, were purchased from the Super- intendent of Documents to supplement the treatment of subjects not fully covered by the available documents of the Department. The authorities of the Dominion of Canada and of the Provin- cial Experiment Stations, in response to requests for documents on all subjects of agriculture, promptly and freely forwarded bulletins, circulars, annual reports and other records, bound and unbound, and kindly and freely gave the Publishers every facility to represent suit- ably in these volumes the splendid progress that has been made by the Dominion in modern agriculture. How well this act of the Do- minion authorities was appreciated is shown by the hundreds of ex- tracts taken literally from the documents thus furnished, for all of which favors the Publishers herewith make most grateful acknowl- edgment. Many documents came from Ontario, Quebec, Manitoba, l 2 INTRODUCTION Saskatchewan, Cape Breton, New Brunswick, Nova Scotia, and other Provinces. At the commencement of the work of abridgment the officials of the sixty-five or seventy Experiment Stations of the United States and its insular possessions were asked to furnish as complete sets of their bulletins and other documents as were available to be used in the compilation of these volumes. All the stations promptly and freely complied, forwarding in several instances the only numbers in existence with requests to return them uninjured as soon as the desired extracts had been copied therefrom. It is estimated that nearly 20,000 documents were thus received, consulted and used. From these documents were obtained much information and many extracts on subjects which had not in all cases been covered in detail by the Department of Agriculture. If a farmer wants the bulletin on any special subject he will have to send in a majority of the cases cited to the Experiment Station which issued it originally. Many of such bulletins, perhaps a majority, are out of print and therefore unavailable. In any event, if a farmer wants such a bulletin he will be required to pay for it, the price varying from five cents to several dollars. He should write directly to the Director of the Experiment Station, enclosing the price, giving his name and address, naming clearly what he wants, and if the document is available, he will receive it by return mail. For instance, address the letter to "Director of the Iowa Agricultural Experiment Station, Ames, Iowa," and name the special bulletin wanted thus: "Iowa Agricultural Experiment Station Bulletin No. 76." Payment for documents will not be required of a farmer by the Experiment Station or Stations in his own state. It should be noted by farmers that many of the bulletins, circulars, and other documents of the United States Department of Agriculture are out of print at the Department and hence are not available for free distribution. The documents that are available at the Depart- ment are of recent issues and are comparatively few in numbers. But the Government has made other provisions to supply farmers with documents that are out of print at the Department. In case a document is deemed of sufficient value to warrant its re-issuance or reproduction, it is republished by the Government and is kept for sale by the Superintendent of Documents, an officer of the Govern- ment. Approximately, there are for sale by the Superintendent of Documents at the present time 3,120 documents, a complete set of which will cost a farmer about $632, the price varying from 5 cents to several dollars each, or an average of about 20 cents each. Many of the documents thus for sale by the Government are of the greatest practical value to farmers who can get them in no other way than by buying them. The documents thus for sale by the Superintendent of Documents were consulted by the abridgers of these volumes, and scores of extracts therefrom were taken and used herein. The farmer can get free from the United States Department of Agriculture all documents which are available, but if he wants those issued by the Superintendent of Documents or by any Experiment Station except the one or ones in his own state he will have to pay for them. In INTRODUCTION 3 order to secure one copy each of such documents from the Superin- tendent of Documents and from the numerous Experiment Stations, he will have to pay according to careful estimates, over $1,000. He will then have in his possession hundreds of separate documents with- out classification or index and will be, figuratively, in the shoes of the person who looked so diligently for the proverbial needle in a hay- stack. "The Farmer's Cyclopedia" gives the best parts of all these bulletins, with a perfect index, with numerous illustrations and at a price trifling in comparison to the approximate $1,000 which the farmer would have to pay for a complete set of separate unindexed documents. Thus these volumes select for the farmer the best in ex- istence on any subject and by indexing it perfectly place it within his instant reach and use. The "Farmer's Cyclopedia" is just as necessary for the modern, successful and money-making farmer as the libraries of professors, scientists, ministers, doctors, lawyers, etc., are to them. The time is here when a farmer, in order to succeed and in order to compete with other up-to-date farmers, must have a library. The "Farmer's Cyclopedia" perfectly meets the requirements. The illustrations in these volumes were all taken from the docu- ments of the Departments of Agriculture and the Experiment Sta- tions of the United States and Canada. Many of the plates (Illus- trations) were originally prepared for insertion in documents of different sizes, the paper of which was little better than that of modern newspapers; others were prepared with mesh for grades of paper ranging up to the finest enamel and in varying shapes, sizes and cita- tion arrangements. These wide variations will account for the differences in size and quality shown in the illustration of these vol- umes, where all plain cuts are printed on the same kind of paper. The Publishers, having at the outset announced that all matter, printed and illustrated, would be taken solely and wholly from agri- cultural documents, were obliged to confine their selections to the cuts found in the bulletins, circulars, year books, annual reports, and other documents of the Agricultural Departments and the Ex- periment Stations of the two countries. Owing to the fact that the illustrations available varied greatly in the numbers devoted to the different subjects treated in this series, it was found necessary, in order to prevent massing top many in one place, to insert many elsewhere than in connection with the matter to which they related. Thus they were inserted at regular intervals throughout the seven volumes, in order to make the books well- balanced and symmetrical. Approximately, 400 different cuts, repre- senting all phases of farm operations, will be found in the books. In view of the above facts it will thus be seen that almost every line of the seven volumes, though now slightly changed to meet the new surroundings, was originally prepared by experts of the Depart- ments of Agriculture and the Experiment Stations of Canada and the United States. In the preparation of these volumes the abridgments were made by practical farmers, experienced agricultural writers, graduates of agriculture and domestic science, professors of farming specialties at Agricultural Colleges and experts connected at present with Experiment Stations. Thus practically all the matter in these 4 INTRODUCTION volumes was originally written by experts and is now abridged by experts. It therefore follows that these volumes represent the best and most practical portions of what has been accomplished for the husbandman by the Departments of Agriculture and the numerous Experiment Stations of both the United States and Canada. While the compilation was being made the following positive in- struction was given to the abridgers: (1) To make no original state- ments or conclusions whatever, but to use solely and wholly matter prepared by the Agricultural Departments and the Experiment Sta- tions of the two countries; the only variations from these instructions were a few extracts from reading course proceedings, lectures on agri- culture or minutes of farmers' societies or institutes. (2) To consult all available authorities on each subject before making a selection. (3) To select extracts, if deemed advisable, from several authorities on the same subject and join them together in connected and prac- tical form. (4) To select only what is of practical value to the hus- bandman and his family in their everyday occupations. (5) To duly weigh the writings of all authorities and use extracts only from the latest and best. (6) To make the interests of the farmer para- mount during all steps of abridgment. (7) To give the Departments of Agriculture and the Experiment Stations due credit for the ex- tracts. (8) To cite all authorities, so that farmers wanting any com- plete bulletin can secure it. ABBREVIATIONS A. C. Agricultural College. B. A. I. B. Bureau of Animal Industry Bulletin. B. A. I. C. Bureau of Animal Industry Circular. B. B. S. Bureau of Biological Survey. B. C. Bureau of Chemistry. B. E. Bureau of Entomology. B. P. I. Bureau of Plant Industry. B. S. Bureau of Soils or (rarely) Statistics. D. A. Department of Agriculture, or (rarely) Division of Accounts. D. of A. Department of Agriculture. D. P. Division of Publications. E. S. Experiment Station (Usually in combination with a state name abbreviated; as, 111. E. S., Illinois Ex- periment Station). E. S. B. Experiment Station Bulletin. E. S. C. Experiment Station Circular. E. S. R. Experiment Station Record. F. B. Farmers' Bulletin. F. S. Forest Service. O. E. S. Office of Experiment Stations. O. P. R. Officer of Public Roads. W. B. Weather Bureau. ACKNOWLEDGMENT In Volume I writings of the following authors were either con- sulted, abridged, or both: United States Department of Agriculture. A. D. Melvin, A. M. Far- rington, George M. Rommel, Marion Dorset, B. H. Rawl, R. P. Steddom, John R. Mohler, R. W. Hickman, B. H. Ransom, E. H. Webster. Alabama. D. T. Gray, C. A. Gary. Arizona F. W. Wilson, A. E. Vinson, R. W. Clothier. Arkansas. R. L. Bennett, R. R. Dunwiddie, V. A. Hooper, W. Len- ton, A. K. Short, George E. Cole. California. A. R. Ward, E. W. Major, Leroy Anderson, M. E. Jaffa. Canada. H. H. Dean, R. Harcourt, W. R. Graham, S. F. Edwards, C. W. Nash, W. P. Gamble, A. E. Slater, J. W. Mitchell, F. W. Foster, F. W. Taylor, G. G. Pablow, Frank Herns, F. Torrance, W. H. Peters, L. Caesar, J. H. Reed, A. E. Shuttleworth. Colorado J. 0. Williams, W. E. Vaplon, W. J. Carlyle, C. J. Grif- fith, B. C. Buffum, J. E. Payne. Connecticut. L. A. Clinton, J. M. Trueman, F. H. Stoneburn, G. H. Lamson, L. F. Rettger, H. W. Conn, C. L. Beach, C. K. Gra- ham, W. A. Stocking, Jr. Delaware. C. F. Dawson, A. T. Neble, C. L. Penny. Florida. John M. Scott, Charles F. Dawson. Georgia M. V. Calvin, O. N. Flint, J. H. McClain, L. J. Herring, H. J. Wing, J. C. Temple. Hawaiian Islands. H. H. Simpson, Luther Foster, E. V. Wilcox, D. L. Van Dine. Idaho. H.. T. French. Illinois. W. J. Fraser, Carl E. Lee, C. H. Yates, R. E. Brand, John M. Trueman, Herbert W. Mumford, R. C. Obrecht, Jesse M. Barnhart, W. C. Coffey, C. C. Hayden, Arthur J. Glover, Wil- liam Dietrich. Indiana. Arthur Goss, H. E. Van Norman, J. H. Skinner, O. F. Hunziker. Iowa. C. F. Curtis, John A. Craig, G. L. McKay, W. J. Kennedy, H. G. Van Pelt, M. Stalker, J. H. McNeil, D. A. Kent, Carl W. Gay, James Atkinson, John J. Repp. Kansas. Roland J. Kinzer, Oscar Erf, Francis S. Schoenleber, D. H. Otis, N. S. Mayo. Kentucky. E. S. Good, D. W. May, M. A. Scovell, J. D. Turner, J. N. Harper, S. D. Averitt. Louisiana. W. R. Dodson, H. P. Agee, W. H. Dalrymple. Maine. F. L. Russell, G. M. Gowell, G. A. Drew, Walter Anderson, Raymond Pearl. 6 ACKNOWLEDGMENT 1 Maryland. Samuel S. Buckley (who assisted in the abridgment of the bulletins for the abridged Agricultural Records), G. E. Gage, R. H. Waite. Massachusetts. James B. Paige, W. P. Brooks, H. H. Goodell. Michigan. L. M. Hurt. Minnesota. T. L. Haecker, M. H. Reynolds. Mississippi. J. A. McLean, Archibald Smith, J. S. Moore. Missouri. Paul Paquin, Paul Evans, F. B. Mumford, C. H. Eckles, C. A. Wilson, J. W. Connaway. Montana. W. J. Elliott, Robert W. Clark. Nebraska. H. R. Smith, A. T. Peters, A. L. Haecker. Nevada.-!. E. Stubbs, R. H. McDowell, N. E. Wilson, G. H. True, Peter Frandsen, W. B. Mack. New Hampshire. T. R. Arkell, Fred Rasmussen, F. W. Taylor, Ivan C. Weld, H. H. Lamson. New Jersey. F. C. Minkler, Julius Nelson, T. E. Budd. New Mexico. W. E. Garrison, H. H. Simpson, W. A. Lassell, R. F. Hare, C. T. Jordan, J. D. Tinsley. New York. James Law, H. H. Wing, James S. Rice, J. A. Foord, 0. F. Hunziker, George A. Smith, George C. Watson, R. A. Pearson, W. A. Stocking, M. W. Harper, C. A. Rogers, W. P. Wheeler, H. A. Harding. Norfo Carolina. F. E. Hege, J. D. Cecil, J. C. McNutt, E. P. Wil- liamson, J. S. Jeffrey, R. S. Curtis, John Michels, G. A. Roberts. North Dakota. J. H. Worst, L. Van Es. Ohio. B. E. Carmichael, E. B. Forbes, J. W. Hammond, Charles E. Thome, R. E. Caldwell. Oklahoma. W. T. McDonald, L. L. Lewis. Oregon. James Dryden, F. L. Kent, James Withycombe. Pennsylvania. H. P. Armsley, Harry Hayward, W. A. Cochel, C. W. Larson, H. C. Jackson, William Frear. Rhode Island. Leon J. Cole, Philip B. Hadley, George W. Field, Cooper Curtice, W. F. Kirkpatrick, Thomas H. Taylor. South Carolina. D. A. Nourse, M. R. Powers. South Dakota. E. L. Moore, C. Larsen. Texas. J. H. Connell, M. Francis, James Clayton, B. C. Pittuck, John C. Burns, H. L. McKnight. Tennessee. William G. Shaw, Moses Jacob, Andrew M. Soule. Utah. James Dryden, L. A. Merrill, R. W. Clark, F. B. Linfield, E. G. Gowans, John T. Caine, H. J. Frederick. Vermont. J. L. Hills, E. A. Rich, E. H. Gregg, R. M. Washburn, W. F. Hammond, H. A. Edson, Cassius Peck. Virginia. John Spencer, W. D. Saunders, A. P. Spencer, E. A. Smyth, Jr., E. V. Niles. Washington.-^. B. Nelson, W. T. McDonald, A. B. Nystrom. West Virginia. J. H. Stewart. Wisconsin. W. L. Carlyle, E. H. Farrington, J. W. Decker, G. C. Humphrey, D. H. Otis. Wyoming. E. E. Smiley, B. C. Buffum, T. F. McConnell, J. A. Hill, A. D. Faville, 0, L. Prim. TABLE OF CONTENTS Part I. BREEDS OF Page Breeds of Horses 17 American Trotters 18 Hackneys 18 French Coach 19 German Coach 20 Percheron 20 Clydesdale 20 English Shire 21 Belgian Draft 21 Ponies 21 Range Horses 22 Horse Breeding 22 Selection of Stock 22 Soundness 23 Crossbred Sires 24 Pedigrees 25 Feeding 25 Stations in Europe 26 Market Horses 27 Classes 28, 32 Requirements 29 Quality 30 Condition 30 Action 30 Age .'. 31 Color 31 Education 31 Disposition 31 Sex 32 HORSES. Page Breed 32 Appearance 32 Market Demands 34 Draft Horses 35 Chunks 36 Farm Chunks 37 Southern Chunks 37 Wagon Horses 38 Express Horses 38 Delivery Wagon Horses ... 39 Artillery Horses 39 Fire Horses 40 Carriage Horses 41 Coach Horses 41 Saddle 42 Gaited Saddlers 42 Cavalry Horses 43 Glossary of Horse Terms . . 44 Auction Rules 49 Feeding Horses 50 Nutrition 50 Experiments 54 Results 54 Rations 55-57 How Calculated 57 Care of Stallions 58 Care of Mares 58 Care of Foals 58 Grain Food 63-68 Other Food 65-68 MULES. Breeding and Feeding Qualities Endurance Sires Mares How to Breed How to Fatten How to Market Market Classes Horse and Mule Raising in the South Supply Short Profits Methods of Breeding 68 71 71 72 73 74 75 76 77 78 78 79 81 Native Stock Improved 82 Stallions 85 How to Judge Draft Horses. . . 89 What Is Necessary 89 How to Examine 89 Score Cards 90 Scoring Rules 90 Scoring 91 Points of Scoring 92 Soundness 98 Points of Soundness 99 Unsoundness 102 Shoeing Horses 102-118 TABLE OF CONTENTS Part II. BREEDS OF DAIRY Page Breeds of Cattle 119 Ayrshires 120 Guernseys 122 Holstein-Friesians 125 Jerseys 127 Dutch Belted 129 Brown Swiss 130 Devons 131 Polled Durhams 133 Red Polled 134 Shorthorns 135 The Dairy Herd 138 Individuals 139 Adaptation 140 Purchases 140 Grades 143 Foundation of Herd 143 Registered Animals 144 The Bull 144 Selection 145 Temperament 145 Control 145 Exercise 145 Culling the Herd 145 Records 146 Standards 146 Cow Types 146 Each Cow Tested 147 Health of Herd 148 Proper Surroundings 148 Cleanliness 149 Milking Methods 149 Milking Machines 151 Conclusions 151 Pastures 153 Summer Feeding 153 Grain with Grass 154 Soiling Crops for Cows 155 Succession of Crops 155 Growing the Crops 156 Alfalfa for Cows 156 Red Clover 156 Peas 156 Oats 156 Rape 157 Flint Corn 157 Sorghum 157 Sweet Corn 157 Other Crops 158 The Stable, Its Preparation ... 158 Feed and Care of Dairy Cows. 161 Treatment Before Calving.. 161 CATTLE. Page Treatment at Calving 162 Caked Udder 163 Treatment After Calving 164 Feeding Dairy Cows 14U- Important Considerations .... 165 When to Milk 165 Fighting Flies 165 Rations 166 Concentrates 166 Alfalfa 166 Roots 167, 170 Succulence 167 Constipating Feeds 168 Varieties of Feed 168 Appetizing Rations 169 Silage 170-172 Vegetables 170-172 Weight and Feed Related 172 Individual Feeding 173 Roughness in Feed 173 Grain in Feed 173 Balanced Ration 174 Consumers 174 Commercial Foods 176 Lactive Climaxes 176 Salt 179 Food Substitutes 179 Concentrates 179 Concentrates 179 Grain Mixtures 180 Ration Constituents 181 Gestation Periods 182 Bedding for Cows 182 Raising Calves 183 Overfeeding 183 Drink 184 Skim Milk 184 Factory Milk 185 Roughage 185 Pasture 185 Water 185,187 Salt 185,187 Grain 186 Dehorning 186 Calf Ties 187 Scours 187 Diarrhea 187 Milk Substitutes 188 Care 189 Change in Feed 189 Age to Breed 190 Cattle Authorities . . 191 MILK. Properties of Milk 192 Impurities 198 Sources and Kinds 192 The Milker 198 Composition of Milk 193 Hands and Clothing 198 Bacteria 193 Bacteria After Drawing 199 10 TABLE OF CONTENTS Page Kinds 199 Cold Aids Milk 200 Flies 201 Air 202 Fermentation 202 Electricity 202 Butyric Acid 203 Flavors in Milk 203 Curdling 204 Bitter Milk 204 Stringy Milk 205 Ropy Milk 205 Fermentation, Later 206 Leucocytes in Milk 207 Pasteurizing 207 Sterilizing 207 Thunderstorms 209 Fermented Milks 210 Value of 210 Varieties 210 Buttermilk 210 Kefer 212 Kumiss 215 Yoghurt 215 Covered Pails 216 Cow Testing Associations ... 217 Need of 217 Difficulties 218 Association, First 218 Operations 218 Record in Michigan 220 Testing Outfits 221 Certified Milk 222 Commissions 222 Operations 222 Standards 222 Inspections 223 Employes' Health 223 Precautions 223 Bacteria 224 Disinfecting 224 Cleanliness 224 Cows Cleaned 224 Milking 225 Handling Milk 225 Market for Raw Milk 225 Keeping Qualities 226 Cost of Certifying 226 Its Future 227 Milk Separating Systems 227 Deep-setting 227 Dilution 228 Centrifugal 228 Hand 228 Operations 229 Speed 229 Page Cleanliness 229 Temperature 230 Inflow 230 Cream 230 Babcock Test 233 How to Make 233 Materials 234 Steps 234 Mixing 234 Sampling 234 Filling 235 The Acid 235 Bottles 235 Fat Calculated 237 Other Tests 238 Butter Making on Farms 239 Starters 239 Ripening 239 Flavors 241 Acid Test 242 Alkaline Test 243 Mann's Test 243 Churns 244 Salting 245 Washing 245 Working the Butter 246 Utensils 247 Packing 247 Refrigeration 248 Marketing 248 Storing 251 Renovated Butter 252 Oleomargarine Tests 253 Home Tests 253 Butter Increasers, Etc 254 Cheese Making on Farms.... 255 Operations 255 Coloring 255 Rennet 255, 257 Temperature 255 Curdling 256 Cutting 256 Cooking 256 Molding 256 Pressing 256, 258 Dressing 256 Salting 257, 258 Curing 257, 258 Curd 257 Pot Cheese 258 Neufchatel 259 American Cheese 259 Club Cheese 260 Authorities on Cheese and Milk 261, 262 BREEDS OF BEEF CATTLE. Their Characteristics 263 Aberdeen-Angus 265 Shorthorns 263 Galloways 266 Herefords . . 264 Polled Herefords 266 TABLE OF CONTENTS 11 Page Breeding 269 Common Stocks 269 Improvement 270 Grade Sires 272 Aged Bulls 273 Immature Females 274 Cross Breeding 275 In-and-in Breeding 275 Prepotency 276 Co-operation of Breeders 277 Grades of Feeding Cattle .... 278 Fancy . , 279 Choice 279 Good 279 Medium 279 Common 280 Inferior 280 Beef and Beef Products 280 Baby Beef 280 Feeding 280 Demands 281 Quick Returns 281 Economy 282 Fattening 283 Feeders 284 Market Demands 284 Butchers 287 Consumers 287 Dairy and Beef Type Steers.. 287 Feeders' Conclusions 288 Summer and Winter Feeding. 288 Feeding Two-Year-Old Steers 289 Silage as Food 289 Rations and Energy Values... 290 Components of Flesh 290 Percentage of Components. 291 Body a Machine 292 Composition of Feed Stuffs. 293 Food Demands 294 Food as Fuel 295 Energy in Food 296 How Utilized 297 Maintenance Requirements.. 299 Feed Values 300 Fattening Requirements . . . 301 Milk Requirements 302 Work Requirements 302 Dry Matter in Rations 305 Page Computation of Rations 305 Steps Necessary 305 Total Feed Required 306 Rations Improved 307 Computation of Rations . . . 308 Feeding Stuffs Chosen 311 Prices of Feed 311 Amounts of Feed 312 Compounding Rations 314 Feeds and Feeding for Beef.. 315 Corn as Food 315 Dairy Cows 315 Steer Fattening 317 Commercial Stock Foods .... 319 From Wheat 319 From Rye 320 From Buckwheat 320 From Corn 320 From Gluten Meal 320 From Hominy 320 From Distilleries 323 From Oats 323 From Flaxseed 323 From Cottonseed 324 From Barley 325 From Alfalfa 325 From Meals 325 From Dried Blood 325 From Beet Pulp 326 Poultry Food 326 Molasses for Fattening 326 Feeding Molasses 326 Amounts to Feed 326 Summary 327 Feeding Alfalfa 327 Mixing Grain and Roughage.. 328 Use of Pulp 329 Beet Pulp and Corn Meal 330 Condimental Stock and Poul- try Foods 330 Ingredients 330 Medicinal Ingredients 331 Cost 332 Selling Price 332 Values 332 Claims of Manufacturers... 333 Medicines for Animals 333 Sick Animals 334 Authorities on Beef . . 334 Breeds Merino 335 Leicester 336 Border Leicester 336 Lincolns 337 Cotswolds 337 Downs 338 Southdowns 338 Shropshires 338 Part III SHEEP. 335 Hampshires 341 Oxfords 342 Suffolks 342 Dorset Horns 342 Cheviots 343 Black-faced Highlands 343 Sheep Feeding 344 Ewes 344 Breeding Ewes 344 12 TABLE OF CONTENTS Page Spring Feeding 346 Summer Feeding 346 Fall Feeding 347 Lambs for Breeding 348 Hand Feeding 349 After Weaning 349 Rams 350 Fattening Lambs and Wethers 351 Showing Effects 351 Fattening to Maturity 351 Quantity of Feed 352 Cost of Increase 353 Fodders 353 Grain 354 Pulp 356 Sorghum 356 Market Demands 356 Yield of Dressed Mutton... 356 Cost of Mutton and Beef... 356 Gestation 360 Loss of Lambs 360 Dipping 360 Range and Pure Breds 361 What Is a Good Sheep? 361 Range Lamb Feeding 362 Old Mexico Sheep 362 New Mexico Sheep 363 Merinos 363 Buying Lambs 364 Shelter 364 Grading 364 Feeding 364 Shepherds 366 Sheep on Ranges 366 Handling 368-373 Pasturage Systems for Sheep. 373 Fences 373 Protection 374 Observation 374 Hounds 374 Trails 377 Coyotes 377 Bunches 378 Losses 378 Grazing 380 Roaming 380 Bedding 381 One Man's Care.. . 382 Page Washing and Shearing 382 Packing Wool 383 Good Fleeces 384 Market Classes of Sheep 385 Mutton 35 Feeders 386 Breeders 387 Miscellaneous 387 Hot House Lambs 387, 397 Exports 387, 39T Throw-outs 387, 397 Dead Sheep 387, 398 Goats 387, 398 Lambs 387 Prime 387 Choice 388 Good 388 Medium 389 Common 389 Yearlings 389 Wethers 390 Ewes 391 Feeders 392 Breeding Sheep 395 Fancy 395 Choice 395 Good 396 Ewes 397 Bucks 397 Judging Fat Sheep 399 Score Cards 399 Examination 399-405 Comparative Judging 405 Feeder Sheep 405 Breeders 406 Rams 407 Merinos 407 Improvements 408 Sires 409 Pedigrees 410 Authorities on Sheep 410 Angora Goats 413 Pastures 414 Breeding 414 Mohair 414 Milk 415 Hardihood 416 Part IV. BREEDS OF SWINE. General Remarks 417 Berkshires 417 Poland Chinas 418 Chester Whites 418 Duroc-Jerseys 419 Tamworths 419 Yorkshires 420 Large Yorkshires 420 Middle Yorkshires 421 Small Yorkshires 421 Essexes 421 Cheshire 421 Hampshires 422 Southern Hogs 422 Razorbacks 422 Selection of Breed 423 Score Cards 423 Care of Breeding Stocks 424 Breeding and Management... 425 Inbreeding 425 TABLE OF CONTENTS 13 Page Choice of Individuals 425 Boars 426, 433 Sows 431, 434 Mating 432 Castrating 433 Spaying 433 Farrowing 436 Two Litters Yearly 439 Weaning the Pigs 439 Advice to Beginners 441 Gestation of Swine 443 Feeds and Feeding 442 Economy 442 Corn Alone 443 Cost of Gain ,445 Corn for Breeders 445 Corn Ground 446 Corn, Cooked, Etc 446 Corn, Wet and Dry 449 Corn, Hogging Down 449 Supplements for Corn 450 Wheat 451 Middlings 452 Bran 453 Barley 453 Shorts 453 Oats 453 Rice 453 Millet 454 Beans 454 Cotton-Seed Meal 455 Linseed Oilmeal 457 Soy Bean Meal 457 Distillery Grains 458 Beef Meal 458 Tankage 459 Milk 460 Pastures and Forage 463 Permanent Pastures 463 Summer Pasture 463 Alfalfa 467 Cow Peas 470 Soy Beans 471 Canada Field Peas 472 Peanuts 472 Sorghum 473 Page Oats 473 Winter Pasture 473 Rape 474 Chufas 474 Grain with Grass 475 Roots 476 Sugar Beets 477 Potatoes 477 Silage 478 Pumpkins 478 Molasses 478 Hotel Slop 479 Climate 479 Feed for Boars 481 Feed for Sows 482 Feed for Pigs 488 Fattening for Market 491 Weight of Pigs 492 Finishing 493 Short or Long Period 494 Stock Foods 495 Mineral Mixtures 495 Salt 496 Housing Pigs 497 Portable Houses 498 Farrowing Pens 503 Floors 505 Racks 505 Troughs 505 Dipping Vats 506 Fences 507 Exercise 510 Ventilation 510 Whitewashing 511 Sanitation 511 Market Pork 512 Bacon Types 512 Lard Types 512 Pork Classified 513 Dressed Hogs 513 Grading Dressed Hogs 513 Pork Cuts 514 Lard 516 Curing Pork 517 Hams 517 Sausage 517 Part V. POULTRY The Breeds 518 Starting with 518 Classes 521 General Purpose Breeds 522 Plymouth Rocks 522 Wyandottes 523 Javas 523 Dominiques 524 Rhode Island Reds 524 Buckeyes 524 Orpingtons 525 Houdans . . 525 KEEPING. Meat Breeds 526 Brahmas 526 Cochins 527 Langshans 527 Dorkings 528 Cornish 529 White Indian 529 Egg Breeds 529 Leghorns 529 Minorcas 532 Black Spanish 533 Andalusians 533 14 TABLE OF CONTENTS Page Anconas 534 Redcaps 534 Hamburgs 534 Ornamental Breeds 535 Polish 535 Crevecoeurs 536 La Fleche 539 Games and Game Bantams. . . . 539 Bantams 539 Rose Comb Bantams 539 Incubation 540 The Hens 540 Eggs for Hatching 541 Color of Eggs 542 Operations 543 Periods of Incubation 543 Natural Incubation 544 Breeds Best for 545 Nests 545 Sitting Hens 546 Lice and Mites 546 Artificial Incubation 547 Machines 547 Hot-air 547 Hot-water 547 Burners 548 Chimney 549 Body 549 Nursery 550 Thermometer 552 Regulator 553 Moisture 557 Defects 557 Good Points 557 Incubators, How Operated. 557-566 Brooding 566 Natural Brooding 566 Brooders 567 Temperature 568 The Chicks 569 Feeding the Chicks 570 Care 575 Feeding Systems 575, 579 Dry Feeding 576 Mash Feeding 577 Other Feeds 578 Green Feed 573 Hay 573 Milk, Grits, Etc 579 Feeding Methods 580 Rations 58o Other Considerations 581 Broilers 582 Roasters 582 Notes on Egg Production 583 Authorities on Poultry 534 Fattening Poultry 584 Pen Methods 584 C ; at e 584 Machine 534 Page Hand 585 Feed 585 Poultry Houses 585 Location 586 Climate 586 Size 586 Roof 587 Ventilation 588 Fresh Air Houses 589 Floors 590 Walls 590 Perches 593 Nests 594 Dusts 595 Water 595 Authorities on Houses 595 Yarding 595 Turkeys 596 Wild 596 Mexican 596 Ocellated 596 Inbreeding 597 Market Weights 597 Standard Varieties of Turkeys. 598 Bronze 598 Narragansett 599 Buff 599 Slate 599 White 600 Black 600 Selecting Turkey Stock 601 Males 601 Females 601 Pairing 602 Insect Pests 602 Incubation 602 Brooders 602 Feeds 603 Dry Picking 603 Ducks . . . r. : 603 Varieties 603 White Pekin 603 White Aylesbury 604 Colored Rouen 604 Black Cayuga 605 Colored Muscovy 605 White Muscovy 605 Indian Runner 606 Gray Call 606 White Call 606 Management of Ducks 606 Buildings 607 Feeds 608 Grits 611 Incubation 611 Ducklings 612 Geese 612 Gray Toulouse 612 White Embden 612 Gray African 613 Brown Chinese 613 White Chinese 13 TABLE OF CONTENTS 15 Page Management of Geese 613 Mating and Setting 614 Feeding and Dressing 615 Guinea Fowls 616 Varieties 616 Habits 616 Feeds 617 Markets 617 Squab Raising 617 Houses 617 Xest Boxes 618 Fly 618 Pigeons 618 Breeding 618 Feeding 618 Killing 619 Dressing 619 Ostrich Farming 619 Eggs 619 Incubator 619 Feeds . . 619 Page Plucking 619 Handling 620 Profits 620 Capons and Caponizing 620 What Is a Capon? 620 Time to Caponize 621 Instruments 621 Markets 621 Picking 622 Dressing 622 Scalding 622 Packing 622 Bad Habits 623 Shipping 623 Deteriorated Eggs 623 Bad Eggs 624 Summary 625 Care of Eggs 625 Selection 625 Storing 626 Part VI. OTHER ANIMALS. Birds 630 Hawks and Owls 631 Warblers 632 Thrushes 633 Titmice 633 Swallows 633 Doves 634 Cuckoos 634 Woodpeckers 634 Nighthawks 634 Kingbirds 635 Phcebes 635 Crows 635 Meadowlarks 635 Catbirds 635 Robins 636 Blackbirds 636 Orioles 636 Bobolinks 636 Blue Jays 636 Quails 637 Grouses 637 Sparrows 637 Cranes 639 Herons 639 Birds as Insect Destroyers 639 Birds Protected from Man... 641 Birds Attracted to Farms 641 Crops Protected from Birds... 642 Farmers' Gain from Protection 642 Pheasant Raising 642 Species of Pheasants 642 Acclimatization 643 Methods of Propagation 644 Stock 647 Prices 647 Pens 647 Food 648 Care 648 Honey Bees 648 Apiaries 649 Bee Habits 649 Handling Bees 650 Honey Production 650 Other Animal Life 651 Toads 651 Bats : 652 Silk Worms 652 Deer 652 Silver Foxes 653 Elk 653 Mosquitoes 654-666 Horse Flies 666 Field Mice 667 Jack Rabbits 668 Rabbits 669 Rats 672 Prairie Dogs 673 Ground Squirrels 674 Coyotes 674 Gophers 675 Muskrats 675 Ants . 676 ILLUSTRATIONS VOLUME I. Page Judging Draft Horses 33 Swamp Fever in Horses. ... 51 Mule, Big, Type 51 Champion Hackney 60 Eastern Chunk 60 Barred Plymouth Rocks .... 69 Rhode Island Reds 69 Morgan Stallion 78 Express Horse, Type 78 Thoroughbred Stallion .... 87 Cavalry Horse, Type 105 Show Horse, Undefeated... 105 Hereford Bull 123 Jutland Cows 123 Brown Swiss Cow 132 Dutch Belted Cow 132 Red Polled Cow 132 Shorthorn Bull 141 Shorthorn Cow and Calf. ... 141 Clean Milk House 159 Cow Stable, Unsanitary.... 159 Polled Durham Bull 177 Polled Durham Cow 177 Large Slaughter House 195 Dirty Barnyard 195 Diagram of Cow 213 Feeding Rack for Sheep. ... 213 Clean Cows 223 Dirty Cows 223 Milk Pail, Combination.... 231 Clean Milking 231 Milk Cans Exposed 249 Milk House, Bad 249 Ayrshire Bull 267 Milk Pails 285 Dairy Barn, Round 285 Page Dairy Stable, Open 303 Texas Steer Geronimo 321 Experimental Herd of Sheep 339 Oxford Ram 357 Leicester Ram 357 Cheviot Ram 375 Lincoln Ram 375 Rambouillet Ram 393 Mutton Cuts 411 Shropshire Ram 411 Angora Goats 414 Prime Heavy Hogs 429 Lard Type Hogs 438 Chester White Sows 438 Loco Weed Disease 447 Hog House 447 Berkshire Hogs 465 Berkshire Sow 465 Large Yorkshire 483 Duroc Jersey 483 Cheshire Hog 501 Poland China 501 Ostriches 519 Maine Poultry Houses 537 Bee Hives 537 Black Langshans 555 Light Brahmas 555 Tamworth Boar 573 Hog Sick of Cholera 573 Sheep Barn 591 Brooder House 591 Great Horned Owl 608 Sheep Feeding Corral 626 Honey Comb Diseased 645 Common Toad 652 Round Up West 663 DOMESTIC ANIMALS, DAIRYING, ETC. PARTI INTRODUCTION. HORSE breeding is one of the most important lines of work that animal breeders of this country have undertaken. As all classes of people are largely dependent, and in the ma- jority of cases, entirely dependent upon the labor of horses for the necessities and comforts of life as well as many of its pleas- ures, the efforts of the breeder become of great importance not only to himself but to the country at large. A little improvement in the horses of a country may mean a considerable increase in the wealth and comforts of its people. The first systematic attempt to improve the horse came through a desire for larger animals for war purposes. When the war horse was required to carry a rider protected by heavy coats of mail and himself to be protected by heavy metal plates, it was found that larger animals were needed. Later, improvements were attempted to better fit the horse for pleasure and for agricultural purposes, which gave him greater speed, endurance and beauty, and also brought a greater degree of intelligence. These improvements were ef- fected largely through the importation into England of horses, mostly sires from the Orient. Godolphin Arabian (Barb.), Darley Arabian and Byerly Turk were among the most noted of these early importa- tions. The crossing of these sires on selected English mares together with the skill of the English breeder resulted in the production of the English Thoroughbred, which is distinctively a running horse. Through the Thoroughbred has been developed the American Thor- oughbred, notably of Kentucky, and the American Trotter. The Russian trotters have in a similar way been developed through the English Thoroughbred and by the importation directly into Rus- sia of Arabian horses that were crossed on selected Russian mares. Many of the improved breeds of horses owe much to the in- fluence of Oriental blood on the foundation stock of each breed. The characteristics that have been especially developed through this in- troduction are alertness, symmetry, or beauty of form, stamina or endurance and intelligence. Even many of the heavy draft horses 17 18 DOMESTIC ANIMALS, DAIRYING, ETC. of Europe, notably the Percheron, show a marked effect of the intro- duction of Oriental blood. The English Thoroughbred in many respects occupies a posi- tion in England quite similar to that of the American trotter in the United States. The Thoroughbred has been a potent factor in the development of the English breeds of light horses. So has the American trotter performed an important part in the production of the various classes of light active horses. THE AMERICAN TROTTER. Origin. As the thoroughbred originated in England to supply the demand for a perfect runrjing hor^e-for the sports of the English gentlemen, so has the trotter been developed in America for special work of fast driving upon the race track and road and for this purpose surpasses all other horses. The French and Russian trotters have been similarly developed in their respective countries and have become creditable performers, but at all distances the American trotters now hold the fastest records. The Narragansett pacers of New England were our first road horses but became practically ex- tinct, at the beginning of the nineteenth century. About the year 1788, when Messenger was imported, trotters were becoming popular and, since then, have been bred in increasing numbers and of grad- ually increasing speed. Messenger sired Mambrino and the latter Mambrino Paymaster and Abdallah and from these have sprung Mambrino Chief and Rysdyk's Hambletonian, respectively, both founders of noted families. The dam of Rysdyk's was the "Charles Kent Mare," sired by Bellfounder, a Hackney, foaled in Norfolk, England. The leading families are (1) Hambletonian, founded by Rysdyk's Hambletonian (Hambletonian 10), including such noted sires as George Wilkes, Electioneer, Happy Medium, Abdallah 15, Robert MacGregor, Almont, Belmont, Nutwood, Dictator, etc. (2) Mambrino Chief, including Mambrino Patchen, Clark Chief, etc. (3) Clay, founded by Andrew Jackson, and tracing to Arabian an- cestry and including, among the most noted, The Moor, Henry Clay, Young Clay, Pilot, etc. (4) Morgan, founded by Justin Mor- gan, of which Ethan Allen, Daniel Lambert, Ben Franklin, and General Knox are the most noted. (5) Pilot, the most noted of which was Pilot, Jr. The Hambletonian blood when fused with any of these has been especially prolific in producing performers. In the breeding of horses for the race track nearly everything has been sacrificed for extreme speed. This one requirement alone has been the leading factor. Beauty of form and of action become not only unnecessary qualities but positive hindrances in speed per- formances. The beautifully arched neck that is so highly prized in the carriage horse becomes entirely superfluous in horses main- tained for racing purposes. (Wis. B. 127.) THE HACKNEY. Origin. This breed originated in the County of Norfolk, Eng- land, through crossing thoroughbred stallions with Norfolk trotting mares which were then noted for speed and endurance. Darley BREEDS OF HORSES 19 Arabian, prominent as one of the founders of the thoroughbred, sired Flying Childers, the sire of Blaze. The mating of Blaze with Norfolk mares did much toward the production of the Hackney. Blaze sired Shales, the sire of Driver, the sire of Firefly, to which most of the noted Hackney's trace. Characteristics. The Hackney is a stoutly built, compact, smooth, strong-boned, muscular horse of proud appearance and a kind disposition. His plump, graceful appearance with perfectly curved outlines adapt him to carry a fine harness and to draw hand- some and fashionable equipage in the park or boulevard. He should have a clean cut intelligent head, neck strong and well arched but free from coarseness, shoulders smooth and oblique, body round, short and compact. Hips smooth, quarters plump with muscle, legs short, strong boned and flat. Hoofs symmetrical and of good quality. Action high, quick, elastic, regular, behind as well as in front, the hocks being perfectly flexed to correspond w T ith the extreme high knee action. The two words most perfectly describing the Hack- ney are smoothness and action. Common colors are bay and brown; height, 15.1 to 15.3 hands. Utility. The Hackney having been bred pure for over a hun- dred years possesses strong prepotency or power to transmit his own characteristics to his offspring and is therefore well fitted for mating with trotting mares, and mares of mixed breeding for the produc- tion of high stepping cob horses for city use. The mares to which he is bred should possess some of the characteristics of the typical Hackney. (Wis. B. 127.) FRENCH COACH HORSE. As indicated by the name, the breeding originated in France where for many years it was termed Demi-Sang, being a product of a cross between the English Thoroughbred and the native mares of France that had considerable Oriental blood in their veins. In 1780 the French Government assisted the Horse Breeding Industry of France and since that time has materially aided in the develop- ment of the French breeds of horses that have become so noted. To encourage the use of the best stallions and to discourage their ex- portation, the Government allowed annual subsidies ranging from $50 to $500 according to the breed and value of the individuals. Characteristics. The typical horse of this breed stands at least 16 hands high and weighs from 1,200 to 1,400 pounds. He is es- sentially a coach or carriage horse. He is more rangy in type than the Hackney, and has a graceful, free-moving gait; but does not possess the quick and extreme high knee action that is so char- acteristic of the Hackney. In other words it may be said that the Coach horse moves more slowly and with more dignity than the Hackney. Some of the horses of this breed are inclined to coarse- ness and are not so desirable for breeding purposes; those of the more refined type possessing considerable speed and of great pre- potence are most desirable. Utility. These horses are suited for the production of large, handsome coach or carriage horses. They should not be bred for ex- 20 DOMESTIC ANIMALS, DAIRYING, ETC. treme speed, nor for the more flashy qualities so characteristic of the Hackney. THE GERMAN COACH. This breed has been formed by mating the Thoroughbred with the native mares of Germany, some of which already possess some Arabic blood. It is said that horses of this type were found in Germany early in the 17th century. Characteristics. These horses are usually of solid colors, black brown and bay predominating, but sometimes chestnut or sorrel. They are 16 hands high or over, and should weigh from 1,350 to 1,550 pounds. As compared with the French Coach, there is a tendency towards coarseness particularly in the bone below the knee. The action of the two breeds is quite similar, although the German Coach is usually heavier and stronger. PERCHERON. This breed takes its name from the District of La Perche in France, which is now the chief center of the Percheron industry in France. This district has long been known as the home of the Percheron horse. The breed originally derived its weight and size from the black horses of Flanders and its style and quality from the Oriental breeds, notably from the grey Arab stallions Godolphin and Gallipoli. Early in the history of the breeding these horses were used for coach and bus work, but with the increase in weight and larger bone they have become one of the most useful and noted draft breeds. Grey was the original color, but recently black has become quite common ; although it is not so usually transmitted as the characteristic grey of the purer Percherons. Characteristics. The Percheron stands 16 hands high or over, and weighs from 1,700 to 2,200 pounds. He has an intelligent head and of a type peculiar to this breed ; eyes and ears are rather small, strongly muscled neck, well formed shoulders and chest, round body, strong back, heavy quarters and somewhat drooping croup, which sometimes is a defect. The Percheron is usually a low down, blocky, clean limbed horse, having well shaped sound hoofs. The pasterns in some individuals is inclined to uprightness and is one of the most common defects. The action of the Percheron is usually fast at a trot for a horse of this size. He has a fairly straight and sprightly walk. Utility. The Percheron breeds quite as true to breed type as any of the draft breeds, although individual prepotency is often lack- ing. This horse has become popular on account of his gentle dispo- sition, easy keeping qualities, clean hairless legs and general adapt- ability for farm and city purposes. (Wis. B. 127.) THE CLYDESDALE. This is the draft horse breed of Scotland, and there has been bred pure for many generations. This breed originated in the County of Lanark, frequently called Clydesdale District. At the present time this breed is well disseminated throughout the country. In the formation of this breed the heavy black Flemish horses were among the most noted of the foundation stock. Records of this BREEDS OF HORSES 21 breed have been kept since 1715. The Clydesdale District has proved to be particularly well adapted for the production of large draft horses possessing an exceptional quality of bone, muscle, tendon and hair. The characteristics coupled with the hardihood, activity, vigor and endurance have placed the Clydesdale with the foremost rank of draft horses. Characteristics. The typical Clydesdale stands 16 hands high or over, and weighs from 1,800 to 2,200 pounds. He is in color bay, brown, black or chestnut with white markings. The head is usually of good shape, neck of fair length, arching and muscular. Horses of this breed are noted for the sloping shoulders and oblique pasterns. Horses of this breed are fast walkers, due to a long, springy stride at this gait. Compared to the Percherons they are quite as fast at the walk due to the long stride, while the Percheron has the quicker step, the Clydesdale has the longer. As a fast walk- ing pace is the chief requisite as regards the action of heavy draft horses, this has made the Clydesdale favorites. (Wis. B. 127.) ENGLISH SHIRE. The heavy black stallions of Flanders used upon the large native mares of the Fen counties of England, notably Lincoln, Kent, and Cambridge, founded this breed of draft horses many years ago. This breed is still bred pure and has been greatly improved in many particulars. In color the horses of this breed are now mostly bay or brown. Characteristics. The typical size horse is of great weight and power. He is more massive than the Clydesdale, but possesses less quality. His body is usually deep, broad and round with strong coupling, thighs and quarters heavily muscled. While powerful he is slow in action and sluggish in disposition. Compared to the Clydesdale the shoulders and pasterns are more upright and the hair somewhat closer and in general it tends to show more coarseness. The size is sometimes spoken of as a ton horse as many individuals exceed this weight, (Wis. B. 127.) BELGIAN DRAFT. Blending together the blood of the Flemish Brabancan and Ardennais horses have formed in Belgium a breed of draft horses known as the Belgian Draft. The breeding of these horses forms an important source of income of the Belgian farmer, and the Govern- ment aids this business by subsidies and supervision. Characteristics. The typical Belgian Draft is a blocky, wide, heavy horse having short clean legs, his neck often inclined to coarse- ness and his croup sloping often to a defect, while his pasterns are apt to be upright and his feet somewhat steep. As a rule the Belgian horse, when out of condition, is perhaps more readily and quickly fattened than any other breed. This makes them popular with the professional horse feeder who prepares them for market. There seems to be no standard color for the breed ; bays, browns and roans are common. (Wis. B. 127.) PONIES. Ponies of various grades and breeding are frequently found on 22 DOMESTIC ANIMALS, DAIRYING, ETC. the market and are usually bought for the use of children and ladies. The distinguishing characteristics separating ponies from horses are not easily described; yet, to the trained eye, the line of division is fairly distinct. The principal distinguishing features ac- cepted by most authorities is that of height, a pony being 14 hands or under. Sometimes there are dwarf horses without pony blood that come within these limits, but usually they lack pony character- istics, some of which are a deep, round body, with heavily muscled thighs and quarters, croup not dropping, and width well carried out. These the small horse does not usually possess. Ponies are essentially children's horses, and because of this must be kind and gentle in disposition, but with as much spirit as is compatible with gentleness. There are no special requirements for weight. Like horses, they should be straight line movers and the greater knee and hock action they possess the greater will they be appreciated and higher prices secured when they are placed on the market. The Indian Pony. The Indian pony, or the Cayuse as it is sometimes called, is larger and a descendant from the native range stock. These animals are classed on the market as range ponies. They are hardy and can endure a great privation if necessary. It is stoutly maintained that they are able to perform long continued hard labor with less food than almost any other type of horse. Range Horses. Range horses are sold on the market in two gen- eral classes: as light and as heavy, according to the predominance of light or draft horses' blood. Most of the range horses find their way to the country where they are usually broken, and when edu- cated some of them are returned to the market to fill the demand for some of the commercial classes. Cheap farm horses for the most part remain in the country and seldom find their way to the great commercial markets, where better classes of horses are in demand. As these horses are worth more to wear out on the farms than for any other purpose, they usually remain in the country. (111. B. 122.) HORSE BREEDING. Selection of Breeding Stock. The general principle of hered- ity is that like produces like. This principle or recognized law of transmission is without doubt adhered to more closely by stock breeders than any one recognized law or principle of breeding. There are departures or exceptions to this rule, but it proves true in the majority of cases, or else there would be no continuity of species. If this were not true wheat might produce corn, corn produce bar- ley, etc. It should be remembered, however, that bad points are quite as likely, or in fact more likely, to be transmitted than are good ones. As the good points so highly prized in our improved breeds have been secured by man through his skill in feeding and breeding and therefore are not so firmly fixed as some of the less desirable points which were original traits or characteristics of the unimproved stock, from which our animals have descended, it is a serious but common error in breeding to suppose that the bad points of one animal can be fully off-set or overcome by the good points BREEDS OF HORSES 23 of the other mate. This might sometimes happen, however, if the animal possessing the good points would transmit its own character- istics with greater certainty, and therefore become prepotent, than the animal possessing the undesirable points. The true principle of successful breeding is to mate two animals that are each as nearly perfect as possible. Faults in one animal are not to be offset by choos- ing the mate that is abnormally developed in the contrary direction. By mating with an animal perfect in the point where the other is imperfect, there would be greater likelihood of success. For ex- ample, if the mares in a particular stud are lacking in size and qual- ity of hoofs, the proper way to correct the fault is to persistently breed to sires that have perfect hoofs, and not to use sires that have ab- normally large hoofs. It is for each breeder to decide what he de- sires to breed, after this he should select mares as nearly like his ideal as circumstances will permit, and then mate them persistently with the sires of like type and known pure blood. As the female progeny shall come to the age at which they may be bred, they should in turn be bred in a similar manner, as that just described, selected pure bred sires in all cases should be used. The first progeny is called one-half blood ; the half-blood when bred to the pure Wood sire pro- duces three-quarter blood; and with each successive generation the probability of securing progeny that resembles that pure bred sire is increased. If we consider but a moment the fact that whenever we trace back the complete pedigree of any animal for ten generations we have encountered over two thousand ancestors, we sometimes wonder that so good results are secured. With this brief reflection we cannot fail to be impressed with the importance of selecting ani- mals so far as possible, particularly the sires, that have been bred true to type for many generations. In the successful breeding of horses, as in other classes of live stock, there is but one course to be recom- mended. Choose well the breed that you will select and then persist in using nothing but pure bred sires of the type which has been de- cided upon. Importance of Soundness. It is of great importance that the mare should be free from all forms of unsoundness or diseases that are hereditary, transmissible, or communicable to the offspring. It is also of great importance that the mares should be sound, and not until both mares and stallions used for breeding purposes are free from unsoundness can we hope with any degree of certainty to raise the average excellence of the horse product of the country to the highest plane possible. An error is sometimes made by breeders in breeding from mares with bony diseases, as spavins, ring bones, etc., thinking that no danger can come from such mating as these diseases are not inherited. The error, however, lies in the fact that the weakness in the parent which causes this bony disease to appear is likely to be transmitted in the off-spring; although the diseases themselves are not transmitted. It sometimes happens that a mare may be maimed and incapacitated for work through accident and still be as valuable for breeding purposes as though the accident had not occurred. So on general principles it may be stated that blem- 24 DOMESTIC ANIMALS, DAIRYING, ETC. ishes and deformities due to accidental causes are not transmissible, and do not therefore render the individual animal unfit for breeding purposes. In this list may be placed unsightly scars from barb wire and other fences or some other accidental cause, blindness due to ac- cident, fractures imperfectly united, etc. The greatest possible care should, however, be exercised in deciding these matters, and where possible, it often is the best policy to select for breeding purposes animals that are in the best of health and free from every form of blemish or unsoundness. We often hear it said in this connection by farmers of limited means that they cannot afford to go to the expense of securing a better class of breeding stock than they now have. But when we consider that the expense and care of rearing to the market age an inferior animal is practically the same as that of a valuable one, the question will naturally arise can they afford to raise the inferior one at all? This question, however, is for each breeder to decide for himself. Uniformity in Breeding. There has been a general lack of uniformity and consistency in the breeding operations in many local- ities where somewhat spasmodic attempts have been made to improve domestic animals through breeding. Many horse owners have at- tempted to improve their horses by what is known as the process of grading-up ; which is mating Thoroughbred stallions with the mares of common stock or mixed breeding until the blood of the pure breed predominates over that of the native stock. Without doubt every step taken in this direction has been well intended, but the desired results are rarely secured unless this method of breeding is persisted in ; that is, by using sires of the same breed for successive generations. Many breeders have commenced right, but through various causes have failed to continue sufficiently long the good plans which they commenced. Unless the plan is carried far enough so that the pure blood predominates in a large degree over that of the native stock or of mixed breeding, the best results will not be realized, except possibly in rare instances. Cross-bred Sires Unreliable. The offspring of two animals of distinct and different breeds is termed cross-bred. In a cross-bred animal we have distinct and different breed tendencies and prepo- tencies that have been merged together, and the identity of each dis- tinct breed has been lost. These breed tendencies and prepotencies in the cross-bred animal may be said to be mixed rather than blended; consequently the cross-bred sire lacks the well fixed pre- dominating tendencies that we hope to find prepotent in pure bred sires. While this cross-bred animal may possess fine appearance and individual excellence, yet it should not be expected that he will be able to transmit his own individual excellence. Cross-bred sires should not be used for breeding purposes, as such animals have no prepo- tency in the particular line for the production of a specific breed character. Grade Sires Objectionable. In the process of grading-up, the first progeny from the mating of a pure bred sire and the native or scrub mare is a half-blood ; if the half-blood is mated with a pure BREEDS OF HORSES 25 blood, the progeny would be a three-quarter blood; and each suc- ceeding mating in this manner would reduce the amount of native or scrub blood by one half. From the first mating, which produced the half-blood, to that after successive generations where the native or scrub blood is very slight, the animals thus produced are called grades. As long as the sire contains native or scrub blood, one can- not feel sure that this undesirable native or scrub blood tendency will not be manifest at any time. Of course, the chances of its being manifested are lessened as the quality of scrub blood is reduced, yet horse breeders do not feel warranted in ever assuming any unneces- sary risks. We should not forget that the offspring of a grade sire with a grade female makes no advance in breeding, the result in progeny as a grade. The object of the horse owner who is breeding grades should be to breed higher grades in each successive generation. In all of our pure breeds prepotency is a fixed character to a greater or less degree. Grade sires on the contrary lack both breed and indi- vidual prepotency, and therefore should not be used for breeding purposes. Value of a Pedigree. The pedigree is simply a record showing the animals that have in succession entered into the breeding of the individual in question. It also shows that the animal belongs to a distinct breed possessing to some extent at least the prepotency of the breed. It should also guarantee to some extent individual prepo- tency. To insure both breed and individual prepotency, the pedi- gree should contain the record of animals having individual excel- lency both as near and distant ancestors. This condition should exist on the dam's side as well as on the sire's side of the pedigree. A pedigree tells the story of the animal's breeding and is of value according to the story that it tells. If it tells that many excellent animals occur all along the line both as near and remote ancestors, the story is a good one ; if but few excellent animals are in the record and they are very remote, the pedigree can not be said to be desirable. Importance of Liberal Feeding. In the improvement of our domestic animals breeding and feeding have gone hand in hand wherever marked success has been attained. Almost without excep- tion a considerable part of the improvement has been due to the skill of the feeder. One is almost sure to fail of success if he depends upon blood alone in the improvement of his stock. The use of an im- proved sire endows the progeny with a propensity to develop char- acter and qualities akin to his own and of the breed he represents, but these desirable qualities can not properly develop unless the progeny is given suitable food, care and shelter. The negligent farmer is careless of his stock and maintains them under conditions in which lasting improvement is impossible. Should he introduce improved blood in his flock or herd, as the case may be, without improved feeding and care, improvement will be noticed for a time, but will gradually disappear until it sinks to the level that his food and care will maintain. As the spring will not rise higher than its source, so neither can improved breeds be maintained at a higher 26 DOMESTIC ANIMALS, DAIRYING, ETC. state of efficiency than food and care which they receive will support. (Wis. B. 127.) THE STALLION SITUATION ABROAD. It may be asserted as a fact that in all foreign countries noted for one or more pure breeds of horses, practically no scrub, grade, or non-registered stallions are used for public service, and some of the foreign governments prohibit the use of such horses. The French Government for over a hundred years has main- tained stables of carefully selected, sound, pure-bred stallions for breeding purposes. The best stallions in France are annually chosen for use in these studs, and since 1885, when a government decree to that effect was promulgated, all stallions not coming within special classes have been excluded from public service. The classes referred to are selected by government veterinarians who inspect all horses and grade them as follows: Subsidized class, comprising stallions of a certain standard and for each of which a cash bonus of from $60 to $100 per year is paid to the owner to keep the animal in the country for use by owners of mares; Authorized class, comprising horses of slightly lower quality that are authorized, after passing inspection, by a card certifying them as recommended by the Gov- ernment for use as sires; Approved class, comprising a few horses permitted to stand for service, but not granted a bonus or recom- mendation card. In Belgium the Government has, since 1850, maintained a great horse breeding establishment and promotes the breeding of pure-bred Belgian draft horses (Le Cheval de trait Beige) by an annual grant of $5,000 to the official draft horse registration society, and an annual appropriation of $70,000 to encourage the horse breeding industry of the country. Liberal prizes are awarded to mares and foals at shows throughout the country; stallions are officially examined by Government experts, and both approved stallions and mares are granted maintenance bounties to retain them in Belgium. Under such auspices horse breeding is making won- derful progress and only pure-bred stallions are in use for service. In Germany Government supervision of horse breeding has obtained for centuries and today is similar to that in vogue in Bel- gium, it having been required by law that no permits should be issued authorizing the use of stallions, unless they passed a satisfac- tory Government inspection. At the present time both the Govern- ment and agricultural societies promote intelligent horse breeding. Prizes are awarded for animals of special merit, and such animals must remain in the country for a specified term. First prizes are awarded only to mature horses and mares that have shown merit as breeders. Stallion shows have long been held at Aurich in East Friesland, where the horses are brought annually for inspection and approval. Prizes for brood mares are also awarded by the Government. Somewhat similar supervision of horse-breeding matters is under- taken by the Government of Austria and large sums of money are BREEDS OF HORSES 27 annually devoted to the encouragement of the breeding industry. In Great Britain practically all farmers recognize the importance of using pure-bred sires and only such are used in the various dis- tricts, whence come the many well-known British breeds of horses. In Scotland only one non-registered stallion has, since 1900, been reported as being used for public service in that country. The reasons for non-use are that it does not pay to breed from such horses, their stock being ineligible to record and as a rule inferior to horses of approved breeding. The uniform experience of breeders and owners of Clydesdales in Scotland is that during the period of systematic breeding with the guidance of a pedigree record that is since 1878-1879 the average quality of the stock has increased in- respect to uniformity of type, soundness of feet and limbs, and gen- eral wearing capacity. (Wis. B. 158.) MARKET HORSES. For a number of years there has been an increasing demand in the United States for the various classes of work horses. As these horses have been bred more extensively in certain parts of the Mis- sissippi valley than elsewhere they have for the most part passed through some of the large cities where open markets have been estab- lished, in which horses are bought and sold as a commercial com- modity at values regulated by supply and demand. It should not be inferred, however, that the supply equals the demand, particularly as regards the quality or perfection of the animals desired by the purchaser, neither is this condition of affairs likely to be realized for years to come. There are two causes which tend to delay the breeder in fulfilling the demands of the prospective purchaser. First, many horses that eventually find their way to the market were not bred for any particular class, in other words, many breeders have not been striving to produce horses that would meet any particular market requirements, consequently many, horses pass through these markets that fall far below the expectation of the intending purchaser; second, the horse market is of such re- cent origin that the standards set and classes made by these open public markets are not clearly understood by all breeders whose horses eventually find other owners through the medium of the markets. While horses cannot be classified in the market as definitely as can some other market commodities, for where two classes meet there is no distinct line of division, yet the establishment of these classes has made it possible for the farmer to better understand the use for which his horses are best adapted and also enables him to better estimate their true value. No better advice can be given the farmer and horse-grower than to become better (best) posted as to the requirements of the horse markets. The average farmer now understands well enough how to raise horses of the best breeds, but he may not understand that cer- tain markets are steady in their demands for horses of certain types, breeds or ages. By studying these markets he learns what is wanted. 28 DOMESTIC ANIMALS, DAIRYING, ETC. A BRIEF STATEMENT OF MARKET CLASSES WITH LIMITS IN HEIGHT AND WEIGHT. Classes. Sub-Classes. Height Hands. Weight Pounds. rLight Draft 15-3 to 16-2 1600 to 1750 DRAFT TTfYRSFS Heavy Draft 16 to 17-2 1750 to 2200 Loggers . , 16-1 to 17-2 1700 to 2200 CHUNKS. 'Eastern and Export ) Chunks I Farm Chunks 15 to 16 15 to 15-3 1300 to 1550 1200 to 1400 Southern Chunks 15 to 15-3 800 to 1250 ["Expressers 15-3 to 16-2 1350 to 1500 Delivery Wagon 15 to 16 1100 to 1400 WAGON HORSES. Artillery Horses 15-1 to 16 1050 to 1200 Fire Horses 15 to 17-2 1200 to 1700 r Coach 15-1 to 16-1 1100 to 1250 Cobs 14-1 to 15-1 900 to 1150 CARRIAGE HORSES. - Park Horses 15 to 15-3 1000 to 1150 Cab 15-2 to 16-1 1050 to 1200 ["Runabout 14-3 to 15-2 900 to 1050 ROAD HORSES. H Roadster 15 to 16 900 to 1150 SADDLE HORSES. 'Five Gaited Saddler Three Gaited > Light ) Saddler ] Heavy j (Light ) Hunters j Middle V ( Heavy ) Cavalry Horses 15 to 16 14-3 to 16 15-2 to 16-1 15 to 15-3 900 to 1200 900 to 1200 1000 to 1250 950 to 1100 Polo Ponies 14 to 14-2 850 to 1000 MINING MULES 12 to 16 600 to 1350 COTTON MULES 13-2 to 15-2 750 to 1100 SUGAR MULES 16 to 17 1150 to 1300 FARM MULES 15-2 to 16 900 to 1250 DRAFT MULES . 16 to 17-2 1200 to 1600 (111. B. 122.) BREEDS OF HORSES 29 MARKET REQUIREMENTS. The factors that determine how well horses sell upon the mar- ket are: Soundness, conformation, quality, condition, action, age, color, education, and general appearance. To meet the market de- mand, a horse should be serviceably sound, by which is meant one that is as good as a sound horse so far as service is concerned and able to do a reasonable amount of work without undue fatigue or indications of a premature break-down. He may have slight blem- ishes, but nothing is permitted that is likely to cause lameness or soreness in any way. He must be good in wind and eyes, but may have small splints and puffs, and a little rounding on the curb joint. Broken wind, thick wind, side bones, unsound hocks such as curbs, spavins, and thoroughpins, large splints, and buck knees are dis- criminated against. If a horse is to do hard work with a minimum amount of wear and give the longest possible period of service he must possess a conformation indicative of strength, endurance, and longevity, the indications of which are good feet, a good constitu- tion, good feeding qualities, good bone, and symmetry of confor- mation. For city use too much emphasis can hardly be placed upon the requirement of good feet, for the old adage, no foot, no horse, is still true ; but in horses for farm use it is not so important as they rarely break down in the feet. A good constitution denotes health and endurance which is indicated by a deep, capacious chest giving sufficient room for well developed vital organs. Endurance is also evidenced by the indications of a good feeder, which are a short well muscled back and loins, a deep barrel with no tucking up of the rear flank, and closely coupled (coupling is the distance from the last rib to the hip). A good bone should have enough weight to correspond with the size of the horse ; it should be of good quality and must not be unduly small at knee or hock. Symmetry of form is necessary for strength, correct proportions, and perfect devel- opment. In order that there may not be an undue amount of concussion which would produce soreness or disease and render the period of usefulness of the horse short, he should have an oblique shoulder, a rather short cannon, a moderately long pastern set at an angle of about 45 degrees. The hind pastern should be less oblique than the front pastern with no tendency toward a conformation known as coon footed (long and very low pasterns). The foot should be of good size, the horn dense, the heel wide and high, permitting a large healthy frog to serve as a cushion in breaking concussion. Side bones are an unsoundness found most commonly on heavy horses. They are more often found on a horse with a straight shoulder, a short, straight pastern, and a narrow hoof head, as horsemen would say, a post leg that produces stilted action. Since the forequarters or front limbs of a horse carry the greater part of the horse's weight they are often termed the weight carriers, and the hind quarters the propellers. Because of this fact the set of the shoulder, pastern, and foot is of great importance and should pos- sess enough obliquity to give a free, easy movement to the action. 30 DOMESTIC ANIMALS, DAIRYING, ETC. The width of the hips should be in keeping with the other parts of the horse, but not prominent. The croup should be long, well mus- cled and not too drooping. The seriousness of the objection to a drooping croup will depend upon the class, but in any class it is unsightly and detracts from the value of the horse. The tail should be set high, well haired and stylishly carried. The quarters and thighs should be heavily muscled according to the class to which the horse belongs; the hocks large, strong, and free from puffs or any unsoundness ; the cannon short and broad, the tendons and liga- ments prominent and well defined. There should be no tying-in of the tendons below the knee or hock, because it gives a light appear- ance to the bone. The head should be of moderate size with clean cut features ; large, mild eyes ; ears rather small and set not too far apart. The head should be properly set on a neck of moderate length with a rather thin, well developed crest. A large horse with a small head is almost as unsightly as a small horse with a large one. A long- legged, narrow-chested, wasp-waisted, loose-ribbed, long-coupled horse is always to be avoided and is a cheap animal on the market. The different classes possess special requirements of conformation which will be discussed in detail elsewhere in this bulletin. Quality. Quality in a horse is of prime importance. This term when applied to horses has reference to their bones, skin, hair, and muscles. Its presence is shown by clean cut features of the head ; firm, clean bone ; tendons well defined ; close fitting glove-like skin; hair fine and silky; an abundance of finish; and absence of coarseness, but not necessarily a small bone. When slightly exerted the skin will show clearly an intricate net work of veins. Coarse hair is usually associated with a coarse skin and a soft spongy bone which is weak and subject to disease. With quality the muscles stand out prominently and are clearly defined which aids in giving a horse finish. Quality is a strong indication of the extent of a horse's endurance. These two characteristics are closely associated and a horse lacking in quality is comparatively a cheap animal. Condition. To be appreciated on the market horses must be in good condition, carrying a thick covering of firm flesh and pos- sessing a good coat of hair which gives them a sleek appearance. Condition is most important in heavy horses such as draft horses, chunks and wagon. Some men are making good profits by buying feeders on the market and shipping them to the country to be put in condition, after which they are reshipped and resold. Whether or not this added flesh increases the animal's real value for utility and longevity is not necessary to consider here; since the market de- mands it, the producer can well afford to supply it. Careful esti- mates on the value of horse flesh made by reliable authorities, put it at 25 cents per pound on heavy horses weighing 1500 pounds and upward. This fact has been verified by an experiment in fattening horses for market conducted at this station. It can readily be seen that the producer cannot afford to let some one else reap this profit. Action. The action of a horse is not of equal importance in all classes. There is probably no other one thing that counts for BREEDS OF HORSES 31 more in bringing high prices in the carriage, road, and saddle classes than action. In the other classes it does not count for BO much, but every horse should have good action. He should be a straight line mover, picking his front feet up and carrying them straight forward, placing them down again without winging out or in, or interfering. The hind feet should follow in the line of the front feet, and work in unison without interfering, hitching, cross- firing, or forging. The action should be strong, bold and full of energy ; the form and height of action will depend upon the class to which the horse belongs. This subject will be taken up more fully under various classes. Age. Horses sell best from five to eight years old, depending upon the class, maturity, and soundness. Heavy horses such as draft and chunks sell best from five to seven years old, but a well matured four-year-old in good condition will find ready sale. Car- riage, saddle, and road horses sell better with a little more age be- cause they do not mature so early and their education is not com- pleted as young as with heavy horses. They are most desired from five to eight years old. Color. As a rule the color of horses is not an important re- quirement if they possess individual excellence. Almost any solid color is not objected to on the market unless it is by a purchaser who has a special order to fill. However, more discrimination is made against color in light horses than in heavy horses. The rea- son for this is that the one is for business and utility purposes, while the other is principally for dress and pleasure. There is also more discrimination made in color of animals that grade as choice than there is in those that grade as medium and good. All solid colors except white are in good demand, while a flea-bitten gray, a mealy bay or one that will fade or wash out is not desirable. Choice steel gray, dapple gray, and strawberry roan horses of the draft, eastern chunk and wagon horse classes are in strong demand from show- men, pnckers, brewers, wholesale mercantile houses, and firms who want their teams to attract as much attention as possible and serve as a walking advertisement. The demand is good for bays, browns, blacks, chestnuts, sorrels, and roans; matched pairs sell better than single horses. In the light horses, and especially in the carriage and saddle classes, bays, browns, and chestnuts sell best, but a good pair of well matched blacks or iron grays find ready sale. In the fashionable trade a white horse is not wanted except for hearse pur- poses and to fill an occasional demand for a cross match coaching team. A more popular hearse horse is coal black with no white markings, and he must also have a long flowing tail. Occasionally they are accepted when slightly marked with white which is less objectionable on the hind feet than in the face or on the front feet. Education and Disposition. Every class calls for a horse of good disposition and well educated for his work. If it is a draft horse he should be a^free worker and a good puller, free from vice and bad habits. If it is a carriage horse the requirements are the same but he should be much better educated and mannered, and should be 32 DOMESTIC ANIMALS, DAIRYING, ETC. indifferent to sights and sounds such as cars, automobiles, etc., which frighten many horses. It is readily apparent that a thor- ough education is much more necessary in some classes of horses than others, for on the crowded city streets where there are often large numbers of pedestrians it is quite necessary and essential that a horse should "keep a level head." Sex. Sex is not of great importance in the market; however, geldings sell better than mares for city use, as there is some liabil- ity of mares being in foal, and if not, the recurrence of heat is ob- jectionable; but for farm use and the southern trade, mares are pre- ferred because farmers buy horses with the expectation of breeding them. Breed. The breed to which a horse belongs has but little in- fluence upon his market value as long as he has individual excel- lence; possessing this he will always find ready sale at a good price. Some buyers, however, do discriminate against certain breeds, claiming they are more subject to ills and lack stamina; hut this is likely to be due to individuality more often than to breed. If a horse belongs to the draft or chunk class (Southern chunks ex- cepted) he is the more appreciated by buyers if he shows evidence of a predominance of draft blood. General Appearance. The general appearance of horses has much to do with their market value. If able to shape themselves well in harness very plain horses often make a stylish showing and enchance their value materially. They should be spirited and energetic, which generally comes from being well fed. They should be well groomed, the hair short and sleek, lying close to the body and possessing a lustre which is indicative of thrift. Clipping of the foretops and limbs should not be practiced as it is an indication of staleness or second-hand horses. The presence of the foretop and feather leaves no doubt as to the freshness from the country. An exporter remarked to the writer that for foreign trade it de- preciated a horse $25.00 or more, to remove the foretop. The pull- ing of the mane and docking of the tail should not be practiced as this is the business of the dealer who caters to a certain class of trade. The feet should be in good condition, solid, and of a good length hoof, which is necessary to hold a shoe. It must be perfect- ly evident that if a dealer retains a horse until he grows good feet before being consigned to the market he must be bought corres- pondingly cheap to recover this loss. MARKET CLASSES. A market class is an outgrowth of a demand that exists for horses of a certain well defined, specified type, height, weight, con- formation, and action. If a demand for a certain class should cease to exist then there would no longer be such a market class; or if there should arise a new and sufficient demand for a certain type of horse, then there would be created a new class. The use to which they are put, in a large measure, is responsible for and determines the different market classes. On the Chicago market, which is the largest horse market in the world today, are found six distinct mar- 8 Cfl BREEDS OF HORSES 35 ket classes, and these classes are divided into sub-classes which are again divided into grades. The classes are draft horses, chunks, wagon horses, carriage horses, road horses, and saddle horses. The class embodies groups of horses of a general type, while the sub-class is a division of the class and distinguishes horses of a similar type but slightly different in size, weight or use to which they are put. The grades (choice, good, medium, common, and inferior) of the various sub-classes refer to quality, conformation, action, and condition, the relative importance of which are not the same in all classes. In draft horses, chunks, and wagon horses, the relative importance of the factors are as in the order named; qual- ity, conformation, condition, style, and action; while in the carri- age, road, and saddle horse classes quality is followed by action, conformation, and condition. A horse to grade as choice must ap- proach the ideal type of conformation, possess quality and finish to a marked degree, have style and action, be sound and in good con- dition. A good horse should possess the essential qualities of his class but need not have the fineness of finish, quality, style, action, and condition necessary to grade as choice. A horse of medium grade is likely to be plain in his make up with a tendency toward coarseness and there is evidence of lack of quality, finish, and sym- metry. In the case of a light horse it might be his action that would place him in this grade. Common is the lowest grade found in most of the classes. Such a horse is wanting in most of the es- sentials that go to make him desirable. An inferior horse, as the name indicates, is of the lowest grade. (111. B. 122.) Draft Horses. Draft horses, whose principal work is to haul heavy loads at the walk are divided into three sub-classes: Heavy Draft, light Draft and Loggers, all of which are much of the same type. The ideal Drafter is a rugged, heavy set, compactly built horse with great weight and strength. Strength and endurance are the principal equalities sought and are best secured by the horse throwing weight into the collar rather than by muscular exertion of the limbs. The Drafter should be a broad massive individual with symmetry of bone and muscle, standing from 15-3 to 17-2 hands high and in good flesh weighing not less than 1600 pounds for the lighter sorts. Since he does his work by throwing weight into the collar the heavier the horse, other things being equal, the more efficient he will be. Along with weight he should possess moderately heavy bone with quality, indicating sufficient strength and substance to carry his body and not give the appearance of being top heavy. His height should result from depth of body rather than length of leg ; in fact as a rule the medium short legged horses possess more endurance than those with long legs. He should be broad of chest with a large girth and not cut up in the flank. His legs should set well under his body, for if they are otherwise and he is very broad he will likely be inclined to roll, causing laborious action. The back and coupling should be short and the loin broad and well muscled, this region being the connect- ing link joining the propellers to the weight carriers. The hips 36 DOMESTIC ANIMALS, DAIRYING, ETC. should be rounding and smooth; the croup, long and muscular; the quarters, deep; the thighs, broad; the gaskins and cannons relatively short. The head should be medium in size and neatly set on a neck of good length with crest moderately heavy. (111. B. 122.) Action. The walk is the principal gait to be considered with Draft horses since they are not often required to do their work at a faster gait. The action should be straight, smooth, and regular; the stride long and open, full of energy and ambition, making them fast walkers, and enabling them to cover considerable ground in a short time. The trot is important principally as an index to the action and ease of deportment. An awkward horse or one that is not a line mover, or has some defect in his gait usually shows it more readily at the trot than at the walk. Demand. Draft horses are used by wholesale mercantile houses, packers, brewers, coal dealers, contractors, lumbermen, and firms having heavy teaming work. They are in demand in all large cities, New York, Chicago, Boston, Philadelphia, and Buffalo being especially active in the trade. The supply is much short of the demand, causing sharp competition and consequently Drafters are bringing good prices on the open market. CHUNKS. Usage has fixed the name of this class, which is significant of the conformation of the horse rather than the use to which he is put. However, the prefix given in the sub-class is rather indicative of his use. Chunks are divided into three sub-classes, Eastern or Export, Farm and Southern. At one time this class was known as Boston Chunks, but as the trade has widened to other cities and some exported, they are known by the general name of Eastern or Export Chunks. They are most generally used in pairs or three abreast to do the same work as Draft horses; but may be used in pairs, in a four-in-hand or six-in-hand team. Conformation, Height and Weight. The Eastern or Export Chunk is for the most part much the same type of a horse in con- formation as the drafter with the exception of size, he being a little more blocky and compact. He stands from 15 to 16 hands high, usually not over 15-3, and weighs from 1300 to 1550 pounds, de- pending upon size and condition. His neck is often short, a little shorter than that of a Drafter, and his bone a little lighter, though this is not a requisite. Action. Being required to do their work mostly at the walk their action should be similar to that of a draft horse. The walk should be elastic, quick, balanced, straight, step long, trot regular and high without winging, rolling, interfering, or forging. Demand. As the name implies Eastern or Export Chunks are bought for the trade of eastern cities and for export. The demand is strongest during March, April, and May ; but they usually bring good prices through the fall and winter months, from October on. There is a good demand for those that grade as good and choice, but, as a rule there are enough of this class of horses in the general supply found on the market to meet the demand. BREEDS OF HORSES 37 FARM CHUNKS. Horses of this type may be found on the market at all seasons of the year, but during the spring months they form an important feature" of the trade. They are bought to be used on the farm and are in most urgent need during the season when crops are being planted. They are usually of mixed breeding, draft blood pre- dominating and commonly known among farmers as all purpose horses. Mares are more generally taken than geldings. Conformation, Height and Weight. For this class low down blocky horses are wanted, not so heavy as the eastern Chunks. Farm Chunks are usually lighter in bone and often slightly blem- ished or unsound. Since farmers do not usually care to pay for high priced horses they are often compelled to accept those with slight injuries such as small side bones, curbs, wire marks, etc. In general the typical Farm Chunk should be a moderate sized, all- round good individual, standing from 15 to 15-3 hands high and weighing from 1200 to 1400 pounds. Action. Being lighter horses than the Eastern Chunks they should be a little quicker and more active on foot. The varied use to which horses are put on the farm requires that they be able to trot readily if necessary. However, since the walk is their most im- portant gait, they should be good walkers and do it with ease and rapidity when drawing a load. Demand. Farm Chunks are in strongest demand during the spring months of February, March, and April. During the re- mainder of the year they are slower sale and some of the better grades having heavy bone are sold as Wagon Horses. SOUTHERN CHUNKS. Southern Chunks or as they are termed in some markets, Southern horses, or Southerns are small horses that are bought by dealers for the southern markets, many of them going to Memphis, Tennessee; Jacksonville, Florida; Atlanta, Georgia; Richmond and Norfolk, Virginia, and other large southern towns. They are used by southern planters for tilling their lands and for driving and riding. The southern farmer does not cultivate deeply and the soils are light consequently he does not require very large horses; how- ever, each year the trend of the market is for larger horses for this trade. Conformation, Height, and Weight. Southern Chunks are small horses standing from 15 to 15-3 hands high and weighing from 800 to 1250 pounds. They are rather fine of bone possessing an abundance of quality, and are more rangy in conformation than any of the other Chunks, having more of the light horse blood. The head should be rather small and neat, and the neck long and slender, the ribs well sprung, giving a round barrel, and neatly turned over the hips and croup. Many of them are similar to the cheaper horses used on the light delivery wagons of cities. Buyers for the best grades of Southern horses are very particular to get sound, shapely, voung horses of the very best quality, and not over six years old. Some horses in the common and inferior 38 DOMESTIC ANIMALS, DAIRYING, ETC. grades are slightly blemished or may have a little more age than is desired. Action. Southern Chunks should have all-round good action. Because of the fact that they possess more of the light horse blood and build than of the draft, they should have better action than either Eastern or Farm Chunks. The form of action in folding of knees and flexing of hocks should be much the same as in Farm Chunks except that there should be more snap and vigor in the movements and less awkwardness. Demand. The supply of Southern Chunks being larger than the demand causes them to sell as comparatively cheap horses. As a general rule the demand for southern horses begins in September and October and gradually increases until January, February and March, when the demand is greatest. From this time on trade weakens, the summer months being usually dull, and revives again in the autumn. WAGON HORSES. Under this general term are grouped horses which are used principally where business requires quick delivery. Such horses must be closely coupled, compactly built, with plenty of constitu- tion and stamina. They must be good actors, have a good clean set of limbs with plenty of bone and quality, and a good foot that will stand the wear of paved streets. In this class are Express horses, De- livery "Wagon horses, Artillery horses, and Fire horses. EXPRESS HORSES. Express horses are used by express companies in the collecting and delivering of goods to and from railroad stations. Different express companies use horses of slightly different size and weight, this being determined by the nature and weight of goods handled and territory from which trade is drawn. For instance, if the business of a company is centrally located in a city, and depots are not far apart, they use larger horses and load heavier than if the business is done in the outlying parts of a city, and the depots a considerable dis- tance apart, in which case lighter horses with more action are wanted. They are used singly or in pairs, and the size of the horse will depend on the weight of the wagon to which he is hitched. The lightest ones are called money horses, as they are hitched to the lightest wagons to deliver valuables, this kind of work demanding quick service. Conformation, Height, and Weight. The typical Expresser is rather an upstanding, deep bodied, closely coupled horse with good bone, an abundance of quality, energy, and spirit. He should stand from 15-3 to 16-2 hands high and weigh from 1350 to 1500 pounds in good flesh, the average express horse being 16 to 16-1 hands high and weighing around 1400 pounds in working condi* tion. His head should be neat, his neck of good length and crest well developed. His shoulder should be obliquely set, coupled with a short, well muscled back and strong loin. His croup should be broad, rounding and well muscled, his quarters deep and thighs broad. He should not be goose-rumped nor cut up in the flank. BREEDS OF HORSES 39 His underpining should be of the very best, his cannons broad and clean, and hoofs of a dense, tough horn of a waxy nature. Action. The Express horse is required to do his work both at the walk and trot, the latter being the principal gait. He should be quick and active, able always to keep his feet well under him and throw enough weight into the collar to move a heavy load at the walk or a lighter load at the trot. As in the previous classes he should be a straight-line mover with possibly a little more knee and hock action. DELIVERY WAGON HORSES. Delivery Wagon horses or as they are often termed Wagon Horses are similar to the Expressers, but the class is broader in its scope, including horses of common and inferior grades as well as medium, good, and choice. Generally speaking they are not so large as Expressers and not as high grade animals ; most mercantile firms are not such liberal buyers and consequently they get a cheaper grade of horses. However, this is not always true as some of the large department stores whose deliveries serve as an adver- tisement will pay more for the very best than express companies, thus getting very choice animals. Conformation, Height, and Weight. The conformation re- quirements are practically the same as for Express horses, except they are not quite so large, standing from 15 to 16 hands and weighing from 1100 to 1400 pounds. Action. The action requirements are the same as for Express horses in most cases, though some are not so good actors. Demand. The demand for Express and Delivery Wagon horses is good at all times of the year, though it is a little stronger prior to the season when parcel-carting is greatest, such as during the Holiday season and spring months. The demand for good to choice Express horses is greater than the supply and as a result the express companies are obliged to purchase from other grades as best they can. ARTILLERY HORSES. Artillery horses conform very closely to the better grades of Delivery Wagon horses of the same weight. The following speci- fications, prepared under the direction of the Quartermaster Gen- eral of the United States War Department, clearly set forth the re- quirements. The artillery horse must be sound, well bred, of a superior class, and have quality; of a kind disposition, well broken to harness, and gentle under the saddle with easy mouth and gaits, and free and prompt action in the walk, trot, and gallop ; free from vicious habits; without material blemish or defect, and otherwise conform to the following descriptions: A gelding of uniform and hardy color, in good condition; from 5 to 8 years old; weighing from 1,050 pounds, minimum weight for leaders, to 1,200, maximum weight for wheelers, depend- ing on height, which should be from 15-1 to 16 hands. Head. Small and well set on neck; with cars small, thin, neat, 40 DOMESTIC ANIMALS, DAIRYING, ETC. and erect; forehead broad and full; eyes, large, prominent and mild, with well developed brow and fine eyelid; vision perfect in every respect; muzzle small and fine; mouth deep; lips thin and firmly compressed; nostril large and fine; and branches of under- jaw (adjoining neck) wide apart. Neck. Moderately long and tapering toward the head, with crest firm and longer than underside ; mane fine and intact. Withers. Elevated, not unduly fine, well developed and mus- cled. Shoulders. Long, oblique, well packed with muscle, not too heavy, smooth, rounded, and so formed as properly to support the collar. Chest. High, wide, very deep; plump in front, and full. Fore Legs. Vertical, and properly placed; with elbow large, long, prominent, clear of chest, and well placed; forearm wide, thick, long, heavily muscled, and vertical. Knees. Neatly outlined, large, prominent, wide in front, well situated, and well directed. Back. Short, straight, and well muscled. Loins. Broad, straight, very short and muscular. Barrel. Large, increasing in size towards flanks, with ribs well arched and definitely separated. Hind Quarters. Wide, thick, very long, full, heavily mus- cled, rounded externally, and well directed. Tail. Fine and intact; well carried and firm. Hocks. Neatly outlined, lean, large, wide from front to rear, and well directed. Limbs. From knees and hocks downward, vertical, short, wide laterally, with tendons and ligaments standing well out from bone and distinctly defined. Pasterns. Strong, medium length, not too oblique, and well directed. Feet. Medium size, circular in shape, sound; with horn dark, smooth, and fine of texture ; sole moderately concave, and frog well developed, sound, firm, large, elastic, and healthy. Each horse will be subject to a rigid inspection, and any animal that does not meet the above requirements should be rejected. Demand. The demand for Artillery horses is rather spas- modic, at some times being much greater than at others. Con- tracts are given to the lowest responsible bidder to supply them in large numbers by a specified time. Because of the rigid examina- tion and requirements of official inspectors, many men have lost money in filling contracts. (111. B. 122.) FIRE HORSES. The Fire horse is more rangy in conformation than the Ex- presser, he being required to throw weight into the collar and often to take long runs. The limits of the class are narrow, there being only two grades, choice and good. The requirements are very rigid, and the demand limited, coming only from the fire companies of the cities. BREEDS OF HORSES 41 CARRIAGE HORSES. This class includes Coach, Cob, Park, and Cab horses. As the name carriage implies (a vehicle for conveying people) this class of horses is used on the various heavy weight vehicles. In contra- distinction to light harness horses of the Road class they are often spoken of as heavy harness horses. They are smoothly turned, full made, up-headed horses with an unusual amount of quality and must possess to a marked degree, high action, with a fair amount of speed. The neck should be long and arched, the head small and clean cut with a neatly set ear. The shoulder should be oblique in order to enable the horse to bring his knees as high as possible. The width of breast should be in keeping with the conformation of the horse, too much width being undesirable as well as too little. The body should be of good depth and length ; the length being in a long croup rather than a long back. The back should be short and well muscled, the ribs springing well from the spine, giving a round barrel. The hips should be rounding, the croup well mus- cled, the tail set high, and the quarters deep. The limbs should be free from blemishes or unsoundness and possessing an abundance of quality with plenty of substance. In addition to being well muscled, the limbs should be well proportioned in length of fore- arm to cannon and joined to olique pasterns and good feet. COACH HORSES. Typical Coachers are smoothly turned, full made horses, with a little more size and length of neck than other horses of the Car- riage class. The principal requirement is high action combined with beauty of form. The whole outline of the horse should be carried out in easy, graceful curves, pleasing to the eye. Conformation, Height, and Weight. Coach horses should stand from 15-1 to 16-1 hands high and weigh from 1100 to 1250 pounds. The weight is not of such great importance with Coach horses as with Draft and Wagon horses. The essential thing is to get a horse that looks right and proper before the vehicle to which he is hitched; for instance, the most desirable height for a park drag, body break or heavy coach is 15-3 to 16 hands and weighing around 1150 to 1200 pounds. For a light brougham a pair of 15-2 hand horses and weighing 1100 pounds is more appropriate. A hearse requires a horse from 15-3 to 16-1 hands and weighing 1200 to 1250 pounds. The Coach horse should have a small, neat head, well set on a nicely arched neck, free from stagginess. He should have high, thin withers to which are smoothly joined oblique shoulders. The forearm should be well muscled, the cannon of me- dium length and broad, to which is joined a long sloping pastern with a good foot. The foot should not be so rounding as the foot of the Draft horse, the heel should be high and wide, giving sufficient room for a large frog. The back should be short, the body deep, round and closely coupled ; the loins short and broad. The hips should be nicely rounded, the croup wide, muscular and not drooping; the tail is often docked and ot for fashionable trade, but when left long should be carried gracefully. A common fault with many 42 DOMESTIC ANIMALS, DAIRYING, ETC. Coach horses is a short, staggy neck turned upside 'down, a flab rib, a long back and a goose rump. Action. Action in the Coach horse is one of the most essen- tial qualities of this class. An individual with good conformation will be a comparatively cheap horse if he is very deficient in style and action ; in fact, it may bar him from 'being classed as a Coach horse He must be a high stepper and quick in his movements, flexing his hocks well under his body, folding his front legs well at the knees and carrying them high toward his chin. He may bo said to be a little more stately in his action than Cobs and Park horses. In comparison with the action of the trotting horse for speed, he should be snorter in his stride, lifting his knees higher in front of his -body, and not dragging his hocks behind. The de- mand is for trotters only, pacers being not accepted in this class. SADDLE HORSES. The requirements for Saddle horses are sureness of foot, ease of carriage to the rider, good manners, and ease of control. To possess these requirements they must have an oblique shoulder with a moderately long sloping pastern, a short back, and a trifle more height at the withers than on the hips. The head should be neat, clean cut, and attractive, set on a moderately long neck. The fore- head should be broad and there should be good width between the jaw-bones. The length of neck is important as a long neck is usually more supple and renders the mouth more flexible, which is necessary for ease of handling and smoothness of carriage. A horse that is a lugger cannot possess the good qualities he otherwise would. The croup should 'be long, muscular, and not drooping, with neatly set tail. His limbs should be strong and clean, and his action quick and graceful. This class is composed of Five Gaited Saddlers, Three Gaited Saddlers, Hunters, Cavalry horses and Polo ponies. FIVE GAITED SADDLE HORSES. Five Gaited Saddle horses, sometimes spoken of as gaited Saddle horses or American Saddle horses, are distinctly an American product. A recognized type has been brought about by skillful selec- tion and breeding for more than half a century. The principal re- quirements are that they possess at least five of the recognized distinct gaits under the saddle, viz., walk, single-foot, or rack, running-walk or fox-trot, trot, and canter. Conformation, Height, and Weight. The Five Gaited Saddler should stand from 15 to 16 hands high and weigh from 900 to 1200 pounds, the most desirable height being 15-2 to 15-3 hands and weight around 1,050 to 1,150 pounds. He should be of a kind dis- position, have a good mouth, possess courage and ambition, and the conformation of a weight carrier. His head should be fine, clean cut, and foreedy looking, his neck long, arched, and set on an oblique shoulder with muscles extending well into the back, the withers high and well finished. An oblique shoulder is imperative or he will not be able to go the required gaits with ease to himself and rider. In order to carry weight well he should possess a strong BREEDS OF HORSES 43 level, short back and be closely coupled. His legs and quarters should be well muscled, croup not drooping, and he should carry a long, flowing tail (sometimes spoken of as a water spout tail). Action. The action of a Five Gaited horse should be free, easy and frictionless with no inclination to mix in his gaits. The walk and trot should be bold and vigorous, the stride of good length but not unduly long, and quick to recover. The action need not be ex- tremely high but he should keep his feet well under his body at all times so there will be little danger of stumbling or falling in case he should slip. The running-walk is discriminated against by some as it is claimed to be conducive to stumbling. The rack should be regular and rhythmical of the one, two, three, four order and should not have side motion in either feet, legs or body, which produces roughness when going fast. In cantering the horse should be taught to lead with either leg and go slow or fast according to the pleasure of the rider. Demand. The demand for Five Gaited horses is good and comes from pleasure seeking equestrians, cattlemen, army officers, and people looking for easy riding horses. They are produced largely by the use of pure bred American Saddle horse stock, especi- ally on the sire's side, most of them being bred in Missouri, Ken- tucky, Southern Illinois, Indiana, and some in other states. CAVALRY HORSES. American horses have made good records for themselves as faithful and enduring servants in rank and file, not only in the American navy but in the British army as well. During the Span- ish-American AVar remounts of Uncle Sam's troups which were sent to the Philippine Islands stood service so well under trying condi- tions that the British Government was attracted to them. When the South African war broke out the English Government executed large orders for American horses to be sent to South Africa as Troop- ers. Here they maintained their supremacy and as a result large numbers have been taken to England where they came in competi- tion with English horses on their native soil. Many of the Cavalry horses selected for export have been range bred and not of the best type and conformation. In comparison with the Cavalry horses selected by the United States Government for army use most of them would grade as common and medium, and a few grade as good. The Quartermaster General of the war department has sent out the following specifications as the require- ments for an American Cavalry horse: The Cavalry horse must be sound, well bred, of a superior class, and have quality ; gentle and of a kind disposition ; thoroughly broken to the saddle, with light and elastic mouth, easy gaits, and free and prompt action at the walk, trot, and gallop ; also free from vicious habits, without material blemish or defect ; and otherwise to conform to the following description: A gelding of uniform and hardy color, in good condition ; from four to eight years old ; weigh- ing from 950 to 1,100 pounds, depending on height, which should be from 15 to 15-3 hands. 44 DOMESTIC ANIMALS, DAIRYING, ETC. Head. Small and well set on neck ; with ears small, thin, neat and erect ; forehead broad and full ; eyes large, prominent, and mild, with well developed brow and fine eyelid; vision perfect in every respect; muzzle small and fine; mouth deep; lips thin and firmly compressed; nostrils large and fine, and branches of under jaw (ad- joining neck) wide apart. Neck. Light, moderately long, and tapering toward the head, with crest firm and longer than underside; mane fine and intact. Withers. Elevated, not unduly fine, well developed and muscled. Shoulders. Long, oblique and well muscled. Chest. Full, very deep, moderately broad, and plump in front. Fore Legs. Vertical, and properly placed; with elbow large, long, prominent, and clear of chest ; forearm large at the elbow, long and heavily muscled. Knees. Neatly outlined, large, prominent, wide in front, well situated, and well directed. Black. Short, straight, and well muscled. Loins. Broad, straight, very short, and muscular. Barrel. Large, increasing in size toward the flanks, with ribs well arched and definitely separated. Hind Quarters. Wide, thick, very long, full, heavily muscled, rounded externally, and well directed. Tail. Fine and intact, well carried and firm. Hocks. Neatly outlined, lean, large, wide from front to rear, well situated, and well directed. Limbs. From knees and hocks downward vertical, short, wide, laterally, with tendons and ligaments standing well out from bone and distinctly defined. Pasterns. Strong, medium length, not too oblique, and well directed. Feet. Medium size, circular in shape, sound; with horn dark, smooth, and of fine texture; sole moderately concave, and frog well developed, sound, firm, large, elastic, and healthy. Each horse will be subjected to a rigid inspection, and any ani- mal that does not meet the above requirements should be rejected. Demand. Cavalry remounts for the United States War De- partment are purchased as needed through contract orders, the con- tract being let to the lowest responsible bidder. In filling orders dealers are often obliged to educate many of the recruits to the sad- dle in order to meet the specified requirements. During the five years 1901 to 1905 there have been purchased 11,496 horses, or an average of 2,299 per year. The largest purchase in a single year was in 1901 when 4,179 head were secured. The Cavalry horse is a closely built, compact animal with plenty of substance and quality. (111. B. 122.) GLOSSARY OF SOME HORSE AND MULE MARKET TERMS. A bull. A horse so windy that he cannot stand much exertion without choking. BREEDS OF HORSES 45 A few hairs off. A skin blemish not haired over; usually a wire mark which may be either large or small. A hole in. Used in speaking of an animal that is believed to be defective in some manner but which at present is not apparent. An Indian. A wild or vicious horse difficult to handle in 01 out of the stall. At the halter. See No. 6, auction rules. Beefy hocks. Thick meaty hocks lacking in quality. Bench legged. See knock kneed. Blue eye. An unsound eye with blue appearance. The sight may or may not be entirely gone. Bobber or jig back. A horse or mule that wobbles in hind quarters when he moves, due to an unsound or weak back in the region of the loin. Boggy in hocks. Bog spavins. Bow legged. Too wide apart at the knees, the opposite of knock kneed. Bowed tendon. An enlarged tendon back of the cannon due to an injury. Broken knees. Knees which have had the skin broken from a fall or a bruise and much enlarged. Buck kneed. Knees bent forward when standing. Bull pen. An auction ring at any market where horses are sold. Bush. To deduct a part of a stated sale price on account of a blemish or unsoundness not mentioned or not apparent at time of sale, or for other reasons. Calf kneed. Knees bent too far back, the opposite of buck kneed. Capped hock. The point of the hock back of the web enlarged. Caused by a bruise of the bursa. Car bruised. Bruised in car in shipping. If freshly done swell- ing and inflammation will be present. Cartilage. Prominent lateral cartilage or incipient side bone. Chancy. Purchased at a moderate price because of an uncer- tainty with prospects for developing into something good. Cock ankle. Standing bent forward on the fetlocks, more often on the hind ones. Coon footed. Long and very low pasterns. Coupling. The space or connection between the dorsal verte- brae and the pelvis on top of the back. An animal that has a long coupling is too long in the lumbar vertebra). This is best measured by the distance of last rib from hip. Cow hocked. Standing with hocks together and hind toes out. Crampy. In hind legs raising either one or both legs up with a jerk. More apparent when the animal has been standing and is cool. In the back. When the head is elevated and the animal is com- pelled to move backward he raises his tail and shows a quivering of the flanks, soreness of the loin and an inclination to drag his feet. 46 DOMESTIC ANIMALS, DAIRYING, ETC. Cribber. An animal having the vice of biting or setting the teeth against something and "sucking wind." Cross firing. Hitting one of the fore feet with the opposite hind foot when traveling. Curb. An injury or sprain of the ligament at the back of the hock which usually causes an enlargement. Curby hock. The back of the hock is rounding when viewed from the side. Cushion. An enlarged bursa occurring just below the hock near the forward edge on the outside of the cannon. A Michi- gan pad. Cutting. Interfering. Docked. Having the end of the tail cut off. Docked and set. By an operation the end of the tail is cut off and the stump is set up. Dummy. A horse whose brain is affected, the cause usually being overfeeding and lack of exercise. The symptoms are listless- ness and hesitancy in moving; a vacant stare in the eyes and a proneness to cock the ears and look sideways and upward ; also, the holding of hay and feed in the mouth without any attempt at mas- tication. Ewe neck. A deficiency of muscling causing a depression at the top of the neck just in front of the withers. Falls out of bed. Pulls back on halter rope. Feather in eye. A mark across the eyeball not touching the pupil, often caused by an injury. It may or may not impair the sight. Filled in hocks. May mean either bog spavins or thorough- pins though most generally the former. Fistula. Fistulous withers. An abscess occurring in the re- gion of the withers. Forging. Striking the front shoes with the toe of the hind ones. Founder. Inflammation of the feet causing lameness. Tech- nically known as laminitis. Glass-eye. See wall-eye. Goose rump. A short steep croup and narrow at point of the buttock. Gristle. An incipient side bone. Halter puller. Pulls back on halter rope. Hand. -A inches. Horses are measured at the highest point on the withers in terms of hands. 14-2 would mean 14 hands and 2 inches, or 58 inches. Heavey. Having the heaves. Hipped. Having the point of one hip broken over so that it appears lower than when normal. It does not materially impair usefulness. Hitching. Having a shorter stride in one hind leg than the other. Hog back. A reached back, the opposite from sway back. Hollow back. A sway back. BREEDS OF HORSES 47 Interfering. Striking the fetlock or cannon with the opposite foot as it passes, either in front or behind. Jack. A bone spavin. Jibber. An unguidable horse, often "green." Knee banger. One that interferes, hitting his knees. Knee sprung. Over on the knees caused by relaxation of the extensor muscles, sometimes spoken of as buck knees. Knock kneed. The front legs bent in at the knees with feet wide apart. Sometimes called bench legged. Legs go. See No. 5, auction rules. Light in the timber. Light boned, especially in the cannons. Little green. Not thoroughly broken. Often means an animal that will not pull. Lugger. One that pulls or lugs on the bit. Lunker. An exceptionally big^ heavy boned horse. Makes a little noise. A very little windy. Michigan pad. A puff or cushion that occurs just below the hock on the outside of the hind cannon near the forward edge. The same as outside cushion. Moon blindness. Periodic ophthalmia. Nicked. An operation severing the cords on one side of the tail to straighten it. Nigger heeled. Front toes turned out, heels in. Old Skin or Skate. A worn out animal. Outside Cushion. The same as cushion or Michigan pad. Over reach. Reaching farther forward with the hind feet in traveling than where the front ones were picked up. Paddle. Winging out with the front feet. Parrot mouth. The upper sub-maxillary longer than the lower jaw. Periodic ophthalmia. Inflammatory affection of the interior of the eye. It usually disappears in a week or ten days and returns again in a few weeks. The cycles are often completed in about a month and because of this fact many people believe the trouble is in some way related to the moon changes, hence the name "moon blindness." Pig eye. A small eye set too much in the head and with thick eyelids. It accompanies, in general, animals with a lymphatic tem- perament and with imperfect vision. Pigeon toed. Front toes turned in, the opposite of nigger heeled. Pink eye. A disease causing a whte scum to form over the eye, often causing blindness. Poll evil. A fistulous condition or abscess on or near the poll. Pones. Lumps of fat on a mule's body. Posting. Rising and falling in the saddle with each alterna- tive step when the horse is trotting. Puffs. Wind galls, bog spavins, or thoroughpins. Quarter crack. A vertical crack on the side of the hoof often running to coronet. 48 DOMESTIC ANIMALS, DAIRYING, ETC. Quittor. A fistulous opening upon the heel or coronary band of the foot. Rat tail. A tail with but little hair. Rejects. Animals not filling the guaranty and consequently turned back on the hands of the seller. Rickety. The same as bobber or jig back. Ringbone. A bony growth on the upper or lower pastern bones and most always causing lameness. Ripper. An exceptionally good big animal. Roach back. See hog back. Roarer. Defective in wind. Very windy. Rough behind. Having a bone spavin. Rounding hock. Having a curb. Sand crack. A vertical crack in the middle of the hoof often running to coronet. Scalping. When speeding, the horse strikes the front side of the hind coronet, pastern or cannon against the front toe. Also, applied to a trader that buys and sells animals on the market. Seam in hoof. A scar in hoof from an injury of some kind, such as cracks, wire marks, calks, etc. Seedy toe. A separation of the walls of the toe from the sen- sitive laminae. Very often the end of the toes turn slightly up. Serpentine. An animal that extends and withdraws his tongue as a serpent. Serviceably sound. See No. 2, auction rules. Shoe boil. A bruise at elbow which results in an abscess, caused from the animal lying on his foot in such a way that the heel of the shoe strikes the elbow. Sickle hock. Too much bend in the hock. A conformation predisposed to curbs. Side bone. An ossified lateral cartilage occuring on either side at the top of the foot. Slab sided. Flat ribbed. Smoke his pipe. An animal with lip torn where the bridle bit rests. Smoky eye. A clouded eye with whitish appearance. Smooth mouth. An aged horse. Sound. See No. 1, auction rules. Speck in eye. A spot on the eye not covering the pupil. It may or may not impair the sight. Speedy cutting. Striking the inside of the hind cannon against the front foot as the hind foot is brought forward and passes the front foot on the outside in over-reaching. This only happens in speedy horses. Splay footed. Nigger heeled. Splint. A bony growth on the cannon bone occurring most often on the front legs and either on the inside or out, but more often on the inside. Stands a little careless in front. Knees sprung or buck" kneed. 49 Stringy. String-halt. A convulsive action in the hind legs flexing either one or both up with a jerk. Stump sucker. A cribber. Sucker. An animal with some defect which is not always ap- parent. Sweeney. Atrophied shoulder muscles causing a depression. Thick neck. A neck too thick at the shoulder for a collar to fit well. Thoroughpins. Puffiness occurring in the web of the hock. Tongue toiler. Permitting the tongue to hang out. Trephined. A hole in the jaw bored for removing a molar tooth. Trot out short. Sore in front having a short stride. Wall-eye. The iris a pearly white color, due to a lack of pig- ment. Sometimes called glass-eye. Weaver. Continual swaying back and forth when standing in the stall. Wind and work. See No. 3, auction rules. Wind galls. Puffs occurring at the upper part of the fetlock joints. Windy. One that whistles or roars when exerted. Whistler. Defective in wind. See windy. Winging. Throwing the front feet out or in when traveling. Worker. See No. 4, auction rules. (111. B. 122.) AUCTION RULES. [NOTE. In the auction ring sales are made under certain well understood rules which are published and are announced from the auction stand, recorded and stand as a guaranty. The following are the principal rules which govern sales in the auction ring. Excep- tions to these rules may be announced from the auction stand point- ing out the defects, in which case they are recorded and go with the horse.] Sound. Perfectly sound in every way. Serviceably sound. Virtually a sound animal, barring slight blemishes which do not interfere with his usefulness in any way. His wind and eyes must be good, but a spot or streak in the eye which does not affect the sight will be considered serviceably sound as long as the pupil of the eye is good. He must not be lame or sore in any way. Wind and work. The only guaranty this carries with it is that the animal has good wind and is a good worker. Work only. He must be a good worker and everything else goes with him. No other guaranty than to work. Legs go. Everything that is On the animal's legs go with him ; nothing is guaranteed except that he must not be lame or crampy. He must, however, be serviceably sound in every other respect. At the halter. Sold just as he stands without any recommenda- tions. He may be lame, vicious, balky, kicker or anything else. The purchaser takes all the risk. The title only is guaranteed. (111. B. 122.) 50 DOMESTIC ANIMALS, DAIRYING, ETC. FEEDING HORSES. The problem of horse feeding is one which each feeder must solve more or less for himself. The question regarding what is and what is not a satisfactory feed will vary more or less with the time and place and the varying conditions under which the feeding is to be done. While the opinions of experienced men differ as to the value of this food and of that food, yet it is evident that the actual food requirements of a horse performing a given amount of work cannot vary as a result of a change of opinion on the part of the feeder. The animal needs a certain amount of food to nourish his body and produce the energy that is required of him. With horses as with all animals including man, the real problem is to supply suf- ficient nourishing material to build up the body, repair its waste and furnish it with the energy necessary to perform the required work. It makes no difference whether it be the work that goes on inside the body, as the beating of the heart, movements of breathing, etc. ; or whether the work is performed outside of the body, as hauling a load or to perform any other kind of labor. The body temperature must also be maintained at the expense of the food ingredients thai produce heat. Whether this material is burned in the body for maintaining the body temperature, or whether the necessary heat results from internal muscular work, does not necessarily concern the feeder. The problem of feeding horses is somewhat different from that of feeding many other domestic animals. Beef cattle, mutton sheep and pigs are fed to increase gains in weight, that is to fatten them. Milch cows are fed for the purpose of maintaining the body and to produce abundant secretion of milk rather than fat. In the same way fowls are fed for the production of eggs. Horses, however, are fed almost universally as beasts of burden. They are maintained for the work which they do, whether it be in drawing a load, carrying a rider or propelling a vehicle at extreme speed; the horse is maintained for that particular kind of labor. The most satisfactory test of a practical feeding ration for work horses is that it enables the horses to perform the required labor and to maintain a constant bodily weight. If the animal loses weight, it is evident that the ration is insufficient ; if he gains in weight, he may become too fat, which is evident that more food is given than is needed or that the ration does not contain the proper food constituents. If a working horse is in good condition, it is seldom desirable to induce any considerable gain in weight. The most satisfactory ration must of necessity be made of materials which are wholesome and are rel- ished by the horse. This ration should also be secured at a reason- able cost. In quantity it must be abundant enough to meet all bodily requirements, but not so abundant that any marked gain in weight will be noted. Principles of Nutrition. The principles of nutrition or nour- ishing are practically the same in the case of all animals including man. The study of foods, or feeding stuffs, has shown beyond ques- tion that, although they differ so much in texture and appearance, they are in reality made up of a small number of constituents that FIG. i. A FIELD CASE OF SWAMP FEVER, ABOUT ONE MONTH BEFORE DEATH. DEPT. OF AGE. FIG. 2. SAME HORSE AS SHOWN IN FIG. i. ABOUT ONE WEEK BEFORE DEATH. NOTE THE SWEI DEPT. OF AGR. A CHOICE DRAFT MULE, HEIGHT i8\ HANDS, WEIGHT, 1,900 POUNDS. NOTE His SMOOTH- NESS OF FORM, COMBINED WITH QUALITY AND FINISH FOR A MULE OF SUCH UNUSUAL SIZE. DEPT. OF AGR. BREEDS OF HORSES 53 in a general way are quite easily understood. The chief constitu- ents are: Protein, Fats, Carbohydrates, Mineral Matter. Protein is a name given to a group of food constituents that contain nitrogen or nitrogenous compounds. This group is made up of true proteids and albumens, such as the gluten of wheat, white of egg, etc. Fat includes the true vegetable fats and oils, like the oil of cotton seed as well as vegetable wax, etc. In brief, it may be stated that it includes, as it is used in this connection, all those substances that are dissolved out of the food by ether and is known as an ether extract. Carbohydrates include starches, sugars, crude or woody fibre, etc. Carbohydrates are sometimes divided by chemists into groups, as nitrogen free extract and crude fibre. Mineral matter includes the inorganic bodies present in the form of salts in the juices and tissues of different feeding stuffs, some of the principal elements of which are sodium, potassium, cal- cium, sulphur, etc. The term ash is often and very appropriately used to express this matter; since the mineral matter represents that which is left when the food in question is burned. Functions of Food. 1. To supply material to build up the animal body, and to repair waste of the body through work, exer- cise, etc. 2. To yield energy. The chemical composition of foods serves as a basis for much of their value for building and repairing the various tissues of the body. The value of energy, however, must be learned in another way. The most usual way of measuring energy is in terms of heat, a calorie being taken as a unit. This is the amount of heat which would be required to raise the temperature of one kilogram (about 2 1-5 pounds) of water one degree C., or about 1.8 degrees F. In- stead of this, the unit of mechanical energy, the "foot-ton" (the force which would lift one ton one foot) may be used, but it is not as convenient. One calorie corresponds very nearly to 1.54 foot- tons. In compounding a feeding ration the relation between the quantities of nitrogen compounds in the food and the nitrogen free compounds is called the "nutritive ration." In calculating this ratio one pound of fat is taken as equivalent to 2.25 pounds of carbohydrates; this being approximately the ratio of their fuel values. So that the nutritive ratio is actually that of the protein to the carbohydrates plus 2.25 times the feed. All the organs and tissues of the body contain nitrogen. Protein is the only constitu- ent of the food which supplies this element, and is therefore essen- tial for building and repairing bodily tissues. Protein, however, and carbohydrates may be burned within the body, and therefore serve as a source of energy. The mineral matter in food is required for a number of different purposes; a considerable amount being needed in the growing animal for the formation of the bony skele- ton, teeth, nails, hoofs, etc. ; some is also present in the various organs and tissues. The mineral matter cannot be regarded as a source of energy, since it cannot be burned within the body. The water 54 DOMESTIC ANIMALS, DAIRYING, ETC. present in food is not used in the sense that it serves for building tissues for yielding energy, but it is necessary to carry the food in the digestive process, to dilute the blood and for many other pur- poses. The oxygen of the air is required by all living animals for the burning or oxidation of the fuel constituents of the food. When foods are burned in the body they give up the latent energy or heat present in them. The amount of work performed by an animal, as the horse, for convenience in measurement, may be resolved into several factors: (1), the energy expended in chewing, swallowing, digesting of food, beating of the heart, circulation of the blood, etc. ; (2), the energy which is expended in moving the body, walking, trotting, etc., which is usually spoken of as energy required for progress; (3), the energy which is expended in carrying a rider, as in the case of the saddle horse or drawing a load, which is ordi- narily spoken of as labor or work. Work may be measured as foot-tons or foot-pounds. A foot-pound is the amount of energy ex- pended in raising one pound one foot, and a foot-ton is the amount of energy expended in raising one ton one foot. A horse-power, as the term is ordinarily used, expresses the power equivalent to 550 foot-pounds per second, or the power required to raise 33,000 foot pounds per minute. Work may also be measured in terms of calories or heat. One calorie corresponds very nearly to 1.54 foot-tons. (Agr. Dep. F. B. 170.) EXPERIMENTS .CONDUCTED WITH HORSES. The tests made in horse feeding, which form the basis for this bulletin, are as follows: (1) The determination of the digestibility of timothy hay by horses. (2) The determination of the digestibil- ity of whole oats by horses. (3) The determination of the digestibil- ity of ground oats by horses. (4) The determination of the diges- tibility of shelled corn by horses. (5) The determination of the di- gestibility of corn meal by horses. (6) The determination of the di- gestibility of the new corn product by horses. (7) Tests of the use of the new corn product as a subtsitute for hay in horse feeding. SUMMARY OF PRINCIPAL RESULTS. ruminants. Corn Feeding concentrated foods or grain with hay decreased the digesti- bility of the hay. (5) It is impossible to maintain horses on a grain ration alone; they must have a long forage. (6) Making a "mixed feed" of the grain and long forage is the best manner of feeding horses. (7) The new corn product was better digested by horses than timothy hay. (8) Grinding fodder to the condition of the new corn products or of coarse bran does not destroy its value as long forage. (9) The new corn product was successfully used as a sub- stitute for hay in horse feeding, (Md, E, S, Bui, 51.) BREEDS OF HORSES 55 Rations Actually Fed to Horses and Digestible Nutrients and Energy in Rations Calculated to Basis of 1,000 Pounds Live Weight. Kind of horses. Weight of horses. Rations actually fed. Nutrients in ration per 1.000 pounds live weight. Digestible nutrients in ration per 1.000 pounds live weight. Energy in digestible nutrients. Protein. 1 N i trogen-free extract. V A U3 V o 3 C CJ Protein. 1 N i trogen-free extract. Crude fiber. ARMY HORSES. United States: Cavalry Lbs. 1.060 1.125 1,025 1.200 1,050 Pounds (Oats, \i Lbs. [2,4 [2.00 {1.84 }2.38 [2.06 Lbs. 0.90 .84 .78 .18 6 Lbs. 12.82 11.96 11.39 5.87 10.42 Lbs. 4.95 4.62 4.80 ^2.34 3.87 Lbs. 1.25 1.16 1.00 1.76 1.40 Lbs. 0.57 .53 .48 .05 .40 Lbs. 8.00 7.48 6.88 3.58 6.97 Lbs. 1.97 1.84 1.94 .92 1.44 Calo- rtes. 23.300 21.750 20.250 11,855 19.935 Artillery (Oats. 12 Mules 1 Hay, 14 i Oats 9 HORSES WITH LIGHT WORK. Driving horse. 1 VV y o m i n g > Station. Carriage horse Average ( Alfalfa, 21.25 (Straw. 3.2.... 1 Oats, 10- 1 Hay. 12 2.22 .47 8.15 3.10 1.58 .22 5.27 1.18 15.895 Fire company horses: Boston Mass Chicago. Ill 1.400 1,350 t Ground grain \ 9.38. 1 Hay 18 U f.,00 .68 .43 9.57 6.77 4.57 3.50 .87 .42 .41 .24 6.14 3.70 1.73 1.45 18,000 11.365 (Oats, 4 ( Hay.15 Average of 6. in eluding above. General average for light work. HORSES WITH MOD ERATE WORK. Express horses: Richmond. Va.. I summer. f Jersey City. N. J. Boston, Mass Average of 4, in- cluding above. Cab horses: Washington. D. C. San Francisco. Cal. Average of 4. in- cluding above. 1.35 .56 7.95 3.20 .78 .35 4.99 1.26 14.555 1.57 54 8.00 3.18 .99 .32 5.06 124 14.890 1,400 1,325 1.325 (Corn. 4 67.... Oats, 5.33.... -{Bran. 0.83. .. Corn m'l 4 16 lHay 15. . .. Corn. 2 .... jOats. 19. . .. ] Bran. 1.5 . .. I Hay. 9.5. . .. (Corn. 12 ... < Oats. 5.25. . . JHay.20 -1.79 -2.45 2.38 .78 1.03 1.04 11.78 13.45 14.% 3.64 3.57 5.32 .97 1.66 1.28 .45 .67 .60 8.19 9.37 9.75 1.46 1.32 2.12 21.650 25.800 27.000 2.15 .93 13.27 4.13 1.26 .55 9.06 i/.: 24,550 Lbs. 1.200 1.350 Pounds. 1 Oats. 10 \ Corn, 5 Lbs. j-2.56 [l.39 Lbs. 1.12 .59 Lbs. 16.50 8.87 Lbs. 6.43 4.00 Lbs. 1.28 .70 Lbs. 0.63 .36 Lbs. 10.42 5.21 Lbs. 2.60 1.64 Calo- ries. 29,250 15350 < Hay. 23 j Oats. 8... 1 Hay. 16--.... 1.88 .80 11.51 4.30 1.06 .49 7.33 1.72 20,860 56 DOMESTIC ANIMALS, DAIRYING, ETC. Rations Actually Fed to Horses and Digestible Nutrients and Energy in Rations Calculated to Basis of 1,000 Pounds Live Weight. (Continued.) Nutrients in ration per Digestible nutrients in 1,000 pounds live ration per 1.000 XI weight. pounds live weight. "M m Kind of horses. B A "o Rations actually fed 1. s XI u ~ tj E XI '" 3 a ej S. 2 1C c S2 * y tSf V o x T3 > x T3 OH a (K 2 3 CJ o i u c Farm horses: Wyoming Sta- 1.000 j Alfalfa, 13,75. i Straw, 2,25. . . (l.85 .14 6.27 1.37 .03 4.03 8240 tion. New Hampshire Station. 1.235 {Bran, 2 Corn, 6 Gluten meal,6 [-2.37 .93 10.49 2.90 1.59 .64 747 1.03 21.465 Hay.10 < (Hay. 6 j 1 Bran 2V, 1 New Jersey Sta- tion. 1,000 J Corn, 4% . . . . 1 Dried brew- (3-21 .89 10.81 3.09 2.22 .65 6.99 1.38 22.440 1 ers' grain, fHay, 18 1 Wheat bran. Massachusetts Station. 1,100 2 U.85 .76 11.85 5.25 .85 .41 7.04 2 14 20.385 -< Provender, 6 crushed corn. 2.73. I oats. 3.27. ( Alfalfa hay. "I Utah Station 1,370 1 25. -{Bran and 1 shorts (1-1), I 10. 1-3.72 .71 11.83 5.16 2.81 .29 8.27 1.% 25,480 (Timothy hay. 1 22 8 I Do 1,325 -{Bran and 1-2.17 .75 11.93 5.61 1.11 .42 6.56 2.31 20,345 1 Shorts (1:1), Uo. j Average of 41, in- cluding above. 2.46 .75 11.92 4.05 1.57 .40 8.09 1.62 22,760 General average for moderate work. 2.38 .77 11.99 4.08 1.49 .42 8.09 1.63 22.710 Farm mules. Vir- 1 ginia Station, f 1,310 (Hay. 15.2.... J Corn, 10.5.... | Corn, silage. [-1.70 .82 12.00 4.00 .72 .42 8.22 1.75 21.655 Average of 6, in- cluding above.. 1 10.5 J 1.64 .78 11.54 3.74 .69 .39 795 1.60 20675 HORSES WITH SE- VERE WORK. Truck and draft horses: Chicago, 111., 1 daily ration, f 1,500 (Oats. 7.5... I Hay, 20 j-1.38 .58 8.99 4.34 .64 .34 5 11 1.79 15,450 South Omaha ( Nebr. f 1,500 (Oats, 15 iHay. 12 [t.65 .70 9.57 3.27 1.04 .45 6.23 1.27 17.800 Average of 5, in- cluding above. 1.80 .76 10.49 3.49 1.12 .49 6.94 1.35 19.560 SPEEDS OF HORSES 57 Rations Actually Fed to Horses and Digestible Nutrients and Energy in Rations Calculated to Basis of 1,000 Pounds Live Weight. (Continued.) Kind of Horses Weight of Horses Rations actually fed Nutrients in ration per 1.000 pounds live weight Digestible nutrients in ration per 1. 000 pounds live weight Energy in digestible nutrienM Protein b Nitrogen -free extract Crude fiber a *o IS to Nitrogen -free extract ii o -c o 3 c o FEEDING STANDARDS AND AVERAGE RA- TIONS Light work. Wolff- Lehmann. Medium work. \Volff- Lehmann. Heavy work. Wolff- Lehmann. Maintenance, moder- ate work, original. Grandeau. Maintenance, moder- ate work, modified, Grandeau. Paris Bus Co.. horses Lawes & Gilbert's, computation. Ordinary work, Lava- lard. Severe work. Lavalard. AMERICAN EXPERI- MENTS. Horses with light work: Driving horses. . . . Li's. Pounds Lbs. Lbs. Lbs. Lbs. Lbs. 1.5 2.0 2.5 2.14 1.95 1.60 1 10 Lbs. .40 .60 .80 .52 .44 .40 Lbs. 9 11 13 11 9. 12. all. all 5.27 5.06 7.33 8.09 8.09 7.95 6.94 Lbs. 5 3 15 93 14 1.18 1.24 1.72 1.62 1.63 1.60 1.35 Calo- ries 22,150 26.700 32.750 26.900 23.950 27.200 22,510 22.880 15,895 14,890 20.860 22,760 22.710 20.675 19,560 1 30 1.58 .99 1.06 1-.57 1.49 .69 1.12 .22 .32 .49 .40 .42 .39 .49 Horses with moderate work: Express and cab horses. Mules with moderate work: Farm mules. Horses with severe work: Truck and draft horses. a This value represents total carbohydrates plus 2.25 times the fat. (Agr. Dep. F. B. 170). METHOD OF CALCULATING RATIONS. The feeding value of any ration may be readily calculated and compared with the standards. Suppose a horse at moderate work and weighing 1,200 pounds is fed 11 pounds of oats and 10 pounds of timothy hay daily. The Wolff-Lehmann feeding standard for horses at moderate work calls for 2.0 pounds of protein and 26,700 calories per thousand pounds live weight. A horse weighing 1,200 pounds would therefore require 1.2 times as much, or 2.4 pounds protein and 32,000 calories. Oats contain 9.39 pounds of digestible protein and 122,100 calories per hundred pounds. Eleven pounds would therefore furnish 1.03 pounds of protein (9.39x0.11=1.03), and 13,431 calories (122,100x0.11=13,431). Timothy hay fur- 58 DOMESTIC ANIMALS, DAIRYING, ETC. nishes 1.25 pounds protein and 69,850 calories per hundred pounds. Ten pounds would therefore furnish 0.13 pound protein (1.25X 0.10=0.13) and 6,985 calories (69,850x0.10=6,985). The sum of the nutrients furnished by 11 pounds of oats and 10 pounds of hay would therefore be 1.16 pounds protein and 20,415 calories, or 1.34 pounds of protein and 11,585 calories less than the standard calls for. This may be made up by adding more oats, hay, or other feeding stuff. The amount of oats required to furnish the necessary protein may be learned from the proportion 100:9.39::z:1.34; or, in other words, by dividing 104 by 9.39, which gives 11.07. This quantity of oats would also furnish 13,517 calories, making the total protein of the ration 2.2 pounds and the total fuel value 33,- 932 calories. The fuel value of the ration is in excess of the stand- ard, though the agreement is close enough for all practical purposes. It will be remembered that it is not necessary that the amounts furnished in a ration shall exactly equal those called for by the standard, but rather that they approximate them, being greater rather than less. (Agr. Dep. F. B. 170.) CARE OF STALLIONS. The proper care of stallions does not differ materially from the care of other breeding animals. Enough of good wholesome food and water, plenty of exercise, grooming and general cleanli- ness, along with regular attention, are the principal factors requisite to their best welfare. Many stallions fail to be sure sires simply be- cause of lack of exercise or an overgenerous allowance of poor food, two factors which, acting together, cannot lead to the best results. The swollen or scurvy legs so often seen on stallions are generally the result of insufficient exercise and lack of cleanliness. Generally speaking, there is no good reason why a stallion should not be put to work. Such treatment insures regular feeding, grooming, exercise, and will give him the privilege of association with other horses. It will do away with the solitary confinement and irregular attention of which he is otherwise the recipient. If, under ordinary conditions, at the close of the breeding sea- son a stallion is pressed into regular service and accustomed to work gradually, he will be the better for it in the end. Association with other horses will come to be a regular occurrence, and the obnox- ious actions so common to stallions in harness will become less fre- quent. As a horse in regular service he then receives regular care and exercise. If he be from any of the lighter breeds as saddler or trotter it is by no means advisable to use him, for a kind of work for which he was never intended. (Mo. Cir. of Information 27.) CARE OF MARES. The principles governing the care of mares are identical with those governing the care of stallions but the customary treatment differs greatly. On the average farm the problem of enough exer- cise is not troublesome. The great difficulty is to find help that will handle a pair of brood mares carefully. Mares carrying foals may work up to within ten days of the date of foaling, and be benefited by it. They should be given moderate but steady work. Mares in foal BREEDS OF HORSES 59 should not be given work which requires the backing of heavy loads, or where there is a chance of slipping. But breeding mares can and should be worked. The food for brood mares should be similar to that of the stal- lion. Good oats, four parts, and bran one part, along with mixed clover and timothy hay which has been well cured makes an excel- lent ration. The rule of one pound of grain and one pound of hay to every one hundred pounds live weight is again a good basis to work upon, along with the variation according to the individual. As the period of pregnancy advances, the ration will in most cases need to be increased, somewhat. During pregnancy particular at- tention should be given to the digestive apparatus of mares. They should be gaining in condition, and bowels loose at the time of par- turition. It is always a good plan to feed rather sparingly for two or three days before parturition, and the ration, at that time, should consist largely of bran. After parturition it should be increased to suit the needs of the mare and foal. Mares should be given a box stall at least four weeks before they are due to foal, in order that they become accustomed to it, and may also have a place large enough to be comfortable during the night. The stall should at all times be kept clean and well bedded, but par- ticular care should be taken regarding these details at the time of parturition. (Mo. Cir. Information 27.) THE CARE OF NEW-BORN FOALS. At present it is estimated that some 25 per cent of the annual foal crop is lost. Most of this mortality might be prevented by treat- ing the mare intelligently and giving proper attention to the navel and bowels of the new born foal. It is the purpose of these pages to furnish practical instruction on these matters for the guidance of those having the charge of brood mares and foals. Cause of Navel and Joint Disease. The navel cord (umbilicus) connects the foal's body with the afterbirth (placental membranes) of the mare. It is made up of gelatinous tissue covering a large vein coming from the foal's liver and carrying impure blood to be purified in the lungs of the mare; two arteries carrying pure blood from the arteries of the mare, by way of the placenta, to the arteries of the foal, and a tube (urachus) from the foal's bladder which, while the colt is in the womb, discharges urine into one- of the envelopes (allantois) covering the foal. When the navel cord breaks at birth its blood vessels and tube promptly close, if all goes well. If pus-forming germs from filthy or soiled bedding, floor, or ground, get onto the raw navel cord, how- ever, they cause infection, inflammation and collections of pus at the point involved and thence germs are carried into the system and form colonies (secondary abscesses) elsewhere in the body and nota- bly in the joints of the extremities. In cases of generalized infection (pyaemia) abscesses may be found in the liver, kidneys, lungs, brain, muscles and subcutaneous connective tissue. If the urachus fails to close, urine dribbles or streams from the navel opening and, in that event, abscesses of the/ 60 DOMESTIC ANIMALS, DAIRYING, ETC. joints eventually appear, the infection having become general. The latter condition is termed pervious or persistent urachus. A ma- jority of infected foals die. Recovery is seldom perfect. The colts fail to thrive, or develop, perfectly and are apt to have chronic affec- tions of the joints. Treatment of the disease can only be properly conducted by a trained veterinarian and he may employ a special serum with some degree of success, both as a preventive and curative agent. Seventy-five per cent of the cases of this disease affect foals dur- ing the first three weeks of life. Fat, flabby foals, with extra large navel cords, often the get of overfed, pampered, underexercised stal- lions, or from mares in like condition are especially prone to the disease and are most likely to succumb. Foals that have small navel cords and are lively at birth, soon on their feet and nursing, are much less liable to attack. Stallions should be worked, or abundantly exercised, and so fed and maintained as to insure virility, vigor, stamina, robust con- stitution and the perfect health of every organ. Mares should be similarly treated. Foals will then be likely to come into the world healthy, lively and strong to resist disease. Symptoms of Navel and Joint Disease. A few days after birth the foal is found to be weak, lame, feverish and with impaired appe- tite. One joint, or another, is swollen, hot and painful. Usually the attack affects the fetlock, hock, stifle, hip, knee, elbow or shoul- der. Sometimes abscesses form at the poll, about the ribs, or along the spinal column. The swellings rapidly increase in size and sev- eral joints are affected at one time. There is swelling of the navel, and pus oozes from one or more openings. Pus forms in quantities in the affected joints. Diarrhoea usually comes on, or may be alter- nated with constipation. Soon the foal is too weak to stand, loses appetite entirely, and dies in a few days, or in two or three weeks, in lingering cases. Often urine escapes from the navel, or the foal passes bloody urine ; but the latter symptoms may, for a time at least, be present without noticeable symptoms of pus infection. Management of the Pregnant Mare. The mare in foal should be worked lightly or abundantly exercised every day. Exercise is absolutely necessary. She should occupy a roomy box stall. Here she will take some additional exercise and will not be afraid to lie down. She will be less likely to become cast and escape having stocked legs and dropsical swellings of the udder and abdomen. The bedding should be kept clean and dry. Feed the mare sound, whole oats, bran and mixed or timothy hay. Avoid moldy hay or silage, damaged grain, woody, weathered fodder, dusty or rusty straw, or hay containing ergot. Keep preg- nant mares out of corn stalk fields. Provide them with plenty of pure, clean water. In working mares avoid jerking, severe pulling, wading through deep mud, manure piles or snow drifts. Let the work be light, easy and steady. Keep the bowels active by feeding bran and a little flaxseed meal, carrots, or some sweet silage. The mare goes 48 weeks, or about 340 days with foal. As foal- ing time approaches decrease the grain ration and increase laxative CHAMPION HACKNEY AT ROYAL SHOW. ONT. AGR. Soc. RPT. 191 1. A CHOICE EASTERN CHUNK. WEIGHT, 1,550 POUNDS. UEPT. OF AGR. BREEDS OF HORSES 61 foods to keep the bowels acting freely. Constipation is dangerous. When wax forms on the teats, about three days before foaling, stop working the mare and place her in a prepared box stall where she can be watched until the foal is born. After foaling leave the mare alone for a time, if she is lying down. If she does not expel her afterbirth promptly when she rises from resting, inject into her womb one-half gallon of lukewarm 1 per cent solution of coal tar disinfectant, or other mild antiseptic. If the afterbirth then does not come away within an hour or two, it should be removed by hand. An expert should be employed for this operation and when it has been performed the womb should again be flushed out with an antiseptic solution. Half an hour after the birth of the foal, or about that time, offer the mare a pailful of luke- warm water and again at intervals of two hours. Mares are thirsty at this time and should be abundantly supplied with water. An hour after foaling the mare may eat a mash of steamed oats, and bran, if she has been accustomed to such feed; otherwise give her a small feed of her ordinary grain ration. In a few days, if the weather is fine, the mare and foal may take some outdoor exercise and in two weeks, or thereabouts, she should have recovered from foaling and be taking her usual feed, grazing grass and getting ready to resume light work in harness. The Foaling Box-Stall. Two 14 by 14 foot box stalls should be kept ready for the use of mares on every farm where foals are raised. No mare should be allowed to foal in an ordinary stall, or unpre- pared box stall. Navel and joint diseases will not be likely to attack foals born in clean places. An absolutely clean foaling place is nec- essary and should be prepared as follows: Remove and burn all loose litter, and manure. Cleanse and scrape the floor ; then saturate it with a hot 1-50 solution of coal tar disinfectant, or a solution of 4 ounces of sulphate of copper (blue- stone) to one gallon of hot water. Scrub and cleanse the walls with a similar solution of coal tar disinfectant; or a 1-1000 solution of corrosive sublimate. Cleanse the ceiling in the same way; then ap- ply to walls and ceiling fresh made lime white wash, to each gallon of which has been added one-third of a pound of chloride of lime. Cover the floor with fresh, dry planing mill shavings in preference to any other bedding material. Remove manure as soon as it is dropped. When the foal is born and has been cared for and the afterbirth of the mare has come away, remove the mare and foal to the second box stall, prepared as. was the first. Then clean out, disinfect, and whitewash the stall just used and put in fresh, clean dry shavings in readiness for the reception of the next mare. The mare must always occupy a clean, specially prepared box-stall and it should be perfectly ventilated and as sunny as possible. Where but one box-stall is available clean it out, burn the after- birth and soiled bedding, use a disinfecting solution freely on the floor and put in plenty of fresh, dry, clean shavings as soon as pos- sible after the birth of the foal. If the mare foals on grass treat the foal as if it had been born in the stable. Navel infection is less liable 62 DOMESTIC ANIMALS, DAIRYING, ETC. to occur on grass, but this is possible and preventive treatment, there- fore, is necessary, no matter where the foal is dropped. Treatment of the Foal at Birth. Attend to the navel cord (umbilicus) as soon as the nose of the foal has been cleared of after- birth. If possible avoid tying the navel cord. It is best for it to break off naturally. If it fails to break and the mare is lying down, make her get up and the cord may then break. If found necessary to tie the cord use a clean, disinfected string. A dirty string may cause infection. Soak the string in a five per cent solution of lysol or carbolic acid, or a 1-500 solution of corrosive sublimate (bichloride of mercury). Tie the cord one inch or a little more from the belly; then sever the cord with a clean knife. An emasculator or ecaseur (castrating instruments) may be used to sever the cord in place of tying it and then cutting through below the knot. Saturate the stump of the navel cord immediately, whether tied or not, with the following disinfectant: Powdered corrosive sub- limate, 2 drams; boiling water, 1 pint. When it has cooled, color the solution with 2 drams of tincture of iron, label the bottle "poi- son" and keep it out of the way of children. Repeat the application twice a day until the cord shrivels up, drops off and no raw spot re- mains. To keep the solution from blistering the foal's belly smear carbolized vaseline or unsalted lard around the navel before making the first application. A good way to use the solution is to put some of it in a shallow, wide-necked bottle, then hold the bottle against the foal's belly with the navel stump immersed so that it will be completely covered by the fluid. If the navel cord has been tied remove the string as soon as possible, squeeze put the blood clot and instantly soak the navel stump with the corrosive sublimate solution. Use the solution twice a day until the navel is perfectly healed. Re- move sloughing portions of the cord each morning, so far as possible, to allow the solution to wet all raw parts of the cord. Give Attention to the Bowels. A strong foal will be on its feet and trying to nurse in less than an hour from birth. Such a foal needs no help, but a weak one will have to be held up to suck until strong enough to do so without help. Wash the udder of the mare with a lukewarm 2 per cent solution of coal tar disinfectant and then rinse off with warm water before the foal is allowed to suck for the first time. The external organs (genitals) , tail and hind parts of the mare should be washed with a similar solution once a day for the first week or so after the birth of the foal. Keeping the udder free from infective matter in this way tends to prevent the foal from scouring, for that condition of the bowels often is due to germ infection of the intestinal tract by way of the mouth. Disinfection of the navel cord also tends to prevent scour- ing. At birth the intestine of the foal contains a sticky mass of fecal matter (meoonium). This should come away promptly and usually this is accomplished by the first milk (colostrum) which possesses purgative properties. To assist nature, either insert a small tallow dip candle (made for this purpose) in the foal's rectum, or, within an hour from birth, give an injection of either warm water, BREEDS OF HORSES 63 warm slippery elm bark tea, flaxseed tea, sweet oil, or a mixture of equal parts of cream, molasses and warm water, and repeat in 12 haul's if required. Harm may be done by injecting a large quantity of strong, soapy warm water with an ordinary horse syringe. A fountain syringe is to be preferred and small, hard rubber nozzle, or a small, clean rubber hose and funnel. Smear vaseline or lard on the nozzle and in rectum before giving the injection. If the bowels do not move within 24 hours from birth and the foal seems sick, shake up two to four tablespoonfuls of pure castor oil in milk, or a mixture of equal quantities of castor oil and sweet oil, according to size of foal, and give as one dose. Then continue the injections at intervals of six hours. Raising an Orphan Foal by Hand. In case the mare dies or has no milk the foal may be raised on cows' milk, if the attendant conducts the work patiently and intelligently. Choose the milk of a cow that has recently calved, preferably one which gives milk low in butterfat, for mares' milk while rich in sugar, is poor in fat. Sweeten the milk with molasses or sugar and dilute with warm water. Give a little of this prepared milk at short intervals from a scalded nursing bottle and large rubber nipple. Be careful to keep the bot- tle anoT nipple scrupulously clean. Add an ounce of lime water to each pint of the prepared milk and allow half a cupful once an hour at first. As the foal grows, gradually increase the amount of milk fed and lengthen the intervals between meals. In a few days food may be given six times a day and, later, four times daily. The foal will soon learn to drink from a pail, if allowed to suck the attendant's fingers at first. Until the bowels move freely, give rectal injections night and morning. If the foal scours at any time give two to four tablespoon- fuls of a mixture of sweet oil and pure castor oil shaken up in milk and stop feeding milk for two or three meals, allowing sweetened warm water and limewater instead. Let the foal lick oatmeal as soon as it will eat and gradually increase the amount and add wheat bran. In five or six weeks some sweet, skimmilk may be given and the amount gradually increased daily until, in three months or so, it may be given freely three times a day in place of new milk. The foal at this age also will be eating freely of grass, grain and bran. At all times supply pure cold drinking water. Let the foal run out in a lot or grass paddock for exercise. Accustom it to be han- dled daily. Feed small quantities of nutritious food often, keeping all food vessels clean and the foal should thrive and develop well. (Wis. Cir. 13.) HORSE FEEDING. 'Amount of Grain to Feed. While no definite rule can be made that will apply with equal value in all cases as to the proper amount of grain to feed per day to work horses, yet from actual experiments it has been ascertained that the limits from one-fifth to one and one-third pounds of grain per hundred pounds of live weight and from one to one and one-fourth pounds of hay form a comparatively safe one to follow. 64 DOMESTIC ANIMALS, DAIRYING, ETC. Time of Feeding. Quite satisfactory results have been se- cured by feeding the grain in three equal feeds and by giving one- half the hay at night, the other half being divided between the morning and noon feeds. On idle days the grain ration should be reduced one-half. Many cases of Azoturia are undoubtedly caused by high feeding when horses are idle. Comparative Value of Grains. From the tables giving the percentage composition of the various food stuffs, it will be readily seen that the cereal grains resemble each other quite closely in com- position; all are characterized by fairly low water content, that is, they are dry and contain a considerable amount of protein and nitrogen-free extract or carbohydrates. The superiority of one grain over another must, therefore, depend on some factor other than com- position. Some cereals are much more palatable to some animals than are others; some are more digestible under certain conditions than are others; some, owing to their light weight, are much safer to feed to certain animals than others. Oats. Oats undoubtedly possess a flavor that makes them pala- table and a favorite food with horses. On account of this palatabil- ity and the fact that they are readily digested by horses, makes them a favorite food for horses in America. They are considered the safest cereal grain to feed under the various conditions which the various classes of horses are fed in this country. With most horses a serious mistake in feeding as to quantity would cause no serious results, which can hardly be said of any other grain. While oats are so thoroughly relished by horses, comparatively few would eat enough to cause serious injury; even, however, if they have an op- portunity to eat all they desire. Old oats seem to be somewhat more digestible than new oats, and are therefore preferred by most feeders. Barley. Barley is sometimes fed to horses, although it is not relished as well as oats or corn. The kernels of barley seem to be too hard to suit most horses ; grinding or soaking sometimes causes them to be eaten more readily. Barley may be fed whole to horses having sound teeth that are not required to do severe work. As barley when ground forms a pasty mass when mixed with the saliva, it is usually more satisfactory to mix a little bran or other coarse material with it. (F. B. 170.) Commercial By-Products. The various meals and cakes rich in gluten materials generally speaking are commercial by-products, as cotton-seed meal or cotton-seed cake and linseed meal. These are by-products in the manufacture of oils from cotton-seed and from linseed. As it comes from the mills it is in the form of hard cakes and when ground it becomes meal. Cotton-seed meal, while very rich in protein, is not a popular feed for horses ; a little cotton-seed meal mixed with other ground feeds is often satisfactorily fed, par- ticularly if the horses are also given some succulent food ; as the ef- fect of cotton-seed meal is constipating, it should be fed with caution, except when fed in connection with foods that are more or less suc- culent. Linseed meal on the contrary acts as a laxative, and is par- ticularly prized as a horse food when the appearance of the coat is BREEDS OF HORSES 65 to be improved ; a little linseed meal in the ration seems to favor tlie easy shedding of the old coat, and to produce quickly a lustrous new coat. (Agr. Dep. F. B. 170.) Forage Crops. The leguminous forage crops, as alfalfa, clover, cowpeas, soy-beans, etc., are richer in protein than grasses. When the forage crops are dried and cured the resulting hay is rich in pro- portion to its bulk, and therefore should be fed more sparingly than timothy hay. The value of different forage crops, both fresh and cured, depends considerably upon the stage of growth at the time of harvesting. Generally speaking, the nutritive value of the whole crop increases until the growth of the whole crop is completed, but if the crop is harvested before it is mature, the resulting forage will be richer in protein than if the cutting were delayed until the plants were mature. In this connection, it should be stated that the con- sumption of protein in the food determines quite largely the amount of water consumed by the animal; consequently the use to which the animal is put will often determine quite largely the amount of protein it should consume. Green crops, hay, straw, and other cured crops, are frequently spoken of as coarse fodder" or "rough- age." This term is due to the fact that they contain a compara- tively small amount of nourishing material and the large proportion of indigestible crude fibre as compared with their total bulk or weight. Although inferior to concentrated feeds in composition, they are an essential part of the ration for horses and other farm, animals serving to give the required bulk to the food. It is believed that unless the food when taken into the stomach is comparatively bulky and the mass more or less loose in structure, it will not be as readily acted on by the digestive juices. (Agr. Dep. F. B. 170.) Roots and Tubers. Carrots, turnips, beets, parsnips and other roots and tubers contain a high percentage of water and small amounts of nourishing elements. It must be admitted however that these roots and tubers have a feeding value when given in connec- tion with other feeds in excess of the digestible compounds which they contain. They have a beneficial effect on the general health of the animal and aid in the digestion of their food. Ten pounds of roots has been suggested as the maximum quantity which may be safely fed to the average work horse. Potatoes are sometimes fed successfully, particularly to colts. The practice of feeding potatoes to work horses is more prevalent in Germany than in this country. (Agr. Dep. F. B. 170.) Cooked and Raw Foods. The investigations that have been made to compare cooked and raw feed do not sustain the practice of cooking. It has not been shown that cooking makes the food more digestible, except possibly in a few instances. Several cases have been noted, however, that showed that there had been a some- what marked advantage as to palatability. The cost of cooking is not usually made up for by the increased value of the ration. Some hard grains may be improved by cooking but the cereals that are ordinarily used in compounding rations for horses are not improved from the standpoint of digestibility. 66 DOMESTIC ANIMALS, DAIRYING, ETC. Dry and Soaked Feed. It is often claimed that soaked feed, especially hard grain, is more easily masticated and its digestibility is improved. This however is doubtful in the minds of many expe- rienced horsemen and experimenters, for it has been found by actual tests that healthy horses with good teeth digested dry beans and corn as well as they did the same material which had been soaked in water for 24 hours. Soaking or wetting the feed may sometimes be of importance as regards the health of horses. The practice of cut- ting trie roughage and feeding the grain with it causes the grain to be eaten more slowly and may on this account be of considerable value with some animals. Also the dust in some coarse fodders may be avoided by sprinkling. Ground and Unground Feed. Opinions differ as regards the advantages of grinding grain. For horses that are worked hard and are out of the stable during the day, it is quite generally believed that all grains with the possible exception of oats, should be ground. For idle horses or those at light work, grinding is not thought to be so essential. In other respects, providing the animals have time to masticate their rations thoroughly, the grinding is not necessary ex- cept in instances where animals have faulty teem. When the ration is eaten hurriedly, grinding takes the place of mastication to some extent and increases the assimilation. From all the American tests and those which have been made in Europe, it appears fair to say that there is no marked advantage in grinding grain for healthy horses with good teeth. Cut and Uncut Fodders. It is the general opinion that when horses have ample time for chewing and digesting their feed, there is no necessity for chaffing or cutting hay and straw. When tho time for feeding is limited, the cutting of these fodders is regarded as somewhat advantageous; furthermore chaffed feed occupies less space for storage than uncut hay or straw, and on that account can be more readily handled. As some horses have a tendency to eat their 'grain rations too rapidly, a decided advantage is gamed by mixing a grain ration with moistened cut fodder. (Agr. Dept. F. B. 170.) Watering Horses. Horses like other animals require water which shoulcT always be of good quality. It may be assumed that under any given normal condition the body contains a definite amount of water. When any considerable amount of this is lost a sensation of thirst is experienced. In addition to the water drunk by horses, a considerable amount is obtained in the succulent food eaten. The amount required is influenced by several factors, includ- ing season of the year, temperature of the air, character of the feed, peculiarities of the individual, amount and character of the work performed. The amount of water needed increases with the temperature and the amount of work performed. Less water is consumed when grain and succulent foods form a considerable part of the ration. In general, a horse will drink 50 to 75 pounds of water per day, how- ever under the influence of warm weather or hard work the amount may range from 80 to 125 pounds or even more, In some expert- BREEDS OF HORSES G7 ments in the British Army, it was found that when allowed to choose, horses drank about one-fourth of their daily allowance in the morn- ing, about three-eighths at noon, and about the same proportion at night. The proper time to water horses is a matter considering which opinions differ. Many feeders believe that they should be watered be- fore feeding, while others are equally certain that feeding should pre- cede the watering. Some recent experiments made in Europe tend to show that the time of drinking has no effect on the digestibility of a ration of hay and grain. When only hay was fed there seemed to be a slight advantage of watering before feeding. In the experi- ments referred to, it was found that whenever a change was made from the plan of watering after feeding to that of watering before, the appetite fell off for some days. A similar effect was not observed when the reverse change was made. It seems best, therefore, to avoid any unnecessary changes in the methods of watering. (Agr. Dept. F. B. 170.) Corn. Next to oats corn may be considered the most popular grain for horses in this country. It is so commonly used especially in the South and West that it is difficult to realize the prejudice existing against it in other countries. It is perhaps to be expected that a corn ration would be most popular where the most corn is pro- duced, that is in the corn producing belt of the United States. Gen- erally speaking, corn is among the cheapest of grains used for horse food, and consequently the most economical feeder is one who knows how to make the best use of this grain. (111. B. 141.) FEEDING HORSES. Horses and mules when pastured exclusively on Alsike pasture have in some instances become infected with a disease which consists for the most part of sores and ulcers breaking out on the skin and mucus-membrane of the mouth and eyes. This disease has been noted most in the southern part of the Mississippi Valley. The pre- cise cause has as yet not been ascertained. (Tenn. Vol. XVIII. No. 3.) Yearling colts fed a part ration of peanut and coconut meal showed somewhat larger and cheaper gains than those fed on oats, and those fed peanut and coconut meal with roughage made the best returns. (Dep. Agr. Bureau Animal Industry Cir. 168.) As a food for horses, this food seems to have a considerable value, but it is notably deficient in palatability ; it is hardly to be considered among the desirable horse concentrates. (Ind. B. 97.) The results of many trials of various rations for farm work horses have shown quite conclusively that corn and oats either ground or unground constitute one of the safest and most satisfac- tory rations. A mixture of corn and bran equal parts by weight make a good substitute for corn and oats. Some feeding experiments at the Florida Station tend to show that southern work horses fed ten pounds of corn and ten to fourteen pounds of hay improved when sweet potatoes were substituted for one half of the corn ration. The substitution being at the rate of three pounds of sweet potatoes for one of corn. Carrying the com- 68 DOMESTIC ANIMALS, DAIRYING, ETC. parison still further, a yield of 150 bushels of sweet potatoes per acre would have a feeding value of 50 bushels of corn. (Fla. B. 72.) Cassava was substituted for a part of this corn ration in a feed- ing experiment, but was not relished by the horses while sweet pota- toes were readily eaten. In some feeding tests ground rough rice seemed to be a very satisfactory substitute for corn wholly or in part when fed to work- ing mules. The conclusions being drawn that a daily ration con- taining at least eight pounds of ground rough rice per 1,000 pounds of live weight for horses and mules doing heavy work. (La. B. 122.) Millet as a Forage. The feeding of millet to horses was not at- tended with favorable results at the North Dakota Experiment Sta- tion. The results of the trial may be summed up as follows: 1. Millet produced an increased action of the kidneys. 2. It caused lameness and swelling of the joints. 3. It produced an infusion of blood into the joints. 4. It destroyed the texture of the bone, ren- dering it soft so that traction caused the ligaments and muscles to be torn loose. (N. Dak. B. 26.) Publications on horses quoted from and consulted: Wis. Circ. of Information 17, 21, 28; 111. B. 122; Fla. B. 72; Wis. B. 127; Dep. Agr. Bu. An. Ind. Circ. 137, 178, 163, 113; Wis. B. 158, 141, 169; Mo. Circ. Inf. 27; Wis. B. 188, 155; Agr. Dep. F. B. 170, 145; N. Dak. B. 45; La. B. 122; Ohio B. 195; Agr. Dep. Bu. Au. Ind. Circ. 124, 1'68; Tenn. B. Vol. XVIII. No. 3; N. Dak. 26, 20; N. H. B. 82; Ind. B. 97; 111. B. 150, 141; Mich. B. 254. THE MULE. BREEDING AND FEEDING. There are two kinds or classes of mules ; one the produce of the male ass or jack and the mare, the other the offspring of the female ass or jennet and the stallion. The cross between the jack and the mare is properly called the mule, while the other, the produce of the stallion and the jennet, is called a hinny. The mule is the more valuable animal of the two, having greater size and more finish and bone ; in fact he has those qualities which make that animal so much prized as a useful burden bearing animal. The hinny is small in size and is lacjdng in the qualities requisite to a draft animal. This hybrid is supposed not to breed, as no instance is known in which a stallion mule has been prolific, although he seems to be physically perfect. He shows great fondness for the female and serves readily. There are supposed instances on record where the female mule has produced a foal, but these are extremely rare. Characteristics. The mule partakes of the several characteris- tics of both its parents, having the head, ear, foot and bone of the jack, while in height and body it follows the mare. It has the voice of neither, but is between the two, and more nearly resembles the jack. It possesses the patience, endurance and sure-footedness of the jack, and the vigor, strength and courage of the horse. It is easily kept, very hardy, and no path is too precipitous or mountain PAIR OF BARRED PLYMOUTH ROCKS. DEPT. OF AGR. PAIR OF SINGLE-COMB RHODE ISLAND REDS. DEPT. OF AGR. BREEDS OF HORSES 71 trail too difficult for one of them with its burden. The mule en- joys comparative immunity from disease, and lives to a compara- tively great age. Pliny gives an account, taken from Grecian his- tory, of one that was 80 years old, and, though past labor, followed those that were carrying material to build a temple. Dr. Reese mentions two that w r ere 70 years old, in England. Rome and Greece had their mules, which were used for car- riages, the saddle, and carrying burdens. At this day they are used extensively in nearly all parts of the world where agricultural pur- suits are carried on, as well as in the mining regions, the cotton belt, and all sugar-growing countries, where they have largely supplanted the horse. Mules are much used in Europe ; Spain, Portugal, Italy, and France, being the countries where they are most used, and are prized highly for their gentleness and faithfulness. (Dep. Agr. Bu. An. Ind. 8th and 9th Annual Rpt.) Endurance. There is no kind of labor to which a horse can be put for which a mule may not be made to answer, while there are mjany for which mules are more peculiarly adapted than horses; among the rest, that of mining, where the mule is used, and many of them need no drivers. They can endure more hardships than the horse, can live on less, and do more work on the same feed than any other beast of burden we use in America. A cotton-planter in the South would feel unwilling to raise his crop with horses for motive power. The horse and the labor of the cotton belt could not harmonize, while the negro is at home with the mule. A mule may be worked until completely fagged, when a good feed and a night's rest will enable it to go ; but it is not so with a horse. The mule being better adapted for carrying burdens, for the plow, the wagon, building of railroads, and in fact all classes of heavy labor, let us see how it compares with that noble animal, the horse, in cost of maintenance. From repeated experiments that have come under my observa- tion in the past twenty-five years, it has been found that three mules 15 hands high, that were constantly worked, consumed about as much forage as two ordinary-sized horses worked in the same way, and while the mules were fat the horses were only in good working order. Although a mule will live and work on very low fare, he also responds as quickly as any animal to good feed and kind treatment. True, it is charged that the mule is vicious, stub- born, arid slow, but an experience in handling many mules on the farm has failed to sustain the charge, save in few instances, and in these the propensities were brought about by bad handling. They are truer pullers than the horse, and move more quickly under the load. Their hearing and vision are better than the horse. A farmer has used them in all the different branches of farming, from the plow to the carriage and buggy, and thinks they are liable to become frightened and start suddenly; and if they do start, they usually stop before damage is done, while the horse seldom stops until com- pletely freed. A farmer once had a runaway of six teams in a corn- field, five of them being mules and the sixth a horse. The mules 72 DOMESTIC ANIMALS, DAIRYING, ETC. ran and capered until they came to the first batch of green grass, and there stopped to regale themselves, while the horse ran on until he stuck the plow in his back, greatly frightened. In less than ten minutes the five mule plows were going without a bolt broken, while the plow after the horse was a wreck, and the horse ruined for life. The mule is more steady while at work than the horse, and is not so liable to become exhausted, and often becomes so well instructed as to need neither driver nor lines. They are also good for light harness, many of them being very useful buggy animals, traveling a day's journey equal to some horses. The writer obtained one from a firm of jack breeders in his vicinity, that was bred in the purple by them, as an experiment, being out of a thoroughbred mare by a royally bred jack. She is T6' hands high, as courageous as most any horse. In traveling a dis- tance of 32 miles, this mule, with two men and the baggage, made it, as the saying goes, "under a pull," in four hours, and when ar- rived at the journey's end seemed willing to go on. We do not wish to be understood as underrating the horse, for it is a noble animal, well suited for man's wants, but for burden- bearing and drudgery is more than equaled by the patient, faithful, hardy mule. The Kind of Sire to Breed From. There are two kinds of jacks the mule jack and the jennet jack, or combined jack, that is good for either mares or jennets, and is used chiefly in breeding jacks for stock purposes. It is only with the mule jack that we will deal, as the jennet jack is too costly to breed to mares, as a rule, un- less the mares are of extra quality. A good mule jack ought to be not less than 15 hands high, and have all of the weight, head, ear, foot, bone, and length that can be obtained, coupled with a broad chest, wide hips, and with all the style attainable with these qualities. Smaller jacks are often fine breeders, and produce some of our best mules, and when bred to the heavier, larger class of mares show good results, but as "like pro- duces like," the larger jacks are preferable. Black, with light points, is the favorite color for a jack, but many of our gray, blue, and even white jacks have produced good mules. In fact, some of the nicest, smoothest, red-sorrel mules have been the product of these off-colored jacks; but the black jacks get the largest proportion of good-colored colts from all colored mares. The breed of the jack is also to be looked into. There are now so many varieties of jacks in the United States, all of which have merits, that it will be well to examine and see what jack has shown the best results. We have the Catalonian, the Andalusian, the Malt- ese, the Majorca, the Italian, and the Poitou all of which are im- ported and the native jack. Of all the imported, the Catalonian is- the finest type of animal, being a good black, with white points, of fine style and action, and from 14^ to 15 hands high, rarely 16 hands, with a clean bone. The Andalusian is about the same type of jack as the Catalonian, having perhaps a little more weight and bone, but are all off colors. The Maltese is smaller than the Cata- lonian, rarely being over 14^ hands high, but is nice and smooth. BREEDS OF HORSES 73 The Majorca is the largest of the imported jacks, the heaviest in weight, bone, head, and ear, and frequently grows to 16 hands. These are raised in the rich island of Majorca in the Mediterranean Sea. While they excel in weight and size, they lack in style, finish, and action. The Italian is the smallest of all the imported jacks, being usually from 13 to 14 hands high, but having good foot, bone, and weight, and some of them make good breeders. The Poitou is the latest importation of the jack, and is little known in the United States. He is imported from France, and is reported to be the sire of some of the finest mules in his native land. These jacks have long hair about the neck, ears, and legs, and are in some respects to the jack race what the Clydesdale is to other horses. He is heavy set, has good foot and bone, fine head and ear, and of good size, being about 15 hands high. The native jack, as a class, is heavier in body, having a larger bone and foot than the imported, and shows in his entire make-up the result of the limestone soil and grasses common in this country. He is of all colors, having descended from all the breeds of imported jacks. But the breeders of this country, seeing the fancy of their customers for the black jack with light points, have discarded all other colors in selecting their jacks to breed to jennets, and the con- sequence is that a large proportion of the jacks in the stud now, for mares, are of this color. The native jack, being acclimated and to the manor born, seems to give better satisfaction to breeders of mules than any other kind. From observation and experience it is believed that our native jacks, with good imported crosses behind them, will sire the mules best suited to the wants of those who use them in this country, and will supply the market with what is desired by the dealers. The colts by this class of jacks are stronger in make-up, having better body, with more length, larger head and ear, more foot and bone, com- bined with style equal to the colts of the imported jacks. While many fine mules are sired by imported jacks, this is not to be understood as meaning that imported jacks do not get good foals, yet, taken as a class, we think that the mule by the native jack is superior to any other class. This conclusion is borne out by an experience and observation of some years, and by many of the best breeders and dealers in the United States. The Kind of Mare to Breed From. As the mule partakes very largely in its body and shape of its mother, it is necessary that care should be taken in selecting the dam. Many suppose that when a mare becomes diseased and unfit for breeding to the horse then she is fit to breed for mules. This is a sad mistake, for a good, growing, sound colt must have good, sound sire and dam. The jack may be ever so good, yet the result will be a disap- pointment unless the mare is good, sound, and properly built for breeding. First, she should be sound and of good color; black, bay, brown, or chestnut is preferred. Her good color is needed to help to give the foals proper color, and this is a matter of no small impor- tance, as we shall see further on. 74 DOMESTIC ANIMALS, DAIRYING, ETC. This should not be understood as ignoring the other colors, for some of the best mules ever seen were the produce of gray or light- colored mares, as many dealers and breeders will attest. The mare should be well bred ; that is, she would give better results by having some good crosses. By all means let her have a cross of thorough- bred, say one-quarter, supplemented with strong crosses of some of the larger breeds, and the balance of the breeding may be made up of the better class of the native stock. The mare should have good length, large, well-rounded barrel, good head, long neck, good, broad, flat bone, broad chest, wide between the hips, and good style. How to Breed the Mule. The dam should be bred about the first of April in the latitude of Tennessee, and at other places as the season opens, according to climate. Before being bred, to prevent accidents, the mare should be hobbled or pitted. Having taken this precaution, the jack may be brought out, and both will be ready for service. Care should be taken not to overserve the jack, as he should not be allowed to serve over two mares a day, and not nearer than eight hours apart. The mare, after being served, may be put to light work, or put upon some quiet pasture by herself for several days until she passes out of season, when she may be turned out with other stock to run until the eighteenth day, when she should be taken up to be teased by a horse, to ascertain if she be in season, and if so, she should be bred again. Some breeders think the ninth, some the twelfth, and some the fifteenth day after service is the proper day to tease, but observation has taught us that the best results come from the eigh- teenth-day plan. After she becomes impregnated she should have good treatment; light work will not hurt her, but care should be taken not to overexert. She should have good, nutritious grass if she runs out and is not worked, but if worked she should be well fed on good feed. The foal will be due in about three hundred and thir- ty-three days. As the time approaches for foaling the mare should be put in a quiet place, away from other stock, until the foal is dropped. She will not need any extra attention, as a rule, but should be looked after to see that everything goes right. After the foal comes it will not hurt the mare or colt for the dam to do light work, provided she is well fed on good, nutritious food. Should she not be worked and is on good grass, and fed lightly on grain, the colt will grow finely, if the mare gives plenty of milk ; if she does not the foal should be taught to eat such feed as is most suitable. Feeders, dealers, and buyers prefer the mare mule to the horse, and they sell more readily. The females mature earlier, are plumper and rounder of body, and fatten more readily than the male. When carried to the Southern market, where the buffalo gnats exist, these pests trouble the males more by biting their sheaths. The males are also more leggy and angular of body, are slower in maturing, and, as a rule, must be older to fatten readily. In weaning the colt, much is accomplished by proper treat- ment, preparatory to this trying event in the mule's life. It should be taught to eat while following its mother, so that when weaned it BREEDS OF HORSES 75 Avill at once know how to subsist on that which is fed to it. The best way to wean is to take several colts and place them in a close barn, with plenty of good, soft feed, such as bran and oats mixed, plenty of sound, sweet hay, and in season, cut-grass, remembering at all times that nothing can make up for w r ant of pure water in the sta- ble. Many may be weaned together properly. After they have re- mained in the stable for several days they may be turned on good, rich pasture. Do not forget to feed, as this is a trying time. The change from a lactic to a dry diet is severe on the colt. They may all be huddled in a barn together, as they seldom hurt each other. Good, rich clover pastures are fine for mules at this age, but if they are to be extra fine, feed them a little grain all the while. There is little variety in the feed until the mules are 2 years old, at which time they are very easily broken. If halter-broken as they grow up, all there is to do in breaking one is to put on a harness and place the young animal beside a broken mule, and go to work. When it is thoroughly used to the harness the mule is already broken. Light work in the spring when the mule is 2 years old will do no hurt, but in the opinion of many breeders and dealers make it better, provided it is carefully handled and fed. How to Fatten the Mute. This is one of the most important parts of mule-raising, for when the mule is offered to a buyer he will at once ask, "Is he fat?" and fat goes far in effecting a sale. A rough, poor mule could hardly be sold, while if it is fat the buyer will take it because it is fat. The sugar mule should be placed in the barn with plenty of room, and not much light, about the 1st of November, before it is 2 years old, and -fed about 12 ears of corn per day and all the nice, well-cured clover hay it will eat, and there kept until about the 1st of April. Then in the climate of middle Tennessee the clover is good, and the mule may be turned out on it, and the corn increased to about 20 ears or more per day. They will then eat more grain, without fear of "firing" ; that is, heating so as to cause scratches, as the green clover removes all danger from this source. During the time they run on the clover they eat less hay, but this should always be kept by them. About the 1st of May, the clover blooms, and is large enough to cut, in the latitude of Tennessee. The mules should be placed, then, in the barn, with a nice, smooth lot attached, and plenty of pure water. A manger should be built in the lot, 4 feet wide by 4 feet high, and long enough to accommodate the number of mules it is desired to feed. This snould be covered over 'by a shed high enough for the mule to stand under, to prevent the clover from wilting. The clover should be cut while the dew is on, as this pre- serves the aroma, and they like it better. While this is going on in the lot, the troughs and racks in the barn should be supplied with all the shelled corn the mules will eat. "Why shell it?" some one will ask. Because they eat more of it, and relish it. A valuable addition at all times consists of either short-cut sheaf oats, or shelled oats, and bran, if not too expensive. From the 1st to the 15th of June barley is harvested in this latitude, and it should be ground coarsely. The mules should be fe4 76 DOMESTIC ANIMALS, DAIRYING, ETC. on this, all they will eat, taking care that no feed is permitted to get sour. We usually have about this time some early varieties of corn, planted for the purpose of making early roasting ears; this is now cut in the field, and carried to the manger in the lot, and the ears pulled off, carefully husked and placed in the troughs in the barn, the stalks put in the manger. At no time must the feed be mixed, but the shelled corn, oats, bran, and roasting ears kept at all times in separate parts of the trough. By this time the mule is something of an epicure, and no more wants its feed mixed than a gentleman does his bread, meat, and potatoes. From this time the mule should be pressed with all the richest of feed, if it is desired to make it what is termed in mule parlance "hog fat." All the roasting ears, ground barley, shelled oats, bran, and shelled corn, should be fed, not forgetting to salt regularly all the while, nor omitting the hay and green-corn blades. While all those are essential, shelled oats and bran, although at some places expensive, are regarded as the ne plus ultra for fattening a mule, and giving a fine suit of hair. Be sure to keep the barn well bedded, for if the hair becomes soiled from rolling it lowers the value, as the mule is much estimated for its fine coat. The grain makes the flesh, the green stuff keeps the system of the mule cool, and balances the excess of carbonaceous elements in the grain fed. This manner of feeding, if properly carried out, with the proper foundation to start with, will make sugar mules, 2 years old past, weigh from 1,150 to 1,350 pounds by September 1, at which time the market opens. A feeder of eighteen years' experience claims that shelled oats and bran will nut on more fine flesh in a given time, coupled with a smoother, glossier coat of hair, than any other known feed. The ex- perienced feeder follows this method from weaning till 2 years old. The same care and attention requisite in feeding the sugar mule must be observed in the cotton mule, only the cotton mule is taken up about the 1st of August after it is 2 years old, and fed on green corn, shelled corn, plenty of good hay, and any kind of good green stuff at hand. Having fed it in the barn with door open into the lot until about November 1, when the weather will begin to be bad, the mule should be kept up in the barn and well bedded. If the hair does not appear as well as it ought to by the 1st of Novem- ber some shelled oats and bran might be fed, to put on the fine fin- ished, glossy coat and fat. This feeding until the 1st of January will make the mule ready for the market. How to Sell the Mule. New Orleans is the center of the sugar mule distributing region, while St. Louis, Mo., Louisville, Ky., Nashville, Tenn., and Columbia, Tenn., and other cities contribute largely in sending their products to the Southern markets of both classes of mules. All of the cities of the Western and Southern States demand large mules for their drays and heavy hauling. If the seller has properly colored, well shaped, fine haired, fat mare mules in car-load lots, he should let the buyers know he has them ? and there need be no trouble in selling. If one owner has not BREEDS OF HORSES 77 a car-load, he should seek some one who is making up a car-load to ship. Market Classes. The market classes of mules are determined by the use to which they are put, but in order for a class to exist there must be a demand for sufficient numbers of a definite type. In the East St. Louis market, which is the largest mule market in the world, there are five market classes, viz : mining mules, cotton mules, sugar mules, farm mules, and draft mules. As with horses, the class em- bodies groups of mules of a general type, while the grades are divis- ions of the class and refer to quality, conformation, condition, and action. Classes. Grades. Classes, Grades. MINING MULES. COTTON MULES. SUGAR MULES.. FAEM MULES. DRAFT MULES. Choice Good Medium Common Inferior Choice Good Medium Common Inferior Choice Good Medium Common Inferior Choice Good Medium Common Inferior Choice Good Medium Common Inferior Mining mules are those purchased with which to operate mines. They are heavy boned, rugged, compactly built individuals, with large feet and strong constitution. They range in height from 12 to 16 hands and weigh from 600 to 1350 pounds. Cotton mules are lighter boned than miners and not so compactly built. They are round bodied, smoothly turned and possess consid- erable quality. They range in height from 13-2 to 15-2 hands and weigh from 750 to 1100 pounds. Sugar mules are those shipped south to use on the sugar farms of Georgia, Louisiana and other southern states. They are taller, larger, and more breedy looking than cotton mules and have heavier bone. They stand from 16 to 17 hands and weigh from 1150 to 1300 pounds. Farm mules are those purchased to be used on the farms of the central states. They are somewhat lacking in uniformity of type and many of them are young and somewhat thin in flesh. An aver- age height is from 15-2 to 16 hands and weigh from 900 to 1250 pounds. Draft mules are large heavy boned, heavy set mules that possess quality and ruggedncss. They are used in cities for heavy teaming and by contractors for all kinds of heavy work, such as railroad grad- 78 DOMESTIC ANIMALS, DAIRYING, ETC. ing, etc. They range in height from 16 to 18 hands and weigh from 1200 to 1900 pounds and upwards. (Publications on Mules Quoted From and Consulted. Agrl. Dep. Bu. An. Ind. 8th & 9th Annual Repts., 1891 & 1892 ; Fla. B. 72; 111. B. 122; La. B. 122; Tenn. Vol. XVIII. No. 3; Agr. Dep. Bu. An. Ind. Circ. 124). Pulse, Temperature and Respiration of Domestic Animals. Name of Animal. Internal temperature Degrees F. Number of pulsations per minute. Number of respirations per minute. 100.2 34-40 8-12 Cow 102.2 40-60 12-16 Sheep and Goat 103.1 60-80 20-30 Hoe . 102.3 60-80 20-30 Doe . 101.3 55-75 20-30 Cat 100.9 70-90 15-20 (Y. R. 1900.) HORSE AND MULE RAISING. In the South. With the development of agriculture in the South and the discussion of the best methods to follow and the best policies to adopt a few subjects have received more attention from public speakers and writers than the production in that section of the animals needed for work purposes and meat production. The idea is not only that the South should supply its own demand for these animals, but that southern farmers should feed as far as pos- sible the enormous amount of cotton-seed meal and cake which is now shipped out, and thus replace commercial fertilizers to a consid- erable extent and keep up fertility with barnyard manure. Southern farm methods now in vogue have been criticised by outsiders, but none have been more severe than the leaders in agricultural progress in the South who are southern bred and born. It certainly seems anomalous to contemplate a vast section of our country spending millions annually for horses and mules, for beef and pork, and for commercial fertilizers, and selling hundreds of millions of dollars worth of fertility as cotton-seed meal and cake, when we realize that the condition of soil and climate generally throughout the South are excellent for animal production. This condition is still more surprising when we know that, properly fed, cotton-seed meal is probably the most valuable protein-bearing feed the country produces, and that its fertilizing value after having gone through an animal's body is almost as great as its feed value. It is also more than passing strange that a southern farmer will buy hay shipped from the West at from $15 to $23 per ton when his own land will often yield more hay per acre than the land where the western hay was produced and of as good a quality. Inadequacy of Local Supply of Horses and Mules. According to figures of the Bureau of Statistics of the Department of Agricul- ture there were 83,026 horses in South Carolina on January 1, 1907. These horses had a total farm valuation of $10,437,182, an average MORGAN STALLION, "GENERAL GATES." DEPT. OF AGR. A CHOICE EXPRESS HORSE, WEIGHT, 1,375 FOUNDS. DEPT. OF AGR. BREEDS OF HORSES 79 of $126 a head. The same authority estimates the number of mules in the State on the same date at 134,690, with a total farm value of $20,598,121 and an average of $153 a head. The average life of a horse in South Carolina from the time he is mature may be estimated at eight years and that of a mule at ten years. The stock of horses and mules must therefore be replaced once in each eight or ten years, respectively ; or, to express it differ- ently, 10,000 horses and 13,000 mules must be raised or brought into the State annually. If all were bred in South Carolina that would require at least 135 stallions and 12,500 mares for horse breeding, estimating a stallion to get 75 colts annually and 75 per cent of the mares to breed each year. For breeding mules the number of jacks required would be at least 240 and the number of mares 26,000, esti- mating a jack to get 50 mules a year and about 50 per cent of the mares bred to jacks to breed. This would mean a total of at least 38,000 brood mares. To keep up this supply of breeding mares probably 10,000 more should be added to the total. In other words, at least one-half of the total number of horses now in the State should be mares used in breeding both horses and mules. Furthermore, these estimates do not take into account the num- ber of foals and horses from one to four years old necessary to keep up this number, which would be nearly as many more. Therefore, if South Carolina produced her own horses and mules, nearly as many horses and mares as the State now has altogether would have to be in the breeding ranks. In other words, the State has only half as many horses as are actually needed. If we had no proof, this alone would show that the State goes elsewhere for its horses and mules. Reasons for Raising Horses and Mules at Home. In the opin- ion of the writer, there are three reasons why South Carolina farmers should raise their own horses and mules. The first one is to keep within the State the great sum which is paid annually for stock shipped in from the North and West. From the estimates given and from the best information at hand, which is largely in the nature of estimates of southern men of experience and authority, it would ap- pear that probably only about 2,000 of the horses and 1,000 of the mules used annually are raised in the State. Estimating the cost of the horses delivered to the South Carolina farmer at $125 each and of mules at $175 each, the amount of money sent out of the State an- nually is $1,000,000 for horses and $1,925,000 for mules $3,000,- 000 in round numbers, which could be retained in the State to good advantage. It may be said that if the State produced its own horses and mules the general market of the country might suffer, and local horse and mule breeders might not be able to raise them at a profit. It is doubtful if this is true, in view of the tremendous activity of the horse and mule market 3 . The year 1906 was one of unparalleled prosperity for horse and mule breeders. Prices bounded skyward, and for all classes there was a demand greater than the market could supply. This demand shows every indication of being maintained 80 DOMESTIC ANIMALS, DAIRYING, ETC. until the supply can meet it, and as long as conditions in business are good there is little, if any, reason to fear an oversupply. The rise in prices of horses in the United States has been such that the export trade has practically ceased except for the best grades of light horses. The European market can not pay the American prices. Should domestic prices decline to the European standard, the export trade would begin again, and this would prevent them from falling below a profitable level. The second reason is that by producing its own horses and mules the South has stock already adapted to its use. No time is lost in getting an animal to do his best under southern conditions. Further- more, they would be produced at cost, without having to include in the expense bill a profit to any other producer or middleman. Not only that, but after a horse or mule is 2 years old he will earn his way, and a moderate amount of work is good for him. In this way the animal has been raised to 5 years of age at a minimum cost. Not only is all this a great advantage, but the breeding of the stock is known, or if not it can readily be ascertained. This is of im- mense importance. If a farmer owns a good horse or mule, natur- ally he wants another like him, and if the sire is within reach it is an easy matter to breed mares to him with a reasonable expectation that the sire will duplicate his previous performances. Let us digress for a moment to point out more in detail the value of knowing something of an animal's ancestry before buying. The laws of heredity are powerful, and they work not through the parents alone, but through grandparents, great-grandparents, and even more remote ancestors. If a line of breeding is proposed which is com- posed entirely of animals of merit, the mating is almost sure to result satisfactorily ; but if there is a stain in it, if some animal was below standard, its faults will crop out somewhere in its descendants. That is the reason why pure breeding is surer than haphazard breed- ing, and why it is undesirable to breed to scrubs. It is for this reason that the persistent use of purebred sires of the same breed is sure to show great improvement over the original foundation stock. If for no other reason, then, southern farmers should breed their own animals so that they can know their breeding and use this knowl- edge for future benefit. The third reason why the South Carolina farmers should breed horses and mules is that the State has excellent possibilities for stock raising, and that when the supply is increased beyond local needs the demands of outside markets can be filled. The greatest horse- raising State in the country is Iowa, and the greatest horse market for the number handled is" Chicago. However, it is estimated that at least half of these horses are sent from Chicago to other points, some for final sale, others for further fitting for market. The highest class of horses will generally be found in the East, in New York and Boston, and the highest prices for good horses are to be had in these cities. Now, if an Iowa farmer sells a horse to a Chicago buyer, and the horse eventually goes to New York, that buyer's profit and the other expenses incident to sale must be included in 81 the price obtained in New York. Des Moines, Iowa, and Columbia, S. C., are quite near the geographical centers of their respective States. Columbia is over 400 miles nearer New York and Boston than is Des Moines. Columbia is just that much nearer the coun- try's best horse marke't, and there are three large cities and three great ports on the Atlantic seaboard between Columbia and New York, all of them on a direct line from Columbia. So far as the markets are concerned, the South Carolina farmer has as good advantages as the Iowa farmer. These advantages are not developed, it is true, but the conditions are full of latent possi- bilities. If good horses are bred in the South, the buyers will soon find it out and there need be no fear that good prices will not be obtained for good products. Possibilities of Southern Mule Markets. Let us now consider the possibilities of the mule market. Although many of the best draft mules are sold to the cities of the North at top prices and many are used on the farms of the Central West, the backbone of the mule industry is the southern demand. These mules are bred mainly in the States within touch of Kansas City and St. Louis, and these markets handle most of the mules of the country. St. Louis, Mem- phis, New Orleans, and Atlanta are the great distributing points. South Carolina is probably too far from Kansas City or St. Louis for her mules to sell on those markets in competition with those raised in Missouri, Illinois, and Kentucky, and these States are also much nearer the Memphis market. Further, St. Louis is 40 miles nearer New Orleans than Columbia, and on a direct line ; but look at Atlanta. Columbia is only 253 miles from Atlanta, via Augusta; yet Memphis is 419 miles from Atlanta, St. Louis is 733 miles away, and Kansas City is 903 miles away. Atlanta is coming to be one of the great mule-distributing points of the South, and is now the greatest one in the Southeast. No doubt South Carolina farmers get many of their mules from Atlanta, which were first sold on markets two or three times as far from Atlanta as Columbia. The reason for this is surely not that South Carolina can not produce good mules, because there were on exhibition at the 1906 meeting of the South Carolina Dairy and Live Stock Association native mules which were as good as any market requires. With the devel- opment of Atlanta as a mule market, the reason that more mules are not bred in South Carolina can not be that there is not a con- venient market. A golden opportunity exists here for anyone brave enough to break away from custom and act as a pioneer in mule raising. South Carolina farmers need thousands of mules of a good grade, and at their very door is a market which is in touch with the demand of half a dozen States. What more could c be -desired? Methods of Breeding and Management. The methods of breed- ing and management that should be used to produce horses and mules in South Carolina will next be considered. It is a compara- tively easy matter to discuss this phase of the subject from the standpoint of central western conditions, but the writer must confess that he approaches it with considerable trepidation when applied to 82 DOMESTIC ANIMALS, DAIRYING, ETC. southern conditions. So far as soil, climate, pasture, and forage are concerned, the conditions in the South are very nearly ideal, but there are other circumstances to be considered, chief of which are the use of negro labor and the general inferiority of the stock which must be used as the foundation on which to build. As to the negroes, no suggestions will be advanced except that many horsemen prefer them for hostlers and grooms. Throughout Kentucky the negro seems to be the favorite stable hand in many of the best breeding establishments, and it is well known that Mr. Ed Geers, the famous trotting horseman, will not have a white man in his stables if he can help it. These facts seem to show that the negro has possibili- ties as a horse handler. Necessity for the Improvement of Native Stock. The inferior- ity of the native horse stock is mentioned not to find fault unneces- sarily, but to get a point from which to approach the subject. We might as well be frank and recognize that a candid acknowledg- ment of defects in the animals under consideration will better enable us to reach a logical and definite conclusion. The class of horses which supply the southern markets is not a desirable one. Consult the market reports for St. Louis, Kansas City, Omaha, and Chicago, and it will be found that the classes known as southern horses, south- ern chunks, etc., bring the lowest prices of any. They are variable in type, ranging from very inferior light chunks to a pretty fair type of drivers. As a general rule, they are horses which the Central West can well afford to sell at any price and the South can ill afford to buy, no matter how cheap they may be. This is said solely from the breeder's standpoint. They may be the best farm horses for southern conditions, and on that point the southern farmer's opinion is more valuable than that of the writer, but the writer can not resist the temptation to say that it is doubtful if they are more valuable than their market price would indicate. Two things are certain most of the horses which the South has are obtained from the North, and the quality of these horses is generally the poorest of any sold on northern markets. It is not, therefore, unreasonable to conclude that, judged solely as horseflesh, the southern horse is not a very superior animal. Whatever the value of the native southern stock it is there, and the mares must be used as the foundation for any improvement which may be made. Improvement should be begun gradually, without any expectation of jumping from mediocrity to the highest excel- lence at one bound, and it should begin with the idea of improving, first, the general average of the farm horse of the South. The first step is the elimination of unsoundness, which should be done as rapidly as possible. In selecting mares for breeding only those should be chosen which are sound in wind and free from ring- bones, sidebones, curbs, and spavins. The tendency for unsoundness to appear is hereditary, and the presence of unsoundness makes a horse practically unsalable. For most sections of the South the next step should be the in- crease of size, and this should be done somewhat gradually. The in- BREEDS OF HORSES 83 crease in the size of farm horses is of the greatest importance, espe- cially where heavy clay soils are common. Two 1,200-pound horses will probably do more work and eat less than 3 weighing 800 pounds each, and larger ones probably in similar proportion. Next, conformation should be improved. Conformation is im- portant not only because it has a great effect on the selling price, but because a horse with good conformation will do more work and last longer than one with poor conformation. The points especially to be sought are as follows : Wide, open nostrils ; medium-sized, clean-cut muzzle; clean-cut, open jaws; clean-cut head; straight face; wide forehead; large, clear, intelligent eyes; medium-sized, smartly car- ried ears, set close together; clean-cut throatlatch; clean-cut, well- muscled, long neck, smoothly joined to the shoulders; and sharp, smooth withers. The shoulders should be sloping, and should extend well into the back ; the arm should be well muscled and well thrown back. The forearm should be wide and muscular, the knees wide and strong and strongly supported. The canon should be flat and well developed, so that there is no falling away below the knee. The fetlocks should be wide and straight, the pastern of medium length, strong, and inclined at an angle of about 45 degrees. The feet should be of good size, with large hoof heads, dense bone, well-de- veloped frogs, and wide heels of good height. The back should be straight, broad, and well muscled, and the ribs w r ell sprung. The loins should be straight, broad, well muscled, and closely coupled to the hind quarters; the croup wide and straight; the quarters fully developed; and the tail set high and smartly carried. The flanks should be full. The hocks should be clean cut, wide, strong, and straight, and the supporting canons broad and flat. Further de- scription of the hind limb practically corresponds to that of the fore limb. The necessity of these points from the standpoint of durability is obvious on a moment's reflection. A wide, open nostril generally indicates good lung capacity and therefore good constitution. A wide forehead usually indicates brain capacity; a straight face, do- cility ; a full, clear eye, intelligence ; an erectly carried ear, alertness. Roman noses frequently indicate strongheadedness and dished faces viciousness. A horse with a narrow nostril, Roman nose, small bear eye, narrow forehead, and badly placed lop ears is usually one to be suspected of being capable of all kinds of equine villainy. A thick throatlatch and short, thick neck indicate a horse which will probably be thick in the wind. Meaty withers and shoulders are seldom found with good action. A straight shoulder and pastern shows a limb predisposed to ringbones, sidebones, and other diseases, and a horse with such conformation will not "wear well. Good feet are necessary, as shown by the old adage, No foot, no horse. The development of the middle piece the body is necessary for many obvious reasons. A horse with a narrow, shallow body, low back, and weak coupling is not only a weak horse with little constitution, but a poor keeper; a fully developed back, well-sprung ribs, deep body, and closely coupled loins usually indicate a strong one. The 84 DOMESTIC ANIMALS, DAIRYING, ETC. development of the floating ribs is important, especially in a brood mare, to allow full room for the development of the digestive and reproductive organs. A full hind flank is important for the reason that a wasp-wadsted horse is usually a poor feeder and lacks stamina. The development of the hind quarters is necessary, because the greatest amount of the animal's propelling power is developed there. Not only is muscular development necessary, but the hind legs must be well shaped to endure the great strain that is exerted when pulling a load. The hocks and the legs from these joints to the pasterns should be parallel and set rather close together. Viewing the leg from the side, the back line from the point of the hock to the ground should be perpendicular. The angles of the bones of the lower leg should form an angle at the hock with the cannon of about 60 de- grees. If this angle is greater we have what is known as a straight leg, and consequently a hock predisposed to curbs. If the angle is much less a sickle hock results. Deflection of the hocks inward causes what are known as cow hocks. Bad conformation in the hock joint and light development of the joint predispose to spavin, one of the most serious forms of unsoundness. This, in a general way, covers the points to be looked for in con- formation and the reasons for them. Next, we should look for qual- ity. This is shown in the cleanness of the head, neck, and bones of the leg, by the clean-cut appearance of the tendons, the softness and fineness of the hair, and the texture of the skin. Quality is an index of the breeding of a horse and of his stamina and durability. Next, action should be looked for. This in a farm horse is most important at the walk, which should be regular, straight, free, and, above all rapid. A fast walker is a far more valuable worker than a slow one, and will turn many more furrows in a day. Action at the trot should be quick and free, straight and true. High action is not necessary in a farm horse, but the knees and hocks should be flexed well with snap and precision. Finally, in breeding stock the farmer should look for uniformity. His mares should be as nearly alike as possible, and should be so bred as to produce uniform colts. This will give an idea of the type of farm horse which will read- ily do work enough to pay for his keep. Any specific mention of the proper size for such horses has purposely been omitted, for the reason that this matter is so important that it can well be taken up again in addition to what has already been said. It is useless to expect a farm mare to produce a good-sized mule or work horse if she herself is undersized. If the South is to produce good salable mules the size of the farm mares must be increased. If it is ever to sell horses at a profit on the New York or Boston markets, the same thing must be done. In the writer's opinion the standard weight of a farm mare should be 1,200 pounds. A mare having the description given, with this weight, would produce a good mule when bred to a good-sized jack, and when bred to a suitable stallion would produce a good work horse for the farm. This statement of standard weight applies to South Carolina under present conditions, and does not apply to con- ditions which might obtain in other sections of the country, and BREEDS OF HORSES 85 might not hold even in South Carolina after several generations of systematic breeding up, as will be shown later on. Selecting a Stallion. The selection of stallions to be used in improving the native stock" is the next consideration. In breeding animals on the farm one idea should be continually in the farmer's mind breed true and do not cross. Nothing will produce mongrels more quickly than to breed mares to a stallion of one breed, their progeny to another, theirs to another, and so on. Breeding the same mares to different stallions each year will result in the same thing in the long run. To make success reasonably sure the farmer should determine for himself which breed of horses suits him best and which type in the breed. He should have only his own necessities and market demands in mind. After making such a decision he should select a good, sound, purebred stallion and breed to him, selecting others as may be needed to prevent inbreeding. How to Buy the Stallion. After the decision has been made to improve the native stock by breeding to purebred stallions, steps should be taken to get such a horse if one is not in the vicinity. As a general rule it is probable that purebred stallions are not found in very many parts of the South, and few farmers have enough mares to warrant the purchase of a horse outright. Where such is the case, enough men in a neighborhood to represent the ownership of, say, 75 or 80 mares might -band together and organize a company for the purchase of a horse, each man paying into the treasury of the com- pany a sum proportioned to the number of mares he wishes to breed. Then let this company decide on the breed to use and send a com- petent representative to visit breeding farms and select a horse. This same plan may be used for the purchase of a jack. By purchas- ing in this way animals can be obtained at the lowest possible fig- ures and the company has the advantage of dealing with the breeders direct rather than through their agents. Furthermore, if the repre- sentative of the company is qualified to judge, the company is likely to get good value. The company system of selling stallions used by many importers and breeders is applied in the opposite manner. A representative of a stallion owner visits a community and himself proceeds to organize a company. He frequently associates some prominent man with him, giving him a share of stock for his influence. When sufficient men come in to cover the selling price of the stallion at the fixed price for shares, each member gives his note for the amount repre- sented by his share, the agent discounts these notes, and the horse is sold. It is an unfortunate thing that this company method of selling stallions is used. Many horsemen condemn it strongly, even though they may use it. Its existence is condoned on the plea that if it were not used the horses would not be sold ; that the horse must be taken to the buyer, because the buyer will not go to the horse. That may have^been true in the Central West several years ago, and it may be true in some parts of the South to-day, but in this day of tremendous prices for horses of all kinds it seems strange that a really good horse can not be sold on its merits. 86 DOMESTIC ANIMALS, DAIRYING, ETC. The decline of the company system of selling in the corn belt is being followed by the adoption of the public sale by some breeders, and the firms that use the company system most extensively are car- rying it into the South and far West, where less experience has been had with it. There is little doubt that the people of these sections, too, will soon find out the faults of the system, and we can look for- ward to the time when it shall have passed from us forever. The objections to the system are its expensiveness and general unreliabil- ity. To send an agent into the field for several weeks to sell one horse (and often the horse is with him, and a groom also), to pay this agent's commission and the discount on the notes, piles up a tre- mendous expense bill, which must be added to the cost of the horse and paid for by the purchaser. Stallion owners estimate that it costs on an average about $1,000 to sell a stallion by the company system. A home-organized company could send a man to Europe for a horse at a smaller expense than that. The unreliability of the system rests on the fact that, under the law, firms are liable for the acts of their agents only when agents act within the limits of their authority. If a firm wishes to do so, when a purchasing company finds an agent's promises of no value, it can retire behind the excuse that the agent exceeded his author- ity. However, there are, no doubt, more honest agents than dis- honest ones, just as there are more honest stallion owners than dis- honest ones. The element of unreliability is of course not always present in the sale of a horse by the company system, for the representations of an honest agent of an honest firm can be depended on to the letter. But no firm can sell a horse in this way without great cost to the purchasers, in many cases more than the horse is really worth and in most cases more than the shareholders can ever hope to get out of their investment. The system has one great merit, namely, that it is taking many good horses into sections of the country where they are sorely needed, and probably the value of such horses to a community will be equal in the long run to the price paid for them, although this may not show in the books of the companies which purchase them. The Breed of the Stallion. Beginners will find themselves confronted at once by the question whether to choose a horse of a light breed or of a heavy breed. By a light breed is meant one of the carriage, roadster, or saddle breeds, such as the Standardbred, Hackney, French Coacher, Saddle Horse, or Thoroughbred. By a heavy breed is meant one of the draft breeds, such as the Percheron, Belgian, Clydesdale, Shire, etc. By selecting a horse of one of the light breeds the beginner starts on the road of producing first what our markets call general-purpose horses, and eventually horses of a better class carriage horses, drivers, and saddlers. If a heavy horse is selected, the first cross will probably be a general-purpose horse also, but with less quality than when the light breeds are used. Eventually, however, this route leads to the production of heavy horses the expressers and drafters of the market. The possibilities CHAMPION HACKNEY STALLION. DEPT. OF AGE. THOROUGHBRED STALLION. DEPT. OF AGR. BREEDS OF HORSES 89 of these two methods are merely suggested without an attempt to advise specifically which one to follow. HOW TO JUDGE DRAFT HORSES. The judging of horses is an art to be acquired by careful ob- servation, practice and experience. Not every man has the natu- rally keen observing powers and love of the subject peculiar to some men who become notable experts; yet all may acquire a practical, useful knowledge of the exterior of the horse by methodical and con- scientious study. To become a proficient judge of horses is worth striving after. The attainment gives its possessor personal satisfac- tion, the necessary information for use in breeding, buying, selling and managing horses and enables him to help his fellowmen by counsel in horse matters, or the selection of prize winners in the show ring. Masters of the art wield a mighty influence on the horse breeding operations of the country. How to Acquire the Art. A horseman should get into the habit of sizing up every horse he sees. By comparing one horse with another, he will gain experience and be able to estimate correctly the values of component parts and to judge of beauty, symmetry, corre- lation of members and adaptability for breeding purposes or work. After learning the names of the various parts of the horse's exterior he is equipped to analyze the value or deficiency of each and at length will be able to judge quickly and intelligently of the value of the entire combination of points constituting the individual horse. A great number of horses must be examined. Then several must be considered together and one compared with the other until each can be placed in its proper position as regards merit and utility. Horses of varying breed, age, type, quality, soundness and service- ability should be used as material for study. Where possible the student of horses should visit horse breeding establishments, sale stables and shows to continue his studies and round out his expe- rience, as soon as a practical knowledge of the work of judging has been acquired. How to Examine a Horse. Have the animal led out to halter and stood at ease in an open, well lighted place. View the horse from all directions. In this way an impression of the conformation, style, character and general appearance of the animal and peculiari- ties or excellencies of the various members is obtained. The horse may be moved around, first at a walk and then at a trot, to afford the judge a broadside view. This should be followed by a careful study of the animal as he walks from and to the observer and is then led away and back at a trot. The examination may then follow in detail. This analytical work is often best accomplished by means of the score card. The student of horses should learn to use his eyes rather than his hands in judging. The eye is master of the situation. The hand should only be used as an assistant to the eye. It may be used when the eye unaided cannot determine a question of quality, size, condi- tion or soundness. For example, the eye sees plumpness of flesh, but the hand must be used to decide its depth on the ribs or other part; 90 DOMESTIC ANIMALS, DAIRYING, ETC. or the eye detects what appears to be a bone spavin and the hand by feeling corroborates or disproves the suspicion. As a general rule much handling is to be avoided. Excessive handling suggests lack of confidence, experience and mature judgment. Purpose of the Score Card. The use of the score card in judg- ing teaches the student to analyze the component parts of the horse one by one until he becomes thoroughly efficient in estimating the value of all points combined in the animal. Practice with it will, in time, enable him to rapidly look over a horse, note its good and bad points and arrive at a correct estimate of its value. For the beginner who would become a capable judge of horses it is necessary at first to examine each of the points noted on the accompanying score card. The experienced judge does not use a score card in the judging ring. By long practice he has learned to quickly observe and weigh all of the points of the horse and estimate their relative importance, in placing the animals of a group in their proper positions. The use of the score card trains the student so that in time he is able to judge without its help. The points or parts of the horse, referred to above, are shown herein. They should be thoroughly learned and then demonstrated to a competent judge who should explain the characters of an ideal draft horse. Then repeated judging of many widely dif- ferent horses by the score card cannot fail to make an intelligent horse judge of the one who earnestly strives to become proficient in this useful art. Method of Using the Score Card. It will be noticed that on the score card the body of the horse is considered in sections, after study of the general appearance of the animal, which is allowed 29 points as a perfect score. Each section is given a total value as, Body 9 points and each member composing the section is studied in proper order and weighted according to perfection or deficiency noted. The student is advised to first note readily observable excel- lencies and deficiencies or faults. The latter should be first consid- ered and marked off on the score card. If, for example, the horse is notably deficient in body, on account of lack of depth, spring of rib, wealth of muscle or strength of loin and coupling, these points should first be cut upon the score card, under head of Form and then under Body as regards ribs; back; loins; underline. Supposing the horse is otherwise admirable in general appear- ance but woefully deficient in legs and action, these deficiencies should first be depreciated by cutting down the perfect score allowed for each part contributing to the deficiency. The major defects having thus been noted on the score card, the student may proceed to consider each other point in turn and, wherever necessary, cut proportionately according to the degree of each noticeable departure from ideal type. Rule for Scoring. In scoring a draft horse by the score card the amount cut for any defect should never exceed half of the total number of points allowed for the part under consideration. Neither should a cut of less than .25 point be made. For example, on the Head, which is allowed one point, never cut over .50 nor less than BREEDS OF HORSES 91 .25, if at all. In the case of the feet which are given eight points when perfect, never cut more than four points nor less than .25. The scorer must use his judgment in deciding the proportionate score to allow between these limits. Estimating Matters of Soundness. So far as possible sound horses should at first be studied in score card work. The location of the various unsoundnesses may be studied as soon as an intimate knowledge of the various points mentioned on the score card has been attained. Then actual unsoundnesses may be studied on the live ani- mal and for practice to detect and point out unsoundnesses. Where an unsound horse has to be used for score card work the unsoundness should first be located; scoring may then proceed as though the un- soundness were absent. In the actual show judging of horses to be used for breeding purposes or when buying such horses, a notable unsoundness of hereditary nature necessitates rejection of the animal, despite ideal value and perfection apart from the question of soundness. In judg- ing or buying horses for work purposes this also would hold true. The judge or buyer would reject or greatly discount in value a blind, lame or wind broken horse which otherwise might be well nigh per- fect in make-up as judged by the score card. The subject of "sound- ness" should be specially studied, after one has become proficient in ordinary score card judging. When one has become familiar with the common unsoundnesses of horses he should be able to detect most of them without using the hand. In public judging the hand should be used as little as pos- sible. In the judging ring care should be taken not to draw unnec- essary attention to noted unsoundnesses. The judge need satisfy himself alone and that in an unobtrusive manner. INSTRUCTIONS FOR SCORING. Height. A horse's height is measured in hands (4 inches) from the summit of the withers to the ground. A typical, ideal draft horse stands over 16 hands (5 feet 4 inches) and under 18 hands high. Tall, leggy horses, if deficient in weight, width and quality, are undesirable. Such horses often are found affected with St. Vitus' dance (Chorea). Exceptionally tall horses (over 17.2 hands) are difficult to match in pairs and therefore may not meet with ready sale on the market. Such horses are chiefly used for single work or as the middle horses of three horse teams. Numerical values are not given to height on the score card. One must learn to use judgment in estimating height and approximating its com- parative value for the special purpose of the individual horse. Weight. A draft horse should weigh 1600 pounds, or more, in ordinary flesh. Perfect score. 6 points. Weight in a draft horse is absolutely necessary for the hauling of heavy loads. It enables the horse to derive full benefit from the strength of his muscles, adds to the effect of his motions, and gives him a firm grip upon the ground. Heavy weight is a useless burden when not associated with adequately developed frame and muscle. It should be accompanied by vigor and energy. 92 DOMESTIC ANIMALS, DAIRYING, ETC. The Score Card for Draft Horses. SCALE OF POINTS Points Deficient. Per- fect Score Student's Score Cor- rected GENERAL APPEARANCE 29 POINTS Height, estimated hands, actual Weight, over 1600 Ibs. ; estimated Ibs., score Action, Walk : fast, elastic, regular, straight 6 4 6 6 4 3 1 1 1 1 1 1 2 3 1 Form, broad, massive, evenly proportioned, symmetrical, Quality, refined ; bone clean, large, strong ; tendons clean, defined, prominent ; skin and hair fine ; "feather," if pres- ent, silky Action, Walk : fast, elastic, regular, straight Trot : free, springy, balanced, straight Temperament, energetic ; disposition, good HEAD AND NECK 8 POINTS Head, proportionate size, clean cut, well carried ; profile straight Forehead, broad, full Eyes, bright, clear, full, same color Ears, medium size, well carried, alert Muzzle, neat; nostrils large, flexible; lips thin, even, firm. Lower Jaw, angles wide, space clean Neck, muscled, arched ; throat-latch, fine ; windpipe, large . FOREQUARTERS 22 POINTS Shoulder, moderately sloping, smooth, snug, extending well Arm, short, strong muscled, thrown back, well set Forearm, long, wide, clean, heavily muscled 2 2 2 1 3 8 2 2 2 2 1 2 2 3 2 2 2 8 2 1 2 6 Knees, straight, wide, deep, strong, clean Canons, short, wide, clean ; tendons clean, defined, promi- nent Fetlocks, wide, straight, strong, clean Pasterns, moderately sloping, strong, clean Feet, large, even size, sound ; horn dense, waxy ; soles con- cave ; bars strong, full ; frogs large, elastic ; heels wide, BODY 9 POINTS Chest, deep, wide ; breast bone, low ; girth, large Ribs, deep, well sprung, closely ribbed to hip Back, broad, strong, muscular Underline, low, flanks full HINDQUARTERS 32 POINTS Hips, broad, smooth, level, well muscled Croup, wide, heavily muscled, not markedly drooping Thighs, deep, broad, strong, muscular Quarters, plump with muscle, deep Stifles, large, strong, muscular, clean Gaskins (lower thighs) long, wide, clean, heavily muscled. . Hocks, large, strong, wide, deep, clean, well set Canons, short, wide, clean ; tendons clean, defined, promi- nent Fetlocks, wide, straight, strong, clean Pasterns, moderately sloping, strong, clean Feet, large, even size, sound ; horn dense, waxy ; soles con- cave ; bars strong, full ; frogs, large, elastic ; heels, wide, one-half length of toe, vertical to ground Total 100 In a draft horse additional weight over the average is worth 25 cents or more per pound in the great horse markets. For practical purposes the great weight of a draft horse should he made up of compact frame, large bones and powerful muscles. Fat should he BREEDS OF HORSES 93 discounted in buying a draft horse for work or breeding and, in judging, one should note the development of muscle rather than fat. A draft colt should weigh approximately 100 pounds for each month of age at 12 months. A horse is mature at five years old, but should attain practically full weight a year or so earlier, and if pure- bred, weigh 1600 or over at three years. In scoring mature draft horses reject those under 1600 pounds in weight. Cut immature draft animals for lack of development with respect to age. A young animal, not yet mature, should weigh proportionately to the mature one and be cut if markedly under weight for age. Form. The form of the draft horse should be broad, deep, mas- sive, evenly proportioned and symmetrical, the entire make-up sug- gesting great strength and weight. The body should be blocky, and compact, with short, broad, clean, well set legs showing fine skin, large joints and prominent tendons. Perfect, 4 points. The entire appearance of the draft horse should be indicative of strength for heavy hauling. A massive body, set squarely on sturdy legs, is required. Discount the horse for marked departures from such form. Quality. Good quality is shown by fine, bright, silky hair; soft, pliable skin; clean, well defined tendons; smooth, well devel- oped muscles; strong, smooth bones. It usually is associated with style, spirit and intelligence indicative of breeding. Perfect, 6 points. The term quality is applied to the evidence of refinement, as opposed to coarseness, grossness, and sluggishness. Symmetry, high spirits, lively action, endurance, all should be observed. Quality is plainly evidenced when the legs are free from meatiness, appear broad, flat, and, when showing feather (the long hair under knees and hocks) , this springs as a silky fringe from the rear of the ten- dons. Quality is the opposite of grossness and combines grac with great weight and power. Excessive quality may denote weakness, slimness. narrowness and lightness of bone. It is then highly ob- jectionable. Action. The draft horse should walk spryly, with regular, straight steps and elastic tread. The action when trotting should be free, springy and straight. Perfect walk, 6 points ; trot, 4 points. A draft horse does most of his hard work at the walking gait. It is therefore important that he should be able to walk fast without tiring. He should be able to walk four miles an hour with a load. To do this the action must be perfectly regular, straight and level. Joints must be quickly and fully flexed ; feet must be advanced and set down without deviation from a straight line. Soles of the feet should turn up and show the shoes plainly as the horse moves away from the observer, at both walk and trot. The feet should be lifted quickly, and evenly, and be set down squarely and firmly. There should be no paddling, dishing, or winging in or out, cutting or interfering, nor should the fore legs swing out or roll, or the hind legs be carried too close together or too far apart. In judging of the action the observer must note the movements of each 94 DOMESTIC ANIMALS, DAIRYING, ETC. leg and foot, the handling of each joint and the carriage of the en- tire body, as the horse walks and trots. Watch closely for lameness. The hocks should be carried well together when in motion. Rolling, or waddling in front is due to too great width of chest. Knee and hock action should both be free and comparatively high. Perfection of action at the walk is of highest importance in the draft horse. Temperament. The draft horse should show a vigorous, lively, energetic disposition, yet be docile, tractable and intelligent. He should be neither sluggish, nor irritable, nor excessively nervous. Perfect, 3 points. Noticeable vices, as cribbing, wind sucking, weav- ing, tail switching, shying, biting, kicking, head shaking, etc., are undesirable and a horse showing one or more of these habits should be cut sharply. Sluggishness associated with fat should be avoided, as it induces disease. Stupidity, clumsiness, meanness or excessive nervousness are objectionable and should discount the animal. Head. Should be large, proportionate in size to the body and well formed, clean, free from coarseness and irregularities. Perfect, 1 point. Strength may be shown in the head as well as the rest of the body. It should not be excessively fleshy or irregular. It should be carried well up and balanced properly upon the neck. Forehead. Should be broad, full and not dished or too promi- nent. The profile of the face should not be too straight or of Roman nose form. There should be good width, and fullness between the eyes, which indicates power and intelligence. Perfect, 1 point. Eyes. Should be bright, clear, mild, full, sound, of the same color. The lids should be smooth, well arched and free from angu- larities and wrinkles. Perfect, 1 point. The eyes should be free from cloudiness, specks and white spots. They should not be staring or bulging. Test the eyes by gently threatening to strike with the hand. A horse with good sight will flinch under this test. The pupil should be elliptical in form, not circular, and should contract when the animal is suddenly brought into the light from a dark stable. Ears. Should be of medium size, well placed, alert, normally active and free from coarseness. Perfect, 1 point. The ears should be in proportion to the body in size, neither too large nor too small. They should be of good quality, soft, pliable and free from excessive amount of coarse hair. Muzzle. The nostrils should be large and flexible, the lips thin, even and firm and all of the parts neat and clean cut. Perfect, 1 point. The skin and hair of the muzzle should be of good quality. Small nostrils and a narrow face indicate poor breathing power. Note the lining membrane of the nostrils and the partition between them to see that it is pink in color, healthy, free from ulcers or purple spots and with no discharge or bad odor. The lips should be even, firmly held without drooping and be free from sores or wounds. Lower Jaw. There should be a wide space between the lower jaw bones, free from meatiness, abscesses or tumors. Perfect, 1 point. Jaw bones that are too close together indicate deficiency in ability to chew food and the animal is usually hard to keep in good BREEDS OF HORSES 95 flesh. The lower jaw bones should be smooth and even and the skin soft and free from much long hair. Neck. A well arched, evenly muscled neck in proportion to size of body and large windpipe and smooth insertion into the shoul- der is desirable. Perfect, 2 points. The neck should be well arched, not curved downward (ewe neck) or broken in crest. It should fit neatly into the head and be free from thickness, coarseness and en- largements at the throatlatch. The neck should merge evenly and smoothly into the withers and shoulders and be free from sores at the seat of the collar. The mane should be thick, lie properly and of good quality. Largeness of the windpipe indicates good breathing powers. The jugular vein should show no scars of bleeding and the glands about the throat should be clean and of normal size. Shoulder. The shoulder of a draft horse should be moderately sloping, smooth and extending well back. Perfect, 3 points. A ma- jority of poorly formed draft horses have shoulders which are too steep. Occasionally the shoulders are too sloping. Either extreme in a draft horse is objectionable. Trouble with collars comes from these causes when the horse is doing heavy pulling. The correctly laid shoulder should form a smooth comfortable bed for the collar. Straight or upright shoulders detract from easy, free action of the forelegs and generally are found associated with upright pasterns. The shoulders should be smoothly and deeply covered with muscles and be free from coarseness, roughness, sores and tumors. The withers should be well covered and moderately high. Arm. The arm of the horse extends from the point of the shoulder to the elbow and should be short, heavily muscled and well thrown back. Perfect, 1 point. This part is formed of the arm bone (humerus) and must be so laid as to bring the leg in proper posi- tion to support the weight of the forequarters. The elbows should be prominent, clean, and not held too far out or too close in to the body. Score off for straight, poorly placed or inadequately muscled arms. Forearm. The forearm, extending from the elbow to the knee, should be long, flat, wide, heavily muscled and free from coarseness. Perfect, 2 points. This portion of the body of the draft horse, together with the lower thigh (gaskin) of the hind leg, can- not be fattened, but is composed chiefly of lean muscle and bone. The muscles should be prominent in front and above and the entire part clean and free from puffiness or coarseness. For weakness, lack of length, or deficiency in muscle, cut sharply. Knees. The knees should be straight, wide, deep, strongly formed and smooth. Perfect, 2 points. So long as these and other joints are free from puffs, bony growths and meatiness, they cannot well be too large or too strongly developed. Knees should be straight and so set as to perfectly carry the weight of the body. Sprung knees, or buck knees, bent in the forward direction are as objection- able as those of the reverse type which are known as calf knees. Examine the knees for blemishes and the canons for splints close up to the knees. Splints will be likely to cause lameness. -Blemishes 96 DOMESTIC ANIMALS, DAIRYING, ETC. may indicate tendency to falling. Score off for small, weak, crooked or tied in knees or those that are rough, coarse, fleshy or scarred. Canons. The canons, extending from knees to fetlocks, are composed chiefly of bones and tendons. They should be short, strong, clean, wide and with tendons prominent and smooth. Per- fect, 2 points. The desirable flat appearance of these short, strong bones is largely due to prominence of back tendons and to lack of coarseness and meatiness. Feather, if present, should be fine, silky, springing from the rear of the tendons. Such hair indicates fine, strong dense quality of bone and is usually associated with strong tendons. Coarse, kinky hair, growing from the rear and sides of the canons, indicates coarse skin overlying spongy bone and gives the legs a round appearance. Fetlocks. These should be wide, straight, strong and free from puffs, callouses or interfering sores. Perfect, 1 point. What has been said about feather in the foregoing paragraph applies equally to these joints. Sores or callouses caused by interfering, knuckling, cocking forward or breaking backward are highly objec- tionable. At the back part of each fetlock, under the "footlock" of hair, will be found a horny projection, known as the ergot. This is large and prominent in some draft horses, but less developed in horses of the light breeds. These and the chestnuts on the inner, lower part of the hock joints are considered vestigial hoofs of the prehistoric horse. Chestnuts are also found above the knees. Pasterns. These bones, extending from fetlocks to hoofheads, should be moderately sloping, strong and clean. Perfect, 3 points. The tendency in the average draft horse is toward short, upright pasterns and stubby gait. This is highly objectionable as are also very long, weak pasterns, which bring the back of the fetlocks too close to the ground. The latter cause strain upon the tendons when drawing heavy loads. The short upright pasterns are even more objectionable since they prevent springy, elastic action of the feet and allow concussion to jar the bony columns of the legs. The irri- tation and inflammation induced by continued jarring often result in sides bones, ring bones, corns and kindred diseases. The bone of the pastern should have a slope of about 45 degrees and the front of the foot 50 degrees. Horses having upright pasterns and consequent stubby action wear out quickly when used upon paved streets. Feet. The hoofs should be ample in size, sound, smooth and symmetrical in shape. Perfect, 8 points. The hoof is a continua- tion of the skin of the parts above. The color of the skin decides the color of the hoof. Dark colored hoofs are preferred. Color counts for little, however, if the hoofs are of poor shape and texture. The horn should be smooth, waxy looking and free from cracks or ridges and the coronets (hoof heads) should be open, prominent and wide at the heels. The sole should be slightly cupped (conclave) , not flat, or bulging (convex) ; the frog large, elastic, healthy and without a deep cleft; the bars prominent. Discount small, weak, brittle, flat, low-heeled or over large, spongy, soft, shelly feet as well as those BREEDS OF HORSES 97 that are unsound. Poor fore feet are one of the commonest and most serious faults in draft horses. Chest. As this part encloses the heart and lungs it should be roomy in every respect. Perfect, 2 points. The chest is judged from the front and sides. It should be fairly wide, markedly deep, with the breast bone low and level and the heart girth large. A narrow, shallow chest denotes poor constitution, lack of endurance, and deficient breathing organs. If too wide the action tends to wad- dling or rolling. A narrow chest and high knee action often go to- gether. An ample, wide, deep chest denotes vigor, power, strong constitution and easy keeping qualities. Ribs. These form the barrel and should be deep, well sprung and carried low at the flank and close to the hip. Perfect, 2 points. Flat ribs mean lack of room for the digestive organs; the rounded barrel indicates good keeping qualities and ability for hard work. A cut up flank, with short, flat ribs and a long, loose coupling, indi- cates weakness, poor digestive powers and poor keeping qualities, tendency to scour and constitutional debility. Back. The general appearance of the 'back should denote great strength and compactness. Perfect, 2 points. The back extends from the rear of the withers to the last rib and should be broad, straight, and muscular. If the ribs are poorly sprung the back will be narrow and sharp. A rounded barrel tends to give a horse a slightly leggy appearance. This must be considered in judging. Loins. The loin is the part of the back not supported by ribs. It couples the body to the hips and should be short, wide, deep and strong. Perfect, 2 points. Long low loins are objectionable. Ac- tion of the hind legs is defective (slouching and scuffling) where there is such conformation. A roach back is the opposite of a sway back, and is preferable to the latter. The loin of the mare is longer than that of the male, but should be strong, not sagging. Underline. From the floor (sternum) of the chest the under- line of the body should run back full and low. Perfect, 1 point. If the underline slopes sharply upward to the stifle the abdomen has a cut up appearance. This indicates lack of roominess and denotes poor keeping qualities. Hips. The upper part of the hind quarter should show great development of wide, thick, smooth muscle and freedom from angularities and coarseness. Perfect, 2 points. The muscles of the hips, and hind quarters in general, give the hind legs the power to start and draw heavy loads. The region should be capacious for the accommodation of the maximum amount of muscle. Steepness toward the root of the tail (croup) detracts from the symmetry of form and lessens the space available for attachment of muscles. Croup. The part of the hind quarter from the top of the hip to the insertion of the tail. It should show comparative levelness, am- ple muscle and great strength. Perfect, 2 points. The most nota- ble deficiency of this part in draft horses is excessive droop, or steep- ness and shortness, with weakness of muscle. Such conformation tends to slouchiness in gait and often is associated with sickle hocks. 98 DOMESTIC ANIMALS, DAIRYING, ETC. The draft croup should be smooth, of fair length, and neither too steep nor perfectly level. Thighs. From the hips, down to the stifles ; should be strongly muscular, wide and long. Perfect, 3 points. Slim, light, narrow, poorly muscled thighs denote lack of draft power. It is important that the thighs and all other parts of the hind quarters should be richly supplied with muscles. Quarters. Looking from the rear the plump muscles of the inner sides of the thighs form the quarters and should be full, thick and carried well down to the second thighs (gaskins). Perfect, 2 points. Stifles. These joints should be strong, thick with muscle, clean cut in front and free from dropsical swellings. Like the elbows they should be so set as to allow of straight, free action, and there- fore neither appreciably turned toward or away from the body. Per- fect, 2 points. Gaskins. These are the lower thighs and correspond to the forearms and what is true of the latter also applies equally to the gas- kins. The muscles should be large, prominent in front of the bone and carried well downward. Perfect, 2 points. Hocks. These are most important joints as the great strain of load starting and hauling falls upon them and they must be im- mensely strong and perfectly sound or soon they will break down. The joints should be large, clean, sharply defined, wide, deep, and well set. Perfect, 8 points. Poor hocks are a common fault in draft horses. It is important to improve this deficiency. To that end breeding animals should have good hocks and for work horses this also is imperative. The hock (not hind knee) is commonly the seat of some one of such diseases as bone and bog (not blood) spavin, thoroughpin and curb. These should be avoided. The joint should look and feel firm, hard and with each bone well defined, free from meatiness and of great size. The point of the hock should be prom- inent, clean and sharp and the tendons under it straight, distinct, but free from bulging. Canons, Fetlocks, Pasterns, Feet. "What has been said rela- tive to these members of the fore leg applies with equal truth to the corresponding parts of the hind extremity. The canons of the hind leg should have the same wide, flat appearance desirable in those of the fore leg. As the hind feet strike the ground a slanting blow, while concussion on the fore feet is direct, absolute correctness in form and perfect soundness is somewhat more important in the fore feet than in the hind feet. The hind pasterns may be slightly more upright than those of the fore leg. The hoofs of the hind limbs are steeper and narrower than those of the fore legs. The hind fet- locks are most likely to be blemished by puffs and interfering sores. SOUNDNESS AND UNSOUNDNESS. The professional veterinarian when examining a horse for soundness proceeds on the basis of a negative test. He looks in turn for one of a number of possible unsoundnesses each at its particular BREEDS OF HORSES 99 location. Not finding an unsoundness present he accounts the part sound. If all parts are found to be sound, the animal is certified to as sound. There is no such condition as serviceably sound. A horse is either sound, or unsound. He may be too unsound to work, or able to work despite unsoundness. The seriousness of the particular un- soundness present is to be estimated by the judge and for that inti- mate knowledge and experience are necessary. For breeding purposes any disease is serious. A disease con- sidered hereditary is most serious. A distortion, deformity or blem- ish, due to accident, is not serious on the score of transmissibility, but depreciates sale value. In work horses the degree to which a disease or unsoundness is temporary or permanent and likely to de- tract from serviceability for work, must < i. BROWN Swiss Cow. 2. DUTCH BELTED BULL. 3. RED POLLED Cow. DEPT. OF AGR. BREEDS OF DAIRY CATTLE 133 POLLED DURHAMS. Origin and History. This is a breed of cattle, if it may yet be called a breed, which has originated in America; but its foundation lies away back in the dawn of history regarding domestic cattle in England. At the time the earliest definite knowledge of improve- ment in the cattle of Great Britain begins the middle counties formed the scene of activity, and the district of Craven, a fertile corner of the West Riding of Yorkshire, bordering on Lancashire, seems to have been the place where the first decisive work was done which laid the foundation for a great race of cattle. The farmers of Yorkshire were well ahead of the rest of the country two or three centuries ago in their ideas of cattle improvement. The first group, or perhaps breed, to receive distinction and a name were the Longhorns. Their horns were as long as those of the typical Texan steer, but were drooping instead of erect. The result of the next marked epoch in English cattle breeding was the Durham breed, which, by contrast with preceding favorites, were named Shorthorns. Another century has passed, and between sports selection, and artificial means, Ameri- can breeders have been able to separate from the general Shorthorn stock a family retaining all the other features of that race, but with no horns at all. These are called Polled Durhams, and have become so fixed in type and in the potency of the hornless feature that they have been allowed a name and place as a distinct breed. It has taken shape within two or three decades, and one chary of new breeds is somewhat startled to find that animals registered as Polled Durhams are also admitted to the American Shorthorn Herd Book. Although thus largely of Shorthorn blood, the old familiar muley cow of the native stock of the country, often a brindle in color, was used to a considerable extent in the early work of building this breed and breeding out the horns. But, having served its purpose, this common blood is now rather despised, and one of the requirements for entry of animals in the American Polled Durham Herd Book was that after the year 1899 females shall carry at least 96% per cent of Shorthorn blood, unless their parents are already registered. Besides this, they must have the "color and markings characteristic of the Shorthorn," but must be hornless. This branch or family of the Shorthorn breed for that is what it is was developed mainly in Ohio, and is best known in the valleys of the Ohio and Mississippi and in States to the westward. Characteristics. As to size, color, and general appearance, the Polled Durhams answer perfectly to the description of the typical Shorthorn of the beef form, without the horns. Red is the color pre- ferred and prevailing. They should be, and usually are, classed as belonging to the beef breeds ; yet so many animals of dairy excellence appear among them that they deserve this mention. One of their most careful breeders and earnest champions says of them: They have the contour and general make-up of the grand old breed from which they have been mainly builded; besides, in their development the milking qualities have not been lost sight of, and among them are some excellent milkers. 134 DOMESTIC ANIMALS, DAIRYING, ETC. In their dairy capacity they may also be said to practically dupli- cate the milking Shorthorns, so that a separate description is unneces- sary. The breed is not yet sufficiently strong in numbers and has not been handled enough for dairy purposes to furnish milk records of value for herds or single animals. In short, they have been from the first, and continue to be, bred primarily for the development of feed- ing quality for beef production as their dominant characteristic, and their service as milk producers must be regarded as a secondary con- sideration. It remains still to be determined to what extent this breed will affect the interests of dairymen. At the Columbian Exposition (1893) the Polled Durhams were entered as general-purpose cattle, and in the sweepstakes rings for that class they received the highest honor in competition with representatives of several other breeds of similar character. Breeders of these animals organized in the year 1889 as the American Polled Durham Breeders' Association and at once began the compilation of a herdbook. RED POLLS. Origin and History. This is another of the comparatively new breeds, as its independence has only been recognized within the last half of the nineteenth century, and it is another without horns. Red Polled cattle resemble the Devons almost as closely as the Polled Dur- hams resemble the Shorthorns. Yet the two red races are probably not closely related ; the Devons are natives of the Dartmoor region in the southwestern portion of England, and the Red Polls had their origin on the eastern plain, north of the river Thames, and particu- larly in the counties of Norfolk and Suffolk. The progenitors of this breed were the little, old, red, horned cattle of Norfolk and the dun, or mouse, colored polled animals of Suffolk. According to very early records the latter were superior milch cattle. Arthur Young, in his Survey of Suffolk, published in 1794, mentions the hornless cattle of that country and says : There is hardly a dairy of any consideration in the district that does not contain cows which give, in the height of the season, 8 gallons of milk a day, and 6 are common among many for a large part of the season. For two or three months a whole dairy will give 5 gallons a day on the average. And he adds: Many of these beasts fatten remarkably well and have flesh of fine quality. Low, writing in 1845, after giving the breed, under the name of Polled Suffolks, a poor character in respect to almost everything ex- cept milking powers, suggested the probability of its immediate ex- tinction. But since that time much enterprise has been shown among the cattlemen of that part of England. The early stock of Norfolk and Suffolk has been merged (from about 1846), handled with skill, the horns eliminated on the one side and all color but red upon the other. The traces of an infusion of Scotch Galloway and West High- land blood, doubtless once made, have been well covered, and the Red Polled cattle have now recognition as a breed and come well to the front. They have not made much headway in Great Britain, how- ever, outside of the two counties named. Some of these hornless cattle, red and of other colors, were among those brought to the early English colonies in America, and the so- called muley cows among our natives are probably descendants, more BREEDS OF DAIRY CA TTLE 135 or less mixed with other strains, including the Scotch Galloways, of these early arrivals from Norfolk and Suffolk. But the first notable importation of the breed in its modern form was made in the year 1873 by Gilbert F. Taber, and this herd, to which he added in 1875 and 1882, was maintained for some years in Putnam County, N. Y. A number of importations to the United States have since been made, and the State of Ohio has lately been the center of active interest in making these cattle known in this country. Characteristics. The animals of this breed are about the same size as Devons, and, being of the same color and of the beef form, the resemblance is still greater. The absence of horns and the change thus caused in the shape of the head, which assumes a comparatively high and sharp crown, or poll, with a tuft of hair upon it, is the only noticeable distinction. The development of the milking parts has been better maintained in the Red Polls, so that at present their udders, teats, and milk veins show the better. In the matter of teats this may have been overdone, as with the Polls these are often unduly large, puffy, and conical. While red is the required color, it is per- missible to have a white tijD to the switch and some white upon the udder, although the latter is deemed undesirable. The Red Polled cattle are strong in constitution, hardy, good grazers, active in move- ment, and quiet in disposition. In general appearance the animals of this breed are of the beef type blocky, round, full, smooth, and fine-boned. Their aptitude for making meat seems to be greater than for making milk. Their special friends claim them to be good at both, and press their merits strongly as the general farm cow. It is needless to present here the proofs of their excellence as 'butchers' beasts. Milk Records. As dairy animals the Red Polls must be placed in the second class with the other breeds which aim to serve the dual purpose. They appear to give rather more milk than Devons on the average, but not quite so rich in quality. Being comparatively few in number in this country, dairy records of entire herds in the United States are lacking, and the available figures mainly pertain to records in Great Britain. Good herds there average 5,000 to 5,500 pounds of milk annually per cow, and, when small and selected, occasionally rising to 7,000 pounds. One record is claimed of 7,744 pounds eacn for 22 cows. The first herdbook for this breed was published in England in 1874, and in 1883 the Red Polled Cattle Club of America was organized, and issued its first volume in 1887. A few years later the English and American associations united their herdbooks, which have since been a joint issue, all animals of the breed in both coun- tries being registered together. This is the only instance of its kind among the purebred cattle organizations of this country. SHORTHORNS. Origin and History. The cattle which have been most famous as a breed in England and America, which have received the longest and closest attention of breeders and improvers, which have com- manded prices singly and in herds far above all others, and which have made the most general impression upon the live stock of both countries during the nineteenth century, are the Shorthorns, or Dur- 136 DOMESTIC ANIMALS, DAIRYING, ETC. hams. Wallace says they are descended from the old Northeast of England breed, variously designated as Durham, Teeswater, York- shire, and Holderness, and adds : The breed was probably originally formed, though perhaps several centuries ago, by crossing the aborigi- nal British cows with large-frame bulls imported from the Continent. Early Shorthorns were good milkers, and it may be presumed they in part inherited that quality along with the shortness of horn from their Continental ancestors. Little is known of the breed except from the uncertain authority of tradition down to the early part of the eighteenth century, though it is only right to infer that long before this time great care and even skill had been .bestowed upon it. The earliest records show that purity of breed was fully appreciated, and this important fact could not have been universal without previous experience and attention. The great county of York, extending along the east coast of Eng- land from the river Humber to the Tees, and westward almost to the Irish Sea, has the honor of being the seat of the most noted examples of improvement in British cattle. It was this country which fur- nished the foundation stock upon which Gresley, in Staffordshire, Webster in Warwickshire, and that greatest of all breeders, Robert Bakewell, in Leicestershire, labored to create the breed of Longhorns, which filled all the middle counties of England during the eighteenth century, and was then regarded as the most valuable in the Kingdom. And it was Yorkshire, helped somewhat by the smaller county of Durham, adjoining on the north, which brought the famous Short- horns to the front, following closely upon the best days of the Long- horns. The former replaced and practically absorbed the latter, spreading over all middle England and northward across the island and well into the lowlands of Scotland. Inseparably connected with the development of the Shorthorn breed are the names of Robert and Charles Colling, who brought their favorites into a new era of fame and popularity during the last decades of the eighteenth century and the first of the nineteenth. The Collings were shrewd advertisers as well as good breeders. In those days of slow communication and absence of fairs and shows they adopted the clever plan of sending specimen animals of their breeding on long tours about their own and adjoining counties. Two of these animals became especially famous. The Durham Ox, which had a live weight of 1% tons, and The White Heifer that Traveled, weighing considerably over a ton, were driven about the country for several years and extensively exhibited. Almost equally valuable to this breed have been the later services of Bates and Booth and Cruickshank. Under these leaders, and in the hands of a host of able lieutenants and followers, this superb race of cattle has been raised to the highest rank in the United Kingdom, carried to the continent of Europe, and introduced into all British colonies. It was the first pure breed to make an impress upon the cattle of the United States. The Shorthorns in America. The Revolutionary war was scarcely over before attention began to be given to improving the BREEDS OF DAIRY CATTLE 137 cattle in America. Virginia led in the work with several small im- portations between 1783 and 1800, and from these pioneer animals the first pure-bred Durhams were taken to Kentucky. In 1817 there was a special importation for Kentucky use, from which the descend- ants can be fully traced to the present time. This stock was popu- larly called the "milk breed," but they were improved Shorthorns, some of them from the Collings herd. Also in 1817 some of like breeding reached New r York and Massachusetts. A few years later they obtained a foothold in Pennsylvania. Several importations followed prior to 1835, but up to this time the breed did not seem to do well east of the Alleghenies. In Kentucky and Ohio, on the con- trary, great progress was made. Twenty years of special activity then followed in the development of American Shorthorns. During this time the famous herd Thorndale, New York, was built up, and the Alexander herd at Woodburn, Kentucky. A quiet period of fifteen years was followed by another Shorthorn boom, beginning after the civil war, and the climax came in September, 1873, when the celebrated New York Mills sale occurred. One hundred and nine head of Shorthorns were then sold at auction in three hours for $380,000. Eight cows averaged $14,000 each, and six others averaged $24.000; one sold for $35,000 and another for $40,600. British breeders acknowledged that the United States possessed bet- ter Shorthorns than could be found in England, and sent over agents to take back some of them at any price. During the last hundred years the Shorthorn blood has been more generally distributed through the United States than that of any other cattle, and it has proved most acceptable as the basis of improvement for the com- mon, or native, stock, both for beef production and dairy purposes. The aim of nearly all the improvers of Shorthorns has been to secure early maturity, size, form, and beef-producing qualities. All is useless that is not beef was the motto of an eminent breeder, and he has had many followers. Thomas Bates is the most noted of the few who have seemed anxious to retain good milking capacity. The Shorthorns are a beef breed and have been so for generations. They are classed among the beef breeds at all the great exhibitions, and, as a breed, do not even pretend to be general-purpose animals. But there have always been good dairy cows among them, and in Eng- land, especially, strains and families have been kept somewhat dis- tinct and known as milking Shorthorns. A few breeders in the United States have followed this example, and enough were found in 1893 to make up a herd which entered the famous dairy-cow tost at the Columbian Exposition and there made a most creditable record. This alone entitles the Shorthorns to a place in these pages, although their best friends would hardly claim them to belong to the class of special dairy breeds. Characteristics. In point of size the Shorthorns are probably the largest among pure breeds of cattle. In their modern form they are not so tall and have not so large a frame as some of their English ancestors, but the lower, blockier, fuller form maintains the maxi- 138 DOMESTIC ANIMALS, DAIRYING, ETC. mum weight. Bulls ordinarily weigh a ton and more, sometimes running up to 3,000 pounds; mature cows range from 1,200 to 1,600 pounds, sometimes falling a little below and sometimes ex- ceeding these limits. The colors of the breed have always been red and white, with various blendings of these two. Many of the best among the early Shorthorns were pure white, but that color has lost caste, and red is especially fancied in this country. In England, however, the roan color is much more common than any other, and this peculiar blending of the red and white, popularly called roan, is rarely, if ever, seen in any animal of the bovine race which does not possess some portion of the Shorthorn blood. (Sanders.) The lines of the body are straight, the rectangular form, with well-filled points, broad, level back, full loin, heavy, thick buttocks, wide apart, brisket wide and full, legs rather short, close, fine-boned and well proportioned to size of body. In the best milking strains the cows are rather more rangy and angular in outline, with large, hairy udder and good-sized straight teats, well placed. The skin over the whole body is flesh colored, soft, oily to the touch, and cov- ered with fine short hair. The animals are quiet and kind in dispo- sition. Nearly all show evidences of long-continued high breeding, and this has been carried to such an extent in many cases as to cause more or less delicacy of constitution and sometimes shyness in breeding. Milk and Butter. It has been already noted that among the early Durham and Teeswater cattle there was much dairy excellence, and that Shorthorns when first brought to America earned the name of the milk breed. Among old records are those of cows giving 6, 8, and even 9 gallons of milk a day on grass alone. Although now latent in most lines, there seems to be a dairy quality inherent in the breed which some careful managers are able successfully to develop and propagate. Records of several dairy herds in the United States within a quarter century show a milking season of about two hundred and seventy-five days and an average produce of 6,500 pounds of milk. One herd of 10 cows, from 3 to 12 years old, averaged 7,750 pounds in a year. Single cows have averaged much more, several instances being known of 10,000 to 12,000 pounds in a season. The 1 Shorthorn milk is of good quality, rather above the average ; the fat globules are of medium and fairly uniform size, so that cream sepa- rates easily ; it is rather pale in color. * The first Shorthorn herdbook was published in England in the year 1822, but for nearly a century before pedigrees of some fine bulls had been kept with reasonable accuracy. The American Short- horn Breeders' Association was organized in 1842 and publication of the herdbpok of this country began in 1845, connecting with the Coates series in England. (F. B. 106.) THE DAIRY HERD; ITS FORMATION AND IMPROVEMENT. Introduction. The pursuit of dairy farming depends for its success upon certain fundamental conditions. First, the owner of the business himself, or otherwise the agent or manager who has the BREEDS OF DAIRY CATTLE 139 immediate control and personal direction of the work, must have a natural fondness for animals, prompting to generous and kind treat- ment, as well as good judgment in selection, breeding, and care. It is not sufficient that he should be a horseman, or fond of cattle in gen- eral; for best results he should have a special liking for the dairy cow, over and above all other animals. Second, the cattle must be good of their kind and of a variety suited to the work. They must be truly dairy cattle. Third, the farm should be specially adapted to the branch of husbandry in view. A good dairy farm is pretty cer- tain to be good for general farming, but many good farms in general are not suited to dairying. The dairy farm should be carefully selected, all the requirements of the business being well considered. Yet many disadvantages so far as the farm is concerned may be successfully overcome by the skillful dairyman, and dairying in some form is profitably conducted without any farm, so that this condition, important as it is, can not be regarded as essential. Fourth, it is well to study the character of the accessible markets and the means of communication; location and the line of dairying to be followed may be largely controlled by the markets. The first and second of the above qualifications remain as the essential factors the owner and the cow. Like almost all other occupations at the present day, dairying has become divided into several distinct and special lines. These differ mainly as to the form of product and the manner of disposing of it. Milk or cream may be produced for delivery to consumers, and this delivery may be direct or indirect. The same products may be delivered to a factory for manufacture into butter or cheese, or the milk product of the herd may be worked up at home and there converted into butter or cheese. The prudent dairyman should first consider which line of business he will pursue. In so doing he must have regard for all his circumstances the location, markets, farm, buildings, water and ice supply, the labor at his command and his own preference, and prospects for profit. Upon his decision as to the particular kind of dairying to be followed should depend the character and composition of his herd of cattle. Cattle for the Dairy. Dairymen are divided in opinion as to the kind of cow which is most profitable. Some prefer a "general- purpose cow," which is a member of a specially developed milk-pro- ducing family from one of the beef breeds, or grades of such stock. An animal is thus secured which has a large frame, is easily kept in good flesh, and fattens soon when not milking heavily; such an one also has large calves, profitable for veal or for growing as steers. Even if such animals are not so productive while in the dairy, their meat-making proclivities may make up for it. There are two or three of the established breeds of cattle which claim to possess com- bined qualities for meat and milk. On the other hand, many dairy- men prefer cattle of the distinct class or type especially adapted to dairy purposes alone. This class includes various families and breeds, all having the marked characteristics which distinguish the milk producer. Owners of such cows expect them to be so profitable aa 140 DOMESTIC ANIMALS, DAIRYING, ETC. milkers that their beef-producing quality and the final disposition of their carcasses may be largely ignored; and the calves, except so far as wanted to raise for the dairy, are given little consideration. Which of these lines of policy should be pursued every dairyman must determine for himself. To succeed in his business he should select his herd or its foundation with a view to profit. Whether he should buy, breed, and feed his cows, having in view only their dairy products and capacity for reproduction, or whether he will find it more profitable to include the items of beef and veal, must be largely determined by home conditions. Special Adaptation. Within the general class of dairy cattle one can find great variety and can therefore select breeds or families well adapted to the special needs in view. Some dairy cattle are noted for the quantity of milk they produce; others for the high quality or richness of their milk. Some combine quantity and qual- ity in a specially economical w r ay, under some circumstances. There are cows of active habits, which forage well on a wide range of scanty pasture, and will profitably work up the coarser kinds of food in winter. There are others which have proved their capacity for making good returns when more closely confined and subjected to high feeding. Some cows give a great flow of milk for a compara- tively short season, and others are noted for an even, steady yield of milk the year through. The dairyman can easily find cattle, therefore, adapted to his particular wants. As a rule, the different dairy characteristics named pertain to different breeds, so that every dairyman is likely to find some one breed of dairy cattle better suited to his wants than any other. This is not the place to revive the never-ended "battle of the breeds." No matter how strong one's convictions, discretion must be exercised. Pronounced opinions and direct advice as to the several recognized dairy breeds are here unnecessary. Evidence abounds on every side, and every dairyman, or prospective dairyman, can satisfy himself as to the cattle he should adopt, if he will but make a proper study of the subject. He need not go far in this country to find the kind or breed of cows for milk supply, one for butter mak- ing, or one for the cream trade. There is no special cheese-making cow ; the best butter cow is also the best for cheese ; this fact has been demonstrated beyond dispute. Formation of the Dairy Herd. There are two very different ways of forming a dairy herd and of maintaining its size and quality. It may be done by buying or breeding or these two methods may be combined. By Purchase. The purchasing plan is practiced to a consider- able extent by those who produce milk for town and city supply. In a few cases it has been known to be successful where the work of the herd was to make butter. Applied in its extreme form, cows are bought when mature and at their prime, judged almost exclusively by their milk yield, are highly fed so as to keep steadily gaining in flesh, and are sold, usually to the butcher, as soon as they cease to be profitable as milkers. The bull may be of any kind so long as he SHORTHORN BULL. DEPT. OF AGE. BREEDS OF DAIRY CATTLE 143 gets the cows in calf, as the calves are of value only as causing fresh cows and are disposed of as soon as possible. The first modification of this system is to keep extra good cows for several seasons and the next to raise heifers from some of the best milkers to replenish the herd. This way of making up a herd and keeping good its numbers requires abundant capital and rare judgment in buying and in sell- ing. .It can not be recommended to one lacking experience, and even the shrewdest buyer runs great risk of bringing tuberculous animals into his herd. By Breeding. The other extreme is to begin with a few well- selected animals as a foundation, and gradually build up the herd to the size desired, by judicious breeding and natural increase. This method takes time, and time which may be money, but it is by far the safer and more satisfactory in its results, and it must be recog- nized as a higher grade of dairy farming. Foundation of the Herd. A desirable combination in starting is to buy the number of cows desired and good animals of the sort determined in advance. If one's means will permit, include a few superior cows and a first-class bull at any rate. Let the cows selected be such as have had two calves, and perhaps three, so that they may be judged by their own development and yet be young enough to improve and be in full profit for some years. With a herd thus formed, begin at once the work of improvement by breeding and selection. Sell promptly any cow which proves unsatisfactory and replace her by the best increase of the herd, or purchase occasionally an animal which will raise the average quality. Purebred Dairy Cattle and Grades. A dairyman can hardly be advised to buy at once a full stock of purebred cattle of any breed, if his sole object and dependence for profit is to be the dairy product of the herd. Such a venture will necessitate large investment, and should include the breeding of registered animals, for sale at re- munerative prices, as a part of the business. Well-bred and well- selected grade cows of the line of blood desired seem to be the most profitable animals for the practical dairyman, or at least the best to begin with. If enterprising and progressive, the owner will hardly be content with grades only. He may begin with only his bull pure bred; presently he will want a registered cow to match, then one or two more. Thus he will be steadily and properly working toward a purely-bred herd. If the breed chosen is the right one for the object sought, it will soon be found that the more of this blood the herd contains the better. Starting with half-bred cows (the off- spring of pure-bred bulls and dams of mixed or uncertain blood), the next grade, three-fourths pure, will prove better dairy stock, if the bull is what he should be and the increase has been culled. An- other step higher is better still, better for the dairy, and so the grad- ing goes up and improvement goes on until the blood of the herd is practically pure, but for production only. The best dairy results may thus be reached, but the herd has a taint. It lacks pedigree. Its increase, however excellent in dairy performance, must pass and sell as grades. The owner feels this, and is pretty sure to gradually 144 DOMESTIC ANIMALS, DAIRYING, ETC. replace his grade cows, almost pure bred, with fully pedigreed and registered animals. This end is reached sooner and easier by start- ing with one or two registered females, and, of course, a registered bull. Moderate investment and the lessened risk of loss in the hands of one unaccustomed to handling registered stock, and finding a mar- ket for the surplus, doubtless favor grades for the dairy herd. The argument and the probabilities of success, based upon the fixed prin- ciples of breeding, are on the side of purebred registered stock. In the hands of experienced men the latter prove the more profitable in actual practice. Buying Registered Cattle. In these days any dairyman who wants registered animals of any of the approved breeds can get them if he will but make the effort. The beginner in registered dairy stock can not be too strongly urged to buy and breed on the basis of indi- vidual and family merit and dairy record, and not upon lineage alone. Pedigree that includes both lineage and performance is of value and should be well studied; it is the best guaranty that the calves to come will make good cows. It is also economy, having chosen the right breed, to purchase good representatives of that breed, rather than be content with only average or even ordinary animals. Suc- cessful dairying has proved that the greater profit comes from the best cows, whatever their kind. This is as true of purebred or regis- tered stock as of common cows. It is better to pay $300 for three ex- cellent cows than to pay the same sum for four good cows or five which are only fair. A really superior dairy cow of a superior family, with pedigree which gives assurance of calves equal to the dam, if not better, is always worth a large price. Such an animal adds much to the average value of any dairy herd. In buying registered cattle deal only with men of reputation as breeders and of strict integrity. THE BULL AND HIS TREATMENT. Selection of the Bull. With any dairyman who depends upon breeding and rearing calves for the maintenance of his herd and its improvement, the choice of a bull is a matter of prime importance. The bull is constantly referred to as the head of the herd, and that trite saying, The bull is half the herd, should never be forgotten. Every calf added to the herd takes half its blood from the bull. Often this is the more important half. The bull is always the main dependence for raising the average quality of the herd, and should be chosen with this object in view. This is especially true if the cows are grades and grading up is in progress. The grade dam may be selected and largely relied upon to give size, form, and constitution to her heifer calf; its dairy qualities may be largely derived from the purebred sire. One cow may prove a poor dam, or fail to breed, and still give a profit in milk. Such a loss is comparatively trivial and the fault easily corrected. But if the 'bull fails, or proves a poor sire, the entire increase of a year may be lost. In getting a bull, get a good one ; or at least approach the ideal as nearly as possible. Make a study of the animal's pedigree and the dairy history of his an- cestors, and especially of the females among his nearest of kin. Then see that the good qualities of his progenitors appear to be reproduced BREEDS OF DAIRY CATTLE 145 in the animal in question. A common error among dairymen is to use immature bulls and to dispose of good ones before their merit as sires has been fairly proven. Bull calves are cheap, and young bulls are considered much easier to handle. But it is good advice to the buyer to purchase a bull of some age, whose progeny prove his value as a breeder; and having a sire of proved excellence, to keep him and use him for years, or as long as he shows himself potent and pre- potent. Temperament. The chief objection made to bulls of some age is that they are likely to be vicious and dangerous. Everyone recog- nizes the difference in temperament between the fleshy, beefy bull and the one of pronounced dairy character ; but experience and obser- vation have taught that the bulls of marked dairy type are much alike in disposition, regardless of breed. In all the breeds some bulls will be found of naturally bad temper, but it is believed that the great majority of bulls of all the dairy breeds can be safely kept until too old for service and handled without serious trouble, if only properly reared and judiciously managed. Control and Exercise. In rearing a bull, accustom it to being handled from calfhood, but without fondling or encouraging frolic. Give it kind, quiet, firm, and unvarying treatment, and keep .it always under subjection, that it may never know its strength and power. Insert the nose ring before it is a year old, keep this renewed so as to be always strong, and always lead and handle the animal with staff in the hands of a discreet and trusty man. The bull should never run loose in yard or pasture, but should be provided with abun- dant and regular exercise, always under restraint and full control. Incidentally, he may be made to run a fodder cutter or a cream sepa- rator and perform valuable service. As age and strength increase, let the staff be supplemented by strap, chain, or rope attached to a second ring. To this may well be added some hitching or leading chain with a strong strap around horns or neck. Let there be always a double hitching device, so that the bull may never by accident find himself loose when he should be tied. If restiveness and temper are shown, add to the exercise, in duration or quantity, without vio- lence ; a bull physically tired may be depended upon to be quiet and easily managed. It is much better to keep the bull as much as pos- sible in the presence or in full sight of the herd than stabled by him- self in a lonely place. Culling the Herd. As soon as the herd is established and in working order, the study of every individual animal should begin. To guide rational treatment and insure greatest profit, the owner must become familiar with the characteristics of every cow. The system of record should conform to the circumstances of the case and extent of the business. The record should include a concise his- tory and description of every member of the herd, with a summary of the dairy performance. The latter requires a daily record of the milk yield of every cow, with notes explaining irregularities or occurrences of interest. If the quality of the milk i.s a matter of any importance, as it is in most cases, and ought to be, however the milk is disposed 146 DOMESTIC ANIMALS, DAIRYING, ETC. of, a fat test should be made of the milk of every cow, for several consecutive milkings, as often as practicable. Some form of the Babcock tester is the simplest, and now within the reach of every dairyman. (See Babcock Test.) According to the size of the ap- paratus, a certain number of milk samples can be tested at one time, and thus the record of a large herd can be completed in a few days. It is well to make this test and record of the quality of every cow's milk at least once a month. The most satisfactory practical record is the average percentage of fat found in the milk of several suc- cessive milkings, samples from which may be mixed and this com- posite sample tested, thus obtaining the average ; the method is easily learned and practiced. This record of quality, taken periodically, joined with a summary of the daily quantity of milk, gives a full dairy record of the cow, upon which her value can be readily com- puted. To give the owner a more complete knowledge of his opera- tions,- there should also be a record, of at least approximate accuracy, of the food of every cow, with monthly summaries of quantities or value, so that the economy of production may be shown. Value of Records. Such records are far more easily made than the description may indicate, and are well worth all they cost. They form the only accurate and safe basis for judging the individual merits of the different animals. The improvement of every herd, which should be the constant aim of its owner, depends upon period- ical culling and getting rid of unworthy members. No one can afford to do this upon guesswork alone. Raising the Standard. Good judges believe that in the entire country one-fourth of the cows kept for their milk do not pay for their cost of keeping, and nearly a fourth more fail to yield annual profit. As a matter of ordinary business prudence and a condition essential to best results, every dairyman should study the individ- uality of his cows, keep a sufficient record of quantity and quality of milk product, know approximately the cost of production, and sys- tematically weed out his herd. After proper consideration and prac- tical tests as to possibilities, set a standard for a satisfactory cow and maintain this standard by promptly disposing of the animals which fail to attain it, unless reasonable excuse appears, with the prospect of better conduct in future, and gradually but persistently raise the standard. Fewer Cows More Money. 'Tis quality of cows rather than quantity that counts. It never pays to keep a really poor producer. Reduce the herd half if necessary ; it's profits you want. Apply the scales and test to the whole herd and an ax to the robber cow. A certain dairyman had ten cows that gave him a total profit for the year on the whole herd of only $81.20. The six best cows sepa- rately would have profited him $82.62. Four cows were kept at a great loss. Good Cows are Money Makers. The increasing demand for milk indicates that there is money ahead for the wise dairyman. Good cows require the attention of a good man in order to be profit- able. Abundant food, congenial stables and kind treatment are BREEDS OF DAIRY CATTLE 147 essential. When these can be assured, fill up the stables with high- grade cows and success is yours. Remember that the low producer is a bad investment at any price, but that the cow liberally endowed with dairy capacity is always a powerful factor for good upon the farm. The sire is often much more than half the herd and through his purity of breeding the profitable cow must always be sought. Necessity for Testing Each Cow. Common observation teaches us that there is a great difference in the profit derived from the dif- ferent cows of every herd. To the milk producer this difference is obvious in the widely different amounts of milk yielded and in the persistency with which they maintain the production as the lactation period progresses. When scales are not used the amount is gener- ally estimated by the fullness of the pail, but the presence or ab- sence of foam may greatly influence the judgment. Until one has employed the scale in weighing the milk from his cows he cannot realize how far from correct has been his estimate of their annual production. Guessing at the amount of milk given is unsafe and unbusinesslike. It is surprising, though nevertheless true, that the regular milker of any cow in a herd, where the milk is not weighed regularly, can seldom guess within 1,500 or 2,000 pounds of her actual yearly milk production. If the amount of milk yielded were the only consideration, it could be readily met by the use of scales. However, in order to ap- proach the true value of a cow, we must know her butter making capacity, and as this is not necessarily in proportion to the amount of milk given, the quantity and quality of the milk for both butter making and direct consumption must be taken into consideration. For this reason the Babcock test should be used in every herd to de- termine each cow's capacity for producing butter fat. Testing the milk at regular intervals will give fairly accurate results. After test- ing numerous herds it has often been observed that cows previously considered of good dairy ability have made poor annual records, while some of which little was expected have done very well. The necessity of testing is all the more apparent when we re- flect that the nature of milk makes it impossible to judge by its ap- pearance as to its richness in butter fat. The coloring matter of milk is not necessarily associated with the butter fat, so that the richness of color does not always indicate the proportion of butter fat. Without some accurate means, such as the Babcock test, for de- termining the quality of the milk from each cow, a dairyman can never be sure as to which are his best and which his poorest cows. Until a cow's ability to produce milk and butter fat is approximately known, she has her owner at a disadvantage. (111. Circ. 76.) How to Make the Test. The simplest method is to use a spring scale on which to weigh the milk from each cow, and the Babcock test in order to determine its butter fat content. The other ap- paratus necessary to conduct this work consists of a small sample dipper for taking the samples, tin-top pint milk jars for holding the composite samples, corrosive sublimate tablets for preserving the 148 DOMESTIC ANIMALS, DAIRYING, ETC. samples, labels for numbering the composite milk jars, and milk record sheets for recording the weights of milk. The milk pails should be of the same weight, if not, one should be selected as a weighing pail, and the adjustable hand on the scales set back so that the weight of the empty pail causes the hand to stand at zero. In this way no deduction for the weight of the pail need be made. As soon as the milk is drawn the pail is hung on the scales, and the exact weight recorded immediately in the proper place under the cow's number on the record sheet. Every ninth week the milkers should weigh and sample each cow's milk separately, for fourteen consecutive milkings. Sampling the milk consists in taking a small quantity from each milking, using a dipper provided for the purpose, and putting'the same into the composite sample jar bearing the cow's number. It is understood that each cow should have a number, and a milk jar numbered to correspond into which is placed the sample dipper full from each of the fourteen consecutive milkings as just indicated. This com- posite test sample, as it is called, is kept from souring by placing a corrosive sublimate tablet in the jar before taking the samples, one tablet being sufficient to keep the composite sample sweet for two weeks. The sample should be carefully agitated each day by a gentle rotary motion of the sample jar, but care should be taken not to throw the cream upon the sides of the vessel and allow it to adhere, as this makes it difficult to get an accurate test. After the sample from the fourteenth milking has been taken, the composite sample is ready for testing, and the percentage of fat which it is found to contain is the average percentage of fat in the milk for the week. (111. Circ. 76.) Health of the Herd. There is no point of greater importance in selecting animals for the foundation of a herd, or in making pur- chases of additions, than to get perfectly healthy stock. Animals chosen should be critically examined and should afford evidence of being strong in constitution and of healthful vigor. It is advised that all be tuberculin-tested and this, of course, should be done by a competent veterinarian. Environment. Close confinement, with impure air and lack of exercise, is as prejudicial to the health of milch cows as to that of human beings. Some recently promulgated theories of dark, warm stables and no exercise for profitable milk production are without rational basis and certain to lead to disastrous results sooner or later. Exposure to storms and cold is equally injurious to the health and profit of cows. A judicious mean is the provision for moderate exer- cise in the open air and sunshine, and the application of the same common-sense care for the comfort of cows which one would approve for members of his own household. Watchfulness. Every member of the herd, young or old, should pass under the critical eye of the owner or his trusty assist- ant daily, and preferably twice a day. The least symptoms of dis- order, like dullness, loss of appetite, rough coat, and irregularity of BREEDS OF DAIRY CATTLE . 149 milk, manure, or urine, should be noted and promptly receive the attention which it deserves. Experience is needed on the part of the caretaker to detect and correct the beginnings of trouble, and thus maintain the general health of the herd. Regularity and Cleanliness. A herd of good dairy cows de- serve to have good care, and this can only be insured by having the right kind of attendants. If the owner is unable to either attend the cows himself or give the matter personal supervision twice a day or more, it is to his interest and profit to be certain that his em- ployees are trustworthy and fit to be cow keepers. Everyone should be quiet, even-tempered, gentle, and regular and cleanly in his habits. A cow abominates an unclean man. Tobacco in all its forms is obnoxious to every department of dairying. All the work about the herd should be done with the utmost system and regular- ity stable cleaning, grooming, exercise, watering, feeding, milk- ing; a fixed time for everything and everything at its time on the dot, (Agr. Dep. F. B. 55.) Methods of Mil Icing. Milking the dairy cow is such a simple operation, and one that occupies in the aggregate, so much of the dairyman's time, that it is easy to become careless about it and to look upon the operation as one not requiring skill nor demanding scientific investigation. The feeding of the herd has received careful attention, both by investigators and farmers, until it is now probably correct to say that the dairy cow in the hands of the progressive dairyman is more scientifically fed and nourished than most chil- dren. The ventilation and sanitation of stables has also been the subject of much discussion, but it is certainly a fact that the art of milking has not received the attention it deserves, at least not until very recently. (Cornell B. 213.) It matters not how high the grade of the individuals comprising the dairy herd, or with what care they are housed and fed, careless or ignorant milking is sure to reduce the quantity and lower the quality of the milk and eventually ruin the milking qualities perma- nently, especially in the case of the heaviest milkers. It is even claimed by high authorities that the progeny of a fine milking strain may be seriously affected in their milking qualities for generations afterwards, no amount of after care being capable of repairing the damage done. Thi? indicates strikingly one phase of the possible far-reaching effect of carelassness or ignorance in one branch of the manifold operations of .the dairy. On the other hand, careful, observant dairymen have profited by the knowlege that thorough stripping tends to stimulate and de- velop milk secretion, and therefore insist that their milkers strip clean. The shippings are much richer in fat than is the first milk drawn from the udder. With this knowledge so general among dairymen, it seems a little strange that the facts have only recently been worked over into a definite practical system, applicable in every well-regulated dairy. 150 DOMESTIC ANIMALS, DAIRYING, ETC. The Hegelund Method of Milking. The milking is done with dry hands and with the whole hand. After the milk flows readily the milking is proceeded with as rapidly as possible and without in- terruption until full streams of milk are no longer obtained. At this point the milker begins with the manipulations of the udder, which are three in number, and may be described as follows : First Manipulation. The right quarters of the udder are pressed against each other (if the udder is very large, only one quar- ter at a time is taken), with the left hand on the hind quarter and the right hand in front of the fore quarter, the thumbs being placed on the outside of the udder and the four fingers in the division be- tween the two halves of the udder. The hands are now pressed toward each other and at the same time lifted toward the body of the cow. This pressing and lifting is repeated three times. The milk collected in the milk cistern is then milked out, and the manipulation is re- peated until no more milk is obtained in this way; then the left quarters are treated in the same manner. Second Manipulation. The glands are pressed together from the side. The fore quarters are milked each by itself by placing one hand, with fingers spread, on the outside of the quarter and the other hand in the division between the right and left fore quarters; the hands are pressed against each other and the teat then milked. When no more milk is obtained by this manipulation, the hind quarters are milked by placing a hand on the outside of each quarter, likewise with fingers spread and turned upward, but with the thumb just in front of the hind quarter. The hands are lifted and grasp into the gland from behind and from the side, after which they are lowered to draw the milk. The manipulation is repeated until no more milk is obtained. (Wis. B. 96.) Third Manipulation. The fore teats are grasped with partly closed hands and lifted with a push toward the body of the cow, both at the same time, by which method the glands are pressed be- tween the hands and the body; the milk is drawn after each three pushes. When the fore teats are emptied, the hind teats are milked in the same manner. (Hawaii B. 8.) Hand Milking. Nothing has been produced which begins to compare with the human hand as a milking machine. Cleanliness and regularity are the first requisites in good milking. Next, quiet and gentleness should be accompanied by quickness. Two milkers, one rapid and the other slow (the cow being accustomed to both), will get about the same quantity of milk in any given number of days, but the former will get the more fat. The quicker the milking the richer the milk, if the work is done well and completely ; the dif- ference may not 'be great, but it is measurable in butter or money. Again, two men milking like quantities in like time, from the same cows or animals, giving milk usually just alike, will^get different re- sults as to richness, and if they change places the richer milk is se- cured by the same man. The milk fat or butter fat comes from the cow, but it is the expert milker that gets the most of it. There seems to be an undefined and yet conclusively proved relation between BREEDS OF DAIRY CATTLE 151 some milkers and the cows they handle which produces this result. It is certain that change of milkers, manner or time of milking, irregularity, or any disturbance at milking time, may be expected to cause loss of butter fat in the milk. In short, it pays, and pays well, to have milking done in the very best way, by the very best milkers that can be found. A superior milker should be appreciated and retained as persistently as a superior cow; the former is the more difficult to replace. (Agr. Dep. F. B. 55.) Results Obtained by Machine-Milking. Two milking machines were installed more than a year ago and they have been used con- stantly since. No special experiment was attempted with the ma- chines except that of using them under practical conditions and ob- serving the results. The same class of men were employed to oper- ate the machines that had been employed for hand-milking. The class of farm labor in Tennessee has had practically no experience with machinery. During the first six months four different men operated the machines, and none of these men handled them long enough to be- come well acquainted with the method of operation. During the year and a half that the machines have been in use, seven different men have been employed to operate them, and three successive months is the longest period any one man has remained in charge. The machines have consequently not been given the advantage of an ex- perienced operator. The only stripping done after the machine has been to try each teat as soon as the machine was removed to see if the cow was milked dry. These records for machine-milking are with cows of all ages. There seems to be little relation between age and the way the cows respond to the machines. Heifers had extremely small teats, however, and considerable trouble was found in fitting them with cups. The No. 00 cup that is being sold now will no doubt give better yields with this class of heifers. There were three heifers on the machine this year that have never been milked by hand. They have held up well in milk up to the present time. One lost 131 pounds in five months and another 59 pounds in seven months, and the other was 30 pounds higher during her fourth month, 67 pounds higher dur- ing her fifth month, and 16 pounds higher during her sixth month than during her first month of lactation. No udder troubles occurred that could be ascribed to the use of the machine. Wo 'had a few cases of slight inflammation during the last six months, but in each case the cow had a skin trouble which appeared before the inflammation. In each case there were skin eruptions on the udder. When the machines were properly handled they were not painful to the cow and did not injure the teats or the udder. Conclusions. 1. Under the conditions existing during the test, machine-milking has been at least equal, if not slightly superior, to hand-milking. 2. Under average conditions a cow is milked as clean with the machine as by hand. An expert operator can milk cleaner with the machine than the average man will by hand. 3. If 152 DOMESTIC ANIMALS, DAIRYING, ETC. the teat-cups and mouthpieces are properly adjusted the machine is not injurious to the teats and udder or objectionable to the cows, some even preferring it. 4. The machines are not difficult to keep clean and a high grade of milk is secured when machines are used. If neglected, however, they soon become filthy and are a serious source of contamination. 5. One man running two machines is nearly equal to two hand-milkers. There is a great difference between the number of cows different men will milk per hour. To secure thor- ough milking and rapid work, the operator should follow the ma- chines closely to see that each cow is milking properly. 6. Success- ful milking with machines depends upon the proper fitting of cups and mouthpieces, the operator being sure that each teat is milking before going to the next cow, and thorough manipulation of the udder before removal of the machine. In many cases it is necessary to use a smaller-sized teat-cup during advanced stages of lactation than when the cow is fresh. 7. The operator should be above the average farm laborer in intelligence and mechanical skill. 8. Trou- bles that occur in operating are due more to misuse than to any fault of the machine. (Tenn. B.) Milking Machine Experiments. Of the 41 farmers reporting, 31 submitted favorable reports either the first or the second time, while 27 submitted only favorable reports. We may consider, there- fore, that we are justified in concluding that 27 out of 41 farmers at the time they reported their experiences, had made a success of ma- chine-milking, while six out of this number had failed. It is evi- dent from the comments made by the farmers that the success of ma- chine-milking will depend largely on the man operating the machine and on his attitude toward machine-milking. If he is willing to give the machine a fair trial and to follow the directions of the manufac- turers he will, as a general rule, foe able to make a success of this method of milking, at least to the extent of approximating the results obtained by good hand-milkers, and perhaps even improving on those secured by general farm help who are often prejudiced against the work of milking. The experiences of practical dairy farmers and the results of careful exhaustive trials agree in showing that so far as the machine itself is concerned, the problem of mechanical milking may now be considered solved, although minor improvements in the present ma- chine are needed and will doubtless be made before long. Properly cared for and handled the milking-machine will prove a valuable aid in the solution of the hired-help problem on many dairy farms and will become an important factor in the further development of our dairying industry. (Wis. B. 173.) First and Last Milk Drawn. A number of tests were made of the same and of different cows in order to discover the difference, if any, between the first pint of milk drawn from the udder and the pint last drawn. The average per cent of fat in the milk of each cow for a number of days before and after the trial is shown herein for the sake of close comparison. The udders were washed before milking, excepting in a few instances. It was omitted in these BREEDS OF DAIRY CATTLE 153 cases under the impression that the manipulation incident to the washing might affect the per cent of fat in the first milk drawn. The results do not indicate, however, that such was the case. The cows were milked in the usual manner, through a funnel into a pint bot- tle until the first pint was secured, after which they were milked into a pail until nearly finished. Toward the close they were again milked into bottles containing one-fourth of a pint each, and when the milk- ing was finished, the last four quarter pints were taken as represent- ing the last pint drawn. It will be noticed that in every case the per cent of solids not fat is higher for the milk first drawn, and the per cent of fat lower; but the difference between the fat of the first and last drawn is much greater than the inverse difference between the solids not fat, and its fluctuations are wider from day to day, and between different cows. Pasture Season and Soiling. As soon as the spring grass gets high enough for the cows to get a bite, let them have it. At first the time daily on pasture should be very short, for the good of both pas- ture and cow. The latter should be gradually changed from stable feeding to pasturage, especially if the feeding has been of dry ma- terial or mostly so. And the stable feeding should continue un- changed, undiminished, until the cow herself indicates that she is getting enough grass to replace a part of the stable ration. Then, as the pasturage improves, indoor feeding may be lessened and finally discontinued. If a pasture furnishes an abundance of variety of grasses, there can be no better food found for the milch cow. The nutritive ratio for mixed pasturage is about 1 to 5, which can not be improved for succulent food. But the best of pasture grasses contain from 65 to 75 per cent of water, sometimes more, and the cow must procure a large quantity of this material, 100 pounds or so in the course of a day, to secure the food material required. Shade and water should be carefully looked after in connection with pasturage, as well as the grass. In very large pastures there should be watering places in different parts of the inclosure, as well as shade, that the cows may not be compelled to travel far to find either. Until flies become troublesome, cows had better stay in pasture by day and in stable by night, or be left out all tjie time. But in the worst fly time, and perhaps when the sun's heat is greatest, it is good practice to stable the herd during' the day in an airy but shaded cowhouse, and turn it on pasture at night. If the pasture has not abundant shade and water this course should certainly be followed. Heat and flies reduce both quality and quantity of milk product. The trouble from flies can be largely remedied by spraying the cows. (See "Fighting Flies," p. 165.) Summer Feeding. Every owner of a cow welcomes the time when the animal can be turned out to pasture. Not only is the labor and expenses connected with winter feeding done away with, but each cow is expected to give the best results of the year on grass. In changing from dry feed to grass, it is best to go somewhat slowly, especially with heavy milking cows. The young, immature grass, such as we have in early spring, contains a large amount of water and 154 DOMESTIC ANIMALS, DAIRYING, ETC. a small amount of dry matter, and it is almost impossible for a heavy milking cow to eat enough of such feed to supply the necessary amount of nutrients. Wheat and rye pastures are of the same na- ture. Another reason for putting cattle on pasture gradually rather than suddenly, is the effect on the taste of milk. When a cow is changed at once from a grain ration to grass a very marked taste is developed in the milk, while if this change in feed is made gradually and not suddenly the change in the taste of the milk is scarcely noticed. Summer Conditions to be Maintained. Soon after the cows are on pasture, usually the latter part of May or the first part of June, they reach the maximum production of milk for the year. This sug- gests that what the dairyman must do in order that the production of milk may be the largest, is to imitate these summer conditions as far as possible throughout the remainder of the year. This is what the careful dairyman and skilled feeder does, and the results correspond closely to the success with which these summer conditions are main- tained. The summer conditions which bring about the maximum production and which are to be maintained as far as possible through the year, are described as follows : 1, an abundance of palatable food ; 2, a balanced ration ; 3, succulent feed ; 4, moderate temperature ; 5, comfortable surroundings. Grain Feeding While on Pasture. There is some difference of opinion on this question from the standpoint of economy. There is no question but tnat a cow will produce more milk if fed grain while on pasture, and if a large yield is of more importance than economy of production, grain should certainly be fed. The cow that gives a small average quantity of milk will produce but little more, if fed grain while on pasture. However, with the heavy producing cow the case is quite different and it is necessary that she be fed grain or she will not continue on the high level of production long. The neces- sity of feeding grain to the high producing cow arises from the fact that she cannot secure a sufficient amount of nutrients from the grass alone, and must have some concentrated feed in the form of grain in order to continue to produce large quantities of milk. Experiments made by the Cornell Experiment Station, covering four years, showed that while an increase of milk yield was secured from grain feeding, it was not economical to produce it in this way. They secured only about an additional pound of milk for each pound of grain fed. In these experiments the pastures produced an abundance of nutritious grasses. They observed, however, that the cows fed grain during the summer gave better results after the graz- ing period was over, than those not having received grain. This is also a matter of common observation, and should be taken into account in considering the advisability of feeding grain. The point is that the cows fed grain stored a considerable quantity of surplus nutri- ents on their body which were afterwards available for the production of milk. A Jersey cow that is giving as much as 20 pounds or 10 quarts per day, or a Holstein or Shorthorn giving 25 pounds or more BREEDS OF DAIRY CATTLE 155 daily should be given some grain. It has been recommended that cows feeding on pasture be fed as follows : Jersey cow producing 20 Ibs. milk daily, 3 Ibs. grain; 25 Ibs. milk daily, 4 Ibs. grain ; 30 Ibs. milk daily, 6 Ibs. grain ; 35 Ibs. milk daily, 8 Ibs. grain ; 40 Ibs. milk daily, 10 Ibs. grain. Hostein, Short- horn, or Ayrshire producing 25 Ibs. milk daily, 3 Ibs. grain ; 30 Ibs. milk daily, 5 Ibs. grain ; 35 Ibs. milk daily, 7 Ibs. grain ; 40 Ibs. milk daily, 9 Ibs. grain; 50 Ibs. milk daily, 10 Ibs. grain. (Mo. Circ. 44.) SOILING CROPS FOR DAIRY COWS. During the dry, hot weather average summer pastures stop growing and the grass becomes dry and woody, proving unpalatable and innutritions to animals. A large part of the energy derived from the feed of the cows is expended under these conditions in wander- ing about the fields endeavoring to get shelter from the scorching rays of the sun, protection from the swarms of flies that torment them, and sufficient palatable feed to supply the needs of the system for milk production. With these conditions it is easy to understand why shipments of dairy products show a marked shrinkage during the late summer months. The practice of partial soiling offers the opportunity of keeping cows in a cool, dark barn, and giving them that rest and quiet which they require for greatest milk production. When kept in the stable for at least a part of each day they may be fed regularly a uniform quantity, and none of the feed need be wasted. Since pasturage is a cheap and easy method of feeding, however, the most practical sys- tem for the majority of farmers and dairymen in this state is obvi- ously one which will secure for them the benefits of pasturage with- out its disadvantages. A system of partial soiling and partial pas- turage, in which the cows are turned to pasture at night and fed in the barn during at least a part of each day, seems to supply all the conditions necessary for most profitable production of dairy cows. With this system the acreage of pasture required is greatly les- soned. It has been found that each cow in the dairy herd requires about two acres of pasture when no soiling is practiced. This acreage may be reduced at least one-half when the cows are fed soiling crops as above suggested. The chief objection to the system lies in the fact that it requires more labor, but even this should not be a serious ob- jection, providing the increased returns derived from the cows, and the lessened acreage required for pasture, taken together, are greater than the increased cost of labor. Some improvement is greatly needed in the feeding and care of the dairy cows during the summer months. A Succession of Crops Necessary. In order that it may not be necessary to cut the soiling crops when immature, because of the lack of mature feed, or to continue feeding any one crop after it has become over-ripe and woody, for the reason that another crop is not ready, a close succession must be provided for. The order in which the seed for the various crops should be sown, and the time of sowing, is dependent upon the time of year at which each variety will make its best growth, upon the length of time between seeding and cutting, 156 DOMESTIC ANIMALS, DAIRYING, ETC. upon the length of time for which the crop from, one seeding may profitably be fed, and upon the number and value of the crops which may be substituted one for the other at any one period of the soiling season. Growing and Harvesting Different Crops. This crop should be sown in the latter part of August or the first of September, so that it may get a good stand and cover the ground well before winter. In case the growth is too luxuriant, it may be made to supply an excel- lent pasture for calves, sheep, or even cows for some weeks in the autumn. The land should be well worked up and a good seed-bed prepared for seeding. In the several trials made three bushels of seed per acre has been used, as it has been found that thick seeding produces a much finer growth of the stems of the plants which ren- ders it more palatable for the cows. This feed is not greatly relished by the cows as a rule, since it comes at a season of the year when they have just turned to pasture in the spring. If pasturage is late and scant, however, as it frequently is, this crop will be of much service in keeping up the milk flow after the silage is gone. Alfalfa. This plant is an excellent one for soiling purposes on account of the rapidity with which it grows and the number of cut- tings and large yields that may be obtained. It is ready for soiling from ten to fifteen days earlier in the spring than any other crop that may be grown except rye. The seeding should be done quite early in the spring, using at the rate of twenty pounds of seed per acre and covering it well with a harrow. It is only fair in palatabil- ity but when eaten freely it is considered an excellent feed for milk production. The second crop is usually about forty days after the first has been removed and this appears to 'be more palatable than the first cutting. One-half acre was seeded with this crop on April 20, 1903, and made a very rapid growth. On July 3rd the crop was cut just as it was beginning to bloom and 1,260 pounds of hay was secured. A second cutting of about the same amount was made August 15th. Red Clover. This does not give so large a yield as some of the annuals, but entails less labor and is not as bulky a feed as some of the more succulent crops. Its culture is too well known to need de- scription. Nearly every farmer grows it and by referring to the table of yields one may readily appreciate its value for soiling. Peas and Oats. This crop is very popular in many sections of the East for soiling purposes, but has not been entirely satisfactory with us owing to the difficulty of getting a stand of peas. The ordi- nary Canada field pea does not seem to be relished by dairy cows and the variety known as the Spanish grass pea is recommended for trial. The ground for this crop is best prepared by thorough discing fall- plowed land as early as it can be done in the spring and seeding at the rate of one and a half bushels of oats and a bushel of peas per acre, which may be sown deeply with an ordinary grain drill. Better satisfaction, however, will be obtained by sowing the peas broadcast and discing them in five or six days before the oats ; the latter should be sown broadcast and harrowed in with a light harrow. Care should BREEDS OF DAIRY CATTLE 157 be taken to harvest this crop early. A succession of this feed, cover- ing about three weeks, can be secured by sowing at three successive periods, with a week or ten days between each sowing period. Rape. This is an excellent soiling crop, but its use cannot be generally recommended for dairy cows, owing to the peculiar pun- gent odor which characterizes it and which seriously affects the milk of cows. In seeding rape for either purpose it should be sown in May on well-prepared ground, at the rate of about two and a half pounds of seed per acre, in rows thirty inches apart, using an ordi- nary garden drill. This plant yields an immense weight of very pal- atable feed per acre. It should be cut about five inches from the ground, when it will make a very rapid second growth. A horse hoe should be run between the rows several times after the first cutting to stir the soil. Flint Corn. This corn gives a slightly larger yield than the dent variety and usually matures earlier for feeding purposes. It is of a very leafy habit of growth and is eaten very greedily by the cows. It can be planted somewhat earlier than the dent varieties, seeming to have more germinating vitality. It is best planted thickly in rows three feet eight inches apart and the plants four to five inches apart in the row. Seeding thus thickly insures finer stalks, more leaves, and the feed is eaten with less refuse. The amount of feed yielded from a small area is very surprising. Sorghum. Sorghum is one of the most valuable of all soiling crops. It is ahead of field corn in value, though Evergreen Sweet corn comes very close to it. In 1902 an acre was sown May 26th, and harvested Sept. 4th, when it yielded the enormous amount of 40.4 tons per acre. This is considerably above the average yield, but it shows the possibilities of the crop. The kind recommended to sow is northern grown seed of the Early Amber variety. Sorghum is a southern plant and thrives best in hot, dry summer weather. The soil should be well cultivated at several successive periods previous to sowing in order to germinate and destroy all weed seeds. The sor- ghum grows very slowly during the first weeks of its life, and much benefit can be derived by harrowing it thoroughly with a light slant toothed harrow when a few inches high. In 1901 an experiment was conducted to find whether light or heavy seeding would give the better yield. Three plots side by side were sown on the same day with an ordinary grain drill. The results are as follows: Sorghum from one seeding cannot be fed for a longer period than about fifteen days, because the stalks become very hard when mature and much waste results from the animals refusing to eat this portion of the plants. Sweet Corn. The Evergreen has been the variety used and it gives very large yields. The growth being shorter than that of field corn and the stalks smaller, there is not so much waste in feeding. The yield of total dry matter per acre is far in excess of either dent or flint corn, and the fodder is more palatable. If drilled thickly in rows the crop is not as likely to lodge under the influence of wind and rain as if sown broadcast. This makes an excellent crop for fall 158 DOMESTIC ANIMALS, DAIRYING, ETC. feeding on account of its evergreen nature, retaining its succulence longer than any of the other corns or sorghums and making an ex- cellent fodder when cured. Other Crops. Several other crops have been tried but have not proven satisfactory. Barley and millet are unpalatable. Vetches and rye or vetches and oats do not give as large a yield as peas and oats. Giant fodder corn gives a larger yield than flint corn, but the stalks are so large and coarse that it is unsatisfactory as a feed. General Information. In the case of a majority of the crops grown it was found that they were most palatable and satisfactory when fed at, or a little before, full bloom. If required much earlier than this they were very watery and not so sweet and palatable to the taste, besides causing the cows to scour seriously when heavily fed. Thick seeding is to be recommended with nearly all the crops ; not only is a much greater yield produced, but a finer quality of more edible forage is secured. It is advisable to grow a surplus of soiling crops rather than just a sufficient amount, since all of the varieties of crops recommended, except rape, make excellent fodder when cured and stored for winter feeding. The number of pounds of the various soiling crops that a cow will eat, when given in addi- tion the freedom of a good pasture at night, has not been definitely determined. When fed on soiling crops alone, without pasturage, as some cows were in a few instances for a short period, they consumed from seventy-five to one hundred pounds of soiling feeds daily. About one-half this amount, or forty-five pounds on the average, will be found an ample allowance for each cow on full milk when access is had to good pasturage during the night. (Wis. B. 103.) The Stabling Season. Up to a certain point fall pasturage is as good as in any other part of the year. But after one or two hard frosts it is well to offer the cows some nice hay when they come in at night, and if they eat it with relish, one may be pretty certain the season has arrived to gradually change the herd from pasture to stable for the winter. The cows should not be left out at night after it becomes chilly, or be exposed to cold autumn storms. They may be allowed in the field a few hours on all pleasant days until snow flies, but without expecting them to get much besides water and ex- ercise. Before keeping them steadily at the stable and yards the feeding should be, by gradual steps, completely changed to the full stable diet. Preparation of the Stable. Meanwhile, or on leisure days earlier in the year, the cow house should be prepared for its occu- pancy by the herd throughout the stabling season. Boxes, stalls, and feeding troughs or floors should be thoroughly cleaned and disin- fected, so that no animal can discover or be subjected to any un- pleasant traces of another and previous occupant of the place. Then assign every cow her particular place for the winter, and gently in- sist upon every one being always in the right place. The bedding, absorbents, and disinfectants should be provided in abundance and in ample time for all to be quite dry. Use no damp material under CLEAN, SANITARY, INEXPENSIVE MILK HOUSE. DEPT. OF AGR. INSANITARY Cow STABLE; PURE MILK IMPROBABLE. DEPT. OF AGR. BREEDS OF DAIRY CATTLE 161 a cow, no rotten straw, and no moist earth or sawdust. In order of efficiency, the best absorbents are peat, spent tanbark, sawdust, wheat straw, forest leaves, and dry earth. If earth alone is used, from 30 to 40 pounds per cow will be needed daily a big shovelful. Cattle will not be bothered so much in the shade. It is a good practice to stable the herd during the day in an airy but shaded cowhouse, and turn it on pasture at night. If the pasture has not abundant shade and water this course should certainly be followed. Heat and flies reduce both quality and quantity of milk product. The trouble from flies can be largely remedied by spraying the cows with a very weak mixture of water and some one of the approved sheep- dip preparations. Such a spraying will last a week or ten days, un- less there are hard rains meanwhile. The entire interior of the cow house should be sprayed with a solution of this kind, and strong enough for an insecticide, weekly, throughout the summer. (Agr. Dep. F. B. 55.)- Feed and Care of Dairy Cows. The greatest yield is obtained from cows that calve in the fall, if proper care, feed and shelter are provided during the winter. The prices of butter fat and butter are higher during the winter, and with cows fresh in the fall or early winter this higher price comes during the period of greatest yield. A cow that calves in the early fall while on grass is in the best con- dition to make a high yield when fresh. Good feed and care through the winter will maintain a good yield, and when the cow is turned to pasture in the early spring a fresh flow will be started that will considerably increase the year's yield. A cow that calves in the spring has the best milk-producing feed at a time when she will do well with any good ration. As the flow begins to slacken the quality of the feed grows poorer, and flies and heat help to cut it down still lower. In the fall when the milk begins to drop rapidly on account of the time from calving, the cow goes from green pastures to dry feed a change that tends to reduce the yield and dry up the flow entirely. Winter dairying avoids in- jury to flavor of butter from weeds in summer and fall pastures. Cows, with fair surroundings, can be made more comfortable in winter than in summer-, and with fall calving will be dry when heat, flies and drouth are severest and when butter prices are the lowest. Winter dairying furnishes profitable employment for the farmer and his men at a season of the year when, without it, farm forces are either idle or work for low wages. Another advantage of fall calving is that the calves can be raised at a season when there is time to give to them that careful at- tention which is so great a factor in calf-raising by hand, when lo-ses from heat, flies, diarrhea, and sour milk can be avoided and when, at weaning time, the calves can go from milk to green pasture without a check in growth. Treatment Before Calving. With most cows the highest yield for the year can be obtained by having them go dry six to eight weeks before calving. This is especially true of those cows whose milk is rich in butter fat, and continuous milking of such cows with- 162 DOMESTIC ANIMALS, DAIRYING, ETC. out rest before calving usually results in a serious lowering of the yield for the entire year following calving, and also frequently in a weak, puny calf. From these cows the most milk and butter fat can be obtained in a series of years by milking ten months in the year only. It is frequently the case with this class of cows that if milking is continued to the time of calving the milk of the last eight or ten weeks has a bad flavor and odor, is hard to churn and will in- jure the butter made from any milk with which it is mixed and it is profitable to dry up the cow on this account as well as for the effect of the rest. Rest does not seem so essential for cows giving milk low in butter fat, and it is impossible to dry up many heavy yielders of thin milk without injury to the udder. In such cases the only rea- sonable plan is continuous milking ; but if too much difficulty is not experienced in drying up this class of cows, it should be done, as bet- ter results will be secured by the rest. Dairymen handling cows of the beef type have hard work to keep their cows in fair flow for the ten months, but with dairy cows, the rest before calving should be provided for, and the general rule to follow is that the average dairy cow and the cow giving milk with a high per cent of butter fat should go dry six to eight weeks before calving ; and heavy yielders of milk low in butter fat may be milked continuously if there is much difficulty in drying them up. To dry up a cow, reduce the feed, take away the grain, and when the milk yield drops, milk first once a day, then once in two days, and in one to two weeks the average cow will be dry and her udder in good condition. With persistent milkers there is seldom difficulty if hay only is fed for a time. If a cow continues to give milk under this treatment or if the udder is hard and feverish, thei work of drying up must stop, and the ration be changed to a light milk ration, with loosening feeds, and the cow milked regularly. Forced drying up under these conditions injures the cow. If by oversight the drying-up process has been neglected until within three or four weeks of calving, do not attempt it, as there is risk of injury to the health of the cow and her udder. After becoming dry, the cow will need little attention before calving if she is on good pasture, except to see that she has plenty of good water and shade, is comfortable and not annoyed or injured by other cattle, particularly steers. If the cow is on dry feed, more attention is necessary. She must be in fair condition but not fat, and should have bulky feeds both roughness and grain and suc- culent feed is exceedingly desirable, either ensilage or roots. One of the best grain mixtures for cows before calving is, by weight, two- thirds bran and one-third linseed meal. This grain mixture is a good one for the first two weeks after calving. Alfalfa hay is excel- lent for roughness. The bowels should be kept loose. This is es- sential and needs more attention than any other condition, and for this purpose roots and silage are very helpful. Corn and corn meal should not be fed. Treatment at Calving. In winter iTie calving cow will do best in warm, comfortable quarters, free from draft. It is well to blanket BREEDS OF DAIRY CATTLE 163 her as soon as the calf is dropped, and to keep her blanketed until she has regained her normal condition. We have sewed bran bags together for a blanket when nothing better was at hand. Her bowels must be kept loose. Give her light, loosening feeds and all the water she will drink, removing the chill from it until the afterbirth has come away. When cold water is given before the afterbirth has been removed, the chill frequently causes a contraction of the mouth of the womb and the retention of the afterbirth. If the afterbirth does not come away in from twenty-four to forty-eight hours, it should be removed by a competent man, as its retention causes a serious loss in the milk yield, often lowering the yield through the entire milking period. Where a box stall is kept for calving cows, and a number calve in it, all bedding should be removed after each birth and the floors and sides thoroughly cleaned and disinfected with quicklime or solutions of carbolic acid or corrosive sublimate. Unless the cow's milk is so rich that it scours the calf, we prefer to have the calf stay with the cow for a few days. The colostrum, or first milk, is needed as the first food for the calf. If the cow's udder is caked and feverish, the rubbing of the baby calf against it in attempting to suck will help to reduce the inflammation. It is not difficult to teach the calf to drink, even when it has been with the cow for a week, if it is allowed to get quite hungry before the first feed is offered. Caked Udder. The udder is often hot and caked. When this is the case, the cow should be milked frequently, at intervals of not longer than two hours, and if the inflammation is serious more fre- quent milkings are -better. Never milk the udder dry while it is in this condition, as, if it is milked out clean, a fresh flow is stimulated, which frequently increases the inflammation and sometimes leads to the fatal milk fever. If the udder is badly inflamed the cow should have a physic, and for this we use IMj pounds Epsom salts per 1,000 pounds live weight of cow, dissolving the salts in warm water and giving it as a drench from a long-necked bottle. Besides keep- ing the bowels loose and frequent milkings, hot applications and rubbing are the best means of reducing the inflammation. Dip a flannel cloth in water as hot as the hand will bear, wring it out lightly and hold around the udder. Before the cloth cools dip it again in the hot water and apply as before. Keep this up as long as time will permit. Thirty minutes of such application is good, two hours is better, and after a rest repeat the operation until the swelling is re- duced and the fever gone. Whenever this steaming of the udder is discontinued for a rest, the udder should be rubbed dry by using the hands gently, and we often used camphorated vaseline while rubbing, as it allays the soreness on the surface of the udder. When the udder has been badly inflamed, we have sometimes made a sack, covering the entire udder, and suspended it by straps from the hips ; coarse bran is packed between the udder and the sack and kept saturated with hot water by pouring from cups. Holes are made in the sack for the teats, so that the cow can be milked fre- 164 DOMESTIC ANIMALS, DAIRYING, ETC. quently. Twenty-four to seventy-two hours of such treatment will sometimes save the udder of the most valuable cow in the herd, and the increase in milk for the first month will more than pay for the extra work. Milk should not be used until there is no fever in the udder and not until the udder and womb have regained a healthy condition. Ordinarily this will be in about five days ; but if the afterbirth is retained, or there is a flowing from the vagina or severe inflamma- tion of the udder continues, the period is longer, and in exceptional cases the milk may not be fit for use for a month after calving. Treatment of the Cow After Calving. After the cow has re- covered from calving, the feed should be gradually increased until the full limit of profitable feeding is reached, and the cow should be pushed to her utmost possible limits for the first three months. It will often pay to give the cow for the first three months after calving more feed than will produce butter at the lowest rate, e. g., if a cow on a certain amount of feed will produce a pound of butter for 7 cents for the feed, it may pay to increase the feed 25 per cent to 50 per cent, or even double it, though this increase brings the cost of butter up to 8 or 10 cents per pound for feed, if a good increase in yield is obtained, because a high yield during the first months after calving brings an increase through all the months of the milking period, and a cow that is pushed at the beginning of her year will give a good flow longer than one not so treated. When other work is pressing, the dairyman is sometimes tempted to let the fresh cow go with the ordinary care and feed until the rush is over, expecting to make up for this neglect by good treat- ment when he is less hurried. He cannot afford to do this, for if a cow starts with a low or moderate milk yield, no amount of care or feed afterward will succeed in securing her best yield. Cows will give, and do give milk without any of these careful attentions. A cow will give milk if little attention is paid to drying her up and no cooling and loosening feeds are given before calving. Cows calve every winter without shelter or care, with ice water only to drink, and with no care given to their udders, and yet they give milk. But the best yields and most profitable returns can be ob- tained only by careful attention to every one of these details, and neglect of any one of them frequently cuts down the yield 25 per cent for the year. It is the neglect of many and sometimes all of these details in caring for the cow that makes the average cow yield less than one-third of that produced by the good dairy cow properly handled. After the cow has passed the point of greatest flow the feed should be gradually reduced, feeding to produce yield at most profit. Care should be taken to keep her in moderate flesh, and the ration slowly changed until, during the last month of milking, it is similar to that recommended to be fed before calving. (Kan. B. 81.) FEEDING DAIRY COWS. In the production of milk there are four factors which are of prime economic importance. 1. Cows must be secured which are BREEDS OF DAIRY CATTLE 165 capable of producing large quantities of milk and butter fat. 2. These cows must be properly housed and cared for. 3. There must be a feeder who has good judgment. 4. Sufficient food of the proper quality must be supplied. The last is equal in importance- to the first. The best way to obtain good cows is by careful selection and breed- ing of animals from one of the recognized dairy breeds or their grades. Scrub cows have no place in profitable milk production. On the other hand, no matter how carefully cows are selected nor how 7 well bred, if poorly fed, they will give little better returns than scrubs. To become a good feeder requires a knowledge of the needs of the dairy cow and of the nature of different feeds. This means that the man, w T ho is to become a successful feeder, must be willing to spend time and energy in studying the details of these subjects. The cow is a business partner not easily defrauded. If she is the right kind of cow, supplied with the proper materials, she will return a just amount of product, and if proper feed and care are withheld, she will withhold the desired product. Food of the right kind and amount is absolutely necessary to any considerable degree of production. Things to Consider. There are many things which should in- fluence the feeder in selecting feeds and working up a balanced ra- tion for his herd. Some of these are given below: 1. What is the composition of feeds as shown by chemical analysis? Do they con- tain the materials necessary to support the animal and make milk? 2. What feeds can be grown on the farm? 3. 'What feeds should be purchased and what is their relative value? 4. What is the quality or condition of the feeds to be used? 5. What is their physiological effect on the animal? (111. Cir. 152.) Wit en Will It Pay to Milk a Cow? Having cows of various ages and capacities on the farm, the question arises as to when it will pay a man to milk the cow and raise the calf on skim-milk. Since it costs about $12.50 per cow to pay for the work connected with milking, and from $7 to $8 to raise the calf on skim-milk, a cow must produce, in order to be profitable, at least $20 worth of butter- fat before it will pay to milk her, assuming that the skim-milk pays for the hauling. With four-per-cent milk and fifteen cents for but- ter-fat, this would mean 3,333 pounds of milk per annum; with eighteen-cent butter-fat it would be 2,777 pounds of milk per annum, and with twenty-cent butter-fat it would be 2,500 pounds of milk. This is assuming that a dairy cow would eat no more when giving milk than she would when not. Doubtless she would eat some more, and this would have to be added to the above cost. (Kan. B. 125.) Fighting Flics. Flies are a torment to the dairy cow. Where possible, it is desirable to keep the cows during the day in a cool barn, where the doors and windows are screened to keep out the flies, and allow the cows to run on pasture at night. Where this arrangement is not possible, we have found by test- ing several fly mixture?, that it is possible to produce a mixture that will work reasonably well in keeping flies away. The best mixture that we have used, all things considered, is as follows: Resin, one 166 DOMESTIC ANIMALS, DAIRYING, ETC. and one-half pounds; laundry soap, two cakes; fish-oil, one-half pint; enough water to make three gallons. Dissolve the resin in a solution of soap and water by heating ; add the fish-oil and the rest of the water. Apply with a brush. If to be used as a spray, add one- half pint of kerosene. The mixture will cost from seven to eight cents per gallon, and may be used on either calves or cows. One- half pint of this mixture is considered enough for one application for a cow ; a calf, of course, would require considerably less. It will be more economical to apply this only to parts not reached by the tail. At first it will perhaps be necessary to give two or three ap- plications per week, until the outer ends of the hair become coated with resin. After that retouch those parts where the resin is rubbed off. At the time of milking, we find that it materially adds to the comfort of the cow and the milker to have material like gunny-sacks that will reach the full length of the cow and come down low enough to hold her tail. This will keep the cow from switching her tail into the milk-pail and into the milker's face. (Kan. B. 125.) Bulk in the Ration. Next to the proper nutritive ratio and amount of a ration, its bulkiness must be considered. A certain amount of bulk in the ration is necessary and desirable, and is made up largely by the water and fiber. If the ration is too bulky, the animal is unable to eat enough of it to secure the proper amount of digestible nutrients, and if it is not bulky enough the digestive organs are not sufficiently distended to permit of complete digestion. When the bulk is largely due to fiber, the ration is likely to be too unpalatable to be readily eaten, and when it is due to water a loos- ening and depleting effect on the system is likely to result. Under ordinary conditions for cattle the ration will be sufficiently bulky when two-thirds of the dry matter given is in the form of hay, fod- der or silage and one-third in the form of grain or concentrated feed. For working horses the amount of grain and coarse feed should be about equally divided. (N. H. B. 127.) Substituting Alfalfa for Concentrates. Practically speaking, it seems that when an equal amount of alfalfa hay is substituted for wheat bran about one-third more cotton-seed meal will be eaten ; and when alfalfa hay is substituted for cotton-seed meal about three times as much alfalfa hay will be required, pound for pound, to replace the cotton-seed meal. Actual experiments indicate that the theoretical basis of substitution is practically correct. The limit of substitution that can be permitted will depend on the individual capacity of the animals to consume alfalfa hay. When alfalfa hay is cheap and abundant it can be fed in what might be termed a wasteful manner. It should be placed before the animals in larger quantities than might seem advisable from a purely economic standpoint, for the purpose of inducing them to eat as much of it as possible, because it provides digestible protein in the cheapest form in which it can be obtained, in other words, than it can be supplied in the form of wheat bran and cotton-seed meal. Ordinarily, not more than from 10 to 12 pounds of alfalfa hay will be consumed with sil- BREEDS OF DAIRY CATTLE 167 age. On the other hand, while no silage is fed this amount may be increased to from 15 to 20 pounds per day. (Tenn. B. Vol. 17 No. 4.) Mangolds, Carrots, Sugar Beets and Rutabagas. Where silage is not used the dairyman should provide succulence for the winter ration in the shape of some kind of roots. The three which suggest themselves as probably yielding the most value for the labor and money expended in growing them are mangold, sugar beets and car- rots. Turnips and rutabagas may be used in the dairy but always with extreme caution, because of their liability to impart an unpleas- ant taint to the milk and to the products made from it. It is true undoubtedly that rutabagas can be fed to dairy cows in such a way as to avoid this taint in the milk. They must be fed after milking. Precautions as to manner and amount have to be taken and some- times these precautions are apt to be neglected. The result is a sam- ple of butter injured and perhaps a customer permanently offended. The reasonable use of other roots is attended with no such danger, and for this reason they are recommended. The area devoted to them need not be large, but roots add a needed variety to a winter ration, whether a silo is used or not. They repay their cost in the increased healthfulness of the cow as well as in the butter produced. A comparison was made of the cost of growing and of the yields of ox-heart carrots, yellow tankard mangolds, long red mangolds and rutabagas. The yield per acre were as follows: YIELD PER DRY MATTER CROPS. ACRE. PER ACRE. Carrots 28,836 3,321.90 Long red mangolds 25,616 3,381.30 Tankard mangolds 21,744 2,111.30 Rutabagas 31,028 3,741.98 Sugar beets 28,320 5,346.80 The largest yields, both in gross weight and dry matter are given by the rutabagas, the long red mangolds following next. The average yield per acre of four acres of sugar beets grown on land adjoining the root field was, as given in the table, over fourteen tons per acre containing 5,346.80 Ibs. of dry matter. (Mich. B. 234.) Succulence. The June pasture which forces every cow to her best yield, furnishes a succulent ration, and for best results from the cows through the winter, succulent feed must be given. On June pasture alone a cow will give a heavy yield. Cut the grass, dry it care- fully, so that water only is lost, give this dried grass to the cow as her only feed, and she will soon go dry. The grass has lost its succulence. We know the value of fruit and vegetables to man in winter, and dur- ing this time succulent food is equally valuable to the cow. It may be secured either from ensilage or roots. When the first expense can be afforded, the silo is the cheapest and best way of providing green feed for the winter, and corn the best crop for silage. Where the dairyman has no silo, mangel-wurzels or sugar beets should be raised to furnish succulent winter feed. 168 DOMESTIC ANIMALS, DAIRYING, ETC. Succulent feeds in winter have two advantages ; they are appetiz- ing, which makes the cow enjoy her feed, and they keep the system in a healthy condition and the bowels loose. The nearer we can feed our cow in winter to secure the natural loose condition of the drop- pings as they are from June pasture, the more she can eat and the more she will be able to give in return for each pound of beef eaten. When a cow is constipated there is a feverish condition of the body, a smaller per cent of the feed is digested and converted into milk and the yield is lowered. If the dairyman has neither ensilage nor roots, he should com- bine his feeds to secure as nearly as possible the right condition of the bowels. This is hard to do without succulent feeds. In the list of feeds following, the general effect which each has in this respect is given : LOOSENING FEEDS. CONSTIPATING FEEDS. Alfalfa. Corn fodder. Sorghum hay. Corn stalks. Ensilage. Kaffir corn fodder. Roots. Prairie hay. Bran. Timothy hay. Soy bean meal. Kaffir corn grain. Linseed meal. Corn (in light feeds). Gluten meal. Cottonseed meal. Rations can be made from these constipating feeds alone which will contain digestible protein and energy values in the right propor- tions, and such rations are frequently used with results of low milk yields, although the cows have apparently an abundance of nutri- tious feed. This factor in profitable milk production should always be considered. Variety. Cows, like human beings, crave variety in their food, and do best when they have it. A ration containing the proper food elements can sometimes be given by using one rough feed and one grain feed only, and fair results be obtained, but best results are se- cured when a variety is given, and it is well to have a variety both in roughness and in grain. A mixture of two grains will produce a higher yield than the same amount of food given in one grain, and four or five, or even more, kinds of grain mixed together will usually give better returns than two, although the bulk of the mixture is made of one grain. Small additions of a number of feeds flavor the mixture and make it more appetizing, and for this reason the cow will eat more and yield more in proportion to what she eats. Ground oats usually cost too much to form any large portion of the dairy cow's ration, but cows like this feed and it is frequently profit- able to add a handful of ground oats to the grain ration of each meal, as it makes the whole feed taste better, and when cows relish their feed it adds to the yield. The feeders of the cows that have made the high records have thoroughly understood" this fact, and a part of their success is due to feeding a mixture of a number of nutritious, palatable foods, thereby inducing their cows to eat large quantities. BREEDS OF DAIRY CATTLE 169 While cows need a variety, they want it to come by having a mixture of feeds at each meal, and not by receiving one kind of feed at one meal, another at the next, and still another at the third. Such a method of giving a variety is sure to reduce the yield, as the cow, at a given feeding time, expects the same kind of feed that she ate yesterday at the same time, and if not given it will be dis- turbed and will give less milk. It is not necessary to give a cow the same kinds of feed for supper that she has for breakfast, but the breakfast mixtures should be alike for all breakfasts and the supper feeds the same for all suppers for a considerable period. Sudden changes usually decrease the milk yield, even when the new ration is better than the old, and when it is necessary to make a change in feed the change should be made gradually, taking a week to ten days to make any radical change. Appetizing Rations. It was stated -in the last paragraph that a variety in the ration brought better yields because it made the food more appetizing, inducing the cow to eat more and to yield more for what she ate. Whatever makes the feed taste better or makes it more enjoyable to the cow increases its value for milk production. Early- cut hay is best for the dairy cow, not only because it contains more protein than that cut late, but because its aroma and flavor make it more palatable to the cow. The appetizing effect from the early cutting and careful curing of all forage crops increases their feed value for milk production. Freshly-harvested and freshly-ground grain are the most palatable to the dairy cow and will give best results. Dairymen who grind feed should grind often, as grain that has lost its freshness is not the best relished by the cow. Often the dairyman has a large quantity of coarse, rather un- palatable rough fodders, such as corn fodder and over-ripe or slightly damaged hay, which he must feed, and has only a limited quantity of choice roughness to feed with it. In this case, best results can be secured by giving the more palatable roughness in the morning or with the grain night and morning and feeding the poorer roughage as the last feed at night, to be eaten at the cow's pleasure during the night, or else put in racks in the yard for mid-day meals. Palatable feed in the morning gives a contented cow through the day, and this contentment brings more milk. When several kinds of feed are given it is usual to throw them together into the manger and let the cow eat at will. This method does not secure the highest milk yield. You do not want your soup and pie served together on the same plate, and neither docs the cow like this method of serving her food. If all the feed-stuffs for a meal are thrown together, the more palatable are eaten first. In separat- ing and eating these, the others are "mussed" over, and when the cow comes to eat them, they do not taste good and she will not eat enough to produce the greatest milk yield. We like to feed our most palatable roughness and give this just before the milkers go to their meal. When the milkers come back from eating, the cows have fin- ished their first feed, and the less palatable roughness can then 'be given them. It will not then have been slobbered on and will be 170 DOMESTIC ANIMALS, DAIRYING, ETC. better relished and more of it eaten. This method of feeding re- quires time and care, but it pays. If the cows are given their rough feed in racks out of doors, it will pay to put feed in these racks often, so that the feed will be clean and appetizing. Mangers, feed troughs, and racks should be kept clean and fresh from old, soiled feed, both as a matter of health and because the food in a clean manger smells and tastes better. The dairyman's rule should be to harvest feed in its most pala- table form and feed in the most appetizing manner. (Kan. B. 81.) Silage and Vegetables. One of the chief requisites of a ration for profitable milk-production is that it be succulent, by which is meant that a portion of the ration contains a large percentage of water. This watery condition, or succulency, adds to the palatability of the food, and also seems to have a beneficial physical effect upon the animal digestion. The cow, therefore, eats a larger quantity of food, digests and assimilates it more thoroughly, and consequently gives a larger flow of milk. Although the major portion of Califor- nia does not have the long cold winters to which the Eastern States are subject, and where it is an absolute necessity to store large quan- tities of food, both succulent and dry, still every section of our State has a longer or shorter period during the year when pastures are dry. The provident dairyman, therefore, anticipates these dry months, and either lays in a store of green food beforehand, or has some growing which he may cut and feed to his cattle. Roots. Several of the vegetables are valuable in supplying suc- culence for the ration. Among the root class the one in most com- mon use is the mangel wurtzel beet, because very large quantities can be grown per acre and because it is palatable to all kinds of live stock. Carrots are also used in some sections, and they have the ad- vantage of containing a slightly larger amount of dry matter than mangels. Of all the roots moreover none are more relished by horses than carrots. Sugar beets are not found profitable to grow for feed- ing stock, because they yield so small a tonnage in comparison to mangels, and the greater cost of growing and gathering can only be undertaken on the ground of their greater value for sugar. Potatoes contain about twice as much dry matter as mangels and three times as much carbonaceous material. They are, therefore, of greater food value, but, like sugar beets, have too high a commercial value as human food to make them profitable for stock. Squashes. Another class of vegetables which are useful and easily grown is that of the melons or squashes. A very familiar ex- ample is the so-called pie-melon. This, like the ordinary field pump- kin, can be produced readily in large quantities on most lands, and it ripens at a time when green food is likely to be scarce. All of these vegetables when fed to dairy stock produce an increased milk yield, which is more than commensurate with their actual content of food substance. This is because of their palatability, beneficial effect upon digestion, and the addition of a wholesome variety to the ration. Any of the vegetables named may be fed with profit to BREEDS OF DAIRY CATTLE 171 swine and poultry when in confinement, and to sheep especially dur- ing the nursing period. (Cal. B. 132.) Sugar-Beet Pulp. In the process of manufacturing beet sugar there remains a by-product containing a large proportion of water and for which no profitable use has been found thus far, except as a food for stock. Upon the arrival of the sugar-beets at the factory they are first washed and then run through a slicing machine which shreds them into small strips resembling a large size of twine. The shredded beets are placed in large cylinders through which hot water is forced and the sugar thereby dissolved out of the beets. The portion remaining after the sugar has passed off in solution is what is known as beet-pulp, or residue. It is of no further use to the manufacturer, who is always ready to dispose of it at a nominal price. Because of its passing through such a soaking process, the beet pulp comes from the factory with a high content of water, which in most cases is about ninety per cent of its total weight. It is there- fore heavy material to handle, and the cost of transportation is likely to be high in proportion to its actual value, either for food or any other purpose. The presence of so much water, however, renders the beet residue of much value for milch cows where other succulent foods, as green pasture, silage or soiling crops, are not available. Several years of experience in California have proven sugar-beet pulp of value for fattening cattle as well as for producing milk, and the fact is that the larger portion of the beet pulp in the State is con- sumed by cattle which are being fitted for the butcher's block. It has been fed also to some extent to sheep. Both cattle and sheep eat the pulp so readily that there is scarcely any difficulty about getting them accustomed to it. So far as we are able to learn all those who have fed beet pulp to either of these kinds of stock have been success- ful except where they tried to make the pulp the sole food. This should never be done for more than a few days at most, because the animal cannot consume enough of such watery food to maintain life and produce milk or meat. Moreover, as a general principle, an animal should never be expected to do its best when confined to a single article of diet. Storing Beet Pulp. When a pile of beet pulp has been sub- jected to the weather for some time the whole exposed surface decays to a depth of six to eight inches, forming a crust which serves as a seal to preserve the under-lying material. Beet pulp may be said, therefore, to silo itself; and the chief points in arranging storage for it are to confine the desired quantity into as small a space as possible and reduce the exposed surface to a minimum. These points are secured by means of silos of various kinds. Since the food value of beet pulp is so small in proportion to its weight, there is no profit in constructing costly storage places ; therefore the silo may be cheap, but it must be strongly built. (Cal. B. 132.) Sorghum Silage. The question which confronts the farmer is: What crop can I raise most economically for the silo? This means: What crop will produce most tons of good nutritious food per acre? Cowpea hay is known to be an excellent forage, but the yield is 172 DOMESTIC ANIMALS, DAIRYING, ETC. small ; moreover it does not make a good quality of silage. The same is true with oats, rye, or beggarweed hay. It comes then to the ques- tion of deciding between corn and sorghum. Analysis shows sor- ghum silage to be a little richer in total digestible nutrients than corn silage. Sorghum has also a heavier yield of green forage per acre than corn. If then, sorghum produces silage richer in total diges- tible nutrients, and also gives a larger yield of green forage per acre, it has two important points in its favor. It is not only the best crop for the silo, but also the cheapest. The cost of cultivating an acre of ground is the same regardless of the yield ; that is, the time and labor required to produce an acre of corn will be the same, whether two tons or ten tons of forage are produced per acre ; but the cost of production per ton will be reduced as the yield per acre is increased. For example, if it costs $10 to fertilize and cultivate one acre that produces only four tons of forage, the cost per ton will be $2.50; but if for the same expenditure of money we can produce some other crop that will yield from twelve to fifteen tons per acre, then the cost per ton will be reduced by nearly 60 to 75 per cent. (Fla. B. 92.) Feeding Roots. Roots of some kind are good for all domestic animals. Their effect is tonic as well as nutritive. Breeders and feeders of animals for exhibition find them invaluable. For most purposes the roots are chopped or sliced before feeding. Various hand and power machines are on the market for this work. Gen- erally speaking, roots should not be fed alone as they carry too much water. A feed may vary from 25 to 50 pounds per day for a thou- sand pounds of animal, according to the amount of dry concentrates and roughage fed. It is usual to put the cut roots into the feed box and distribute the ground grain over them. For poultry, however, the whole roots may be given, allowing the fowls to pick them. It is said by some that turnips and rutabagas impart a flavor to milk. However, if no roots are in the milking room at the time of milking and they are fed just after milking, this may be avoided. Feeding Cabbage. Cabbages are good food for cattle, sheep and swine. When they are grown for stock feeding it has not been a general practice to remove them from the field. If it is convenient for feeding to continue into early winter they are pulled and piled closely, then fed directly from the field. When fed to sheep they are generally not cut. The sheep can nibble them very well. When fed to cattle they should be cut either by a cutting machine, or they may be chopped fairly well with a square pointed shovel. They should be fed as soon after being cut as possible. Sometimes the grain or chopped feed is mixed with them. It is claimed by many feeders that cabbages are likely to lend a disagreeable odor or taste to the milk when fed to dairy cattle. This may be avoided, however, by feeding just before or just after milk- ing, care being taken to remove the milk from the presence of the cabbage as soon as possible. (N. Y. Cornell B. 242.) Relation of Live Weight to Proper Feeding. The live weight of a cow is a good index of whether the cow is being fed a proper BREEDS OF DAIRY CATTLE 173 amount or not, but good judgment must be used in regulating the ration by observing this condition. We must expect that a cow will lose weight in the first few weeks of her milking period, but after this period is past there is no reason why she need to change much in weight for several months, and this is the period when the greater part of the milk production is secured. It will not mean, of course, that the animal should not be allowed to gain in weight during the latter end of the milking period. This is necessary on account of the development of the foetus, and since it is natural for the animal to carry some fat on her body at calving time. It does not mean, however, that in order to feed a herd of cows economically it will not do to feed them all the same quantity of grain whether they are giving a gallon of milk a day or whether they are giving four gallons, and it means that when a cow in the middle of her lactation period is putting on weight that she is being fed more than she needs and will give just as much milk if the feed is cut down somewhat. It also means that if a certain animal is los- ing in weight that sufficient feed is not being given, and if the defi- ciency is not supplied it will not be long before the milk production will come down to correspond with the amount of feed available. Feeding as Individuals. In connection with this subject of the amount to feed cows it needs to be pointed out that it is only possible to feed a bunch of cows economically when they are fed as individu- als, and not as a herd. A too common practice, even in the other- wise well conducted herds, is for all animals to be fed the same amount of grain regardless of the time they have been in milk or the quantity of milk individual cows are producing. Such feeding al- ways lacks economy, as the high producing cow does not get enough, and while she may milk very well for a short time, she soon comes down to a lower level, while the lighter producing cow usually gets too much and accumulates fat. One of the difficult problems which confronts the practical feeder is how to adjust the quantity of feed to meet these individual requirements. It can be done fairly well even in the large herds by observing how much milk the cow is pro- ducing, and whether she is gaining or losing in body weight. Amount of Grain and Roughness to Feed. The cow being adapted by nature for consuming bulky feeds does not feel satis- fied unless she has sufficient bulk to the ration given at all times. An animal that is fed too much grain in proportion to the amount of roughness may seem hungry, while sne really has a sufficient amount of nutrients, but so concentrated that it does not have suffi- cient bulk. The cow should be fed practically all the roughness she will eat up clean, and the difference in rations fed to different animals should not be so much in the amount fed as in varying amounts given: 1. Feed all the roughness they will eat up clean at all times. 2. Feed one pound of grain per day for each pound butter fat produced per week, or one pound grain daily for each three pounds of milk. 3. Feed all the cows will take without gain- ing in weight. 174 DOMESTIC ANIMALS, DAIRYING, ETC. The rule regarding the amount of grain to feed per day to each cow applies only when good roughness such as corn silage, and clover, cowpeas, or alfalfa hay is used. Home Grown Balanced Rations. One reason why the average farmer makes a mistake of feeding his cows rations that are not prop- erly balanced is that it is easier, or he thinks it is, to grow feeds that are excessively rich in carbohydrates and lacking in protein. This comes about principally by the large amount of corn grown and used. Many farmers have corn fodder and timothy hay for rough- ness and practically nothing in the way of grain but corn. From such feeds it is impossible to make a ration that supplies the neces- sary nutrients to produce much milk. It is possible to make a fairly good ration using these for roughness, but it is only possible to do so by buying large quantities of mill feeds that are rich in protein. The thing for the farmer to do is to raise the feeds he requires on his own farm, as far as possible, and it is possible to produce prac- tically all that is needed to make a balanced ration. The place to begin in considering the feeding of an animal always is with the roughness, since the character of the roughness determines to a large extent the kind of grain it is advisable to feed. The cheapest source of protein is in leguminous hays, including clover, alfalfa and cowpea hay. If an abundance of any one of these hays are on hand, the problem of making an economical bal- anced ration is very much simplified. The use of these hays makes it unnecessary to buy any large quantities of bran, oil meal or cotton- seed meal for ordinary dairy cows, and makes it possible that the principal grain used be corn, which is usually our cheapest grain. Even cowpea or alfalfa hay alone, with corn for grain, makes a fairly good ration for an ordinary dairy cow, and such a ration could be substituted with good results for that of timothy hay and corn fodder. When hay is purchased, it is always best to purchase one of the kinds mentioned, as the price is about the same, or lower than that of timothy, which is far inferior as a milk producing food. If any hay is to be sold from the farm it should be timothy hay and not clover or cowpea hay. (Mo. Cir. 44.) Suggestions to Consumers. There appears to be a growing ten- dency on the part of consumers to purchase proprietary brands of feeding stuffs that are mixtures of two or more by-products. Many of these mixtures are compounded for the purpose of providing a me- dium in which inferior waste products lose their identity by mixing them with materials of good and well recognized quality. For in- stance, an "oat feed" may contain hominy feed, oat hulls and some- times enough of some material rich in protein, perhaps gluten meal, to bring the protein content of the mixture up to a desirable propor- tion. Such a mixture is worth commercially what the hominy feed and gluten meal would cost and no more. If 20 per cent of oat hulls are present then the price of the mixtures should be 20 per cent less than what a full ton of the hominy feed and gluten meal mixture would cost. ^ Oat hull mixtures are not an imposition on the con- sumer, provided they are sold at a price proportional to the standard BREEDS OF DAIRY CATTLE 175 materials which the mixtures contain, otherwise they are bought at a loss. As a matter of fact, these mixtures are sold at about the prices which rule for feeding stuffs of standard grade. If farmers foolishly think that it is desirable to have in the grain mixture some fibrous material like oat huUs, let them hire someone to grind up their straw stacks or the mows of poor hay and mix the good grain with these. It is pitiful to see farmers of limited means paying grain prices for an ingredient in certain commercial cattle foods which is worth no more than the poorest coarse fodders around the barn. Such costly business management seems to be the fruit of either wilful ignorance or a lazy indifference. The manufacturer who uses oat hulls in such a way as to de- ceive his customers is simply dishonest. One of the most glaring im- positions discovered is the case of sample 246, representing an oat feed found on sale at Homer. The oat feed ( ?) contained only 1.7 per cent of protein and over 30 per cent of fiber. It was nothing but oat hulls. The selling price was $15 per ton ! Comment is unnec- essary. The wise course for farmers to pursue is to purchase either standard by-product feeding stuffs or the entire grains, such as corn and oats, whole or ground. At $1.00 per hundred for corn meal and $0.40 per bushel for oats, a mixture of equal parts by weight of these two grains can be secured at no greater price than what is asked for certain oat feeds. If hominy feed is used in place of the corn meal the cost would be lessened. (N. Y. State Bui. 198.) Nevertheless, the feeder must use his business sense. "When oats and corn are both hovering around $25 per ton there is no com- bination of pure grains that can be made which will yield the manu- facturer a profit at $18 per ton. If protein feeds are desired, consider content of protein and price per ton together in the selection. The protein feeds are submitted in a wide variety, and, this year at least, the differences seem to be in analysis rather than in price. When home-grown feed commands a high price, sell and buy cheaper feeds. In many instances the purse and the ration are both improved. If corn is high and, therefore, to be sold, and gluten meal is Dought in its place, the best of the corn is brought home again. It is a common practice to exchange wheat for wheat bran ; why not corn for gluten meal or feed? Still, this is not applicable to all feeds; for while an exchange of corn for gluten products returns the best of the corn, the exchange of oats for oat feed returns the poorest por- tions of the oats. On the other hand, the home-grown products may be cheap, and there is a point when the exchange, though desirable from the stand- point of the ration, will not prove profitable enough to warrant itself. Remoteness from market, the price of feeds, the freight rates and the small returns from dairy products 'may so change conditions as to render one feeder's folly, in feeding carbohydrates wastefully, the most profitable, if not the most desirable, course for another feeder to pursue. 176 DOMESTIC ANIMALS, DAIRYING, ETC. All these things must be borne in mind by the feeder who would be successful. When buying, buy wisely. Buy either standard goods, the quality of which may be judged pretty accurately, or in- sist on guarantees. Avoid the materials which are marked down be- cause they are slightly below grade. Usually the reduction in price is by no means large enough, and having accepted the goods with the statement that they are damaged or deficient, there is no redress. Of course it must be remembered that certain products are ex- empted from the provisions of the law, as stated in the opening pages of this bulletin. As to the others, the Station expects to do its duty in the matter. In the fertilizer inspection it has been found that the desire to stand well in the published results of the inspection has been an important factor in causing a careful attention to legal pro- visions. At the same time, those who find it necessary to purchase feeding stuffs should remember that they can largely assist in deter- mining the extent to which the law is obeyed. If they refuse to buy foods not properly marked or for which no guaranteed analysis can e furnished, when under the law such should be furnished, dealers will not handle such goods ; and when dealers refuse to handle a par- ticular brand, the manufacturer will be obliged to comply with the law to protect his interests. (N. J. B. 153.) Purchase of Commercial Feeding Stuffs. A well-managed dairy farm should produce all of the coarse fodder, in form of corn fodder or stover, hay and ensilage, which is needed for the stock, and, excepting under unusual conditions, should also supply an abundance of starchy food, such as corn meal and in some cases oats and barley, for feeding purposes. These the farmer should be able to produce in abundance. But in order to feed them without wa.-to and also to supply a deficiency in them, it is almost always advisable or necessary, in the absence of clover, alfalfa, or other leguminous crops, to buy feeds rich in digestible protein; considerably richer in it than corn meal. (N. J. B. 115.) Best Week in a Cow's Lactation Period. It is often of much im- portance to know at what time in a cow's lactation she is liable to make her best record. Nearly all of the associations of our improved dairy breeds favor the animals making large milk or butter records. In some cases certain fixed standards are set, as, for example, in the American Jersey Cattle Club Association where fourteen pounds or over of butter is required to admit animals to what is known as the tested list. In looking over the herd records, it was found that a great variation existed as to the best week of lactation. This variation was not only among certain individual cows but it also existed with the same cow from year to year. In order to get reliable data it was quite evident a large number of records would be required to over- come the varying influence and find a fair average. Out of this large number of carefully compiled records the following data and results are drawn. It was found that nine-tenths of the cows made their best records during the first ten weeks of lactation and that over one- half made their best records during the first month. The first week POLLED DURHAM BULL. DEPT. OF AGR. POLLED DURHAM Cow. DEPT. OF AGR. BREEDS OF DAIRY CATTLE 179 is calculated beginning four days after calving, thus making the end of the first week eleven days after calving. From the results ob- tained, which bid fair to be average, the second and third weeks of a cow's lactation are the best, and there is not much difference be- tween the two. A cow reaches her highest production of butter fat at an earlier period than she does her greatest milk flow. (Nebr. B. 76.) Salt Required. A cow should receive enough salt to compen- sate for the chlorine contained in the milk produced. In general this will require about .6 ounce of salt for each 20 Ibs. of milk given. A slight excess will do no harm and it is recommended that dairy cows be given at least 1 oz. of salt per day. Exceptionally heavy milkers will require more than this. (Wis. 22d Annual Report.) Cattle Food Substitutes. On the farm or in the city, it is folly to pay feed prices for low-grade material of lower utility than the ordinary forms of farm roughage. If consumers should see the original of some of the fine-ground materials which are appear- ing on the market, they would almost refuse it as 'bedding, for fear the animal might eat it cocoanut shells, peanut shells, rice hulls, coffee hulls, and various other kinds of hulls, all trading on the reputation of the genuine products, such as true cocoanut meal, pea- nut meal, rice meal, etc. It is doubtful if any feed with less than 7 per cent protein is a wise purchase, unless under exceptional circumstances. Even aver- age cob meal contains nearly 8 per cent. As a rule, when the amount of protein present in a feed falls below 7 per cent its place is taken by crude fiber, and the purchaser does not receive any greater amount, if as much, of the more digestible forms of carbohydrates than if the protein were furnished. Consumers are, therefore, advised to be on their guard in the purchase of some of these so-called cheap feeds. As a rule, buy standard feeds, for their quality may be pretty accurately judged. Avoid materials which, you are confidentially informed, are of slightly inferior grade; they are apt to be very much so. If the material offered is such that the law requires it to be guaranteed, insist on having the guarantee and study it. (N. J. B. 156.) What Concentrates Shall the Farmer Purchase? Concentrates do not permanently affect the percentage composition of the milk. Feeds having a high fat percentage, such as cottonseed meal and distillers' dried grains may temporarily increase the fat and cream percentage, but the milk shortly returns to its normal composition. The richness of the milk in fat depends primarily on the breed and individuality of the cow and also upon the stage of lactation. The only way to make more cream and more butter is to make more milk. There is no "best" grain ration. Some feeds are better suited than others for milk production, and some are decidedly more eco- nomical. It would, of course, be out of place in a publication of this kind to attempt to specify which is the most economical grain or grain mixture for the reason that the market is subject to frequent 180 DOMESTIC ANIMALS, DAIRYING, ETC. and sudden changes and what may be true to-day might be incor- rect a week or month hence. In selecting concentrates, the purpose for which they are needed as well as their cost, should be kept steadily in mind. Experiments have clearly demonstrated that the dairy cow of 800 to 1,000 pounds live weight, yielding 10 to 14 quarts of milk daily, needs from 14 to 16 pounds of actual digestible matter a day, and of this quantity, 2 to 2M> pounds should be protein, the balance being carbohydrate or starchy material. Now the farm produces principally one-sided or starchy feeds, such as hay, roots and corn. A combination of hay, silage and corn meal will furnish all the digestible matter that is needed in the daily ration, but the combination will be lacking in protein. It is advisable and necessary therefore, in order to produce milk to the best advantage, to purchase feeds rich in protein to make up the deficiency. A grain ration made up of protein feeds will also produce manure 10 to 15 per cent more valuable than one composed of hay, silage and corn meal. It is poor economy for the farmer to purchase starchy feeds, since he can produce them more economically. Milk producers, on the other hand, who buy all of their grain will find it advisable to have one-third of their ration consist of corn or hominy meals in order to furnish the necessary digestible matter. Experience and experiments have taught the writer that the most economical and satisfactory concentrates to make up the pro- tein deficiency are cottonseed meal, gluten meal and gluten feed, dried distillers' grains, flour middlings, dried brewers' grains and malt sprouts. Linseed is also satisfactory and at present economical. Wheat bran, because of the relatively small amount of protein it con- tains is an expensive protein feed. It is, however, valuable as a di- luter for the more concentrated articles, and has a satisfactory effect on the bowels. It is hardly the part of economy to have the grain ration consist of over one-third bran, and many feeders will endeavor to get along without it by using corn silage or distillers' grains as a diluter. If starchy feeds are needed purchase corn, hominy or barley meals. In regard to the so-called mixed feed adulterated with corn cobs, the various oat offals containing large quantities of oat hulls, and other inferior feeds, the only advice that can be given is, do not be tempted to purchase them. Talk About Grain Mixtures. Many farmers are prone to esti- mate the value of the different grains in quarts rather than in pounds. Thus a quart of bran, weighing a trifle more than one-half pound, is compared in feeding value with a quart of cottonseed meal weighing 1.4 pounds and the feeding effect noted on this basis. That this is an unfair method of comparison is self-evident. Feed stuffs should always be compared pound for pound, and in making up a grain mixture, a definite number of pounds of one feed should be mixed with a definite weight of another. The weight of a quart of the mixture can be ascertained, and for practical purposes a certain number of quarts equivalent to a definite number of pounds may then be fed daily. BREEDS OF DAIRY CATTLE 181 There is a wide difference of opinion among feeders as to the amount of grain that it is profitable to feed daily, and in fact no exact rule can be laid down. Generally speaking, cows weighing 800 to 1,000 pounds, that are producing 12 or more quarts of milk a day, can profitably utilize 6 to 8 pounds of grain in 24 hours in addi- tion to the ordinary roughage ration. When milk or cream brings a low price, it might be better management to increase the roughage and decrease the grain to 4 or 5 pounds daily, and on the other hand, where the demand for milk is good and the feeding and productive capacity of the cow is known, 10 and even in some instances 12 pounds can be fed to advantage. Heavy milking Holsteins will often use double these amounts when fresh. As the period of lacta- tion advances and the animal fails to respond to the maximum ration, the quantity of concentrates can be somewhat reduced in ac- cordance with the judgment of the feeder. It is unwise to feed heavy nitrogenous concentrates unless di- luted with some bulky feed, for the reason that they are likely to be imperfectly chewed, digested and assimilated, and are frequently chewed, digested and assimilated, and are frequent causes of diges- tive disturbances. Wheat bran, distillers' grains, malt sprouts and even chopped hay or silage will serve as proper distributers. In the types of grain mixtures given below, one-third wheat bran has been used in most of the combinations. Some very successful feeders maintain that the most satisfactory rations should contain one-half bran, but the writer is of the opinion that such a mixture would be too expensive for the average feeder. Grain rations should be so compounded that a quart of the combination should not weigh over one pound or even a little less. (Mass. B. 93.) Fertility Value of Rations. The matter of fertility values should also be considered in connection with the question of home- grown protein. If the entire feed-supply is derived from the farm itself, then the only increase in fertility elements possible is that due to the nitrogen that has been gathered by alfalfa, red clover, cow peas the other leguminous crops, while when feeds are purchased the increase in fertility elements will be in proportion to the, amounts contained in the manures made from them. In the home-grown ration used here, the gain in fertility would be due entirely to the Siantity of nitrogen that would be gathered from the air by the falfa. It is not possible to correctly estimate the quantity of nitrogen so gathered, because leguminous crops use both soil and air nitrogen, although the quantity gathered will depend upon the supplies of nitrogen in the soil. That is, nitrogen will be taken frorn the soil in greater proportion in those which are rich in this element. If it is assumed that all of the nitrogen contained in the alfalfa hay used in the experiment was dra\vn from the air, then the quantity was slightly greater than that which was contributed by the purchased feeds. If all was obtained from the land, the farm Is poorer in nitro- gen, because a part is retained in the milk, while the use of the feed ration has made the farm richer in nitrogen by the pounds added 182 DOMESTIC ANIMALS, DAIRYING, ETC. in the feed, less that sold in the milk. The phosphoric acid and pot- ash have been drawn from the soil, and the farm is no richer, but is poorer, because of the quantities gathered by the alfalfa hay, while the purchased feeds brought considerable quantities to the farm. It has been shown, however, that on reasonably strong soils, the crops following alfalfa are able to obtain their mineral food more readily than if they follow cereal or grass crops, which draw all of their nitrogen from the soil. This, however, does not change the fact that in the purchase of feeds considerable quantities of fertility elements are added to the total supply on the farm, and should be regarded as an offset in part, at least, against the cost of feed supplies. On the other hand, the growing of alfalfa presents a possible means of gaining nitrogen, while at the same time increasing the power of other plants to absorb phosphoric acid and potash from the soil. (N. J. B. 204.) Period of Gestation in Cows. Of 182 births the average period of gestation was almost exactly 280 days. The shortest period was 264 days; the longest 296 days. Approximately equal numbers of births occurred on each day from the 274th to the 287th inclusive. The period of gestation was the same for male and female calves. (N. Y. Cornell B. 162.) Whole Straw and Cut Corn Fodder for Bedding. Many farm- ers may hesitate at using fodder for bedding. In the minds of most people, fodder is one of the staple forage crops of the farm, and is raised and cared for for feed only. As was mentioned before, feed and bedding were taken from the same pile at the time these tests were made, and it was very good feed too. To use such material for bedding may appear very wasteful. Wheat straw can be used for no other purpose. It is valueless as feed, and we have come to re- gard it as a bedding material. But a few comparisons may put the matter in a different light. As was stated, the cut stover makes a more satisfactory bedding than the straw. Now the question comes as to its cost. There are but two ways to get at this. The market price of good wheat straw is a little more than that of fodder per ton. In fact, this difference in selling value is about sufficient to balance the difference in the weights of straw and fodder necessary for the same results in bedding. Another way to compare the two is to consider the amounts grown per acre. Good wheat will make about two tons of straw per acre. But a good crop of fodder is much more sure than is a good crop of straw, and a person depending on corn fodder for bedding is not so likely to be disappointed as Avhen depending on wheat straw. Of course there are other factors to be considered. A corn crop is surer and more valuable than a wheat crop. But, on the other hand, with the present system of farming, wheat is _thought necessary as a nurse crop for grass. But what we were trying to establish was that it was not necessary or even ad- visable to grow wheat purposely for bedding. Corn fodder is as good or better, is a surer crop, and is a more valuable crop otherwise than wheat. It should take the place of wheat straw for bedding to a great extent. BREEDS OF DAIRY CATTLE 183 Sawdust and Shavings for Bedding. For the strictly sanitary dairy, sawdust or shavings are the ideal bedding materials, though the ordinary dairy farmer could not be advised to buy when he could raise either the straw or the stover. There is a little dust in shavings, but it would have no effect on the wholesomeness of the milk, as the dust from the shavings is generally small particles of wood and sel- dom contains 'any moulds or bacteria. As was stated before the saw- dust is. damp and has no dust. Moreover, both of these materials keep the cows cleaner and make a stable look neater than either the straw or the stover. Rye Straw. In the city markets rye straw sell for about twice as much as any other material intended for bedding. Of course it is intended almost exclusively for horses, and the double price paid for it would indicate that horsemen considered it just twice as de- sirable for bedding. It is a little difficult to get at the true reason. Farmers evidently prefer the wheat straw for both horses and oows. It is very doubtful if rye straw would prove at all satisfactory in a d;iiry stable. It is hard and stiff and, in some tests made at this station, with a separate and smaller herd than the one used in the previous tests, about the same quantity of rye straw as of wheat straw was used, but the cows did not keep in as clean a condition. The rye straw apparently was a very poor absorbent. (Md. B. 104.) RAISING CALVES. The Proper Kind of Treatment. If the cow fails to lick the calf soon after birth it should be rubbed dry with cloth or straw, and if necessary assisted to get its first meal. It is especially important for the calf to get the first or colostrum milk of the dam. This milk contains about 17.6 per cent of protein or nearly six times as much as ordinary milk. It also contains more ash. It is a powerful laxa- tive and tonic and is effective in removing the faecal matter from the alimentary canal. The calf should receive its mother's milk for the first week, after which it may get the mixed whole milk of the herd. The calf may be allowed to suck until the milk is fit for human consumption, usually about the eighth or ninth milking. The calf may then be removed, preferably to an adjoining pen or lot where the cow may reach and fondle it but where the partition is sufficient- ly high to prevent it from sucking. This will insure the content- ment of the cow, and when the calf is kindly treated will go a long way to inspire confidence in the herdsman or attendant. The cow is a mother and we must appeal to the mother instinct if we are to expect large and profitable returns. Danger of Overfeeding. It should be remembered that while the stomach of the cow is remarkably large, holding in its four com- partments about 260 quarts, that of the calf is small, holding about two or three quarts, its first two compartments being yet undevel- oped. When allowed to run with the cow, the calf is said to suck from 10 to 15 times daily, taking only a little milk at a time. When removed from its mother and left from 6 to 12 hours, it gets ex- ceedingly hungry and when offered milk in large quantities will 184 DOMESTIC ANIMALS, DAIRYING, ETC. gorge itself and force the milk on through the stomach before diges- tion can take place, resulting in disorders in the alimentary canal. Great care must be exercised not to overfeed the young calf. (Wis. B. 192.) Teaching the Calf to Drink. When the calf is weaned from its mother it is well to let it go 18 to 24 hours without milk in order to have it hungry for its first meal from the pail. A calf is much more tractable when hungry and this may materially aid in keeping the feeder in a better humor and thus insure better care of the calves. The first feed from the pail is a crisis in the calf's life. The calf will not learn to drink any quicker by being forced to breathe the milk into its lungs. The feeder should realize that in- stinct compels the calf to look up for its feed and he must change this by teaching the calf to look down. Some calves are taught to drink from the pail at the first trial with little or no sucking of fingers. Others will require much more persistent effort, and con- siderable patience and common sense is required. The calf will re- spond to kindness, although stubborn at times, and the feeder who will put himself in sympathy with calf nature will find the stubborn- ness of the calf may soon be conquered. The Calf on a Milk Diet. The amount of milk fed should be carefully regulated. A good plan with the normal calf is to give 4 pounds (2 quarts) of whole milk three times per day, fed sweet and at blood temperature. In the state of nature the calf gets milk con- taining about 3 per cent fat. Our domesticated cows have been bred in some instances to give nearly twice this amount. Milk that is too rich may cause serious trouble from scours, and in feeding such milk care should be exercised to give limited amounts at the proper temperature. The feeding of whole milk should be continued for about three or four weeks, when the number of meals may be re- duced to two per day. From one-half to a pint of skim milk may now be substituted for an equal quantity of whole milk. The amount of skim milk may be gradually increased and the amount of whole milk correspondingly decreased until, at the end of a week or 10 days, the calf is getting all skim milk. Feed the milk sweet and at blood temperature. The Calf on Skim Milk. Not over 10 to 12 pounds of milk daily should be fed until the calf is 5 to 7 weeks old. Later the amount may be increased to 14 or 16 pounds and at three months may, though not always, go to about 20 pounds. The amount fed however must be carefully regulated by the ability of the calf to handle it without scouring. The following method has been suc- cessfully used as a guide. For the first 100 pounds live weight 10 pounds of skim milk per day; For the second 100 pounds live weight 5 pounds of skim milk per day; For the third 100 pounds live weight 2% pounds of skim milk per day. A calf weighing 80 pounds would be fed, according to this plan, 8 1 /2 pounds (one gallon) of skim milk; a calf weighing 300 pounds would be getting a little over 17 pounds BREEDS OF DAIRY CATTLE 185 (two gallons) per day. If skim milk is available it can be fed profit- ably to the dairy calf six to eight months, or even a year. Whenever the calf does not eat readily, cut down the supply of milk. The adding of boiling water or scalding the milk may help materially at such times. Factory vs. Hand Separator Skim Milk. Good calves can be raided on factory skim milk provided the creamery is careful to re- ceive only good sweet milk so that the skim milk may be kept sweet until consumed by the calf. It should be borne in mind, however, that unless factory skim milk is heated sufficiently to destroy germ life it is not only difficult to keep sweet but it may spread disease, especially tuberculosis, to the calves and hogs kept on the farm. It is much less work when the hand separator is used, and the calves are assured of a more uniform feed. The calves are usually fed immediately after separating, while the milk is still warm and sweet. This uniformity of condition and freedom from outside in- fection in the milk is exceedingly important, and the hand separator deserves much credit for making this possible and practicable. (Wis. B. 192.) Roughage for Calves. Calves will eat roughage at about the same time they begin to eat grain, viz., two to three weeks of age, and will consume about the same quantity of each at first. As the calf grows older the proportion of roughage to grain increases, and by the time the calf is six months of age, it will have consumed about three times as much roughage as grain. The quality of the hay should be of the best, always clean and bright. It can be placed in a rack in one corner of the calf pen. Any left uneaten should be removed at the next feeding time and a new supply added. The kind of hay may vary according to the needs and condition of the calf. Early cut blue grass is good, as is also hay from mixed grasses. Clover and alfalfa are frequently used to excellent advantage even with the young calf, although there is probably more danger from scours with these. Their importance, as the calf grows older, cannot be over- estimated. Corn silage is also proving an excellent roughage for calves. It is usually safe to give the calf all the roughage it will eat. Pasture. Some feeders have difficulty from scours in turning calves on pasture. This may be overcome by allowing the calves to graze for only a short time the first day and gradually increasing the time each day until they become accustomed to handling the green feed or what is better, gradually get them used to green feed by an increasing daily allowance of soiling crops. Sud- den changes in feeding should be avoided. It is doubtful if there is any gain in placing calves on pasture before they are four months of age. Water and Salt for Calves. Calves, like other farm animals, get thirsty, even though milk forms a large part of their ration. Calves three months of age will drink as much as five quarts of water daily per head. They like to drink often, sipping a little at a time. A half barrel, cleaned and replenished twice daily, will serve nicely 186 DOMESTIC ANIMALS, DAIRYING, ETC. as a water trough. Another good device is an automatic waterer, which may be easily cleaned, situated a little above the floor to keep out the litter. Salt is essential to the development of the calf, as of other animals, and should be kept continually available. (Wis. B. 192.) Grain for Calves. When calves are changed to skim milk they need some substitute for butter fat. This may be furnished in the form of fat as cod liver oil. It is more cheaply obtained from the starch and fat found in grain. Ground flaxseed made into a jelly and fed with milk is soothing and makes a good substitute for the 'butter fat in the milk until the calf is three or four weeks old when it should be necessary to eat ordinary farm grains as corn and oats in sufficient quantities to substitute for the butter fat. Many feed- ers start on farm grains without flaxseed and report good results. Kind and Amount of Grain to Feed. Skim milk contains more protein and carbohydrates than whole milk. In selecting a grain to take the place of the fat that has been removed, it is not nec- essary nor is it advisable to get one rich in protein, as the skim milks furnishes the nutrient. While calves may do well on high priced concentrates, they are unnecessarily expensive and give no better re- sults than the cheaper carbonaceous grains, as corn, barley, oats, Kafir corn, or sorghum. Calves will sometimes learn to eat the grain more readily if a little bran forms a part of the ration for a short time. A number of farm grains have been used successfully in feeding calves. The following list may serve as a guide to the calf feeder in making se- lections or combinations to suit his conditions: 1. Corn meal grad- ually changed in four to six weeks to shelled corn with or without bran. 2. Whole oats and bran. 3. Whole oats and corn chop, the latter gradually replaced by shelled corn in four to six weeks. 4. Ground barley with bran or shelled corn. 5. Shelled corn and ground Kafir corn or sorghum. 6. Whole oats, ground barley and bran. 7. A mixture of 20 pounds of corn meal, 20 pounds of oat meal, 20 pounds of oil meal, 10 pounds of blood meal and 5 pounds of bone meal, changed to corn, oats and bran when calves are three months old. 8. A mixture of 5 pounds whole oats, 3 pounds bran, 1 pound corn meal and 1 pound of linseed meal. The calf may be taught to eat grain by rubbing a little on its mouth when it is through drinking milk. From this it will soon learn to eat from the feed box. (Wis. B. 192.) Dehorning Calves. It is much easier, to say nothing of being more humane, to dehorn calves when they are young, preferably when from three to four days old. Clip the hair away from the but- ton ; take a stick of caustic potash, wrapped in some material to pro- tect the fingers, moisten one end with water, and rub gently over the button until the skin becomes slightly raw and smarts a little. In a few days a scab will form, which will soon disappear, and, if the work is properly done, will leave the calf without horns. One appli- cation is usually enough, but in case the horns start again the appli- BREEDS OF DAIRY CATTLE 187 cation can be repeated. Care should be taken that none of the caustic potash runs down over the hair, to injure the eyes and skin. In case the horns break through the skin before the caustic is applied, it will probably be necessary to use a knife to cut off the but- ton, after which a little caustic potash can be rubbed over the ex- posed surface. There are a number of chemical preparations which give good results, but a man cannot afford to pay very much for them, as caustic potash is comparatively cheap and effective. Water and Salt. Calves enjoy clean, fresh water. A test was made by weighing the water given to thirteen calves that ranged from two to three months of age. It was found that 868 pounds of water were consumed in seven days, or nearly ten pounds per day per head. It was also noticed that the calves drank several times a day, sipping a little at a time; even after their ration of milk they would take a swallow of water. An automatic watcrer situated a little above the surface of the ground is the best arrangement for supplying this want. Calves seem to demand salt as well as older stock, and this should be kept before them at all times. (Kan. B. 126.) Calf Ties. Where there are only a few calves to be fed, fairly good ties can be had by the use of short ropes with snaps, to be fast- ened to ropes around the calves' necks, supplied with rings. When this method is employed the calves should be hitched far enough apart to prevent their reaching each other after drinking their milk. By far the best method of fastening calves is by means of stanchions. Here the calf finds his place and waits his turn. The feeder can set a bucket of milk down to the calf and then feed others, without fear of the calf tipping the bucket over. Where the stanchions are properly constructed, the calves cannot reach each other, and they can be left in the stanchions until their mouths are dry. Calves will commence eating grain sooner when fastened in stanchions than when tied with ropes. Scours or Diarrhea. Undoubtedly the greatest difficulty that the calf-feeder has to contend with is scours. Here, as elsewhere, an ounce of prevention is worth a pound of cure. The principal causes of this difficulty are overfeeding, sour milk, feeding cold milk, feed- ing grain with the milk, using dirty milk-pails, very cold water, too much water after periods of thirst, and irregularity in feeding. The careful feeder will watch very carefully the effect of his feed upon his calves, and as soon as there are any signs of scours the milk should be reduced one-half or more and gradually increased again' as the calf is able to stand it. A mild case of scours can usually be cured in from one to two days by reducing the milk and adding a teaspoonful of dried blood while the calf is drinking. In a test that was made with five calves that were scouring at the same time, two were fed dried blood after reducing the regular feed of milk; the others were fed dried blood without changing the feed of milk. In the former case the calves recovered after two feeds and the latter after three feeds. 188 DOMESTIC ANIMALS, DAIRYING, ETC. In feeding dried blood a teaspoonful at a feed is a great plenty. This should be continued until the scours disappear, or, in the case of a weak calf, the allowance may be increased to a tablespoonful per feed. The blood should be thoroughly mixed with the milk to prevent its settling to the bottom of the pail. The packing com- panies are now making soluble blood-meal that is claimed to dis- solve in milk much more readily than the regular dried blood. No dried blood should be used that has not been thoroughly sterilized ; otherwise it would be comparatively easy to carry disease into the herd. In severe cases of scours, the addition of one or two eggs with the dried blood has been found to be very effective. Another remedy that has been found to be successful is to give from one to two ounces of castor-oil in the morning, and follow in about twelve hours with fifteen to twenty drops of laudanum and a teaspoonful of dried blood. If the case is a persistent one, one or two raw eggs may be added, as mentioned above, which will help to keep the calf from suffering from hunger, as, under such conditions, it is useless yes, worse than useless to give it much milk. (Kan. B. 126.) Dairy By-Products as Substitutes for Milk. This dairy by- product is of practically the same composition as skim milk. There is little question if it has not the same feeding value as sour skim milk. Experiments show that calves fed buttermilk make good gains and may even be less subject to scours than those fed skim milk. Where buttermilk is fed special effort should be made to have its condition at feeding time as nearly uniform as possible. Whey has the casein as well as the butter fat removed and hence is a much less valuable feed than skim milk; a good grain ration must be carefully selected as a supplementary feed. The calf to be fed on whey should receive whole milk for the first week or two ; it can then be changed to skim milk. If this is not available it should be continued on whole milk. A calf will do better not to receive whey for five or six weeks. It will take ten days to two weeks more to complete the change to whey. Calves will handle about the same amount of whey as skim milk, viz., 14 to 16 pounds daily per calf. An excessive amount may cause undue largeness of the paunch. The feeder will need to give more care and attention to calves fed on whey than to those fed on milk. The grain for whey-fed calves should be selected for its constipating effect so as to counteract the tendency to scours. Oats, sorghum seed, shelled corn, or middlings (as part of the ration) are good for the purpose. Avoid soy beans and other grains that have a loosening effect. For roughage, mixed hay is probably the best. Alfalfa, clover or silage should be fed sparingly until the feeder knows whether the calves can handle them without scouring. (Wis. B. 192.) Calf Meal as a Substitute for Milk. The food requirements for a given gain increases with the age of animals. The steer requires 7.4 pounds of digestible organic matter to produce one pound in- crease in live weight, while the calf makes the same gain from 1.57 pounds of dry matter. To secure these economic gains, the ration BREEDS OF DAIRY CATTLE 189 of the calf must be liberal in amount, easily digested and rich in nutrients suitable for growth. The calf designed for beef purposes may be pushed for the most rapid gains. The dairy calf should be kept in a thrifty growing condition, but should not be allowed to become fat. A calf intended for a dairy cow should not gain more than one and one-half pounds per day for the first four months and less thereafter. The most rapid gains with calves can be made with mother's milk. Skim milk reinforced with hay and grain will pro- duce satisfactory gains with calves, especially those designed for dairy animals. Several substitutes for milk have been recommended among which are hay tea and the various calf meals. (Conn. B. 43.) ' Skim-Milk Substitutes for Calf Raising. The calves had mixed hay before them at all times, and all were provided liberally with a grain mixture composed of 6 pounds of corn and oats, 3 of wheat bran, and 1 of oil meal, which was supplemented with the different feeds entering into the comparison. The records are given for from 4 to 5 months from birth, and include experiences for two seasons; the first with skim-milk, Schumacher Calf Meal, and Lactina Suisse (an imported powder said to be principally of vegetable origin) ; the second, with skim-milk, Schumacher Calf Meal, Blatchford Calf Meal, and skim-milk powder. The 'latter was purchased from the Merrill-Soule Co., of Syracuse, N. Y., and was said to be dried skim- milk. The substitutes for the skim-milk, were fed in gruel form. It is evident from the results of these experiments and those else- where, that good, strong, healthy calves can be raised without skimmed milk or milk of any kind after the first thirty days. . . . Skimmed milk, hay, and grain, make the best substitute for whole milk in raising calves. (U. Y. Cor. B. 269.) The best substitute for the ordinary skim-milk seemed to be the dried skim-milk powder. Schumacher Calf Meal was the best commercial substitute, in the nature of grain. The Lactina Suisse and the Blatchford Calf Meal were too expensive for economical use, especially in view of the gains in weight which were made. (R. I. B. 140.) Regularity and Care. Feeding the game time each day with the same quantity and quality of milk, has much to do in maintain- ing a healthful condition of the calf. With this should go the pre- caution of providing a dry pen, warm and well ventilated in winter and cool in summer. The calf is sensitive and should have kind treatment. The successful calf feeder will watch his calves closely and at the first signal of scours will cut down the supply of milk ; at this time a couple of tablespoons of castor oil in scalded milk may effect a cure. Persistent cases will require more strenuous treatment. Change in Character of Feed. When the skim milk diet is stopped at any time from 6 to 12 months of age, it should be remem- bered that the calf is deprived of a nitrogenous feed and its place should be taken by some nitrogenous grain or roughage. The ten- dency of the dairy calf to get too fat depends not only upon its tem- perament but also upon its feed. Avoid too much corn. For grain, 190 DOMESTIC ANIMALS, DAIRYING, ETC. oats and barley are good ; for roughage, bright clover or alfalfa hay with corn silage to give succulence and variety. The aim should be to keep the calf in a healthy, thrifty and growing condition. Under proper treatment the calf should continue to grow until four to six years old. Every effort should be made to develop a large stomach and consequently large capacity; build muscle and good bone, but do not allow it to get too fat. The good dairy cow must handle large amounts of feeds. This she should learn to do while young. For this purpose roughage exercises the digestive apparatus more than concentrates. There are some who think that with a good quality of clover or alfalfa with corn silage or roots for succulence, no grain is necessary from the time the calf is weaned from skim milk until she drops her first calf. There are others, however, and probably these include the larger number of our progressive dairymen, who think a little grain should be given daily to keep her stomach ac- customed to handling grain. Size depends much upon heredity but even more upon liberal and judicious feeding. It is impossible to starve good dairy quali- ties into a growing heifer but many a promising heifer has been starved into a poor cow. The Herdsman's Responsibility. After all that has been said and done, the calf will not be properly raised, unless its feed and care have been directed by intelligence on the part of the herdsman. Calf feeding requires skill and good common sense. The art of calf rear- ing cannot be taught out of books, bulletins and papers. There must be brains and intelligent interest to properly accommodate the calf to its feed and environment. There are no hard and fast rules that can be laid down. The intelligence that the herdsman puts into his calf feeding will have a great influence upon the future cow. There are great possibilities in the production of good cows but these are seldom, if ever seen, appreciated or attained except by an intelligent, thoughtful feeder. The ear marks of an intelligent feeder are seen in his herd. The calves are thrifty, active, with bright eyes, smooth glossy coats, always hungry, and playful and lusty. (Wis. B. 192.) Age at Which to Breed. The heifers fed only 2 pounds of grain per day during the winter of 1908-1909 were not as large as they should have been for their age, when they were turned out to pasture in the spring. This was a considerable loss to the herd as it necessitated waiting much longer before breeding them, than would have been necessary had they been larger. The loss was one of time as well as of feed. We were compelled to do without the milk they should have been producing, as well as to feed them for another six months, at a cost approximating $20.00. Heifers should be well enough grown to drop their first claves when from 24 to 27 months old. The objection is made that heifers bred too young will be dwarfed in size, and that, if the policy is continued, the race will de- teriorate. This is not necessarily true. The heifers can be so fed and cared for as to be large enough and vigorous enough to keep up the vitality of the race, even if they come into milk at two years old. BREEDS OF DAIRY CATTLE 191 If this is done, two important things will have been accomplished. First, time and feed have been saved; and second, the heifer's ener- gies are early turned towards milk production, before the habit of producing flesh and fat has been acquired. The latter reason may be considered fanciful by some, but there seems to be good evidence for the belief that coming into milk early in life, helps to develop and fix the milking habit. Even if this were not true, the saving in time and feed will amply repay the farmer for giving the young things extra care until they are two years old. (Conn. B. 63.) Authorities Consulted : Cattle Foods and Feeding. la. A. E. S. B. 87; Cornell B. 154; Miss. B. 104; Kans. B. 115; Miss B. 114; Tex. B. 110, 135; Va. B. 164, 173; la. B. 87; Miss. B. 92; Pa. B. 70; Colo. B. 125; Ky. B. 141; Mich. B. 203; N. H. B. 154, 147, 149, 133, 116; Mass. B. 50; Wash. B. 48; Minn. B. 36, 27; Pa. B. 50; Del. B. 5; R. I. B. 78, 98; S. C. B. 105; Del. B. 7; la. B. 86; Mass. B. 51, 45; la. B. 66; Ag. Dept. Bu. Chem. B. 108; 111. Cir. 88, 92, 94 ; Wis. B. 151 ; N. J. B. 184 ; Ind. B. 21 ; 111. B. Ill ; Kans. B. 124, 130, 132; Miss. B. 136, 92; Kans. B. 11.2, 39, 61, 60, 51, 67; Minn. B. 60; Ky. B. 108; Pa. B. 83, 74; Idaho B. 24; Utah B. 101, 54; Pa. B. 68, 64, 53; Wash. B. 79; Pa. B. 57; F. B. 320; Nebr. B. 75, 85, 90; Tex. B. 86; Minn. B. 99; Vt. B. 152; N. Dak. B. 73, 33; Tex. B. 97; Colo. B. 102; S. Dak. B. 97; Okla. B. 58; Mo. B. 25; Va. B. 173; Mo. B. 75; Va. B. 164; 111. B. 103, 83, Cir. 94; Nebr. B. 100; 111. Cir. 92; Ag. Dept. Bu. An. Ind. B. 131 ; Ind. B. 141, 152; F. B. 346; Ag. Dept. Bu. An. Ind. B. 143; Wis. B. 187. Calves and Calf Feeding. Mo. A. E. S. B. 57; Wis. B. 192; Kans. B. 97 ; Pa. B. 60 ; Ind. B. 47 ; Mass. B. 28 ; La. B. 104 ; Kans. B. 126; Mo. B. 47; N. H. B. 58; Mich. B. 257; Idaho B. 48; Va. B. 172; Conn. B. 43; Conn. B. 63; R. I. B, 140, MILK. PROPERTIES OF MILK. NORMAL milk is an opaque, almost white fluid, nearly free from germ life when first drawn from the udder. The lack of transparency is due partly to the fat held in sus- pension and partly to a suspension of the nitrogenous and mineral matter. It has a slight smell and a mild sweetish taste. When allowed to stand for any length of time, a multitude of flat globules rise to the surface and form what is termed cream. On con- tinuous standing, the sugar of milk is converted by bacteria into lactic acid, and the milk coagulates or sours. The larger part of milk consists of water, which contains a variety of substances in suspen- sion and solution. The substances large dissolved in water are casein and albumen, milk sugar, and the ash or mineral matter, which to- gether form the milk serum. The fat is suspended in the milk in microscopic globules, which are semi-solid, and with the serum, form what is termed an emulsion. (Mass. B. 110.) SOURCES AND KINDS OF MILK. In civilized countries where the climate allows, cows have been most generally bred for the purpose of giving milk, probably not so much because their milk was more particularly desirable for human food than that of some other mammals as because, all things con- sidered, they can be made to give the best results for a given amount of care and feed. Our preference for their milk is undoubtedly the result of habit and acquired taste rather than of any intrinsic supe- riority, save, of course, as special breeding has developed certain desirable characteristics. In some parts of the world other kinds of milk are used; goat's milk is very common, especially in the rough, hilly districts of Europe ; buffalo's milk is much used in India, and llama's milk in South America, while camel's milk is esteemed in desert countries, and mare's milk on the steppes of Russia and Cen- tral Asia. Sheep's milk is used in Europe and elsewhere for making certain kinds of cheese and in other ways, and the milk of reindeers is commonly used as food in the arctic regions. So much does cow's milk predominate in the western world, however, that unless other- wise specified the word milk almost always refers to that kind. Perhaps no food has been more often studied by chemists than milk and its products, and so a great deal of information is available regarding the composition and properties of these important food 192 MILK 193 materials. The average composition of cow's and some other kinds of milk used for food is given in the table which follows: Average composition of milk of various kinds. Total Protein. Fit Carbo- hydrates Mineral Fuel value solids. Casein. Albumin. Total . (milk sugar). matters. per pound. Woman Per ct. 87.58 Per ct. 12 6 Perct. 80 Percent. 1 21 Per ct. 2 01 Perct 3 74 Percent. 6 37 Percent. 30 Calories 31O Cow 87.27 12 8 2 88 51 3 39 3 68 4 94 .72 31O Goat 86.88 13.1 2.87 .89 3 76 4 07 4 64 .85 315 83 57 16.4 4 17 98 5 15 6 18 4 73 .96 410 Buffalo (Indian). 82.16 4.26 .46 7 51 4 77 .84 Zebu 86.13 3.03 4 80 5 34 .70 Camel 87.13 3 49 38 2 87 5 39 .74 Llama 86.55 3.OO 90 3 15 5 60 .80 Reindeer.. ....... 67.20 8.38 1.51 17.09 2.82 1.49 Mare 90.58 9 9 1 3O 75 1 14 5 87 .36 Ass 9O.12 10.4 .79 1.O6 1,37 6.19 .47 215 As the figures in the table make plain, milk of all sorts is a dilute food, as it contains a large percentage of water, the lowest proportion according to the figures cited being noted with reindeer milk and the highest with mare's milk. The three groups of protein, fat, and carbohydrates are represented by fair proportions, the quan- tities of protein and fat being especially noteworthy, as it is these constituents and the mineral matter or ash which to a large degree give milk its peculiar value as a food for young mammals. (Dept. Agr. F. B. 363.) Germ Life. Bacteria, Yeasts, Etc. Most of the changes that take place in milk, after it is drawn from the cow, are due to minute forms of plant life, principally bacterial ferments, which gain access to it and in their growth and development bring about many and varied changes in it and its products. As all air contains 'bacteria to a greater or less extent no milk is free from them. A change well-known to all is that of the souring of milk, which is due to lac- tic acid bacteria gaining access to it and converting the sugar of the milk into lactic or milk acid. These various organisms, when they gain access to milk, find it a perfect food, and if the temperature and other conditions be favorable to their growth they develop very rapidly. Although they are extremely small, single-celled organisms, visible only under a strong microscope, yet their rapidity of growth and reproduction ex- plains the marked changes that often take place in milk within a comparatively short space of time. Their usual method of reproduc- tion is to lengthen somewhat and then divide into two. Under favor- able conditions this will take place in from half an hour to an hour's time. Assuming it to take place in an hour's time, and the process to go on at this rate for twenty-four hours, the result would be about 17,000.000 organisms from the one parent organism. Of course as these organisms grow they feed upon the milk and bring about many changes fermentations in it which may seriously affect its flavor, change its condition physically, impair its food value, and, if they 194 DOMESTIC ANIMALS, DAIRYING, ETC. be disease organisms, render it dangerous to use as a food. This applies to both milk and milk products. A Brief Classification of Bacteria. From the standpoint of the dairyman, bacteria may be briefly classified as follows: 1. Patho- genic or disease producing bacteria, such as those of tuberculosis, ty- phoid fever, scarlet fever and diphtheria. 2. Those that produce poisons (ptomaines), not uncommon in ice-cream that has melted and been re-frozen. 3. Peptogenic bacteria, or those that peptonise or digest the casein or curd portion of milk. 4. Putrefactive forms of germ life, which decompose the milk, producing offensive flavors and odors. 5. Butyric ferments or those that act upon the fat of the milk, producing rancidity. All are familiar with the taste and smell of rancid milk, butter and cheese, due to this cause. 6. Bacteria which bring about changes in the color of milk (chromogenic) pro- ducing red, blue and other tints. 7. Sweet-curdling bacterial fer- ments which cause the casein or curd portion of the milk to coagu- late without souring. Their action may be compared to that of ren- net. 8. Gas-producing organisms. Many of the organisms that pro- duce bad flavors in milk and its products also produce gas. This is particularly noticeable where milk is made into cheese, as the gas is likely to produce holes or openings in it. 9. Lactic acid bacteria which convert the sugar into lactic acid, or cause the ordinary sour- ing of milk. This is not an exhaustive list, but will prove sufficient to illus- trate the many and varied changes in milk and its products, due to the action of germ life ferments. In fact the problem of ferments and fermentations, and how to control them, is the great task which the dairyman has to face in the handling of milk, the manufacturing of it into its different products, and the care of the same. Some of these organisms are decidedly harmful, and when present in milk make it dangerous to use. Others affect its flavor, rendering it more or less unpleasant to the taste and smell. The great majority, while not specially harmful to a person in vigorous health, depreciate the value of milk as a food and also, when present in too great numbers, set up trouble in the digestive tracts of persons with weak digestion, such as invalids and infants. Others, particularly the lactic acid organisms, are what may be classed as desirable organisms, that is, when not present in too great numbers, and when kept under control, they aid cheese and butter makers in the process of ripening milk and cream for their respective purposes. They are not desirable in milk or cream' 1 to be consumed as such, that is, if allowed to develop to any extent they cause it to sour. (Manitoba Agrl. Col. B. 3.) Bacteria. Science has admirably succeeded in tracing back through generations the species, genera, families and orders of plants and animals, but whatever may be the prototype of any living organ- ism, the origin of that prototype, that first form of living substance, is to-day as obscure as it was a thousand years ago. The same holds true in case of bacteria. We simply have to admit that we do not know. But this lack of information is of little consequence to the practical dairyman. To him the knowledge of the general distribu- INTERIOR OF LARGE SLAUGHTER HOUSE. DEPT. OF AGR. DIRTY BARNYARD AND WASTE OF MANURE. DEPT. OF AGR. 1909. MILK 197 tion of bacteria in nature and the channels through which milk may become infected is of much greater importance. It is well for him to bear in mind that wherever life is possible there he may also find bacteria. They are present in the water, in the soil, in the air, in dead animal and plant tissues, on the skin, on the hair, in the upper air passages and in the intestinal tract of man and beast, in excreta, in dust and in dirt, etc. Realizing this most liberal distribution of bacteria in nature it is not difficult for the milk producer to understand how they may gain access to the milk. But milk, even before it is drawn, has been found to contain variable and often large numbers of these microorganisms. The first source of bacteria in milk is the udder itself. If the animal is suffering from a specific infectious disease such as tuberculosis, an- thrax, foot and mouth disease and other cattle diseases, the bacteria causing these diseases are able to find their way from the animal body through the tissues into the udder. While milk from such ani- mals is utterly unfit for consumption as it imperils the health and life of the consumer, its dangerous effects may be overcome in case of tuberculosis by properly pasteurizing the milk. In the case of an- thrax, however, the germs are very resistant and heating the milk to the boiling point will not destroy them. Fortunately, the milk secretion in animals suffering from anthrax 'decreases rapidly and ceases completely after a few days; the milk takes on a yellow, viscid appearance. The foot and mouth disease, which is causing enor- mous loss of cattle in European countries, has, thanks to the rigid enforcement of our quarantine laws, so far successfully been kept from the herds of this country, hence an infection of mOk from this source is much less liable to occur. In healthy animals the only possible channel of bacterial in- vasion is the teat. The teat is a canal surrounded by muscular walls and closed at the extremity by an involuntary sphincter muscle, which varies much in contractility in different animals, often it is so lax that the pressure of a small amount of milk in the canal is sufficient to open it and the animal leaks her milk. In other ani- mals it requires a strong effort on the part of the milker to draw the milk. This canal, with a temperature of the animal body and containing always, even after the most complete milking, a small amount of milk, offers ideal conditions for bacterial growth. When the animal lies down, be it on the pasture or in the stable, the udder and teats come in contact with dust and dirt, which are teeming with bacteria. It seems, then, reasonable to conclude that in case of leaky udders the bacteria adhering to the exterior of the teat have easy access to the interior, where they meet most favorable conditions for rapid development. This assumption is borne out by the results of many investigations which invariably show that cows with leaky udders harbor a very large number of bacteria in their milk. For this reason such cows are discarded from the herd in some sanitary dairies. On the other hand, where the sphincter muscles close the teat firmly the bacterial invasion is greatly checked. 198 DOMESTIC ANIMALS, DAIRYING, ETC. From what has been said above it may clearly be seen that, if cows are allowed to wade in swamps covered with stagnant water, or lie down on dirty, filthy stable floors which are covered with excreta, etc., the chances are that a comparatively large number of bacteria will be able to enter the udder through the teats, a fact which is espe- cially true in the case of cows that leak their milk. It is obvious, therefore, that the discarding of animals which suffer from disease and of cows that have leaky udders, the use of drained pastures, and of clean bedding on the stall floor, constitute the first step towards improving the hygienic and keeping-quality of milk. Contamination During the Operation of Milking. Since dead organic matter such as dust, dirt, excreta, etc., is charged with enor- mous numbers of bacteria, large numbers of these microorganisms gain access to the milk during the operation of milking by the fall- ing into the milk pail dust from the atmosphere, of hair and dirt from the animal body, from the unclean hands and clothing of the milker and by the use of nonsterile utensils. Bacteriological exam- inations of the stable air and of the air under the udder during milk- ing have shown that thousands of these germs will fall into the open milk pail while the milk is being drawn. There is also unquestion- able experimental evidence of the fact that, where the teats, the udder and the portions immediately surrounding the latter are care? fully washed before milking, where the stable has plenty of light, is well cleaned, ventilated and the floors sprinkled with water to lay the dust before milking, where the milker has clean hands, wears clean clothing and uses sterile utensils, the number of bacteria in milk is reduced to a minimum. (N. Y. Cornell B. 203.) THE MILKER. The kinds of bacteria that the milker is likely to introduce into the milk include nearly the whole list. It seldom occurs to the average milker that it is as necessary to wash the hands before milking as before eating a meal of victuals. The numbers that come from soiled clothes and dirty hands which get into milk are large. The hands of a milker working around the farm during the afternoon were tested, just before milking time, for the numbers of bacteria that could be washed off in a quart of sterile water. The number was found to be 45,000,000. This washing did not remove all the bacteria, but did remove all those that might have dropped off during the milking. Another experiment was tried to deter- mine how many bacteria were left on the hands after thorough washing with soap and warm water. The number that could be washed off then in sterile water was found to be 900,000. These two experiments show that 98 per cent of bacteria can be washed from the hands. The clothes of the ordinary dairyman carry immense numbers of organisms with dust from all sorts of contaminations. The milker has a much wider range for the collection of a larger num- ber and a greater variety of organisms than the cow. The only proper attire for a milker is a white suit and cap to be worn only at milking time. A white suit shows dirt very readily, and when MILK 199 made of white duck will last a long time and can be sterilized almost indefinitely. The milker may not only be the source of a very large number of harmless bacteria, but the largest source of disease germs that get into milk. The milker may be the immediate source of dis- ease germs or may transmit them from another person. The disease germs that get into milk are largely from human origins, infectious diseases that pass individual to individual. A grave mistake has been made in the past by allowing persons ill with contagious dis- eases to enter a cow stable or dairy where milk is handled. Many an epidemic of diptheria, scarlet fever and typhoid has been traced to a case of illness on the dairy farm, which was not properly quar- antined and cared for. One high grade milk handling concern requires that if a case of contagious disease arises in the dairy of one of its patrons, that the milk supply be withheld till the patient has passed the danger limit of conveying the disease germs. The milk produced, however, is paid for during the quarantine. It is very difficult to make the average individual understand or even believe that our worst diseases are caused by special kinds of bacteria, and that these bacteria can be transmitted to a healthy individual, who is likely to-contract the same disease. (Conn B. 51.) Bacteria Decrease in Milk After Drawing. In contrast with this generally accepted opinion, investigators have from time to time made the statement that for a certain length of time the num- ber of bacteria decreases, so that milk when a few hours old contains a smaller number of organisms than it did when first obtained. Which of these conditions actually takas place in milk is of great practical importance to all milk handlers, since it bears upon the importance of immediate cooling. If all the bacteria contained in the fresh milk developed from the very outset, the value and im- portance of immediate cooling can not be over-emphasized, but if, on the other hand, there is a falling off in all species during the first few hours, it would only be necessary to cool the milk before the time of minimum numbers had passed and they again commenced to multiply. The decrease in the numbers of the normal milk bacteria dur- ing the first few hours after milking is not properly to be attributed to germicidal condition or property possessed by the milk, but simply of the natural dropping out of those species which do not find the milk a suitable medium in which to develop. (Conn. B. 37.) Kinds Rather than Numbers. The great host of bacteria are workers for the common good. They are transformers, cleaning up the accumulations of plant and animal life that would otherwise clog and encumber the soil to the extent of preventing the existence of even plant and animal life, on the earth. All these products they con- vert into absolutely necessary plant foods. There are a few kinds of bacteria which are harmful to man and animals in that they produce disease. It would be very unreasonable to condemn the whole group of plants because there are a few poisonous plants. 200 DOMESTIC ANIMALS, DAIRYING, ETC. It would be just as illogical to condemn the whole group of bacteria because a few are disease germs. Not more than one per cent of all bacteria are harmful to man. The ninety-nine per cent are bene- ficial and are absolutely necessary to the existence of life on the earth. Many bacteria are out of place when in our food, though they may be perfectly harmless. Here they are performing their natural functions in changing and breaking down materials, which work is essential in the soil, but not in foods. They are striving to do in milk what they were created to do in the products necessary to be changed for the growth of plants. The number of organisms that get into milk is proportionate to the carelessness and ignorance of the producer. The question of the numbers of bacteria that get into milk is not so serious as the power of growth or multiplication of those that do get in. For ex- ample, a bacterium will divide into two bacteria in twenty or thirty minutes, according to the temperature, and again these two into four in another twenty or thirty minutes, and so on in geometrical progression. So that a bacterium given sufficient food and proper conditions would multiply into a mass the size of the earth in five days and eight hours. But yet the question of multiplication is not so serious as the KINDS of bacteria that get into milk. Ten typhoid bacilli in a quart of milk are a source of disease and even death to the consumer, while the three hundred millions to six hundred millions of lactic acid bacteria per cubic centimeter in sour milk and butter-milk render these products not only harmless, but excellent and strengthening articles of food. The settling of a limit by boards of health for the numbers of bacteria that a cubic centimeter of market milk shall contain falls far short of the real requirement. The question should be, are those present harmless or dangerous? The ideal market milk would be milk entirely free from bacteria, but under present conditions this ideal is an impos- sibility. On the other hand, milk to be used for the making of butter and cheese must contain certain kinds of bacteria for the proper ripening of cream and cheese. These kinds which are necessary to the creameryman are the most difficult ones to keep out of milk. (Conn. B. 51.) Why Cold Aids in Preserving Milk. Dairymen at the present time understand that milk is sure to contain bacteria in greater or less numbers, and that these bacteria are the cause of the various changes characterizing the spoiling of milk. It is the type of bac- teria known as lactic bacteria that is responsible for the souring of milk and all of the other changes which are liable to prove trouble- some to the dairyman, slimy milk, bitter milk, etc., etc., are to-day well known to be due also to bacteria in the milk. It is not simply the presence of bacteria in the milk that produces these changes, but rather their growth and multiplication. If they did not multi- ply at all, the milk would not sour; the more rapidly they multiply, the quicker the changes of the milk take place; the longer the growth may be delayed and the slower it is, the longer the milk may be retained in its fresh condition. These facts arefunda- MILK 201 mental phenomena associated with the keeping of milk, and every milkman should therefore understand as a foundation of dairy prac- tice that the keeping of milk is dependent upon, preventing or checking the multiplication of bacteria, rather than upon simply preventing their presence in milk. A second fact which is not so thoroughly appreciated, but is equally true, is that the rapidity of growth of all species of bacteria is dependent upon temperature. Within certain limits the rate of multiplication rises with the increase and falls with the decrease in temperature. At a temperature of freezing, bacteria do not grow at all, and milk, therefore, if frozen, may be kept indefinitely with- out any changes taking place therein. If the milk is kept at a few degrees above freezing, the growth of bacteria begins, but at low temperatures this growth is extremely slow. As the temperature rises, the rapidity of bacterial growth increases. When the tem- perature reaches 70, bacteria grow very rapidly; at a temperature of 80 and 90 they grow more rapidly still; and at a temperature of about 100 the growth of some species of bacteria is most rapid of all. All this is generally understood, but it is not generally rec- ognized that if the temperature is raised somewhat above these higher limits, the bacteria do not grow so rapidly. If the tempera- ture is raised to 120, most of these organisms find conditions un- favorable to their life, and grow very slowly ; indeed many of them cease to grow at all. At temperatures above this the ordinary milk bacteria entirely fail to develop. From these facts it will be seen that in general the growth of the kinds of bacteria that produce trouble in milk will be found between temperatures of freezing and a little above 100 F., and that the greater the temperature, within these limits, the more rapid is the development of the bacteria, and hence the more rapid the spoiling of the milk. From these facts of course it follows that the keeping of milk will be very closely dependent upon temperature. At high tempera- tures (90) milk will sour very rapidly. At somewhat lower tem- peratures (70) the souring is not quite so rapid, but still it takes place in a comparatively few hours. At lower temperatures still, in the vicinity of freezing, the souring and all other changes may be delayed for a long time; and if milk can be frozen, it may be retained indefinitely without any appreciable change taking place in it, (Conn. B. 26.) ^ Flies. The domestic fly is passing from a disgusting nuisance and troublesome pest to a reputation of being a dangerous enemy to human health. A species of mosquito has been demonstrated to be the cause of the spread of malaria. Another kind of mosquito is the cause of yellow fever, and now the house fly is considered an agency in the distribution of typhoid fever, summer complaint, cholera infantum, etc. The numbers of bacteria on a single flv may range all the way from 550 to 6,600,000. Early in the fly season the numbers of bacteria on flies are comparatively small, while later the numbers are comparatively very large. The place where flies live also deter- 202 DOMESTIC ANIMALS, DAIRYING, ETC. mines largely tjie numbers that they carry. The average for 414 flies was about one and one-fourth millions bacteria on each. (Conn. B. 51.) The Air. The air is not a source, but a medium, of distribu- tion for bacteria. The outdoor air away from cities is very free from organisms. It is the interiors of buildings where germs collect that cause the air to become a medium of distribution. The con- stant accumulation of dust that is not removed is ready at the slightest commotion to be raised into the air and spreads itself to every part of a room. After an hour or two it settles on all exposed surfaces ready to be again wafted into the air at any disturbance. 'Dust and bacteria are almost synonymous terms. The former scarcely ever exists without the latter. In fact, bacteria utilize float- ing dust as air ships for distribution. Hay is the most abundant source of dust and bacteria in a barn and stable. If the dust is never removed it collects in very large quantities. Grain feeds are dusty and well supplied with bacteria. Poor or swamp hay bed- ding is a very abundant source of bacteria and is so near the milk pail during milking that it furnishes large numbers that get into the milk. It is advisable not to use hay for bedding, but instead use sawdust, planer shavings or clean straw. Dry sweeping is the worst method of cleaning floors, because it fills the air with dust that settles over everything and only removes the coarser particles of dirt. Dusting should be done with damp cloths, not dusters. Sweeping with some damp material spread over the floor, or better, on cement floors, flush with water. The air is, then, a medium for the distribution of nearly all kinds of bacteria, including a few varieties of disease germs whenever the sources of bacteria and dust are dried and pulverized materials. (Conn. B. 51.) Lactic Fermentation. As pointed out in the previous bulletin, the lactic fermentation is produced by a large variety of bacteria. This fact has been confirmed over and over again in recent years and the list of lactic-acid bacteria has been constantly growing. At the present time a very large number of species (over one hundred) have been described as producing the acid fermentation of milk. To what extent, however, they are all to be regarded as producing the lactic fermentation we can hardly say, because in most cases no attempt has been made to determine chemically the presence of lactic acid, the investigators being ordinarily content with the deter- mination of the production of an acid reaction. Moreover, it is impossible to state to what extent these different species are really different from each other. The list includes many pathological forms, as well as the distinctively dairy bacteria. The first-described species, Bacillus acidi lactici, has been found to assume many varieties. Eleetricity. The action of lactic organisms appears to be still the only known method of spontaneous milk souring. It is true that careful investigation has shown that when milk is drawn fresh from the cow it is commonly very slightly acid, an acidity depend- ent upon certain conditions in the milk gland, but no other second- MILK 203 ary causes of milk souring are known except that of micro-organ- isms. Experiments on the relation of electricity to milk have verified the conclusion that electricity has no direct influence in producing the souring of milk. The only recent work on this subject has been that of Liebig, whose conclusions are that the souring of milk dur- ing a thunderstorm is simply due to the rapid growth of bacteria, produced by the same conditions which produce the thunderstorm. (See Effect of Thunderstorms on the Souring of Milk.) Butyric Acid. We know little in regard to this type of fer- mentation. Butyric acid fermentation is a very common type, At the present time about a dozen organisms are known to produce this fermentation and have been described. There are many others which have been less thoroughly studied, but which produce butyric acid as a by-product. They have been found in various milk products (milk, butter, and cheese) and in other places in nature as well. The butyric-acid fermentation does not appear to be so simple a one as the lactic fermentation. In the lactic fermentation we have what we regard as nearly a smooth splitting of the milk-sugar mole- cule into carbonic acid and lactic acid. It is true that there are always produced other by-products, and these sometimes in consid- erable amount, but these secondary products are not very important in the lactic type of fermentation. In the case of butyric acid, how- ever, the reverse is the case. Butyric acid is to be regarded prob- ably in all cases as an end product of a long series of fermentative changes. It is always accompanied by many by-products, and usually the butyric acid is slow in its appearance and is not the chief product in the fermentation. (U. S. Dep. Agr. 0. E. S. B. 25.) Flavors in Milk. Milk may acquire abnormal flavors and odors in various ways: (1) The cow may, through some pathological condition, pro- duce milk with an unusual flavor. This may occur when the cow shows no outward sign of disorder and usually last for a short time only. (2) Highly flavored foods may impart their peculiar flavors to the milk. The disagreeable results of feeding even small quan- tities of wild onion, turnips, and similar feeds are unfortunately too familiar to need comment. Other feeds with a less pungent taste no doubt affect the flavor of the milk to a less degree. (3) Milk, especially warm milk, takes up the odors and flavors of the surrounding air with great rapidity. The flavor thus ac- quired may be so slight that it ordinarily passes unnoticed, or it may be so pronounced that anyone may recognize its source. (4) The flavor of milk may be materially changed by the growth of bacteria, with the infinite variety of by-products which result from their development. If milk is sterilized and then inocu- lated with some one kind of bacteria, a certain flavor, frequently very pronounced, will result; and under the same conditions this particular variety will always produce the same flavor. Another kind may produce an equally pronounced but entirely different flavor, while some species may grow for a long time without causing 204 DOMESTIC ANIMALS, DAIRYING, ETC. any noticeable change. In ordinary milk, however, the conditions are different, in that many kinds of bacteria are growing together and the milk is usually consumed before there is any marked change in the flavor. When a number of different kinds of bacteria grow together, as they usually do in milk, the development is not equal. One variety finds the conditions of food or temperature or acidity more suited to its peculiar habits of life and develops more rapidly than other kinds. In a short time this rapidly growing form may so change the milk, that, while the conditions are more favorable to its own growth, they become less and less adapted to the needs of the others. In the course of time this form crowds out all others and an examination would show large numbers of this kind, while the others originally present would have entirely disappeared, or would occur only occasionally. It is in this way that the special fermenta- tions develop. If milk shows a peculiar flavor when it is first drawn, it is safe to say that the flavor is not produced by bacteria but by the cow, usually through something in the feed. If, on the other hand, the fresh milk is normal and the flavor develops as the milk stands, it is usually due to bacteria. Sweet Curdling and Digestion. It sometimes happens that milk curdles without showing the usual acid taste. This is followed by the separation of a straw-colored whey, which slowly increases until the curd has nearly all disappeared. This condition is the result of a series of complicated changes brought about by bacteria. When milk is taken into the stomach, especially the stomachs of young animals whose diet is largely or wholly milk, a certain constituent of the digestive juice precipitates the casein, forming a firm curd. This curd resembles the acid curd in appearance, but differs from it chemically and has no sour taste. The part of the digestive juice which produces this change is the rennet, with which we are familiar in cheese making and in the junket tablets of the kitchen. It is what is technically known as an enzyme, and while it has some of the properties which we ordinarily attribute to living beings, its action is purely chemical. In this precipitated condition the casein is not in a form to be used by the animal. It must be so changed that it will go into a solution and pass through the membranes lining the digestive tract. This change is brought about by another enzyme, pepsin. Pepsin changes the curd rapidly and completely into compounds soluble in water. Bitter Milk. The distinct bitter taste which sometimes ap- pears in milk may be caused by (1) certain weeds that the cow has eaten, (2) an abnormal condition of the udder, (3) an advanced period of lactation, or (4) the action of certain bacteria. It is prob- able that the bacteria causing bitterness are not at all uncommon and that they could be found in many lots of milk showing no bitter- ness. Some of these bacteria form acid and sour the milk; the MILK 205 more common forms, however, form little acid, and are checked by the growth of the lactic-acid bacteria. The bacteria causing bitterness in unheated milk are more fre- quently those of the acid-forming classes, which are better able to compete with the lactic-acid bacteria. The acid formed by this group is usually butyric and not lactic. Some writers have stated that the bitterness is caused directly by the butyric acid. Nearly all of the bacteria known to produce bitterness bring about an active digestion of the casein and albumen, and it is probable that the bitter principle is formed in this decomposition. In most cases, however, the bitterness becomes evident before there is any visible sign of change in the milk. Bitter milk may occur as an epidemic, persisting day after day and causing great trouble. This may be due to some constant localized source of infection which adds each day unusual numbers of bacteria to the milk. In some cases it has been found that the udder of a cow was infected. This should be determined by carefully cleaning the udders of all the cows and milking from each quarter of the udder of each cow into fruit jars or bottles which have been previously cleaned with boiling water. In case one of these samples shows a well-developed bitterness while others remain normal, it may be assumed that the source of infection is the udder of the cow giving this milk. In that case there should be injected into the udder after each milking a solu- tion of 1 part hyposulphite of soda in 100 parts of water. It is probable in many cases that the source of infection is not localized. If through some combination of circumstances the lactic- acid bacteria are suppressed, other kinds become predominant. The utensils, the milk-room, and the stable gradually become inoculated with these bacteria or their spores and each new lot of milk is thor- oughly inoculated. The bitter-milk bacteria may be one of the new forms. In this event it may be necessary, after thoroughly cleaning and steaming everything coming in contact with the milk, to intro- duce some good sour milk from a neighboring dairy. In this way the normal fermentation may be restored and the objectionable bacteria suppressed. Ropy or Stringy Milk. In this most troublesome fermenta- tion the milk becomes what is commonly described as ropy or stringy. The milk is slimy and viscid. As this condition increases the milk may be drawn out into threads. This fermentation should not be confused with garget, which appears in the fresh milk and is due to an inflammation of the udder. Ropy or stringy milk develops after the milk is drawn and is caused by the growth of certain kinds of bacteria. Although a number of kinds of bacteria causing this trouble have been studied as distinct varieties, it is probable that they are nearly all closely related. They do not form spores and are therefore destroyed by a comparatively low heat. If a sample of ropy milk is examined under a microscope it is found to be filled with these small bacteria, each one surrounded 206 DOMESTIC ANIMALS, DAIRYING, ETC. by a capsule of a sticky, gummy substance. This gum or slime holds the bacteria together. When a thread is drawn out it is really a chain of bacteria held together by their sticky capsules. Ropy milk is, so far as known, in no way detrimental to health. The famous Edam cheeses are nearly all made from milk which has undergone this fermentation. The peasants of Norway consider ropy milk a desirable beverage and bring about this fermentation by adding to fresh milk the leaves of certain plants on which the bacteria causing ropy milk are abundant. Most people, however, object seriously to milk with any tendency to form threads. This trouble frequently affects the milk of a dairy day after day and is removed only by the most drastic measures. Outbreaks of this nature frequently occur in the cold months, because the bacteria of this group thrive better at low temperatures than the lactic-acid bacteria which hold them in check under normal conditions. In one case it was found that these bacteria were abun- dant in the dust of the stable. The trouble was removed by a thor- ough cleaning and whitewashing. In another serious and persistent outbreak it was found that the milk as it came from the dairy con- tained few or no ropy milk bacteria, but that they were abundant in the water tank in which the milk was held over night. The small amount of water occasionally splashed into the cans added sufficient bacteria to make the milk ropy in a comparatively short time. The utensils and floor had become so thoroughly impregnated with this organism that milk exposed in the room or strained through the wire strainer became ropy without contamination with the water. The trouble w r as removed by thoroughly scalding all the utensils, disinfecting the floor with a 5 per cent sulphuric acid solution, and destroying the organisms in the ice water by adding potassium bichromate. This was used in the proportion of 1 part in 1,000, or, roughly, 1 ounce to 1 cubic foot of water. The source of the trouble can sometimes be easily located by taking small samples of the milk in clean glass jars at different stages in the handling. These should be covered, set away in a cool place to retard the souring, and examined after twenty-four to thirty- six hours for indications of ropiness. In dairies getting milk from a number of farms the source of the difficulty may be located on some particular farm and proper methods taken to remove the source of contamination. Any precaution is almost sure to be ineffectual if all utensils coming in contact with the milk are not thoroughly scalded, or, better still, steamed. Miscellaneous Fermentations, In addition to the various fer- mentations previously described, milk may undergo many other changes as a result of the action of bacteria or other micro-organ- isms. The color may be changed. The appearance of color in milk is due to the growth of bacteria which produce a pigment soluble in water. All the colors of the rainbow, from bright red to violet, are formed by bacteria. Blue milk, which is the most common of the color fermentations, is probably due to contaminations from MILK 207 water, in which the blue and violet forming bacteria are known to occur frequently. It is only under unusual circumstances that these bacteria occur in milk in sufficient numbers to give any trouble. Milk sometimes undergoes an alcoholic fermentation, and in some countries this is brought about by proper inoculation and con- trol of temperatures to produce a beverage. The alcoholic fermenta- tion is usually caused by a yeast which has the ability to break up milk sugar into alcohol and large quantities of carbon dioxid gas. The ordinary yeast, such as is used in bread making, produces similar changes in cane sugar, but does not affect milk sugar. In the alcoholic drinks made from milk the alcoholic fermentation is usually combined with an acid fermentation. Koumiss, a drink made originally in the Caucasus from mare's milk, is a combination of an alcoholic and a lactic-acid fermentation. The Presence of Leucocytes in Milk. It has long been known that milk contains many bacteria and cellular elements. The rela- tion existing between the kind of bacteria and the cellular elements has been a subject of considerable discussion in the last few years. Early observers found that the leucocytes and bacteria were invari- ably increased in the milk from a cow with udder inflammation. When milk contained a large number of bacteria and cells, it was thought that some one animal in a herd was suffering from garget or mammitis. Later observers contended that these cellular ele- ments were found in normal milk, and that different animals and even different quarters of the udder in the same animal contained varying amounts of these elements. The variety of bacteria commonly associated with an increase of leucocytes is the streptococcus. Whether the polymorphonuclear leucocyte is to be considered as a pus cell or a normal leucocyte is still an unsettled question. The early milk experts were inclined to consider the presence of large numbers of leucocytes as an indication of udder disease, the reason for this being that they found increased numbers of the streptococci also present. Some later observers for instance, Savage did not find this relation. Since normal milk contains leucocytes in varying numbers, it is a somewhat general opinion that they can not be considered as pus cells unless they are present in large numbers, associated with pus-producing organisms. The mere presence of leucocytes in milk, therefore, does not seem to indicate pus formation in the udder. (U. S. Dep. Agr. Bu. An. Ind. B. 117.) Pasteurizing and Sterilizing. Heating milk for the purpose of destroying the germs present is effected by means of two methods, known as sterilization and pasteurization. Pasteurized milk has the same relation to sterilized milk that rare-done beef has to well-done beef. Such milk has not been heated sufficiently to give it the cooked taste, and its preparation is founded on the fact that disease germs can be destroyed at a temperature below that which causes this cooked condition. As most of the other germs in the milk are destroyed at the same time, such milk is greatly improved as regards its keeping qualities. 208 DOMESTIC ANIMALS, DAIRYING, ETC. Sterilized milk, properly speaking, is that which has had all of its germ content destroyed. Hence if such milk be guarded from further contamination, it will remain unaltered, even at ordinary temperatures, for an indefinite period. To destroy all the germs in milk, including the spores, it becomes necessary to subject it to the action of live steam under pressure, at a temperature considerably above the boiling point (240). Such a proceeding is neither prac- ticable nor necessary in the household, as pasteurizing serves all ordinary purposes. Milk may, however, be completely sterilized by repeated pasteurization. The heating is repeated daily for nearly a week, because all the spores present do not germinate after the close of the first or even after the second heating, though there are very few that remain. While milk sterilized by this method, has no cooked flavor, yet it is a method commercially impracticable. What is generally called sterilized milk is not entirely free from germs, but having been subjected to a more thorough heating than with pasteurization, and being guarded against further con- tamination, it will keep longer than does pasteurized milk. This is its main advantage, for it has to a greater or less degree the cooked flavor. The Simplest Method of Pasteurizing. If there is no objection on the part of the consumer to the cooked flavor, the process of heat- ing milk need not be so carefully done. No thermometer is needed. All that is necessary is to bring the milk to the boiling condition. But if one is to pasteurize milk it is necessary to use a thermometer. One costing twenty-five cents is sufficient for this purpose. The simplest method of pasteurizing milk requires no addi- tional apparatus aside from the commonest kitchen utensils. One has simply to heat the milk as rapidly as possible in a common gran- iteware pan, stirring all the while with a spoon of convenient size, while the thermometer is held in the milk. As soon as the mercury has run up to 185 (which occurs very quickly) the dish is covered, removed from the fire and set aside. In our own practice we receive the milk at 9 A. M. It is at once scalded at 185. This suffices for the day. After supper, what is left, is heated again to preserve it for breakfast. No refrigeration is used. Where the milk is received in time for breakfast, unless some is needed through the night, the second heating is unnecessary. In case there is no fear of disease germs, what is used for the first meal or two (depending on the season) can be used raw, while the portion that is reserved for later use is heated. Milk can be kept for some days without ice, even in warm weather, by this method of scalding night and morning. The use of ice makes one heating a day to be sufficient. Pasteurizing Milk in Bottles. The bottles known as sterilizing bottles are tall, narrow ones, with a capacity of eight ounces, or half pint. After being filled with milk, the bottles are corked most con- veniently by means of a wad or plug of cotton batting. But of course care must be used that this does not become wet, and the bottles must be kept upright. They may also be stoppered with ordinary corks which have recently been boiled each time before using, and MILK 209 then less care to keep the bottles upright will be needed. But corks must be firmly tied down, when sterilizing is done, to prevent their being forced out. To heat the milk in these bottles, it is necessary to put them into a boiler upon a perforated false bottom or platform to keep them from direct contact with the bottom of the boiler. Water is poured in around the bottles to the same level as the milk. This water is heated, and as the temperature of the milk lags some ten or more degrees behind that of the water, the latter must be raised to the boiling point, when the bottles can be removed and cooled, gradually, to prevent their cracking. As it is advantageous to cool the milk rapidly, the use of tin cans of similar shape as the bottles is recom- mended. Such cans may be put at once in iced water. The part of the bottles above the milk is not pasteurized, and hence the bottles should be kept upright to prevent contamination. At 170, water begins to steam, and simmer; while boiling be- gins at 190 to 195, at which time the milk in the bottles has reached 185. ^ If it is desired to pasteurize at a lower temperature, say at 155, the water must be held at this point for half an hour, and at 140 for about an hour. This will take more care and time than the method described. To use this boiler as a sterilizer it is only necessary to boil the water for about ten minutes to half an hour, or longer. The time will depend on whether the bottles are taken out and cooled at once or left in the hot water to cool gradually. In the latter case the boiling can be shorter. The boiler can also be used as a steamer, by putting less water in and putting on the cover. When bottles are plugged with cotton it is necessary to remove the cover when the steaming is completed to prevent the plugs from getting wet by the condensing steam. In this case the plugs and upper parts of the bottles become sterilized. If desired, the plugs may be withdrawn after sterilizing, and steril- ized corks substituted, care being exercised to prevent the finger from touching the bottom of the corks or the lips of the bottle. Or, the cotton plugs can be made impervious by saturating them with melted paraffine. This, of course, must not be done until after the steaming is completed. (N. J. B. 152.) Supposed Effect of Thunderstorms. A consideration of the subject of the souring of milk would not be complete without refer- ence to the effect of electricity. The popular belief that thunder- storms will sour milk is so widespread that it would seem as if there must be some foundation for it. It has been asserted by many that the ozone produced in the air by electricity causes the milk to be- come sour. In experiments in which electric sparks were discharged over the surface of the milk, however, little or no effect has been produced upon it. The conclusion is that electricity is not of itself capable of souring milk or even of materially hastening the process. Nor can the ozone developed during the thunderstorm be looked upon as of any great importance. It seems probable that the connec- 210 DOMESTIC ANIMALS, DAIRYING, ETC. tion between the thunderstorm and the souring of milk is one of a different character. Bacteria certainly grow most rapidly in the warm, sultry conditions which usually precede a thunderstorm, and it frequently happens that the thunderstorm and the souring occur together, not because the thunder has hastened the souring, but rather because the climatic conditions which have brought the storm have at the same time been such as to cause unusually rapid growth of the bacteria. This fact has been verified by many experiments which have shown that without the presence of lactic organisms there can be no spontaneous souring of milk. Milk deprived of bacteria will certainly keep well during thunderstorms. Dairymen find no difficulty in keeping milk if it is cooled immediately after being drawn from the cow and is kept cool. Milk submerged in cool water is not affected by thunderstorms. Dairymen find that during "dog- day" weather, even when there is no thunder, it is just as difficult to keep milk as it is during thunderstorms, and they also find that scrupulous cleanliness in regard to the milk vessels is the best pos- sible remedy against souring during a thunderstorm. It is safe to conclude, therefore, that in all cases it is the bacteria which sour the milk, and if there seems to be a casual connection between the thunder and the souring it is an indirect one only; climatic condi- tions have hastened bacteria growth and have also brought on the thunderstorm. The same conditions would affect the milk in exactly the same way even though no thunderstorms were produced, and this effect, our dairymen tell us, is frequently observed during the warm, sultry autumn days. FERMENTED MILKS. Food Value of Fermented Milk. The high food value of milk is too generally recognized to need discussion here ; fermented milks also have a high food value, except that in some cases the fat is partially or entirely removed. Otherwise the food value of the fer- mented milk differs little from that of the fresh milk from which' it is made. Any increased digestibility of the fermented milk is due not so much to change in the chemical nature as to the fact that the casein is furnished in a precipitated and finely divided condi- tion. In none of the fermented milks is there any material cleavage of the casein resembling the digestion in the stomach. The fat is almost unchanged, and a part only of the sugar is converted into acid, alcohol, or gas. In certain gastric troubles in which it is diffi- cult to find any food that can be retained by the patient, fermented milks are frequently used with good results. Kefir and kumiss especially are used under such circumstances, as the stimulating action of the carbon dioxid which they contain is believed to aid in their digestion. The value to the physician of a highly nutritious food which can be digested when other foods are rejected is obvious. Therapeutic Value of Fermented Milk. Fermented milks have been used since very early times, and it is probable that their value in treating intestinal disorders has been known in an indefinite way for centuries, but it is only in recent years that their therapeutic possibilities have been recognized by physicians. The development MILK 211 of bacteriology was necessary to supply the information on which the rational use of this therapeutic agent is based. For the past fifteen or twenty years medical journals have contained occasional papers on fermented milks of various kinds, and at one time the use of kumiss in the treatment of tuberculosis and other diseases was much discussed. The present interest in the subject is largely due to the work of Metchnikoff and his students. Fermented milks are now recommended when a nutritious and digestible food is essential, but it is in the treatment of disorders re- sulting from autointoxication that their chief value is supposed to lie. Autointoxication may be caused by the undue accumulation of poisonous substances which, are promptly removed in health. Toxic substances usually found in small quantities may be produced in excess, or, what is more common, toxins may be formed by bac- teria in the intestines in amounts too great to be disposed of through the usual channels. These toxic substances are absorbed into the system and produce symptoms which may be merely an uncomfort- able feeling of indigestion and headache, or which may assume the more acute form frequently and erroneously spoken of as ptomaine Eoisoning. This form of autointoxication is usually accompanied y intestinal gas and foul-smelling stools. One symptom 01 great value to the physician is the excretion in the urine of abnormal quantities of indican and ethereal sulphates. The Various Forms of Fermented Milk. If it is considered advisable to use cultures of acid-forming bacteria, the form in which these are taken becomes an important question. In large cities one usually has a choice of lactic-acid bacteria from several sources. Buttermilk is usually available, although it is not always of good quality. Sometimes kumiss or kefir can be obtained, and at the, present time milk coagulated with the so-called Metchnikoff bacillus is sold as yoghurt or matzoon and under various trade names. Buttermilk. This, properly speaking, is the by-product result- ing when milk or cream is churned for butter making. It is the milk remaining after the fat has been collected in globules and re- moved. If cream is churned when sweet the buttermilk does not differ from ordinary skimmed milk, but if it is churned when sour the usual practice the acidity is sufficient to coagulate the casein in the cream. In the churning process this curd is broken up into very fine particles. These curd particles settle very slowly, and if the buttermilk is agitated occasionally it will retain its milky ap- pearance. When the buttermilk is allowed to stand undisturbed for several hours the curd particles sink to the bottom leaving an opal- escent whey at the top. At the present time a large part of the but- termilk sold in cities is not made by churning cream, but is simply soured skimmed milk which has been churned or stirred in order to break up the curd. The same product is sold also under the name of ripened milk. The souring of milk or cream is brought about by the activity of certain bacteria which form lactic acid by decomposing the milk sugar (lactose). The ability to form acid from lactose and other 212 DOMESTIC ANIMALS, DAIRYING, ETC. sugars is possessed by many kinds of bacteria, but is so character- istic of a certain group that they^ are commonly spoken of as the lactic-acid bacteria. These bacteria have been described as distinct species or varieties under many names. Among these may be men- tioned Bacterium guntheri, Bacillus acidi lactici, Streptococcus lac- ticus, and many others. In spite of the confusion in nomenclature it is evident that the term "lactic-acid bacteria" includes a fairly well-defined group of closely related varieties possessing in common several definite characters. Variations from the type in minor char- acters produce an almost infinite number of varieties. These varia- tions may be in the ability to ferment different sugars, in the ten- dency to grow in chains, in the kind of flavor formed in milk, in the intensity of acid formation, and in the ability to produce patho- logical conditions in animals. In making buttermilk from milk the same procedure should be followed as in making a starter for cream ripening. A good, clean- flavored mother starter should be carried along with every possible precaution to prevent contamination. Good commercial cultures can be obtained, but if it is not convenient to use one of these a natural starter can be secured. Milk to be used for making buttermilk should be fresh and clean flavored. Good buttermilk can not be made from milk that is tainted or too old to be used for other purposes. Skimmed, partly skimmed, or whole milk, as desired, may be used. Butter makers in the Northwest make a very refreshing and nutritious drink by adding sugar and lemons to buttermilk. As the casein is already precipitated, the acid juice of the lemon has no effect. Slightly more sugar and lemon juice are necessary than in making ordinary lemonade, and the mixture should be well iced. Kefir. Fermented milks have evidently been extensively used by the people of southern Russia, Turkey, the Balkan countries, and their neighbors for many centuries. The natives have no records and few traditions of the origin of the milks they use, and it is probable that their preparation and use developed gradually by accident and cumulative experience. One of the first of the fer- mented milks known to Europeans was the kefir, made in the Cau- casus Mountains and neighboring regions from the milk of sheep, goats, and cows. Kefir differs from most of the fermented milks of the Mediterranean countries in that it is made from a dried prepa- ration and contains considerable quantities of alcohol and gas. Kefir is made by many tribes under varying names, as hippe, kepi, khapon, kephir, kiaphir, and kaphir, all of which are said to come from a common root signifying a pleasant or agreeable taste. The mountaineers of the Caucasus depend for a large part of their food on kefir, which they prepare in leather bottles made from the skins of goats. In the summer the skins are hung out of doors either in the sun or in the shade according to the weather, but in winter they are kept in the house. The bags are usually hung near a doorway, where they may be frequently shaken or kicked by each passer-by. Fresh milk is added as the kefir is taken out, and the fer- IS DIAGRAM OF Cow SHOWING POINTS. B. A. I. ISTH REPORT, i. HEAD. 2 MUZZLE. 3. NOSTRIL. 4. FACE. 5. EYE. 6. FOREHEAD. 7. HORN. 8. EAR. 9. CHEEK. 10. THROAT. II.NECK. 12. WITHERS. 13. BACK. 14. LOINS. 15. HIP BONE. 16. PELVIC ARCH. 17. RUMP. 18. TAIL. 19. SWITCH. 20. CHEST. 21. BRISKET. 22. DEWLAP. 23. SHOULDER. 24. ELBOW. 25. FOREARM. 26. KNEE. 27. ANKLE. 28. HOOF. 29. HEART GIRTH. 30. SIDE OR BARREL. 31. BELLY. 32. FLANK. 33. MILK VEIN. 34. FORE UDDER. 35. HIND UDDER. 36. TEATS. 37. UPPER THIGH. 38. STIFLE. 39. TWIST. 40. LEG OR GASKIN. 41. HOCK. 42. SHANK. 43. DEW CLAW. LATTICE RACK FOR FEEDING ALFALFA TO SHEEP. B. P. I. BUL. 31. MILK 215 mentation continues. Made and propagated in this way, foreign bacteria becomes mingled with the essential bacteria of the grains, and abnormal and frequently disagreeable flavors result. When the milk is drawn off, in order to prevent the escape of gas, a string is. first tied around the neck of the leather bottle, so that the small part wanted for use is held between the stricture and the opening. In the villages and the low country kefir is made in open earthen or wooden vessels and most of the gas escapes. Small, yellowish, convoluted masses are observed in kefir, which are called seeds or "grains." Kumiss. The missionary monks and other wanderers who first penetrated the undulating, treeless plains of European Russia and central and southwestern Asia brought back descriptions of a fer- mented drink which in the light of more recent investigations is easily recognized as kumiss. These vast prairies are inhabited by tribes of nomads who live in squalid huts or tents in the winter and wander during the summer, seeking pasture for their horses, their herds of cattle, or flocks of sheep. They are all horsemen, and by a process of selection in which they have probably played only a passive part have developed an exceptionally hardy race of horses. The mares give much more than the ordinary amount of milk, which constitutes almost the entire food of the people during the summer. This is never used in the fresh condition, but is fermented to make kumiss. Unlike kefir, there is no dried ferment, seeds, or grains with which the fermentation of the mare's milk is started. It is the practice of the natives, when it becomes necessary to establish the fermentation anew, to add to milk some fermenting or decaying matter, such as a piece of flesh, tendon, or vegetable matter. What- ever the material used to supply the essential organisms, it is evi- dent that the milk is so cared for that a combination of an acid and an alcoholic fermentation is favored and the necessary bacteria and yeasts are soon established. No doubt the change in the milk is produced under different circumstances by different combinations of bacteria and yeasts, and there are usually present various con- taminating organisms which are detrimental or at least are not essential to the production of the kumiss. Native kumiss makers lay great stress on the quality of the milk, the breed of the mares, and the condition of the pastures; but it is probable that their troubles ascribed to variations in these conditions are more likely due to imperfectly controlled bacteriological factors. There was at one time much interest in kumiss as a therapeutic agent in the treatment of tuberculosis, and sanatoria were estab- lished in Russia where invalids could be given this treatment. It is probable that the benefits, real or imaginary, derived from this treat- ment came more from the general methods, which corresponded somewhat to present practices, than to the action of kumiss. Kumiss is often made and offered for sale in this country, but as this is usually made from cow's milk, it is, more correctly, kefir. Yoghurt, etc. In passing to a consideration of the fermented milks used by the people of the countries bordering on the eastern end of the Mediterranean we find a preparation very distinct from 216 DOMESTIC ANIMALS, DAIRYING, ETC. that of the Caucasus and the Russian steppes. Kefir and kumiss are limpid, mildly acid, and distinctly alcoholic; but the yoghurt, ya- hourth, or jugurt of the Turks, the kisselo mleko of the Balkan peo- ple, the mazun of Armenia, the gioddu of Sardinia, the dadhi of India, and the leben or leben raib of Egypt are all thick curdled milks, decidedly acid, and with very little or no alcohol. The method of preparation is also quite different. Goat's, buffalo's, or cow's milk may be used. This is usually boiled and sometimes is reduced by evaporation to one-half its original volume. In the lat- ter case it is not used as a drink, but is eaten, frequently with the ad- dition of bread, dates, or other food. (Dep. Agr. Bu. An. Ind. Circ. 171.) Covered Milk Pails. The demand for a good wholesome grade of milk produced under sanitary conditions is steadily increasing. People in the cities are taking more and more interest in the san- itary quality of the milk which they use in the household. The general awakening in regard to the sanitary qualities of milk which as taken place in the last few years can be attributed chiefly to two causes. The first of these is in harmony with, and a part of the general desire on the part of consumers for pure and wholesome food products of all kinds and the milk supply has come in for its share of investigation. The general supply of the cities has been studied, methods of transportation have been considered and more recently the conditions existing upon the farms where the milk is produced have come in for their share of investigation. The ordinary market milk which reaches the larger cities nor- mally contains high numbers of bacteria. These are the result either of more or less dirty conditions in the production of the milk or of too warm a temperature after the milk has been produced or a com- bination of these two conditions. It is perfectly possible to produce milk containing a very low number of bacteria, a fact which has been demonstrated by many producers of so-called sanitary or cer- tified milk. Consumers in general at the present time are not will- ing to pay the increased price charged for the so-call*ed certified grades of milk which are now available in practically all cities. Most of the detrimental changes which occur in milk are caused by bacteria. The chief source of these organisms is the dust and dirt which fall into the milk, principally while the milk is being drawn from the cow and before it leaves the stable. Any means, therefore, for preventing the entrance of dirt into the milk during the process of milking will tend to improve the sanitary quality of the product. One of the most practical devices used at the present time for the purpose of excluding dirt and bacteria from the milk during the process of production is some form of covered milk pail. The ordinary milk pail is about twelve inches in diameter and if it is entirely uncovered it is easy to see that a considerable amount of dirt might fall into the milk during the process of milking. If, however, this opening can be reduced to a small proportion of the entire area of the pail the amount of dirt which could fall in would be correspondingly reduced. The demand for some form of covered MILK 217 pail which is both effective in excluding dirt and bacteria and which is at the same time practical has resulted in the development of a number of styles of covered milk pails. The purpose sought in all of these is the same; namely, to reduce as far as possible the area through which dirt and dust can fall into the pail. The amount to which the opening can be reduced is necessarily limited because a certain sized opening is necessary for the practical operation of any pail. The following gives, in a condensed form, the results of some carefully made experiments with several kinds of covered pails : The use of the covered milk pail is of great advantage in any stable in excluding dirt and bacteria from the milk. The relative advantage gained by the use of the cover depends upon the sanitary condition of the stable. The special form of cover does not seem to be important pro- vided it is a device practical for use and the area through which dirt can gain access to the milk is reduced as much as possible. Whether or not a strainer on the covered pail is desirable depends upon the style of the straining device. The use of the strainer in a pail where the dirt which falls into the opening is likely to be driven through by the succeeding streams of milk is not desirable. Its use tends to increase the germ content of the milk and injure its keeping quality. In pails where the dirt which falls in does not remain where the succeeding streams strike against it a strainer cloth aids in keeping down the number of bacteria which gain access to the milk. The North pail is an illustration of this type. The use of absorbent cotton as a strainer is a decided advantage in preventing the entrance of bacteria into the milk. (Conn. B. 48.) COW-TESTING ASSOCIATIONS. Opportunity and Need. According to the Twelfth Census the average production of butterfat per cow in the United States in 1900 was 145 pounds, which compared with the average produc- tion of 224 pounds of butter per cow in Denmark is entirely too low. The Bureau of Statistics of the Department of Agriculture reports that on January 1, 1910, there were 21,801,000 milch cows in the United States, and if it were possible to inaugurate a system whereby the average production per cow might be increased even one pound of butterfat in a year, this increase would amount to 21,801,000 pounds, which at the price of 30 cents a pound would be worth $6,540,300. If such an increase could be brought about by better selection of cows and feeding stuffs, the sum mentioned could be figured practically as clear profit. Investigations by experiment stations and breeding associations show that there are a large num- ber of cows which yield greatly in excess of this average, some reach- ing an amount as high as 800 or 900 pounds of butterfat in a year one cow even 998 pound-. This being the case, there must be a large number of cows which yield less than 145 pounds of butterfat in a year. 218 DOMESTIC ANIMALS, DAIRYING, ETC. The Practical Difficulty. The difficulty has been to devise a system whereby the unprofitable cows might be detected. It is a common belief among farmers that the man who does the milking knows the best cows in the herd, as well as the poorest ; but numer- ous experiments have demonstrated clearly that this belief is not warranted. Many factors enter to lead the judgment astray. The cow which gives a generous flow of milk during the first few weeks of her period of lactation is usually regarded as the best cow. She may soon go down in her flow of milk, and perhaps goes dry for four or five months of the year, but this is not observed, and only the memory of the large flow she gave when fresh lingers in the mind of the owner. Another cow may give only a fair flow of milk when she first comes in, and may not be regarded highly by her owner; but she may continue at the same rate of yield for a long period, and will in the end prove a great deal more valuable than the other cow. No milker can tell, without weighing the milk regularly, whether a cow gives 6,000 or 8,000 pounds of milk in a year; still the differ- ence may prove the difference between profit and loss on that par- ticular cow When the milk is valued according to its butterfat content unsupported estimates of the cow's performance are still more un- certain. It requires frequent testing to ascertain the average per- centage of fat in the milk a cow yields; the test may vary greatly from milking to milking and from day to day. There may also be a great variation in the richness of the milk yielded by a cow when she is fresh as compared with a time later in the period of lactation. The First American Association. The cow-testing movement in the United States was inaugurated at Fremont, Mich., September 26, 1905, under the name of the Newaygo County Dairy Testing As- sociation. The general purpose for which it was formed was to pro- mote the dairy interests of its members, and particularly to provide means and methods for testing the milk of the cows of the members periodically. It consisted of 31 members, and 239 cows completed the first year's test. The officers of the association consisted of a president, a vice-president, a secretary and treasurer, and a board of nine directors. This board had the management of the business of the association and employed a cow tester, who made nionthly visits to each herd, and as there are only twenty-six working days in a month, it was necessary for him in some cases to test two herds in one day. Methods of Operation. The cow tester arrives at the farm in the afternoon and remains there for twenty-four hours, when he is car- ried by the farmer to the farm of the next member in the association. On his arrival at the stable the cow tester enters in a book which he carries for this purpose the name and number of each cow in the herd, whether she gives milk or not. As it is the purpose of the work to ascertain the actual status of the whole herd, as well as of the indi- vidual, every cow in the stable should be entered on the list. It is ob- MILK 219 vious that if only cows with large yields were entered on the list, at the end of the year the herd would show a higher average than the truth would warrant. For this reason, and in hope of obtaining commercial advantages from such high records, some dairymen have preferred not to have the whole herd tested; but it is a rule of the cow-testing association to obtain records of every animal in the herd which has had one calf, and no records are published where such is not the case. The cow tester takes part in the feeding of the cows, and while doing so he weighs the amount of roughage and grain each cow re- ceives and records these data in a book which he carries with him at all times. The milk yielded by each cow is weighed and samples of it are obtained for testing. Records of the feed and the yield for each individual are again obtained and recorded the next morning, and after breakfast the fat determination is made. During the fore- noon the calculations are made and entered in the record book, which at all times remains in the possession of the farmer. The milking is done at the usual milking time, in order that the average yield may be obtained as accurately as possible. In case of competition between the herds, there may be a tendency to milk early in the morning on the day the tester is expected to arrive. In this way the yield for the testing day might be somewhat increased. To guard against this it is customary in some associations for the cow tester not to follow a regular route, so that it will be impossible for the dairyman to know the exact day on which to expect him. In weighing the milk a shotgun can a can 8 inches in diame- ter and 20 inches high is used. It holds 35 pounds and has straight sides, with a handle near the bottom so that it may be easily emptied. The empty can should weigh even pounds so that mistakes in sub- traction may be avoided. It has straight sides so that accurate samples may be obtained by the use of an instrument known as a milk thief, as with an ordinary milk pail with a flaring top an accurate sample might not always be obtained, owing to the greater area of the milk at the surface than at the bottom. If the herd is large it is desirable to have two of these cans with straight sides so that the milker may pour the milk into them and proceed to milk the next cow without waiting for the tester to weigh and sample the milk. In this way time is saved in the stable. For weighing the milk a special spring balance is used, weigh- ing to 30 pounds and having two indicators, one of which is adjust- able and should be set at zero when the weigh can is on the scales. The balance is graduated in tenths of pounds and is frequently tested so that any stretching of the spring may be immediately detected. The milk is poured from pail to pail two or three times and the sample for testing is taken immediately after such pouring is com- pleted. The fat determinations are invariably made at the farm. The reason for this is the difficulty in transporting the samples to the creamer}'- without leakage, churning of the milk in hot weather, etc., any of which renders correct determination difficult. Another 220 DOMESTIC ANIMALS, DAIRYING, ETC. and equally important reason is that the dairyman becomes more in- terested in the work if it is done on the farm. He usually assists the expert with the testing and in this way acquires an understanding of the principles and the use of the Babcock test which he would not otherwise get. If a cow is in heat or temporarily out of condition on the testing day, no sample of her milk is taken, as there is usually an abnormal fluctuation in the fat content at such times, and the calculations based upon tests taken then may be several pounds too high or too low. The fact of such temporary abnormal condition is recorded in the herd book, and the average of the preceding and the following months' tests is used in the calculations. Milk fresh from cows for the first three days can not be consid- ered normal, and calculations based upon a test at that time may be very erroneous. It is the rule not to use the test of a cow's milk for calculations until she has attained a normal condition. If she has not reached this condition on testing day the following month's test is used as a basis for calculation. The yield for the first three days is omitted from the record, and the cow is considered as being dry when she is not milked every day. The day upon which the test is made is called the testing day, and the records obtained on that day are used as a unit for each day in the period extending equal lengths of time on both sides of the testing day. This period is called the testing period, and is so marked off as to end exactly in the middle of the time between two testing days. Observance of this rule is very important, as it materially affects the accuracy of the work. The number of days in the testing period is understood to include both the dates mentioned as begin- ning and end of the period ; thus, if the testing period begins March 15 and ends April 14, there will be thirty-one days in the testing period. The yields of milk and butterfat for the testing period are found by multiplying the yield on the testing day by the number of days in the period. The daily yield of milk is recorded in tenths and the monthly yield in whole pounds, while the yield of butterfat is recorded in tenths of a pound. If 12 tests are made in the year, 12 testing periods will result, and the sum of the records thus obtained will furnish a total summary of the various items for one year. It is 'always advisable that the dairyman should make daily weighings of each cow's milk. By doing this he will discover at once any sudden fluctuation in the milk yield, and may in many cases be able to locate and remedy the cause. He should also note when each cow goes dry, when she is bred, the date of calving, and any changes in feed during the testing period, so that he may be able to give the cow tester this information when he arrives. A Michigan Association's Record for the First Four Years. The Newaygo County Dairy Testing Association, the first cow-test- ing association organized in the United States, has now been in operation for a number of years. At the end _of the first year a number of members withdrew from the association, but new mem- MILK 221 bers were readily found, and the association is now able to get more- members than it can take care of. Method of Organizing. The usual way of organizing an asso- ciation has been to ascertain the extent of the interest in dairying in a community, and to call a meeting and explain the merits of the cow-testing association as an institution. If enough interest is ex- hibited to warrant going on with the work, a temporary organiza- tion is effected, and the neighborhood is thoroughly canvassed dur- ing the following few days in search of additional members for the association. When enough have been secured a second meeting is called, at which the organization is perfected, officers elected, and by-laws adopted. In order to support a cow-testing association it is necessary that there should be 26 herds, conveniently located, and a sufficient num- ber of cows so that the tester can get a reasonably good salary. As it is each member's duty to furnish the tester's conveyance to his next place of work, it is necessary that the farms of the members be located near enough together so he can be conveyed without incon- venience. A distance of 2 miles is not too great to give satisfaction, and the conveyance is often furnished by some passer-by. If the cow tester keeps his own horse and buggy, as is the case in some asso- ciations, a larger territory is usually accommodated. In such cases the members must furnish feed and stabling for his horse. The charge to the farmer is usually $1 a year for each cow. This money constitutes the pay of the tester; and it is desirable that there should be not less than 400 cows in an association, in which case the tester gets $400 a year. In addition he gets his board and lodging free of charge at the farm where he is working. There being only twenty- six working days in a month, it is not possible to have more than 26 members, except in cases where two men with small herds live very close together so that it is possible to test both herds in one day. On such farms the regular milking time is fixed so that the tester can attend to the weighing and testing in the first herd and still have plenty of time to get to the second herd by the regular milking hour. In addition to the $1 a cow, the farmer pays a membership fee of 25 cents yearly. This money, which for 26 members amounts to $6.50, is used for paying incidental expenses, postage, cost of sul- phuric acid, etc. The Testing Outfit. A testing outfit consists of a 12 j bottle Babcock tester with case and glassware, a shotgun can fitted up with 3 trays containing sample bottles, a spring balance, a milk thief, a thermometer, a pair of dividers, and the necessary books and record blanks The outfit, with the Babcock tester, is sometimes furnished by the State authorities, but in case it must be purchased by the as- sociation assessments have to be levied for this purpose unless the number of cows is great enough so that it can be paid out of the fund collected at the rate of $1 a cow. The necessary books and blanks have in some ca.es been provided by the United States Department of Agriculture until such time as the States have appropriations from which to supply these. The States of Michigan, Wisconsin, Ver- 222 DOMESTIC ANIMALS, DAIRYING, ETC. mont, Ohio, Iowa, and Maine now have provision for supplying this material to associations within their own borders. Qualifications of the Tester. The cow tester has much to do with the successful working of an association. He should be well fitted temperamentally and should have had special training for the work. Punctuality, regularity, and accuracy are of great impor- tance, for unless he has these qualities the records may not be a true indication of the value of the respective cows. The tester should also have the ability to advise and teach the farmers, and for this reason it is necessary that he be constituted temperamentally to give ad- vice in such a manner that it will be accepted and followed. The work of a cow-testing association depends largely for its success upon the capability, reliability, and conscientiousness of the tester; but, on the other hand, the result of this work depends also upon the members. They should be willing to profit by the lessons which the cow testing teaches and ready to put into effect such changes in feed, stabling, and operation of the dairy as the records show will be profitable. In this country, as well as in Europe, the position of cow tester offers excellent opportunities for dairy students to gain practical experience and is the best kind of school to fit them for responsible positions in connection with dairy work. (Dep. Agr. Bu. An. Ind. Cir. 179.) CERTIFIED MILK. Milk Commissions. The first milk commission was organized April 13, 1893, and it was not until five years later (1898) that the second was formed. After 1899 the movement spread more rapidly and commissions were organized as follows: One in 1900, one in 1901, five in 1902, two in 1903, three in 1904, one in 1905, five in 1906, and thirteen organized or in process of organizing in 1907. The subject is being agitated in several cities at the present time and it is quite probable that the number of commissions will be con- siderably increased in the near future. Objects of the Commission. The objects and requirements of the commission were stated as follows : To establish correct clinical standards of purity for cow's milk ; to become responsible for a peri- odical inspection of the dairies under its patronage; provide for chemical and bacteriological examinations of the product, and the frequent scrutiny of the stock by competent veterinarians; to pro- mote only professional and public interests. The following are three general requirements or standards for the milk: (1) An absence of large numbers of micro-organisms, and the entire freedom of the milk from pathogenic varieties; (2) unvarying resistance to early fermentative changes in the milk, so that it may be kept under ordinary conditions without extraordinary- care; (3)_ a constant nutritive value of known chemical composition, and a uniform relation between the percentage of fats, proteids, and carbohydrates. Certified Dairies and Quantity of Milk Produced. The number of dairies producing milk for any one commission varies from 1 to CLEAN Cows, GOOD BEDDING, PURE MILK. DEPT. OF AGR. Cows IN FILTHY CONDITION; CLEAN MILK IMPOSSIBLE. DEPT. OF AGR. MILK 223 20. Eleven commissions have 1 each; three have 2; one has 3; one 4; and one 20. The least amount handled daily by any one commission is 120 quarts and the greatest amount 9,373 quarts. A few commissions certify to cream as well as milk. Standards for Condition and Quality of Milk. The standards for bacteria vary with the different commissions. Of the 20 report- ing standards, 13 place the number at 10,000 per cubic centimeter, 1 at 20,000, and 3 at 30,000. One has a standard of 10,000 from October to April, and 20,000 from April to October. Another has a standard of 5,000 in winter and 10,000 in summer, and another a standard of 25,000 in winter and 50,000 in summer. The stand- ard for cream in all cases where it is certified is 25,000 per cubic centimeter. The standard required for fat in eight instances is a minimum of 4 per cent; in three instances, 3.5; in two, 4.5; and in one, 3.7+. Four allow a range of 3.5 to 4.5, one a range of 3.25 to 4.50, and one 3.75 to 4.50. One puts out a special milk containing a higher percentage of fat, which must keep within the limits of 4.50 and 5.50 per cent. One commission specifies that the cream must not vary more than 2 per cent from the guaranty. Only eight commissions report standards for solids not fat. These range from 8 to 9.3 per cent. Living up to the Standard. Twelve commissions report that their dairies have no difficulty in producing milk that is up to the required standards. Five report a little difficulty, and one states that there was no trouble with the bacteria count, but that it took several months to reach the fat standard, which was 4 per cent. Inspection of Dairy and Product. The answers from the vari- ous commissions relative to inspections show considerable variation. In some instances the inspections are made by members of the com- mission and in others paid inspectors are employed to do the work. As a rule inspections of the dairy are made monthly either by a veterinarian or a member of the commission, or both, and in some instances inspections are made every two weeks. The tuberculin test is usually applied annually, but in some cases this is done every six months. Chemical and bacteriological examinations range all the way from once a week to once in two months; in most instances, however, it is the practice to make tests every two weeks or oftener. Health of Employes. The employes in certified-milk plants are required to be clean in habits and appearance and are not admit- ted to the stables or dairy if not in good health. Some commissions require that employes be regularly examined by a physician and given certificates of health. In some certified plants attendants when ill arc cared for in a building specially set apart for the purpose. Precautions to Prevent Spread of Contagious Diseases. Where a large milk business is conducted and several thousand customers are served daily, there is danger that some contagious disease may be brought to the dairy in some of the bottles. To avoid this, in some instances a wagon makes a special trip to collect bottles from any house where a contagious disease is known to exist. These bottles 224 DOMESTIC ANIMALS, DAIRYING, ETC. are thoroughly boiled in a special room before they come to the dairy proper. They are then subjected to the same cleansing process as all the others. The Production of Certified Milk. The number of cows in herds producing certified milk varies from 25 to 500. Practically every breed is represented in some of these herds, and some grade or native stock is found in two-thirds of them. There are several herds of registered animals. The breed is not considered of special importance with most of the commissions, provided the composition of the milk produced is within the limits of the standard prescribed. The health of the animals and cleanliness of the surroundings and product are the most important elements in production. The pro- duction of the different herds ranges from 225 to 5,000 quarts daily (though the milk from the largest herd is not all certified). The butterfat in the milk as reported varies from 3.6 to 6.5 per cent and averages about 4.69 per cent. Bacteria in the Milk. The number of bacteria in the milk, as reported by the dairymen, varies all the way from 200 to 10,000 per cubic centimeter. One has an average of 3,317 for 43 weeks ; another reports a count of below 1,000 for one year and an average of 150 for 15 successive weeks from samples taken at random in the city. Cleaning and Disinfecting Stables. It is the general practice in certified dairies to remove the manure at least twice daily to the field, or to a suitable pit some distance from the stable. In the most carefully managed dairies the whole interior of the stable is washed and scrubbed daily with water containing a washing compound. Some use a disinfectant in the water once or twice a week, as bichlorid of mercury, carbolic acid, or permanganate of potash. Bichlorid of mercury is probably the most expensive of any of the dis- infectants; aside from this fact it is one of the most satisfactory be- cause it gives off no odor. One dairyman uses cresol in water daily. Where the interior of the stable is built of wood, it is whitewashed from two to twelve times annually, or kept well painted. Land plaster is the most common disinfectant for floors and gutters. Slacked lime is also satisfactory for this purpose. Shavings are most in favor for bedding. Some dairymen do not use any bedding, but this system is not recommended. Cleaning and Treatment of Cows. The cows are cleaned daily with currycomb and brush. The udder and parts in proximity to it are either washed and wiped with a clean towel, or are wiped with a damp cloth or sponge. In many cases the udder, flanks, etc., are clipped periodically. Occasionally a dairyman sprays stables and cows immediately before milking. It is a common practice to fasten up the cows after they have been cleaned, in such a w r ay that they can not lie down till they have been milked. In a few dairies where extraordinary care is .used, the whole body of the cow is groomed an hour or more before each milking, and any soiled parts are scrubbed with a brush and water containing a washing compound ; the entire body is bathed from the neck back ; the tail is washed ; the udder is washed in sterile water from a sterile MILK 225 pail, and dried with a clean towel, a separate one being provided for each cow. Milkers and Milking. In a few dairies the milking is not done in the regular stable, the cows being taken to a milking room en- tirely separated from the rest of the barn. This room is well lighted, and every precaution is taken to make it absolutely sanitary. Other dairymen claim that just as good results can be secured by milking in the regular stable if proper precautions are taken. As some of the lowest bacteria counts on record have been obtained where the latter plan is followed, this fact would seem to substantiate the claim. The custom is almost universal for the milkers to be clad in freshly laundered suits. Where the most extreme care is taken, the clothing of each milker receives a thorough cleansing with boiling water after every milking, and is then locked in an individual air- tight drying room, where it is sterilized and dried by steam, remain- ing there until wanted for use. Before putting on their special suits, milkers are required to wash their hands and faces and clean their nails. When ready for milking the milker is supplied with a pail and a stool, both of which have been cleansed and sterilized since last in use. With these extreme precautions, when the milker goes to the milk room, he is as clean in person and equipment as it is possible to make him. In milking it is a common practice to discard the foremilk. The milking is done strictly with dry hands, except in a few instances where vaseline is employed (a usage which is re- ported to be entirely practical). In some dairies milkers are re- quired to wash their hands before milking each cow, but this is not the general practice. Handling the Milk. After being drawn the milk is taken im- mediately to a separate room, where it is strained into a can through a double thickness of cheese cloth (a separate strainer being used for each pail of milk). It is then taken immediately to the bottling room, where usually it is cooled to a temperature as low as 45 to 50 F., and in some cases as low as 35F. Sometimes it is strained again through absorbent cotton on reaching the cooling, room. In a majority of the dairies a cooler of some description is used; in a few, however, the milk is strained into cans standing in ice water. It is then bottled, packed in cases, and covered with crushed ice. Certified Milk and Market Milk Compared. As far as the chem- ical composition is concerned, certified milk does not differ materially from ordinary market milk. The milk commissions require that the fat and total solids shall come within certain limits, and for this rea- son there is but little variation in the chemical composition of certi- fied milk. The standards are not high for the reason that milk con- taining about 4 per cent of fat is considered to be the best for imme- diate consumption. As stated elsewhere, many of the herds in certi- fied-milk dairies are composed of grade cows and do not produce milk of more than the average richness. When we compare the bacterial content of certified and market milk we find a very striking difference. The bacteria in the average milk supply of our large cities exceed 500,000 to the cubic centi- 226 DOMESTIC ANIMALS, DAIRYING, ETC. meter, while the bacteria in certified milk seldom exceed 30,000 to the cubic centimeter and in most instances average less than 10,000. There have been some cases where commissions have reported that no bacteria were shown to be present by the ordinary methods used for their detection. Liquefying, putrefactive, and pus-forming bac- teria are seldom present in large numbers; in fact the contracts of some commissions with the producers specify that the milk shall not contain pathogenic bacteria or more than a limited number of pus cells to the cubic centimeter. Keeping Qualities of Certified Milk. As would naturally be ex- pected, certified milk with its small number of bacteria will keep sweet for a long time. The theory that clean milk should have a long keeping quality works out in practice. Instances are on record where certified milk has been taken on an ocean voyage and not only brought back in good condition but kept sweet until thirty days old. In fact it is now a common practice for people when crossing the water or taking a long land journey with infants to take several cases of certified milk with them. They are then reasonably sure of having a constant supply of sweet milk for several days. Some pro- ducers who guarantee their milk have offices in London as well as in this country so that a supply of fresh milk can be secured by voy- agers going in either direction. This has been a great convenience and has given comfort to many people. Again, a number of certi- fied-milk dairies in the United States sent exhibits of milk to the Paris Exposition in 1900. The milk kept perfectly sweet for two weeks and in some instances 18 days after being bottled and after a summer journey of 3,000 to 4,000 miles. Regular delivery bottles were used, the only extra precaution being to use two paper caps instead of one, and to cover the caps witl^ parafin so as to exclude the air. Of course the milk was carefully packed in ice for shipment, but this was the only means used for preservation. Is Certified Milk Worth. -the Extra Cost? In view of the ex- treme care and greater expense required in the production of certi- fied milk, the question is sometimes raised as to whether it is worth the labor and pains necessary to produce it. It must be conceded that pure milk is of vital importance in the feeding of infants. The best way to produce it is by the methods commonly practiced in cer- tified-milk plants' as already outlined in this bulletin. The result of feeding such milk to infants and children in our cities, as shown in the decrease in the death rate, is a matter of common knowledge. Further, with more refined ideas of living, there is a growing de- mand for milk of the highest quality that can be produced. Natur- ally, with the careful methods used in its production, certified milk costs more than ordinary market milk, and the price charged for it is correspondingly higher. In spite of this advanced price, however, a number of certified dairies have failed to make a profit. Certified milk, produced under the direction of a reliable milk commission, is worth more than ordinary market milk for several reasons: (1) It is free from disease-producing bacteria, and all other germs are reduced to a minimum. (2) It is free from high MILK 227 acidity and pathogenic germs which lead to stomach derangements and kindred troubles. (3) The customer can always depend upon his milk coming from the same farm, the same herd of cows, sub- jected to the same treatment, and having the same quality. The fat content is guaranteed not to vary outside of narrow limits ; hence the milk is always of good quality. (4) Cleanliness and cold are the only preservatives used. (5) It is a safe food for infants and people with delicate digestion. (6) It is the natural product of the cow, and has not been subjected to any treatment which affects its diges- tibility or changes its character. (7) It is reasonably free from foreign odors and objectionable flavors. The Future of the Certified-Milk Industry. The production and sale of certified milk will probably never amount to more than a small fraction of the total milk consumed. It is believed, however, that the demand for this class of milk will increase, not only for in- fants and persons of delicate health, but for people who appreciate a good product and want the best. There is over a score of cities at the present time each of which is supplied with certified milk from one or more dairies, and it is believed that most cities of a population of 25,000 to 50,000 or more would support a certified-milk dairy if the product were properly advertised and its merits generally known to the public. Physicians assist greatly in the sale of certified milk, and, as a number of them are usually members of the milk commis- sions in the various cities, they are thoroughly acquainted with the conditions under which the milk is produced and freely recommend its use. (Dep. Agr. Bu. An. Ind. B. 104.) SYSTEMS OF SEPARATING MILK. Four systems of separation are in common use; the shallow pan, deep setting, dilution, and centrifugal. The Shallow Pan. The setting of milk in pans or crocks, let- ting the milk stand for from twelve to twenty-four hours, depending upon the temperature, and then skimming the cream, is known as the shallow-pan system. This is the oldest method of separating cream from milk, and varies greatly in efficiency, depending very largely on how quickly the milk is cooled after coming from the cow and how low a temperature is secured during the creaming process. As low as .4 per cent of butter fat left in the separated milk has been secured with the shallow pan when the milk was cooled immediately after being milked and kept at a low temperature during the cream- ing process. On the other hand it is not unusual to leave as high as 1 per cent of butter fat in the skimmed milk when the milk is set in a warm room. Probably .8 per cent is a fair estimate for the loss when milk is separated in this way. Deep-Setting System. The separation most frequently found in use, next to the shallow pan, is the deep-setting system. The es- sentials of this system are cans six to eight inches in diameter and about two feet long, which are placed in cold water. Often a trench is dug in a spring house in which the water stands at the proper height and is continually running through the trench. This is a very effective and economical method, both as to labor and expense 228 DOMESTIC ANIMALS, DAIRYING, ETC. of construction. It is not practical to put ice in such a trench, how- ever, and a temperature cannot be secured below that of the spring. As in the case of the shallow-pan system, the efficiency of this system of separation depends principally upon the temperature of the milk. Under the best conditions, milk can be separated with this system leaving only about .3 per cent of butter fat in the separated milk. Under favorable conditions .5 per cent, or more, will be left. The Dilution System. Another system which, fortunately, is not found very frequently, is known as the dilution system. The so- called separators which are sold to cream milk in this way are essen- tially tin cans of varying capacities in which milk and water are mixed. Sometimes tubes are run through them in different direc- tions, helping to make the purchasers believe they are purchasing a machine, but they do not add to the efficiency of the system. Usually these tin cans have been sold to the farmer with the statement that they have some of the virtues of the centrifugal machine and are much cheaper. The fact is they do not have in the remotest sense the characteristics of a centrifugal separator. They are not so effec- tive, even, as the shallow-pan system. Repeated tests have shown that they leave .7 per cent of butter fat in the skim milk under the best conditions and often leave as high as 1.5 per cent. The manufac- turers of these tin cans have traded upon the reputation achieved by the centrifugal machines, by calling them separators, but no farmer should buy one with the idea that he is securing anything but a tin can, and should not use one, or the same method with home-made cans, without expecting to lose even more butter than he would with the pans. The Centrifugal System. The most efficient method of sepa- rating milk yet devised is the centrifugal machine. This is a ma- chine which revolves a bowl very rapidly. Milk is introduced into the bowl at the center while the bowl is revolving. The milk is thrown to the sides of the bowl with a great deal of force. The sepa- rated milk being heavier than the cream, goes to the outside, the cream staying in the center. Spouts draw off the separated milk and the cream, the cream spout entering the center of the bowl and the separated milk spout entering the outer part. This system involves the purchase of a very carefully constructed machine, which must of necessity cost the farmer a considerable amount of money, more than would be expended with any of the other methods described, and he should expect better results. Any of the standard makes of machines on the market will leave as little as .02 per cent of butter fat in the separated milk under the best condi- tions, and the farmer should expect to secure a separation averaging as close as .05 per cent. (Va. B. 186.) The Hand Separator. The following is a summary of results of a trial made to compare the efficiency of several hand separators: These trials show very little, if any, difference in completeness of skimming and the total amount of fat recovered in the cream be- tween the different makes of separators used. MILK 229 With one exception, all the separators fulfilled the claims of their manufacturers as to capacity and efficiency of skimming. All the separators used did satisfactory work under a far wider range of conditions than is recommended by the manufacturers. Considerable difference seemed to exist between the various separators as to substantialness and durability. There is a wide difference in the ease with which the various separators were operated. The cheaper and newer machines did as efficient work in these trials as the older and more expensive ones. There is no difference in the quality of cream delivered by the various machines. There is no difference in the churnability of cream from the separators used in these tests. These trials would seem to indicate that the choice of a hand separator should be influenced very largely by its first cost and its apparent durability. (Pa. B. 38.) Some conditions that affect the skimming efficiency of the hand separator are the following: 1, smooth running; 2, speed; 3, clean- ing of separator; 4, condition of milk; 5, temperature of milk; 6, rate of inflow; 7, richness of cream. Smooth Running. No separator can be expected to do efficient work unless it runs smoothly. When the separator is in operation the milk, flowing into the bowl, is divided into three layers, namely cream, skim milk, and separator slime. If the bowl revolves smooth- ly the cream and the skim milk, thus separated, find their respective outlets. If the machine trembles and jars, a portion of the cream and skim milk are again mixed by the vibration of the bowl, with the result that a relatively large amount of fat goes into the skim milk. Speed. Every machine has a certain speed at which it will do its most efficient work. The number of turns which the crank should make per minute is usually indicated on the crank. If the speed is reduced below that indicated, the skimming will be less complete and more fat is lost in the skim milk. It is not advisable to run the ma- chine at a higher speed than that required, as there is danger of dam- aging the separator or of the bowl jumping the castings, nor does excessive speed increase the skimming efficiency of the separator. Cleaning of Separator. It seems strange that, in the minds of some dairymen, the idea prevails that it is unnecessary to thoroughly wash the separator more than once a day, or once in two or three days. The same men would rebel at the suggestion of sitting down at the table and eating their dinner off the unwashed breakfast dishes, and yet the principle is precisely the same. An investigation of this condition showed that out of 57 dairies where the milk is separated mornings and evenings 35 washed their separators after each separation and 22 washed them once a day or once in two days. Even where the bowl is flushed with warm water after each separa- tion there remain in it remnants of cream, milk and separator slime which rapidly undergo decomposition. When the warm milk of the 230 DOMESTIC ANIMALS, DAIRYING, ETC. succeeding milking is run through the separator the cream neces- sarily becomes contaminated with the bacteria causing this decompo- sition, and tainted with the products of decay. This cream is both dangerous to the health of the consumer and unfit to be made into butter. The hygienic and sanitary side of this practice is sufficient to condemn it. In addition to this the use of unclean separators also causes a material increase in the per cent of fat in the skim milk. The presence of these remnants of milk in the bowl and in the cream and skim milk outlets obstructs the free passage of the milk and hin- ders the process of separation. Condition of Milk. The freshly drawn milk is in the best con- dition for effective skimming. It has the proper temperature, the fat is in solution and the physical condition of the milk is such as to insure a high degree of fluidity. Sour, curdled milk skims with dif- ficulty. Before such milk is run through the separator it should be poured from one can to another in order to break up the curd as finely as possible. Unless this is done it will cause the machine to clog. The clogging can be prevented more or less by underfeeding the machine. It cannot be expected, however, that the separation of sour and curdled milk will be complete. Temperature of Milk. The warmer the milk the more fluid it becomes, and the greater the freedom with which the fat globules can move about. The more fluid the milk the more complete is the separation. 75 deg. F. is about the minimum temperature at which most separators will skim closely. At 60 deg. F. there is a decided loss of butter fat in the skim milk, no matter what make of hand separator may be used. On the farm the best results are obtained, where the milk is separated as soon as it is drawn. It has then an ideal temperature for skimming. If the milk is separated but once a day, the cold milk should be warmed up before it is run through the separator. Rate of Inflow. Every separator is built to take care of a cer- tain amount of milk. It has a certain capacity. The capacities of the hand separators used on farms range from 250 to 900 pounds of milk per hour. When the machine is forced beyond its capacity, the milk has to pass through the bowl so fast that it is not exposed to the centrifugal force long enough to effect a complete separation of the fat. The more milk that is run through the separator in excess of its given capacity, the greater the loss of fat in the skim milk. It is, therefore, of importance that the operator know the exact capacity of his machine and then govern the inlet accordingly. Richness of Cream. The thickness of cream obtained from cen- trifugal separators is regulated by the cream screw. It is affected too, to a greater or less extent, by most, if not all of the conditions which influence the per 'cent of fat in the skim milk, and which have been above referred' to. While most of the standard makes of separators will do good skimming if cream is produced that tests from 20% to 50% of fat, there is a considerable difference in the behavior of dif- ferent machines. Some separators skim as closely when 50% cream is produced as when set for 30%. Others are at their best when set COMBINATION MILK PAIL, CAN, STRAINER, AND STOOL. DEPT. OF AGR. MILKING UNDER CLEAN AND SANITARY CONDITIONS. DEPT. OF AGR. MILK 233 for 30% cream or thereabout, and their skimming efficiency de- creases as the per cent of fat in the cream increases. Thus the use of the hand separator in the place of the gravity systems of creaming, will effect a saving of $3.50 to $7.00 worth of butter fat from one cow in one year. With the separator a richer cream and a better quality of cream and skim milk can be produced than with the gravity systems. Of the gravity methods the deep setting system is the least ob- jectionable. It produces a more complete separation and a better quality of cream than either the shallow pan or the water dilution systems. Any neglect to thoroughly clean the separator after each sepa- ration reduces the skimming efficiency of the machine and lowers the quality of the cream and butter produced. Wash the separator after each separation. A trembling machine, insufficient speed, sour, curdled, slimy, or cold milk, and over-feeding the separator caused a loss of butter fat in the skim milk amounting to from 8 to 12 pounds of butter per cow in one year. Other things being equal, high speed and a small rate of inflow tend to produce a thick cream. Insufficient speed, a trembling ma- chine and a large rate of inflow result in a thinner cream. (Ind. B. 116.) BABCOCK TEST FOR BUTTER PAT. How to Use the Babcock Test. Before the Babcock test was in- vented, twenty-two years ago, no simple, accurate method was known by which the farmer could measure the richness of the milk or cream which he sold, or of the skim milk which remained. At creameries and cheese factories, each patron was paid in proportion to the weight of milk delivered. It was then commonly supposed that 100 pounds of milk from one cow would make as much butter or cheese as an equal weight of milk from any other cow. Cows were valued accord- ing to the number of pounds of milk each produced. It is now well known that the weight of butter or cheese that can be obtained from a given quantity of milk depends to a great extent upon the weight of fat present in the milk. For this reason, milk and cream are now both weighed and tested for fat by the Babcock test at most factories, and patrons are paid according to the test, that is, according to the weight of fat delivered by each. The relative value of different cows in a herd is now determined by weighing and testing the milk of each. Many cows produce a profit of from $25 to $50 per year, but in almost every herd, cows are found whose milk does not pay for the feed consumed by them. By replacing the poorest cows with better ones, the herd will be im- proved. In separator skim milk there is only about one-eighth as much fat as there is in milk skimmed from crocks or shallow pans, but even separator skim milk should be tested for fat frequently to see if the separator is skimming as closely as it should. Ordinarily sepa- rator skim milk tests about five-hundredths (.05) of one per cent, but 234 DOMESTIC ANIMALS, DAIRYING, ETC. if, by running the separator too slowly or separating the milk when too cold or for other reasons, the skim milk should contain .15 per cent or more of fat, the loss may amount to $1 or $2 per cow per year. This amount of money will more than pay for the entire expense of installing and operating a Babcock test. Although the fat in the skim milk is not wasted when fed to pigs or calves, yet it is much more profitable to sell butter fat as cream or butter than it is to make veal or pork out of it. The three important uses for the Babcock test on the farm are : First, cow testing, regularly done, in order to improve the herd; second, frequent testing milk or cream before it is sold, to determine if the testing done at the factory is correct ; third, occasional testing of skim milk, to see that no butter fat is being wasted. The Babock test is saving many times its cost annually on many dairy farms, and at the same time is enabling farmers to select their best cows and to improve their herds more rapidly than can be done by any other means. There should be a Babcock tester regularly used, on every dairy farm. Material Needed. The materials and apparatus used on the farm for testing milk are: (1) Milk scales; (2) weighing pail; (3) bottle of preserving tablets; (4) bottle of sulphuric acid; (5) hand Babcock tester; (6) milk test bottles; (7) acid cylinder; (9) pipette (17.6 cc.) ; (10) thermometer; (11) record book. Steps in the Babcock Test. (1) Mix the milk thoroughly and take out a small sample; (2) do not let the sample evaporate or curdle before testing; (3) fill the 17.6 cc. pipette to the mark with milk; (4) empty the pipette without loss into a Babcock test bottle; (5) add sulphuric acid from the measuring cylinder to the test bottle; (6) mix the acid and milk thoroughly by shaking the bottle; (7) place bottles in the centrifuge, cover, and whirl 5 minutes; (8) add hot mater and whirl again twice, one minute each time; (9) read and record the per cent of fat in the neck of the test bottle; (10) empty the test bottles and wash thoroughly. Mixing and Sampling Milk. Provide a quart or more of milk, with which to practice sampling and testing. Mix it thoroughly by pouring several times from one vessel to another, or by stirring vig- orously. Larger quantities of milk require longer stirring. While the milk is still in motion, dip out a half teacupful and pour this at once into a small, clean, dry bottle. Fill the bottle nearly full, and stopper tightly to prevent evaporation. Label the bottles with the name of the cow or owner. The small sample of milk taken for the Babcock test must con- tain exactly the same proportion of fat as the entire contents of the pail or can. If milk stands quiet for even a few minutes, the cream will begin to rise, and the top layer on the can will contain more fat than the rest of the milk. If the top part is used for the test, it will indicate a higher per cent of fat than is present in the entire lot of milk. It is incorrect to take a sample out of a pail, can or vat of milk for testing without first thoroughly mixing the milk by stirring, or pouring it from one vessel to another. MILK 235 Preserving Samples. If it is necessary to keep the milk samples several hours or days before testing, a preservative should be added to prevent curdling, and the bottles kept tightly stoppered. The preservative most commonly used 15 corrosive sublimate (a poison). This is sold in the form of tablets, in boxes containing 100 or 1,000. Each tablet also contains some pink coloring matter, so that every- one may know that the milk, so colored, contains poison, is unfit to drink, and must not be fed to stock. One small preservative tablet should be dropped into each bottle of milk and shaken until dis- solved. The box containing the tablets should be kept out of the reach of children. Borax and bichromate of potash are other pre- servatives which may be used instead of the tablets. Filling the Pipette. The milk test bottle and pipette are cleaned with hot water and washing powder or soap, if necessary, and thor- oughly rinsed with clean water before using. For the Bafocock test 17.6 cc. of milk (18 grams) is measured with the pipette and trans- ferred to the test bottle without loss. It should be remembered that cream is always rising in milk, whether it can be seen or not. Before taking any milk out of the small sample bottle with the pipette the sample bottle should be well shaken, so as to mix the cream all through the milk. If lumps of butter fat appear on the surface of the milk, warm the bottle and contents to about 100 degrees and shake again. Immediately put the narrow tip of the pipette into the milk (while it is still in motion) and with the mouth, suck the air out until the milk rises in the pipette, above the mark on the neck. Quickly place the forefinger over the upper end of the pipette, before the milk runs down below the mark. If the finger is dry it is easy, by changing the pressure on the end of the tube, to let the milk run down slowly and to stop it exactly at the mark. Filling the Test Bottle. The tip of the pipette is next placed in the top of a test bottle, held in an inclined position and the milk is allowed to run down one side of the neck of the 'bottle, without filling the neck completely, or preventing the escape of air. In this way exactly 18 grams (17.6 cc.) of milk is transferred to the test bottle without loss. It is well for a beginner to practice this work with the pipette filled with water until the flow can be readily controlled with the forefinger. If at any time a portion of the milk containing preservative is drawn into the mouth, reject it, and rinse the mouth with clean water. After the samples of milk have been placed in the test bottles, they can be set aside for a day or a week, if neces- sary, and the testing can be finished at any time. Adding the Ac id. -Sulphuric acid of specific gravity 1.82 is next added to the milk in the test bottle. It can be obtained at any drug store or of dealers in dairy supplies. The acid is first poured into the little acid cylinder which holds just 17.5 cc. when filled to the mark. The cylinder is then emptied into the test bottle, which is held in an inclined position to permit escape of air, and avoid spilling the acid. Since this acid destroys wood and metals, the bot- tle of acid and the little measuring cylinder should be kept standing 23'6 DOMESTIC ANIMALS, DAIRYING, ETC. on a brick or a piece of sheet lead. Liquids containing sulphuric acid should not be thrown where live stock can come in contact with them, but can be safely poured into an earthen jar or into a clay drain tile set on end in the ground. The sulphuric acid bottle should be kept stoppered because the acid readily absorbs moisture from the air and thus becomes weakened. Always add acid to milk in the bottle, never add milk or water to the acid. Sulphuric acid will quickly eat holes in the clothing and cause blisters on the skin, and the greatest care should be taken not to spill it. To observe its effect, put a drop or two of acid on each of two pieces of paper, or cotton or woolen cloth. With a little water, rinse the acid as quickly as possible off one piece, and note whether it is spotted where the acid fell. Leave the other piece for a few hours and then wash it. When handling sulphuric acid wear an apron and have a sup- ply of water ready for washing spilled acid off of the clothing, person or furniture quickly in case of an accident. After thorough wash- ing with water, a little household ammonia, or baking soda or lime water may be applied and washed off with more water. Sulphuric acid must not be measured in the pipette because of the danger of drawing it into the mouth. Mixing the Acid and Milk. The sulphuric acid in the test bot- tle weighs more than the milk, and the acid goes to the bottom at once, forming a clear layer, which soon becomes brown where it touches the milk. As soon as the acid is all poured in, the test bottle should be held by the neck and shaken in a circle so as to mix the acid and milk. Keep the liquid out of the neck of the bottle, while shaking it, to prevent loss. During the filling and mixing point the neck of the bottle away from the face, so that no drop of acid may be thrown into the eyes. As the shaking is continued, the mixture turns to a uniform brown color and becomes quite hot. Be sure to mix thoroughly. Write the number of the sample with a common black lead pencil on the roughened spot on the side of the test bottle. With the same precautions as before, transfer a pipette full of milk from the other sample bottle to a second test bottle; measure in the acid, and mix by shaking. If the test bottles become cold after adding acid and before whirling, they should be warmed again by placing in water at about 160 degrees for about 15 minutes. While the bottles are hot put them into the tester and whirl them as di- rected below. Whirling the Bottles. Having placed the bottles opposite each other in the whirling machine (called a centrifuge) and closed the cover, turn the handle for four or five minutes at the speed indicated by the directions furnished with the machine. Allow it to stop of its own accord. The centrifuge is generally enclosed in an iron box so that if any thing should break while the machine is running, no one is injured by the flying pieces. The cover should always be kept closed while the machine is running. The wheels will turn easier and last MILK 237 longer, if they are oiled daily when in use. The bottles travel around the circle 700 to 1,000 times a minute, moving about 40 miles per hour. The machines are not all of the same size and some go faster than others. A weight hung iby a string 22 inches long will swing back and forth about 80 times per minute, or about 70 times if the string be made 24 inches long. Such a pendulum, once adjusted to the right length with the aid of a watch, is a help in running the tester at the right speed. In large factories where many samples are tested the centrifuges are run by steam or electric power. In such cases a speed indicator is used to make sure that each machine runs at the proper speed. Running faster than directed is likely to break the bottles. The cover is opened when motion has stopped, and a small amount of hot, soft water is added with the pipette to each bottle, without taking it out of the pocket. The bottles are thus filled to the bottom of the neck, and the machine is then closed and run at full speed for another minute. More hot water is added with the pipette, bringing the fat up into the neck, between the top and bottom of the scale of figures, and the machine is closed and run another min- ute or two, for the third and last time. Some operators prefer to add enough water after the first whirl- ing to bring all the fat up into the neck and whirl the bottles only two times in all. The bottles are then taken out of the machine and the per cent of fat is read from the neck of each bottle, while still hot, before the fat solidifies. To prevent the bottles cooling they may be set in water at 130 or 140 degrees until each is read. Reading the Per Cent of Fat. In reading the per cent of fat from the fat column in the neck of a milk test bottle, readings are made at the extreme top and at the bottom of the fat column. Sub- tracting the smaller of these figures from the larger gives the per cent of fat in the milk. By the aid of a pair of dividers the subtrac- tion is avoided, and the per cent of fat is read directly from the neck of the bottle. To use the dividers adjust the points to the top and bottom of the fat column as shown ; and then, without changing the distance between them, place one point at the bottom of the scale of figures, and read on the scale the position of the other point. This gives the per cent of fat in the milk. Fat solidifies at about 100 degrees. Warming the fat in the neck of a test bottle from 110 to 150 degrees makes it expand about 1.5 per cent of its volume. This expansion amounts to about .05 per cent fat on a test reading 3.5 per cent fat, and hence is too small to be of importance in milk testing. In cream testing it is necessary to regulate the temperature with care. It is well to study the directions and to repeat the entire process of sampling and testing on several days, until thoroughly familiar with the work. Calculating Weight of Fat in Milk. To find the pounds of fat in any quantity of milk it is necessary, first, to weigh the milk ; sec- ond, to test the milk by the Babcock test to find the per cent of fat; and, third, to multiply the weight of the milk by the per cent of fat 238 DOMESTIC ANIMALS, DAIRYING, ETC. in the milk. For practice, one learning to make the test may figure the pounds of fat in 25 pounds of milk testing 5.0% fat. Ans. 1.25 pounds of fat 37 pounds of milk testing 4.0% fat. Ans. 1.48 pounds of fat 70 pounds of milk testing 3.5% fat. Ans. 2.45 pounds of fat Cleaning the Test Bottles. Having read and recorded the per cent of fat from each test bottle, empty all of the bottles while still hot, and wash them thoroughly, using hot water and soda, washing powder, or soap, if necessary, to remove all of the fat. Finally rinse with clean water. Small specks left sticking to the inside of the neck can be removed with a brush such as is sold for the purpose or with a bit of cloth fastened to the end of the stick. The Appearance of the Fat Column. The color of the fat col- umn at the end of the test should be light brown. If acid is added when the milk is too warm, as when fresh from the cow, or if it is too strong, or if too much is used, the fat column may be very dark, or may contain black particles of curd which interfere with accurate reading. Incomplete mixing or delay in mixing acid and milk may cause similar trouble. In such cases the bottle must be washed and the test repeated. The milk and acid should be at about 70 degrees to get the 'best results, and if this is the case and the fat is still black, a little less acid should be used in repeating the test. It is a good plan to add the acid from the little measuring cylinder in several por- tions, shaking well after each addition. If the acid is of the correct strength, i. e., about 90 per cent pure, of specific gravity 1.82, as usually sold for use in the Babcock test, no trouble will be had. Sometimes the fat column contains white or light colored par- ticles resembling curd, at the end of the test, and in such cases the acid used is too weak, or the amount used is too small, or the milk and acid are too cold when mixed, as may occur in the winter time. Hard water sometimes causes bubbles of foam at the top of the fat column. To avoid this, use soft water in testing. Sampling and Testing Milk of Different Cows. In comparing the amounts of butter fat produced by different cows, it is necessary to weigh and test the milk regularly throughout the season. The testing and weighing may be done once a month, twice a month, weekly, or daily. Or the milk may be weighed daily, and tested as often as convenient. Testing Skim Milk by the Babcock Test. Wherever cream is sold the skim milk should be tested for fat occasionally, to make sure that the cream separation is complete. To test skim milk, collect the entire quantity of skim milk running from the separator in a tub or barrel, mix it well by stirring. While the skim milk is still in motion, measure with a pipette 17.6 cc. of milk, avoiding the foam, into a special form of Babcock test bottle called a skim milk bottle. Add acid and whirl at full speed for a few minutes longer than usual, and keep the bottles hot, since it is hard to get out all of the fat in testing skim milk. The ordinary milk test bottle reading 10 per cent on the scale cannot be used for testing skim milk, because the column of fat MILK 239 from skim milk generally fills less than one division on the scale, and therefore cannot be read. The skim milk test bottles have a double neck, with a wide tube for pouring in the milk and acid and a narrow tube in which the fat column rises. The scale reads up to one-fourth or one-half of one per cent. These bottles are also used for testing buttermilk and whey. Only about three-fourths of a cylinder full of sulphuric acid should be added to each test bottle of whey. The test is then completed in the usual way. (111. Circ. of Inf. 27.) BUTTER MAKING ON THE FARM. Ripening the Cream. Up to the point of ripening the cream the dairyman has been trying to keep his cream as free as possible from bacteria and to check the growth of all that may get into it, but from this point on the work will be quite different Cream should be perfectly sweet, and if cooled properly will remain so for a number of hours. In fact, it can be preserved four or five days if kept at a temperature below 50 F. It might be churned in this condition and a quality of butter made that is in demand in a limited way, but, practically speaking, nearly all butter used in this country is churned from sour cream. Sweet cream butter to most users tastes flat and insipid. The Starter and Its Use. The dairyman may think, if it is necessary to sour the cream, why is all this pains taken up to this point to keep it sweet. The trouble with ordinary souring is, it may not be the desirable kind. It must be handled in such a way that desirable flavors will be developed and the undesirable ones kept in check. This can only be done by starting with a perfectly sweet cream and afterwards controlling the souring process. This control is secured by introducing into the cream what is known as a starter. A starter is nothing more nor less than nicely soured milk, either whole or skimmed. It will contain those kinds of bacteria that will develop the good flavors wanted and not those that cause putrefac- tion, gassy fermentations, and similar undesirable changes. To secure a starter containing desirable bacteria, the dairyman has sim- ply to set away a portion of skim milk as it comes from the separator and await developments. If the milk is kept at a temperature be- tween 70 and 80 F., it should sour inside of twenty-four hours and form a solid curd. A test of this curd shows whether or not the dairyman has kept his milk clean. If the taste is found pleasant and mildly acid and the curd readily breaks up when poured from one vessel to another, becoming creamy, showing no hard lumps that will not break down, he has a good starter. On the other hand, if the curd is stringy or will not break with a square, sharp cleavage, but seems to be granular, or if a clear whey is formed on the surface, it shows that bacteria of a harmful species are present. The forma- tion of this curd is caused by the development of acid in the milk. If the souring continues too long and too much acid is formed, the starter becomes sharp and unfit for use. After a certain amount of acid is formed its further development is checked, but this does not occur until the milk is too sour for a good starter. 240 DOMESTIC ANIMALS, DAIRYING, ETC. The starter is at its best just as the curd becomes firm, and the butter maker should plan to have this occur at the time he wants it to put into the cream. A glass jar is the best vessel in which to make a starter. The glass surface, being smooth, is easily cleaned, and the butter maker can see what action is taking place while the milk is souring. If there are gas-producing germs in the milk, little bubbles of gas will form in the bottom and along the sides of the jar. If these are formed the starter should not be used, as gas fermenta- tions always indicate impurity, and the effects of the starter will not be good. The amount of starter that should be used in the cream will vary under different conditions. Ordinarily, if one is churning every day, about 1 to 1% gallons of starter in 10 gallons of cream is the right proportion. If it is necessary to hurry the process of souring, more starter can be used, and vice versa. The temperature at which the cream is set will influence the amount of starter to be used. If the cream is cooled to about 60 F., it will require more starter than if it is set at 70 F. Unless the butter maker has means of control- ling the temperatures quickly, either by very cold water or by means of ice, it is best to have the cream as cold as well water will make it (which will usually be about 60 F.) when the starter is added. If the cream is to be held for the next eighteen or twenty hours at this temperature, the amount of starter to be added can be determined by the butter maker after tw r o or three trials. Attempt should be made to add just enough starter to have the cream soured properly at churning time. No absolute rule can be given that can be de- pended upon for this work. The butter maker must use his intelli- gence and decrease or increase the amount of starter and raise or lower the temperature of the cream in such a way that it will be ripened and ready for churning at the right time. If the cream is not to be churned every day, but must be held from two to four days before enough is secured for a churning, either of two ways may be followed : A very small amount of starter may be added to the first batch of cream, which will cause the gradual development of the acidity, or the cream may be held sweet from two to four milkings and then the starter added in a little larger quantity, with a view to having the ripening completed about twelve to eighteen hours after the last batch of cream is added. Here again the butter maker must use his judgment and experiment until he finds just the right quantities and the right time to add the starter. Whole milk can be used for making a starter, as well as skim milk, but it is usually considered best to use the latter. The surface of the starter should be skimmed off for a half -inch or so in depth and thrown away. This is necessary because in opening the jar for examination or for any purpose dust may have entered and formed colonies of undesirable bacteria which will be growing on the sur- face but have not reached any depth into the milk. When whole milk is used this skimming is not desirable on account of the loss of butter fat that would have risen to the surface. MILK 241 It is sometimes necessary, in order to secure a good starter, to save a number of samples of milk and select the best from the lot. When an exceptionally good starter is secured it can be propagated from day to day by adding a small portion of it to a quantity of sweet skim milk, enough milk being used to make the necessary amount of starter for the cream to be churned. This controls the souring of the milk just the same as the addition of starter to the cream controls the souring of the cream. Where one is churning every day this is a very good method for carrying forward the starter. In fact, it may be used when but two or three churnings a week are made just as satisfactorily, discarding the lots on the days there are no churnings. Under factory conditions, where mixed milk from a number of herds is used, it is always necessary to heat the milk intended for the starter to near the boiling point to destroy the bacteria that it may contain, and then renew the germ life in it by adding a portion of a well-ripened starter, but under farm conditions there should be no necessity for this. The milk should be so clean and so pure that the only decomposition which takes place would be that of souring, and it wilt usually be found that this souring gives the pleasant acid taste to the milk that is desirable in the butter. When an attempt is made to ripen the cream without the ad- dition of a starter the results are not usually as good. An example of what takes place in cream can be readily seen after one has some experience in making starters. Very often one sample of milk will not develop the desirable flavors, but will become entirely unfit to use in the cream as a starter, while another sample, perhaps taken from the same day's milking, will sour with a fine flavor. The cream contains the bacteria that developed in both of these starters, and each kind has equal chance to develop, unless a large quantity of the right kind is introduced, these overcoming the undesirable kind present and thus controlling the changes which take place. This is the purpose of the starter. During the last few hours of ripening there should be taken into consideration the temperature at which the cream must be churned. When it is completely ripe or has reached that point where the flavor is fine and the arom-a good, it should be quickly brought to the tem- perature necessary for churning, if not already at that temperature. If it has to be lowered several degrees, it should stand at the churn- ing temperature for a period of three or four hours before churning. This becomes necessary because the butter fat is a poor conductor of heat and takes longer to change in temperature than the milk serum. Everyone is familiar with the fact that oils and fats cool very slowly. During the process of ripening the cream should be stirred oc- casionally to obtain best results. Just what is the result of stirring is not entirely known or why it is necessary, but it is known that cream when frequently stirred ripens with a more uniform and finer flavor than cream which is ripened without stirring. Flavors in Cream. In speaking of flavors, so far only acid flavors have been mentioned. There are undoubtedly desirable 242 DOMESTIC ANIMALS, DAIRYING, ETC. flavors in cream that do not come from the development of acid. Just what these are is not known at the present time, but the rich creamy flavor, or as it is sometimes described, the nutty flavor, of a fine quality of cream is a combination of acid and other flavors. The butter maker quickly recognizes this fine combination of flavors when he has once become familiar with it, and always looks for its development in his cream. Onions, leeks, turnips, and all similar strongly scented plants impart their flavors to the milk. It is commonly thought that the fine clover and timothy pastures common to some sections give a peculiarly fine flavor to milk. Before the science of ripening cream was developed to its present stage these ideas had more influence than they have now. Onions, garlic, and plants of this character still are very troublesome and often ruinous. About the only effect- ive way to combat troubles from this source is to rid the pastures of them, which is easier said than done. Pasteurization of the cream will help to overcome this difficulty, but this adds to the expense. The Acid Test. The only standard that has been applied in measuring the ripening of cream is the determination of the acid present. The acid test, as it is called, gives a fair idea of the quality and stage of ripeness. It is true, however, that two lots of cream may have exactly the same amount of acid and one of them be good and the other bad; so, after all, the acid test is not infallible. There is no step in the whole process of making butter where the judgment of the maker is so much needed as in ripening the cream. He must cultivate his taste for the desirable flavors and must know when the point is reached where further ripening must be checked. Neither the butter maker who depends entirely upon the sense of taste and smell, nor the one who depends entirely upon the acid test, will get the best results. Methods of learning to taste and smell, or judgment in their use, can not be given in a book. The ability must be developed through experience. The acid test, however, is a mathematical cal- culation capable of exact determination. The Principle and Its Application. As already stated the meas- ure of ripeness of cream can be determined in a general way by the amount of acid it contains. For the purpose of determining the amount of acid, different methods have been devised, but all are based on the principle that an alkaline substance in solution will neutralize an acid solution. The manipulation of the different tests is practically the same although the apparatus differs somewhat in character. In every instance an alkaline solution of known strength is used. This is added to a definite quantity of cream until it exactly neutralizes the acid in the cream. The amount of alkali necessary to do this measures the quantity of acid present. In order to tell just when the right point is reached and all of the acid is neutralized, a coloring matter, called an indicator, is added, which is pink in an alkaline solution and colorless in an acid solution. Sometimes this coloring matter is added to the alkaline substance used to make a test, as in the case of certain alkaline tablets. As the solution con- MILK 243 taining the indicator is added to the sour cream it shows no color until the point of neutrality is reached. At this point color gradually appears and becomes permanent. In other forms of the test it is necessary to add the coloring matter or indicator to the cream before beginning the test, three or four drops being sufficient to give the proper color when the cream becomes alkaline. Farrington's Alkaline Test. The two most common forms of the acid test are known as Farrington's alkaline test and Mann's acid test. In the former the alkaline substance is put up in the form of tablets of a uniform strength ; the indicator is added to the tablet and gives it its pink color. The best method of using these tablets is described as follows : The apparatus required is a 100 cc. cylinder, a 17.6 cc. pipette, and a white porcelain cup. Clean, soft water to the amount of 97 cc. is placed in the cylinder and five tablets are dissolved in it. The cylinder should be tightly corked and laid away until the tablets are entirely dissolved. If tablets and water are put in the cylinder in the evening they should be ready for use the next morning. In mak- ing the test, take the 17.6 cc. pipette, measure that quantity of cream and place it in the clean cup. Rinse out the pipette with a small quantity of clean water and add the rinsings to the cream in the cup. Pour a few cubic centimeters of the tablet solution into this cream, giving the cup a rotary motion with the hand so as to thoroughly mix the solution with the cream. Add a few drops at a time until a slight pinkish color appears and remains permanent. The amount of 'alkali used can then be read off on the cylinder. The number so obtained represents the per cent of acid actually in the cream. In making tests of this kind, in order to have results that will be uniform, exactly the same shade of pink, as near as it is possible to determine with the eye, should be observed each time. There are various other methods for using the tablet test, but the one given is the simplest and gives a direct result which needs no further compu- tation. Mann's Acid Test. In using Mann's acid test the alkaline solu- tion is procured in the form of a solution of known strength. This solution, added to the cream by means of a burette, determines very readily the acidity of the cream. In using this test a few drops of indicator w r ill have to be added to the cream before the alkali solu- tion is added. The amount of solution is read directly from the scale on the burette. This does not give the percentage of acid in the cream, as in the case of the tablet test, but gives a relative factor, which has to be worked out by the following formula in order to re- duce to percentage: Multiply the number of cubic centimeters of alkaline solution required to produce the pink color by 0.9 and divide the result by the number of cubic centimeters of cream used in mak- ing the test. The result is the per cent of acid in the cream. For the mathematical explanation of this formula and a more extended description of the acid test, the reader is referred to publications on the subject of testing. 244 DOMESTIC ANIMALS, DAIRYING, ETC. In order to secure uniform results, the butter maker should see that his cream runs practically uniform from day to day in butter fat, and develops about the same amount of acid for each churning. The degree to which the ripening should be developed will depend largely on the demands of the local market where the butter is sold. The Churn. No other utensil in connection with dairying has received as much attention from inventors as the churn. Most of the efforts along this line have been to get a churn that would anni- hilate time. The thirty to forty minutes spent in churning has seemed a prodigious waste to the hustling inventor. The one-minute churn has been the goal. In round numbers there have been more patents issued by the Patent Office on churns than on any other one thing. A careful analysis of the junk in the attic or storehouse of the average dairyman will reveal one or more relics of this kind, due to the persuasive powers of an agent who had convinced him that he was foolish in spending so much time at the churn. In spite of all this activity for an improved article, the greater number of churns in use today are either the old-fashioned dasher churn or the equally old revolving barrel or box churn or its later modification, the com- bined churn and worker. Of these types the barrel churn is by far the best. Practically all factory churns in this country are modifica- tions of it. This form has stood the test of time, and, until some genius gets up an entirely new method of making butter, it will be used to the exclusion of all the claptrap quick-churning machines ever invented. Barrel Churn the Best. Taking the barrel churn as best for the farm butter maker, he should know how to get the most out of it. In this form of churn the concussion of the cream necessary to do the churning is secured by the fall of the cream as the churn is re- volved. The faster the churn is revolved the greater number of con- cussions per minute will be secured. But if the churn is whirled so fast that the centrifugal force created holds the cream from falling no churning will take place. Cleaning the Churn. Churns are usually made of wood, and their care is an important factor. When ready to clean, the churn should be rinsed out with cold water to remove all buttermilk, salt, etc. ; it should then be partially filled with boiling water, the lid put on and fastened loosely, so steam can escape, the draining plug with- drawn, and the churn whirled. The pressure on the inside caused by the creation of steam from the hot water will force water into every nook and crevice of the churn. After a few revolutions the water should be drawn off and another lot, boiling hot, added, and the whirling repeated. Empty this out and let the churn stand so it will drain a few minutes, and then turn the opening up and let it dry. The heat in the wood will dry it out rapidly, and there will be no chance for mold to grow. An occasional rinsing out with lime water will help to keep a churn sweet. All other wooden dairy utensils should be rinsed, scalded, and dried with the same care. MILK 245 Churning. The process of churning is the gathering into a mass of the butter fat in the cream. The butter fat exists in the cream in minute globules, each independent of the others, and any agitation tends to bring them together, the force of the impact caus- ing them to adhere to each other. As the agitation is continued these small particles of butter grow larger by addition of other particles until a stage is reached where they become visible to the eye, and if the churning is continued long enough all will be united in one lump of butter in the churn. Temperature. The time that it takes to churn depends largely, on the temperature of the cream at the beginning. If the cream is quite warm, the butter will come very quickly ; if it is too cold, the churning may have to be prolonged, in some instances for hours, before the butter granules will become large enough to free them- selves from the buttermilk. The temperature at the beginning should be regulated accordingly. It is usually considered that about thirty to thirty-five minutes' churning should bring the butter. With differ- ent seasons of the year the temperatures will have to be varied some- what, in order to have the butter come in this length of time. It is necessary in hot weather to churn at a temperature as low as 50 or 55 F., while in the winter months, when the cows are on dry feed and the weather is cold, it is often necessary to raise the churning temperature to 60 or 65 F. Cases have been known where under some peculiar feed condition the temperature had to be raised to as high as 80 F., in order to make the butter gather at all. Trouble of this kind rarely ever occurs when the cows have succulent feed in winter, such as silage or roots. Occasionally some peculiar fermenta- tion takes place in the cream, causing difficult churning, but this is a result of carelessness somewhere, and can 'be remedied by a thor- ough cleaning up of the premises. Washing and Salting the Butter. It is important to know at just what point to stop churning. For best results in freeing the granules from the buttermilk and incorporating the salt it is consid- ered that the butter granules should be about the size of grains of wheat, possibly a little larger. The churn is then stopped, and the buttermilk allowed to drain. After the buttermilk is well drained from the butter granules an amount of water about equal in volume and of the same temperature as the buttermilk should be added, and the churn given four or five revolutions, slowly, so that the water will come in contact with every particle of butter and wash out the re- maining buttermilk. As soon as the wash water has drained well from the butter gran- ules, salt should be added. The amount of salt used will depend en- tirely on the demands of the consumer. Usually about 1 ounce of salt for each pound of butter will be necessary. If the ordinary bar- rel churn is used, which is perhaps the best form made, the salt may be added in the churn. By giving the churn a few revolutions the salt will be quite thoroughly incorporated with the butter. It should stand in this condition for a few minutes, until the salt becomes more or less dissolved, before the working of the butter is begun. 246 DOMESTIC ANIMALS, DAIRYING, ETC. Working the Butter. For working the butter some form of table worker is best to use. The butter bowl and paddle never give as good results because the butter will almost invariably be greasy, owing to the sliding motion of the paddle over the butter. The table workers commonly used are of two kinds one having a stationary bed and a roller, either corrugated or smooth, arranged so that it can be passed back and forth over the surface of the butter; the other having a movable bed, revolving on a center, usually under two cor- rugated rollers. Both of these forms will do good work if the opera- tor understands their use. Suggestions as to Working. If the salt and butter have been mixed in the churn the butter can be placed on the working table and the working begun at once. After the butter has been pressed out with the roller it should be divided in the center, one part being laid over onto the other and the rollers passed over again. The process should be repeated until the butter assumes what is termed a waxy condition. If the working is continued for too long a time the butter will become salvy, having the appearance of lard, and will lose its granular structure, becoming weak-bodied. The firmness of the butter must be taken into account in determining how long it should be worked. Usually the firmer the butter the more working it will stand and the more time it will need to thoroughly incorporate the salt and bring out the waxy condition. Testing Saltiness While Working. During the process of working, the butter should be tested frequently to determine its salti- ness, and if by mistake too much salt has been added it can readily be removed from the butter by pouring a little cold water over it as the working continues. The water washes out the excess of salt. If the butter should contain too little salt, more can readily be added during the process of working. It is best practice to about half finish the working and then let the butter stand for about twenty minutes or half an hour before completing. This gives the salt an additional chance to dissolve, and there is less liability of mottles in the finished product. The Remedy for Mottles. If after standing a few hours the butter is found to show a mottled appearance, this can be overcome by putting it on the worker and giving it an additional working. The mottled appearance indicates that some step in the working of the butter has not been thoroughly done. It is due to an uneven dis- tribution of salt, and possibly to the presence of casein that has not been washed from the butter, the action of the salt on the casein forming lighter spots in the butter. The best remedy for mottles is to thoroughly wash the butter when it is in granular form before the salt is added, and then to work it until it has reached the waxy condi- tion alluded to. Water Content of Butter. If the dairyman is using the com- bined churn and worker, the principles of working remain practically the same. The butter must be watched to determine just when it has been worked enough and to determine its condition in regard to the salt it contains. If butter is worked in the presence of water it MILK 247 has a tendency to take up water and increase the bulk of butter made. On the other hand, if the water is allowed to drain thoroughly from the butter as it is being worked, the tendency is to have drier, firmer-bodied butter. The water content will vary from 6 or 8 per cent up to as high as 14 or 15 per cent, depending upon the method the operator uses in working and on the temperature of the butter when it is churned and worked. If butter is churned so warm that it comes very soft, the granules contain larger quantities of water, and in this soft condition it can not be worked as much as a firmer butter. The presence of this moisture, together with the smaller amount of working, results in retaining the moisture in large drops, and the butter will have a wet or sloppy appearance. Firm butter worked in the presence of water will take up the water in minute drops, giving the butter a drier appearance. These steps in working butter, like other operations, demand the exercise of judgment in the person who is doing the work, and one must experiment with conditions which surround him and find just what method is best to pursue. Butter will stand considerable work- ing if rollers are used that do not slide over the surface, making it smeary. Care of Utensils. The worker, paddles, and prints that come in contact with the butter need special preparation before the work is begun. They should first be thoroughly scalded, and the scalding should continue long enough to make the surface of the wood hot, after which it should immediately be rinsed with cold water. This operation opens up the pores of the wood and then causes them to contract and form a smooth surface to which the butter will not stick. It also thoroughly wets the surface, which probably has a tendency to prevent the butter sticking. Packing Butter. The size and style of package to be used in packing butter will depend entirely on the market conditions where the butter is sold. While great stress has been laid on the quality of butter made, it must also be borne in mind that the method by which it is packed and the neatness with which it appears on the market have practically as much to do with its sale as has its quality. In fact many buyers will select a neat package of butter in preference to one that is put up in a slovenly manner, even though the quality may not be as good. It is undoubtedly true that the average man or woman will judge an article of food as much by its appearance as by its gen- eral qualities. An unattractive article does not appeal to the sense of taste. It ought not to be necessary to say that a package of any kind must be neat and clean in appearance, but a large portion of the farm butter that comes into market shows that a great many makers do not realize the importance of this part of their work. Many lots of otherwise good butter are sold every day at a discount because of the slovenly methods of packing. The demands of the market on which the butter is sold should bo carefully studied, and the package made of a size and form that will meet those demands. Butter in Tubs. If the butter is to be put up in tubs, the packing should be so done that the butter will be solid throughout its entire 248 DOMESTIC ANIMALS, DAIRYING, ETC. mass. Too frequently the butter is thrown in without sufficient pack- ing, and large holes will appear in the body of the butter. While these may not affect the quality they affect the appearance. If a parchment paper lining is used in the tub it should be put in smooth and the top should be turned neatly over the edge of the butter. Coverings that are put on the top, whether circles of parchment or cloth made for the purpose, should exactly fit the top of the package. Care should be taken that the tub does not show finger marks or other dirty spots. Butter in Small Packages. It is becoming more common for the markets to demand that butter be packed in small packages, as pound prints or squares. Butter put up in this form should be neatly wrapped in parchment paper. It is an excellent idea for the dairy- man to have his name or label printed on the parchment. This helps to establish the identity of the goods, which, if properly made, should aid the dairyman in finding a permanent market for them. Wooden packages of almost any size can be secured for packing the prints. These should be used, particularly if it is necessary to ship the butter to market. For local distribution, light crates or boxes which will fit the prints and prevent them from getting out of shape in hauling should be used. Refrigerator Boxes. In the summer months it is a hard matter to transport butter from the dairy to the market, and keep the prints in shape, unless the dairyman has ice for this purpose. Light refrig- erator boxes are manufactured which can be used to great advantage, as their use will keep the butter hard and firm, and enable the maker to deliver it in that condition to his customers in the hottest weather. No one likes to buy a parcel of butter that is so soft that it can hardly be handled, and the good dairyman will not attempt to place butter on the market in that condition. Marketing the Butter. The markets which are accessible to the farm butter maker are of course dependent largely on local condi- tions. Almost any fair-sized town will furnish a local market for a quantity of first-class butter. Selling Direct to Consumers. Usually in these places a pre- mium above the average market price can be secured by selling the butter to private customers who have regard for quality in products of this nature. This method of marketing of course involves more labor, but if the time can be spared for delivery it will give greater returns than any other method. It also enables the maker to estab- lish a reputation for his goods such as he can not secure if he is com- pelled to place his butter with the general mass of butter that comes to the stores. If the dairyman attempts to build up a market of this kind he must be sure that he can always supply regularly those with whom he is dealing. If he can not do this misunderstandings and disappointment are liable to occur. If the maker is compelled to take his butter to stores, he usually has to take the average price given for butter regardless of quality. A. few storekeepers will recognize certain lines of butter as being superior to others and will pay more for them, but usually not as MILK CANS EXPOSED TO DIRT AND FLIES. DEPT. OF AGR. A MILK HOUSE FAVORABLE FOR DIRT AND ODORS. DEPT. OF AGR. 1909. MILK 251 much as can bo obtained by private marketing. In most localities, particularly during the summer months, the markets are flooded with farm butter and the prices are very unsatisfactory. The maker who is depending on the stores for the sale of his butter usually has to accept the current price, while if he has worked up a private trade the chances are that he has a market that will give a uniform price throughout the year, which is a great advantage. There is little op- portunity for the farm butter maker to ship his butter to distant markets, unless he is acquainted with the dealers or brokers who are to handle his product. Patronizing Creameries vs. Making Butter. Should the dairy- man be compelled to take the average store price for his butter, he can generally do better by selling his milk or cream to a creamery, if there be one in easy reach, as the price for farm dairy butter is usually lower than the quotations for butter fat. In sections where creameries abound it is a question whether or not the dairyman can afford to make his ow r n butter and spend the time looking for a good market in which to sell it. By the time he has added to the cost of his butter fat the work and worry connected with the making of the butter, which is too frequently done by the housewife, the amount actually saved is very small, and even though it is gain in dollars and cents it may not be worth the time and labor expended. Only on dairy farms where there is ample help to do the work can there be profit in making the butter at home. Storing or Holding for Market. The amount of butter that the farm dairyman can store or hold for any length of time for market is necessarily limited. The old methods of packing butter down in brine or salt, such as were followed by our grandparents, has prac- tically no place in modern methods of dairying. Cold storage such as the dairyman would probably have is not suitable for keeping but- ter any length of time, because such storage is not cold enough to answer the purpose. Modern storehouses for butter have tempera- tures from 5 to 10 below zero. It is now considered that anything above that temperature is not cold enough to properly preserve the butter and check the development of bad flavors. These tempera- tures, of course, are out of the reach of the dairyman. If ice is at hand and a good refrigerator or cooling room is available the butter may be stored for a short, period with more or less success. The tem- perature of a good ice-storage room would probably not be below 40 or 45 F. unless special and expensive construction is made. It is sometimes necessary for a dairyman to keep the butter until a suffi- cient quantity has accumulated for profitable shipment. When this is done the butter should be packed in the ordinary way and kept as cold as possible until delivered to the market. Rooms that are used for purposes of storing butter should be dry and free from mold. Too frequently ice-storage rooms are just the reverse; they are excessively moist, which condition is favorable to the production of mold. Butter placed in a room of this character becomes quite moldy after a few days, which of course destroys its 252 DOMESTIC ANIMALS, DAIRYING, ETC. highest value as a product on the market. It is possible to construct rooms so that the circulation of air in them will be dry. The interior of rooms of this character should be either white- washed or painted with a good paint and shellac. From the sanitary standpoint the whitewash is better, as it has a tendency to destroy mold growths and keep the air pure and sweet. A room of this kind used for butter should not be used for other products of any kind, unless it be milk or cream. It is usually not a profitable undertaking for a dairyman to hold his butter in anticipation of higher prices. The butter is never so good as when it is fresh, and in that condition will give the best satisfaction to the consumer and in the long run will make more money for the dairyman. If any attempt is made to furnish a customer with butter that is "off" in flavor it always results disastrously to the dairyman. He can not afford to do anything that will tend to discredit his work or make the customer feel that he could do better elsewhere. (Dep. Agr. F. B. 241.) Renovated or Process Butter. Oleomargarine is no longer a novelty to Americans; its composition and method of manufacture have become matters of common knowledge. Renovated or process butter, on the other hand, having been introduced more recently, and being retailed usually without other designation than the general one of butter, is as yet not so well known to the general public. All grades of it good, indifferent, and bad are met with in our mar- kets. The better grades of it are made from miscellaneous assort- ments of country butter, mainly farmers' rolls, produced by individ- ual farmers remote from creameries and sold or exchanged at the country stores, this material being treated or processed, as the term is, while still fresh or relatively so. The poorer grades result from the treatment of inferior raw material ; for example, the aforesaid coun- try butter, or any other kind of butter, which, by too long keeping, by abuse in regard to temperature, or by unfavorable surroundings, has suffered great deterioration. Experience has shown that only a poor article of renovated butter can be produced from rancid stock. How Renovated or Process Butter Is Made. The process may be briefly outlined as follows : Melting of the butter and settling of the curd and brine, skimming off of froth and scum, drawing off and discarding of the curd and brine, blowing of air through the molten fat to remove faulty odors, mixing of milk very thoroughly with the molten fat, rapid cooling and granulating of this mixture by running it into ice-cold water, draining and ripening of the granulated mass for a number of hours, salting and working out of the excess of milk, packing or making into prints. By this process, when used upon comparatively fresh raw mate- rial, butters of low grade are materially improved, the farmer's reve- nue is increased, values are enhanced in short, a good thing is done. Harm begins only when the renovated is sold for the genuine (that is, the original) article, for they are not the same thing. While the fats in the two are practically the same chemically, the nitrogenous portions are not. Moreover, since the article known now and for ages past as butter is an article the last step in whose manufacture is the MILK 253 churning of cream, it is evident that the product of an elaborate sub- sequent process, a process entirely foreign to the manufacture of butter, should be designated by a distinctive name. How to Distinguish Genuine Butter from Renovated, and Both from Oleomargarine. Several of the States have already enacted laws requiring the distinctive branding or labeling of the new product when offered for sale, and as a consequence chemists have, during the last year or two, devoted considerable study to methods for distin- guishing between the genuine and the renovated article. One of the results of such study is the method of Hess and Doolittle, which is based upon the difference in the relative proportions of albumin and so-called casein, as well as the different properties of the latter, exist- ing in the two products. But as this is distinctly a laboratory method, quite inapplicable in the household, it will not be dwelt upon here. Another useful method, of the nature of a preliminary test, is that of microscopic examination by polarized light, with and with- out the selenite plate ; but for the reason just stated, this, too, will be passed with a bare mention. So also with .various chemical tests and the regular chemical analysis of the fats. Household Tests. Another important means employed in dis- tinguishing between genuine and renovated butter is the boiling test. This test was first mentioned in scientific literature by Dr. Henry Leffmann, who states that it was shown to him by a Mr. Morris, a detective in oleomargarine prosecutions. It has been in use about ten years, and was originally used only for the detection of oleomar- garine ; but after the advent of renovated butter the test was found to serve almost equally well in distinguishing this product from gen- uine butter. Therefore, this test distinguishes between genuine but- ter on the one hand and oleomargarine and renovated butter on the other; and, fortunately, it is so simple of execution that it can be em- ployed in any kitchen almost as well as in the laboratory, and re- quires no special skill on the part of the operator. It consists merely in boiling briskly a small portion of the sample and observing its behavior the while. In the kitchen the test may be conducted as follows: Using as the source of heat an ordinary kerosene lamp, turned low and with chimney off, melt the sample to be tested (a piece the size of a small chestnut) in an ordinary tablespoon, hastening the process by stirring with a splinter of wood (for example, a match). Then, in- creasing the heat, bring to as brisk a boil as possible, and after the boiling has begun, stir the contents of the spoon thoroughly, not neg- lecting the outer edges, two or three times at intervals during the boiling always shortly before the boiling ceases. In the laboratory a test tube, a spoon, or sometimes a small tin dish, is used in making this test. From the last-named utensils the test is often called the "spoon test," and sometimes the "pan test." A gas flame, if available, can be used perhaps more conveniently than a kerosene lamp. Oleomargarine and renovated butter boil noisily, sputtering (more or less) like a mixture of ^grease and water when boiled, and produce no foam, or but very little. Renovated 254 DOMESTIC ANIMALS, DAIRYING, ETC. butter produces usually a very small amount. Genuine butter boils usually with less noise, and produces an abundance of foam. The difference in regard to foam is very marked, as a rule. Rarely, a butter is found which yields an uncertain result ; such a butter should receive the benefit of the doubt. (Dep. Agr. P. B. 131.) FOOD PRESERVATIVES AND BUTTER INCREASERS. The subject of the preservation of articles of food against decay is one of no little importance. Decay or fermentations is known to be due to the action of living germs or ferments. If in any way these germs can be destroyed or their development prevented, without any change in the food product itself, it seems possible that food might be preserved almost indefinitely. Two conditions that are absolutely necessary for the growth and multiplication of these germs are a moderate temperature and moisture. The methods most gen- erally used for the preservation of food aim to destroy these germs by depriving them either temporarily or permanently of one or the other of these conditions. These methods may be grouped as follows ; 1st. Those depending upon the use of heat for the destruction of the germs and subsequent sealing to exclude other germs. This principle is illustrated in the process of canning fruits and vegetables. 2d. Those depending upon the use of cold to prevent the mul- tiplication of the germs for lack of sufficient heat. An example of this is found in our extensive systems of cold storage. 3d. Those in which the food product is dried in order that the germs present may not multiply for lack of sufficient moisture. The production of evaporated fruits illustrates this principle. Where it is impossible to employ any of the above methods, or where their use might injure or destroy some desirable quality of the food, resource is often had to the direct addition to the food of some substance that is detrimental to germ life. The familiar process of preserving meats, especially pork, by salting, illustrates the class. There seems to be little or no objection to the use of foods preserved by any of the first three general methods, nor to this last provided that the substance added has itself no bad physiological effect. Be- sides common salt the following substances are often used: Borax, boric acid, salicylic acid, benzoic acid, sulphate of soda, saltpeter and formalin. There is no doubt that they possess the power of arresting the action of germs, but there is some question about the advisability of the continued use of foods containing them. Inasmuch as there is some prejudice on the part of dealers and consumers against their use, frequent attempts are made to introduce preparations of these substances under new forms and names. Some butter increasers contain acids which curdle the casein. This is shown in the souring of milk itself when lactic acid is formed from the milk sugar; or by adding vinegar or other acids to milk. Hence it is plain what the effects of an acid Increaser would be. The acetic acid would curdle the casein which would become mixed with the fat, and yield a product that would be neither good butter nor poor cheese. This incorporated casein furnishes a medium for the growth and multiplication of millions of organisms. It is to re- MILK 255 move this casein and so get rid of these germs that butter is so care- fully washed. While the food preservatives may have some valuable uses, as keeping milk samples for composite tests, there is absolutely no excuse for Butter Increasers in an honest community. They are fraudulent in that they pretend to teach the producer how he can get more butter from cream than there is in it. They promote dis- honesty by throwing in the way of an unscrupulous producer a means of defrauding his customers; and worse than all, the use of these Increasers is an attempt to put on the market a product which not only cheats the producer but may possibly endanger the health of the consumer. (N. Y. Cornell B. 118.) CHEESE MAKING ON THE FARM. How to Make Farm Dairy Cheese. The ordinary process by which our American cheese is made in factories is not applicable to the farm dairy, because it takes too much time, and is so complicated that it requires years of practice to become sufficiently familiar with the varying conditions in which milk comes to the vat. The various changes that take place in milk and which are troublesome in mak- ing cheese nearly all develop in the night's milk kept over until the following morning. So if milk is made into cheese immediately after it is drawn, no difficulty need be experienced. By employing a simple and short method of manufacture, anyone at all accustomed to handling milk can, with the appliances found in any well-regu- lated farm home, make uniformly a good cheese. Details of Manufacture. The best time to make farm dairy cheese is immediately after milking. First pour the milk from one vessel to another in some locality where the air is pure and fresh, raising the vessel well so that the air can pass through the milk as it is poured out and carry off the animal heat and odor. Then pour the milk into the vat, or, if no regular vat is at hand, use a large wash boiler. Coloring. If it is desired to have more than the natural color, so that the cheese will look rich, add about a teaspoonful of cheese color to 16 gallons of milk. To do this properly take a large dipper half full of milk, mix in the color thoroughly, and stir the whole into the vat of milk. Rennet. Now add rennet extract at the rate of 1 ounce to 100 pounds, or 12 gallons, of milk. Mix the extract with half a dipper of cold water and then pour into the milk. Rennet tablets may be used instead of the extract, one small tablet for every 5 gallons of milk, or one large tablet for 25 gallons. Small tablets are about the size of a dime ; large tablets are about as large as a silver quarter of a dol- lar. Dissolve the tablets required in a small quantity of cold water, then pour into the milk. The rennet extract or the tablets may be procured from any dairy supply house and at many drug stores. Temperature. Great care should be taken not to have the milk at a temperature below 86F. nor above 90 when the rennet i>o put in. 256 DOMESTIC ANIMALS, DAIRYING, ETC. Curdling. After the rennet is put into the milk, stir gently two or three minutes, then let stand until the curd is firm enough to cut. The milk should begin to curdle in from ten to twelve minutes. To ascertain when the curd is ready for cutting, push the forefinger into the milk at an angle of 45 until the thumb touches the milk ; make a slight notch in the curd with the thumb, then gently raise the finger; if the curd breaks clean across the finger without any flakes remaining on it, the curd is ready for cutting. A little practice will soon enable the operator to tell the best time to cut. Cutting. : For cutting, regular cheese knives are best, one with horizontal blades and one with perpendicular blades. In case it is intended to make only a few cheeses, a wire toaster may be used, the wires only about a half an inch apart. First cut lengthwise, then crosswise of the vat or boiler, until the curd is cut into tubes about the size of small kernels of corn. Cooking. After cutting, stir the curd gently for about three minutes, then heat slowly to 98 or 100 F., constantly stirring gent- ly while the curd is being heated. Keep the curd at this tempera- ture for about forty minutes. To tell when the curd is sufficiently cooked, take a handful and press it gently, hold for a moment, then open the hand, and if the curd falls apart it is firm enough. As soon as the curd is sufficiently cooked, draw off the whey. Then the curd is ready to put into the cheese mold, or hoop. Molding. Fill the mold by taking a double handful of curd at a time and pressing in gently until the mold is full and well rounded up. Regular Gouda molds are best, but any tin or wooden receptacle will answer if small holes are made in it to allow the whey to escape. The cheese should be from 8 to 10 inches in diameter and about 3 inches thick. Then take the cheese out of the mold and turn it up- side down and replace it. Put on the cover and put the cheese to press. Pressing. The press may be a simple lever and weight de- scribed as follows : The lever should be about 12 feet long ; a broken wagon tongue answers the purpose very well. Set a strong box, on which the mold may be placed, about 3 feet from a wall, post, or tree ; on the latter nail a slat and under it put one end of the lever. Put a circular board about 6 inches in diameter upon the mold and on this rest the stick or lever. A pail containing a few cobblestones will answer for the weight. Do not apply full pressure at first, but let the weight hang about halfway between the mold and the outer end of the stick. Let the cheese remain a few hours in the press ; then take out and dress. Dressing. To dress a cheese, first put it in warm water for a few moments and then wipe dry and rub smooth. Take a piece of linen cloth about 6 inches wide and long enough to go around the cheese and lap over a few inches. Wrap the oloth smoothly around the cheese, folding the edges down carefully over the sides ; then put a circular cap of cloth of suitable size on each side. Replace the cheese in the mold, with the bandage or dress all smooth, and put it under the press, moving the pail to the end of the stick. Leave the MILK 257 cheese in the press for about twenty hours; then take it out and salt it. Salting. The cheese may be either dry salted or brine salted. Brine salting is the better way. Make a solution of salt and water as strong as it can possibly be made; put the cheese into this brine and sprinkle some salt on the surface which is exposed as it floats. Leave the cheese in brine for two and a half days, turning it over every twelve hours. For dry salting rub salt onto the cheese, and all over it, twice a day for three or four days. Curing. Next, put the cheese on a shelf in the cellar for cur- ing. It must be turned and rubbed with the palm of the hand every day for a week or two; after that twice a week will suffice. While curing, cheese should occasionally be wiped with a cloth dampened in warm water, and if it gets a rough rind smooth it by using a brush and warm water. The temperature best adapted for curing is from 55 to 65 F., and the air should be as moist as possible. A cellar with a suitable and even temperature and not too dry is therefore a good place for curing. The cheese will be ready for use in from two to four months. The lighter the cheese is salted the sooner it will be ready for use, and the more the curd is cooked the slower it will be in ripening and the longer it will keep. Cheese made as here described is more like the Dutch Gouda than any other of the standard vari- eties. (From a circular issued from the Minnesota Dairy School; Agr. Dep. F. B. 166.) Notes for Home Cheese Making. A good vat one that can be kept clean and sweet and large enough to hold whatever milk is to be used at one time. A press ; for the product from five to eight cows, a simple lever with weights. Accompanying the press must be hoops ; a good size is 10 inches in diameter and 8 inches deep, made of heavy tin, edges strong and no top or bottom. A drainer or vessel with per- forated bottom, in which the curd is drained; a large basket will do, lined with strainer cloth. A dozen cloths a yard square. A ther- mometer. A curd knife or knives. These come in pairs, one to cut horizontally and one vertically; but a long, slim knife will dp, or a strong piece of galvanized wire netting, or even a strong strip of tin. A suitable room for curing, with a few smooth, wide shelves on which to cure the cheese. Rennet. Use about one tablespoonful of rennet extract for 3 gallons of milk. If the curd is over one-half hour in coming, in- crease the quantity of rennet ; if less, decrease it. Rennet tablets may be used. Preparation of the Curd. Warm the milk to 85 F., add the rennet and mix thoroughly, then cover and let stand at this tempera- ture for about one-half hour, or until the curd will break, leaving the whey clear. Then cut each way, leaving it in columns about 1 inch square. Now let it stand until the whey rises an inch on top of the curd, then warm the whole gradually, taking two or three hours to reach 98F., lifting and stirring and breaking it gently with the hand all the time until the pieces are about the size of grains of corn. Be very careful not to crush the curd, as that will cause the 258 DOMESTIC ANIMALS, DAIRYING, ETC. cream or fat to escape with the whey. Then let stand at this tem- perature, stirring it occasionally to keep from packing, until the curd is so firm that when squeezed gently in the hand and the hand opened, it will separate into particles again. The whey should have a slightly acid taste. Then dip the curd into a basket lined with cloth, to cool and drain. Salt. Salt the curd after it is drained, using 4 ounces of salt to 10 pounds of curd, mixed in carefully but thoroughly; or salt by brine bath or rubbing, after pressing. Pressure. The pressure must be gentle at first or the milk fat will run out, thus leaving a poor cheese. Increase the pressure grad- ually, and in a few hours take the cheese out, turn it, rearrange the bandage, and press as before. Curing. This is a very important part of cheese making. The room for curing (and it may be in a basement or cellar if the condi- tions are right) should be, first of all, capable of being kept at an even and medium temperature. From 50 to 60 F. is now regarded as the best for domestic purposes, although the time in curing may be somewhat lengthened thereby. The cooler the room, the slower the curing. If the room at any time gets much warmer than 65, even for a short period, the cheese is likely to be permanently in- jured. The room should be fairly dry, but not too dry, and, while being well ventilated, should be free from currents of air. If too dry or subjected to dry currents, the cheese will lose weight and be apt to crack. Great care must be taken to keep out all flies. The bandage should be greased and rubbed and the cheese turned over on the shelf every day or two for a month ; later this need be done only once or twice a week. If the cheese should crack, paste strips of cheesecloth or stout paper over the openings. (Agr. Dep. F. B. 166.) Pot Cheese. A toothsome and nutritious article of food is made from sour skimmed milk or buttermilk by allowing the casein to coagulate by the action of acid already naturally formed, and then expelling the water by the aid of heat. A considerable number of products, locally distinct and different in the degree of dryness of the curd, are made in this way. The general process of manufacture is to take sour buttermilk, or skimmed milk which has coagulated, heat it gently from 85 to 125F., according to circumstances, and drain off the whey through a cloth strainer. Then reduce the tex- ture of the resulting curd by kneading with the hands or a pestle ; salt is added, and the product is improved by the addition of a small quantity of cream or butter. Some persons consider it an improve- ment to season by the use of one of the more common spices, as nut- meg, caraway, etc. It is largely made only for domestic consump- tion, but in most cities and villages, especially during the summer months, there is a considerable demand for fresh cheese of this sort, and its manufacture is often a source of revenue to factories suitably located. It is usually sold and eaten in a fresh state, but it may be subjected to certain curing processes, which quite materially change its character and which vary widely in different localities. This MILK 259 simple kind of cheese is also called Dutch cheese, cottage cheese, and schmierkase. Neufchatel Cheese. This cheese was originally a French make of soft molded cheese. In this country the process of manufacture has been considerably changed, so that the cheese as now manufac- tured represents a somewhat different type, that is ready for use as soon as made. Fresh milk is set at 85Fahr., with sufficient rennet to cause a thorough coagulation in 24 to 36 hours. The curd is then placed in cheese-cloth bags and allowed to drain for some 12 to 24 hours. The draining is assisted by the application of light pressure. When the curd is dry enough it is pressed into cylindrical shapes I%x3 inches, and salted from the outside. It is then allowed to drain for several hours, and is placed in a ripening room where in a few weeks it becomes covered with white and blue mold. The cheese is then placed in a cellar for further ripening, and when red spots appear on the outside it is wrapped in paper and tinfoil and marketed. American Method of Manufacture. Fresh sweet milk is heated to 1'65 Fahr. for 10 minutes and then cooled immediately to 72 Fahr. Until very recently, the milk used was not pasteurized, but the great difficulty in securing reliable milk, together with the ad- vantages of pasteurization and the use of a commercial starter, have made the heating method very popular. In large factories the cheese is made in large vats, but on the farm it can be made in smaller quantities in shotgun-cans holding about 30 pounds of milk. After the milk is cooled to 72 Fahr., a small amount of commercial starter is added and enough rennet to insure a thorough coagulation in 18 hours. Usually about 1 c.c. of commercial starter and a /2 c.c. of rennet extract is sufficient to 30 pounds of milk if the temperature is maintained at 72 Fahr. As soon as the milk is firmly coagulated it is placed on a cotton covered strainer-rack or in cotton bags to drain. The acidity of the exuding whey at this time should not be over .3% or the flavor of the cheese will be too acid. The draining process requires several hours and should be kept up until all free whey has escaped. Light pressure such as can be obtained in a small cheesepress aids materially in ex- pelling the whey. During the draining process the curd on the outer surface of the strainer should be stirred occasionally to insure even drying. As soon as the curd is sufficiently dry, salt is added at the rate of 2% ounces to 10 pounds of curd. At this time the acidity of the whey should be not over .5%. The cheese should then be pressed for a short time to expel excess whey. It is then kneaded by hand and finally pressed into small cylindrical shapes I%x2% inches, weighing one-fourth pound each. These are wrapped in parchment paper and tinfoil, and are then ready for market. Qualities of Neufchatel Cheese. Neufchatel cheese should have a distinct, mild, clean flavor resembling will-ripened cream. The texture should be fairly dry, yet smooth and entirely free from lumps. There should be no leaking whey, and each cheese should be neatly wrapped. The cheese will usually keep in good condition for 260 DOMESTIC ANIMALS, DAIRYING, ETC. two weeks if kept in a cold place. From 100 pounds of milk about 22 pounds of Neufchatel cheese can be made, which sells for 20 to 40 cents per pound, depending on its quality and the manner of marketing. Precautions to Observe in Making Neufchatel Cheese. The making of Neufchatel cheese is easy and very profitable, but in order to secure a uniformly good product each day strict attention must be given to the control of temperature, acidity and moisture. High temperature, too much rennet, too much acid, too rapid drying and uneven drying all cause lumpy texture. It is very important that the curd be properly coagulated before being placed in the draining process. If it is too soft or breaks up too much in being transferred from the can to the strainer, uneven drying usually results. (N. Y. Cornell B. 270.) Club Cheese. This is one of the most common varieties of fancy cheese, being manufactured most extensively in Canada, New York and Michigan. For those persons who desire a pronounced flavor and taste, together with a smooth soft texture in cheese, the club variety answers the purpose better than any other. One im- portant quality in club cheese is that it can be spread easily on bis- cuits or bread, and for this reason it is used on almost every occasion when cheese is served. Method of Manufacture. The method of making club cheese is very simple and yet it requires considerable skill to manufacture a uniformly good product from day to day. The most important factor is the use of suitable raw material, viz., cheddar cheese and butter of good quality. The amount of each of these constituents to be used is determined by the quality of the cheese used and the keep- ing quality desired in the club cheese. The method consists in simply grinding up some well-ripened cheddar cheese of good flavor in a meat mincing machine and adding a certain amount of good butter to increase the softness and richness of the cheese. If a fairly strong flavored cheese is desired, cheese six months to one year old should be used, while if a milder taste is pre- ferred, cheese about three months old is better. If the cheese to be ground up is dry in texture, it will require more butter to make it smooth than would be required by a softer cheese containing more moisture. Generally speaking, for home use and for reasonably quick consumption 1 pound butter to 8 pounds cheese make very desirable proportions. The mixture of cheese and butter is usually run through the mincing machine a second time and then kneaded by hand to remove all possibility of lumpiness. In large factories a machine is used for this purpose. Occasionally a small amount of mustard or brandy is added to suit the taste of consumers. How Club Cheese is Marketed. Club cheese is usually packed in glass or wrapped in tinfoil. When jars are used they should be of a size that can oe conveniently used on the dinner-table, or for picnics, lunches, etc. In packing, the jars are first smeared on the inside with melted butter to prevent air-spaces between the cheese and the glass where MILK 261 mold might grow. The jars are filled to within one-quarter inch of the top, covered with plain tinfoil, and then with a tightly fitting cover. When desired in smaller quantities, the cheese can be more profitably put up in small packages, wrapped first in oiled paper and then in tinfoil. Club cheese usually retails for about 40 cents per pound. When stored in a cool place it will keep for some time. (N. Y. Cornell B. 270.) PUBLICATIONS QUOTED FROM AND CONSULTED. The Babcock Test. Univ. Wis. A. E. S. Cir. of InformatiDn No. 27; Pa. B. 12; Mo. Cir. 41; N. H. B. 114; N. Y., Geneva, B. 178; Minn. B. 19; Pa. B. 33; Ag. Dept., Bu. An. Ind. B. 58. Bacteria in Milk. Cornell Univ. A. E. S. B. 303 ; la. B. 59 ; U. S. Ag. Dept. A. E. B. 25; 111. B. 91; la. B. 59; Del. B. 43; N. J. B. 152; N. Y., Cornell, B. 203; Conn. B. 37, 42; N. Y., Cornell, B. 197; Mass. B. 110; Manitoba Ag. Col. B. 3; Conn. B. 26; Mich. B. 33, 42, 23, 29; Conn. B. 51; Dept. Ag. F. B. 161; Del. B. 71; Conn. B. 25; N. Y., Cornell, B. 195; Conn. B. 59; Wash. B. 12; Va. B. 194; Md. B. 102; Va. B. Ill; Dept. Ag. Bu. An. Ind. B. 92; N. Y., Cornell, B. 178; N. Dak. B. 21; Nebr. B. 87; Dept. Ag. Bu. An. Ind. Cir. 171, B. 126, B. 117. Butter and Butter-Making. Colo. A. E. S. B. 163; Wis. B. 132; Nev. B. 42; Md. B. 135; Kans. B. 138; N. H. B. 141; Utah B. 73; Hawaii Press B. 31; N. Y., Geneva, B. 263; 111. Cir. 131; Ark. Cir. 6; 111. B. 139; N. Y., Cornell, B. 281; Conn. B. 65; Ag. Dept. Bu. An. Ind. B. 114, Cir. 56, 161; Wis. B. 152, 154, Cir. 14; Mich. Tech. B. 1, 2; S. C. B. 125; la. B. 76, 97, 80, 71. Butter Cultures and Starters. Mich. A. E. S. B. 246; Pa. B. 44; Mich. Cir. 7; N. Y., Cornell, Cir. 10; Wis. Cir. 2; Ore. B. 83; Ark. Cir. 6. Camembert Cheese. Conn. A. E. S. B. 46, 58; Dept. Ag. Bu. An. Ind. B. 98, 115, 71, 82. Cheddar Cheese. N. Y., Cornell Univ., A. E. S. B. 257, Cir. 3 ; Dept, Ag. F. B. 166, 257, 122 ; Nev. B. 18 ; Ont. Ag. Col. 20th An. Kept.; Ont. Dept. Ag. B. 183; Dept. Ag. Bu. An. Ind. B. 15; N. Y., Geneva, B. 219. Fancy Cheeses. N. Y., Cornell Univ., A. E. S. B. 270; Ag. Dept. Bu. An. Ind. B. 146. Feeding the Dairy Cow. U. S. Dept. Ag. F. B. 55 ; Minn. B. 71, 79, 67; R. I. B. 80; N. H. B. 18, 20, 120; N. Y. .State B. 120; Dept, Ag. Bu. An. Ind. Cir. 114, 170; Del. An. Kept. 1902; 111. Cir. 151; Mont. Cir. 10; Va. B. 170; N. Y., Cornell, B. 222, 169, 173; N. Y., Cornell, B. 213, 152; Wis. B. 130, 142; Miss. B. 141; Pa. B. 70; Colo. B. 125; Ky. B. 141; N. H. B. 147, 149, 133; Wash. B. 48; Minn. B. 36, 27; Pa. B. 50; la. B. 86; Wis. B. 103; Ind. Cir. 20; N. H. B. 4; Ind. Cir. 26; Calif. B. 132; N. Y. State B. 197; Mass. B. 53, 45; Ind. Cir. 26; Mass. B. 94; S. C. B. 131; Mich. B. 193; N. J. B. 189, 156, 204; La. B. 110; Mass. B. 118; N. Y., Cornell, B. 183; N. M. B. 17; Nev. B. 64, 26; Ag. Dept. Bu. An. Ind. B. 74; 111. B. 43; Minn. B. 26; Kans. B. 103; Conn. B. 43; Pa. B. 80; Tenn. B. 83; Va. B. 169; Mo. B. 56, 58; W. Va. B. 106; 262 DOMESTIC ANIMALS, DAIRYING, ETC. Va. B. 156; Mass. B. 39; N. Y. State B. 197; Pa. B. 52; N. Y., Cornell. B. 243, 242; Pa. B. 28; Nebr. B.-76; Mass. B. 38; Conn. B. 63; Va. B. 148; Tex. B. 47; Minn. B. 80; Fla. B. 92; S. C. B. 123; 111. B. 101 ; Mich. B. 240 ; N. H. B. 8, 14 ; Mo. B. 8 ; Ore. B. 85 ; Tenn. B. 80; Cornell Reading Course No. 8; Kans. Cir. 18; Kans. B. 125; Colo. B. 87-90; N. J. B. 174; Tenn. Vol. 5, No. 3; 111. Cir. 152; Minn. B. 26; Conn. B. 34; S. C. B. 66; N. H. B. 2; S. C. B. 117; Kans. B. 125; Conn. B. 29; N. H. B. 20, 120, 1'6; Tenn. Vol. 17, No. 4; Utah B. 68; N. H. B. 17; S. C. B. 67; N. H. B. 127, 4, 16; Mo. B. 5; 111. Cir. 103; 111. B. 146; Mich. B. 242, 234; Ohio B. 155; Ala. B. 114, 123; Minn. B. 106; R. I. B. 77; Mo. Cir. 44. Composition of Milk.U. S. Dept. Agr. F. B. 363 ; N. H. B. 103; Mo. B. 37; N. H. B. 126; 111. B. 74; U. S. Dept, Agr. Bu. An. Ind. B. Ill, 134; N. H. B. 103, 132; S. Dak. B. 73; Wis. B. 156, 195. Cow Testing. Wis. A. E. S. B. 144, 131, 172; 111. Cir. 118, 76, 113, 134; Nebr. B. 101; Ohio Cir. 67; 111. Cir. 76; Wis. Cir. 9. Dairy Management. Wis. A. E. S. B. 167; Minn. B. 124; 111. Cir. 103, 93; 111. Cir. 134. Milking Machines. Wis. A. E. S. B. 167; Tenn. B. 80; Wis. B. 173; Wis. Cir. 111. Moisture in Cheese and Cheese Curing. N. Y., Geneva, A. E. S. B. 207, 203; Mich. Special B. 21; N. Y., Geneva, B. 236, 237, 203, 183, 184, 214, 234, 233; la. B. 57; Wis. B. 101; Ag. Dept. Bu. An. Ind. B. 122, 85; Wis. Cir. 20; Ag. Dept, Bu. An. Ind. B. 62 123 Milk Testing. Univ. Wis. A. E. S. Cir. of Inf. 27 ; Mo. Cir. 41; N. H. B. 114; N. Y., Geneva, B. 178; Minn. B. 19; Idaho B. 63 ; Pa. B. 33 ; Ag. Dept. Bu. An. Ind. B. 58 ; Pa. B. 12. Production of Milk.Va.. A. E. S. B. 185; Ind. B. 89; 111. B. 147, 120, 92; Ag. Dept. Bu. An. Ind. Cir. 170. Separators. Purdue Univ. A. E. S. B. 116; U. S. Ag. Dept. F. B. 201; Conn. B. 40; Mo. B. 94; Kans. B. 137; Oreg. B.^89; Pa. B. 27; Del. B. 17; Conn. An. Rept. 1893; Ind. B. 44; Pa. B. 38; Va. B. 186; N. Y., Cornell, B. 171, 151. BREEDS OF BEEF CATTLE. SHORTHORNS. THIS is one of the heaviest of the beef breeds. Mature bulls in show shape often attain a weight of 2,700 pounds and cows 2,000 pounds. However, these extreme weights, without the highest quality are objectionable. The color is more variable than that of any other breed; it may be red or white, or a mixture of these colors, the colors popularly used to describe the breed thus being red, white, and roan. Roan is, indeed, the one distinctive Shorthorn color never produced except by the presence of the blood of this breed. A typical Shorthorn head will afford a man weeks of study in bovine character. The indications of a good feeder are also present. In passing, note the short horn, curving gracefully forward and occasionally drooping, waxy and white in color with black tips. The neck shows strength and sexual power, and is joined to a rather upright shoulder by a smooth and full shoulder vein. Passing to the body, note the heavy flesh and the spread of back and loin. In the hind quarters especially Shorthorn characteristics are present. In- deed, the breed has the reputation of carrying the best hind quarter of any. Legs are of moderate length, with a bone of medium fine- ness and plenty of strength. Three groups of Shorthorn cattle have been evolved during the last century. During the first fifty years, the Booth and Bates fam- ilies were developed and the opposition between them was as great as between different breeds. The Booth cattle were famous for their fleshing qualities. Bates cattle were famous for both milk and beef production. They grazed well and possessed high quality and much style. Later the development of the Scotch sorts, under the guidance of the Cruickshanks, brought forth animals of a blocky, short-legged type, with much scale and substance, excellent fattening powers, good constitution, quality, and early maturity. The tendency dur- ing the past thirty years has been to combine the blood of the old strains. As a breed, its popularity and wide dissemination have given rise to variation in types that has resulted in many a show-ring dis- pute; but we have, to offset this, the wonderful adaptability of the breed, its seeming universal usefulness, and its value in crossing with almost every other. Shorthorn blood was the first to be used on the native cattle of the Plains, and exercises a very great influence on the range cattle of the present time. An estimate of 150,000 as the number of living registered Shorthorns in the United States is approximately correct. Of these, it is stated that 5% are on the range and 95% in the hands of the 263 264 DOMESTIC ANIMALS, DAIRYING, ETC. small farmer, the strong feature of the breed being its adaptability to the requirements of diversified farming. HEREFORDS. In weight, Herefords are about equal with the Shorthorns. The extreme weights to which Shorthorn bulls frequently attain are rare, but, generally speaking, there is practically no difference between the two breeds. Hereford color is easily recognized. That most favored is a rich medium red with white markings. Note the extent of white; head and face, top of neck, dewlap, brisket, belly, front feet, hind legs below hocks, and brush of tail are usually white. This arrangement is not absolute. A streak may be present on the middle of the back, and the white may extend over a very much larger area, even to the extent of making a spotted effect. Ears are usually red or spotted, rarely solid color; red spots often are present on the head, especially around the eyes. The red may vary from a light yellow red to dark, almost black in some animals. Time was when the face was gray, or mottled, in some animals and spotted in others. Even an occasional white animal was met with. The advent of a spotted calf in a herd is therefore no indication of impurity. In the Hereford the width and lowness of the form is extreme. Close to the ground, broad, blocky, deep, nicely rounded, and stylish, the Hereford is typical. The head is a splendid feeder's pattern broad, short, and full of character, with a capacious mouth and large nostrils, showing good digestion and strong constitution. The muzzle is light in color, without spots. The horn is white, somewhat coarser and considerably longer than that of the Shorthorn, has longer curves, sometimes being nearly straight, and usually has a drooping tendency, especially in the best-bred cattle. In cows and steers it is often elevated, but this is rare in bulls. The head is set closely to the body a noteworthy point of econ- omy. The neck is cheap meat; therefore, eliminate the neck if you can. The development of the fore quarters, "or fore hand," the width of chest and heart girth have been objects of special care by Hereford breeders. Accompanying these will be the strong constitution that has given the Hereford his hold on the range. Back, loin, and ribs carry a tremendous amount of flesh of fine quality. The Hereford hind quarter has been somewhat differently developed from that of the Shorthorn and has been remarkably improved during the last twenty-five years. The square-cut, packed-in-a-box appearance that the Shorthorn presents is missing here. The hips are not quite so wide nor prominent as in the Shorthorn, generally a little smoother, the rump wide and well filled, and, instead of a straight quarter be- hind, we see a slightly bulging one, more so than in the Shorthorn, but less than in the Angus. As a breed, their long specialization for beef production has operated to give them a less general distribution than the Short- horns ; but the strength of the breed lies in this very fact. Its value for grazing purposes and for prime beef production commands atten- tion. BREEDS OF BEEF CATTLE 265 Though among the first breeds to be introduced, Herefords were little known in the United States until the opening of the range country. The impetus which this gave the cattle trade brought them, into prominence, and, beginning about the year 1880, a rapid growth has put the white faces second in point of numbers in this country and almost supreme on the range. ABERDEEN- ANGUS Examining an Angus bull for the first time, we shall notice first his black color. He is all black, the only white allowed being a little on the underline behind theliavel. Some white on the udder is not objectionable, as it is thought to be usually present with the best milkers, but white is not wanted on the cod. Occasionally red calves are dropped, showing a tendency to revert to the animals of the eighteenth century, when mixed colors were comparatively com- mon. Having observed the color, we note an entire absence of horns. Not even scurs are allowed. Going more into detail, note next the form. This presents a considerable variation from the ones previously discussed, and is very typical of the breed. While the requirements of a first-class beef animal demand a rounded form, here we find this carried to an extreme, and the barrel shape is a characteristic that the Angus claims peculiar to itself. Viewed from any direction, this marked rotundity is prominent ; and one notices, too, how low-set the animal is, his great style, quality, compactness, and symmetry. In the feeder we find all the indications of a good beef-making machine and in the finished animal every requirement of a market topper. We see short legs, and neat, fine bone, and most particularly the wonder- ful smoothness which even the most extreme forcing is hardly able to mar. The head is very characteristic. Short, wide, clean cut, with a muzzle whose capacious mouth and large nostrils denote excellent feeding qualities and strong powers of constitution ; surmounted with a tufted poll that is sharp and higher in the female than in the male. Note the tremendous width of chest, with legs set well outside the body, the spring of rib, the deep heavy flesh. Observe the com- pactness, how closely the ribs are joined to the hind quarters. In the hind quarters we fail to find the hook bones. They are there, but so well concealed by smooth flesh that frequently the most care- ful handling fails to locate them. Here we find still other Angus characteristics. The tail is set a little farther forward than in the Shorthorn. The buttocks are more rounded, 'but the quarter carries a large amount of flesh well down to the hocks. Individuals of this breed do not attain the great weights of the Shorthorns, mature bulls rarely weighing over 2,200 pounds, and cows averaging perhaps 1,600 pounds in show condition. But early maturity enables them to attain marketable weights in an extremely short time. Angus bulls are strongly prepotent, getting calves of great uniformity, from 75 to 90 per cent of which from horned cows are polled. 266 DOMESTIC ANIMALS, DAIRYING, ETC. The milking qualities of Angus cows have been considerably neglected, and all the powers of the breed have been directed to the production of prime beef. The first importation of Angus cattle into the United States was that of three bulls brought over in 1873 for use on the native cows of Kansas and Indian Territory. The offspring of these bulls at- tracted much attention, and subsequent importations soon made the breed well known. Their footing on the range has always been secure, but the popularity of the breed for the production of baby beef keeps most of them east of the Missouri. GALLOWAYS. Many judges have found Galloway and Angus so much alike that the one was mistaken for the other. This has been carried to such a point that claims were made at one time that there was no difference between them. In appearance their common color makes identification difficult, but as to a common origin, if such was the case, it was so far back in bovine mythology that its effect was long since lost owing to differences in climate, environment, management, and standards of breeding. We find the Galloway ranking with the Angus in size. In form the beef rectangle presents itself broad, deep, and symmetrical. Possessed of ample bone, very hardy and an ideal hustler, the Gallo- way has endeared himself to cattle raisers in rigorous climates and high altitudes. His coat is especially characteristic, with a thick hide and a mossy coat of long, wavy hair, in fact, a sort of double coat, a close mat of short hair being found under the long one. Black, tinged with brown, is the prevailing color, but a tendency to reversion to the old stock of mixed colors may be present. Like the Angus, Galloway bulls are good dehorners, and strong- ly prepotent, from 75 per cent to 90 per cent of their calves from horned cows being without horns. On the range and in the feed lot Galloways are of great value, and their hides are made into robes of great beauty. Among the more outstanding merits of this breed are their great hardiness, prepotency, excellence for the blodk, and fine hides. (Dep. Ag. Bu. An. Ind. B. 34.) POLLED HEREFORDS. In 1898 Gen. W. W. Guthrie, of Atchison, Kans., showed a group of cattle at the Trans-Mississippi Exposition at Omaha that attracted much attention. These cattle had Hereford characteristics, minus the horn, and General Guthrie called them 'Tolled Kansans." They had been produced by crossing Hereford bulls on "muley" cows, inbreeding being avoided by resort again to Hereford stock. The bull shown was said to get a good percentage of hornless calves. Since then the interest has grown, the name Polled Hereford has been adopted, and recently the American Polled Hereford Cattle Club was organized, with headquarters in Des Moines, Iowa ; Warren Gammon, secretary. The polled variation is not so common among Herefords as among Shorthorns, and this imposes a considerable disadvantage on one who attempts to fix it; but there are occasional registered Here- BREEDS OF BEEF CATTLE 269 fords that have never developed horns. An effort is now being made to collect these animals into one herd and thereby form the nucleus for more extended operations. Such work is commendable and will be watched with interest. (Dep. Agr. Bu. An. Ind. B. 34.) BREEDING. Producers of beef cattle divide quite naturally into two classes. First there is that class comprising the small minority engaged large- ly in the production of pedigreed animals to be offered for sale for purposes of improvement. There are a few undoubtedly who own pure bred animals, but have not been keeping the registration up. On the other hand this list must include some who own but a single recorded animal, namely, a bull. The fact that these men own re- corded stock is evidence enough that they are interested in live stock improvement, and are familiar with and are practicing good methods of live stock breeding. The second class comprising by far the great majority of stock owners is the one in whose hands the inferior stock are to be found. Because this last class comprises such an overwhelming majority of stock owners, and because it produces nearly all the animals and animal products marketed, its influence in determining the character and reputation of meat and milk products is very far reaching. It is in the hands of some of this class that the scrub and animal of badly mixed breeding are to be found. After the few breeders of pure bred animals have expended large sums of money for good foundation stocks, and offered good young pure bred males at moderate prices, it cannot be denied that they are extremely slow of sale. The ordinary producer of meats and milk (not breeder), seems determined not to pay more than about meat prices for males to infuse improved blood in his herd, and the breeder cannot make a living producing them at such prices. Failing to secure improved males at these low prices, many producers fall back on the grade or even the scrub, and fre- quently combine with this in-breeding, especially where the males are chosen within the herd. The greatest, and most pressing needs of today, in live stock improvement, are more breeders, more good males, and more men willing to pay remunerative prices for them, and cease admixing blood, and using grade and scrub sires. Inferiority of the Common Stocks. The chief fault of the com- mon cattle found today, is their lack of quality and uniformity; this is not due so much to the lack of infusion of good blood, as to the indiscriminate admixture of the blood of breeds of both beef and dairy types. It is not necessary to attempt to present and establish proof of this assertion, as every live stock producer can secure abun- dant evidence for himself in a short time by simply exercising the faculty of observation. In traveling about the country by wagon road or rail, note the number of animals in each herd seen, also the variation in type, form, and more particularly, color. Except for the herds of the few growers of pure bred, or high grade cattle, the com- mon bunches will be found to include a great variety of color and types. In some herds red, white, black, brindle, and all conceivable combinations of these colors are to be found ; at the same time some 270 DOMESTIC ANIMALS, DAIRYING, ETC. individuals will conform in a measure to strictly beef form, others quite markedly to dairy form, with all gradations between these two. The indications of blood, as seen in color, will undoubtedly attract the attention of the casual observer more readily than other features. In other words, the presence and admixture of so many colons in common herds indicates that Shorthorn, Holstein, Jersey and less frequently Hereford and Ayrshire blood has been freely admixed. The seriousness of this lack of uniformity in breeding, quality, color, form, etc., is not fully appreciated. For the past ten or fifteen years, with one or two exceptions, the Chicago market has been topped by a certain breed of cattle sold in car load lots. The reasons for this are found in the word uniformity. They have been uniform in size, color, form, finish, and quality ; in fact, as much alike as so many peas ; you see one and you see them all. This prime requisite of uni- formity can never be secured through mixed breeding. The man who offers for sale nineteen good steers and one inferior one bearing undesirable color, is at a great disadvantage ; the scrub steer is ever under the nose of the prospective purchaser, and offers him a strong pretext for lowering his bid. A large percentage of the best cattle fed today, by good feeders, are secured from western stockyards ; the feeders of these cattle claim that it is difficult to secure feeding cattle of good quality and uni- formity at home ; one has to purchase the culls along with the good ones in order to get any. Close inspection of consignments of cattle is not necessary to convince one of their lack of breeding ; the drover who picks up a few market cattle here and there, until a load or two is made up for shipment, is the man who gathers together the motley combination representing the large aggregate ; the man who breeds, buys and feeds a good car or more of steers usually markets them himself. Some Causes of Lack of Breeding in Cattle. The indiscrimin- ate admixture of the blood of the various breeds has been one of the most direct causes of the production of inferior stocks. This has not been restricted to the breeds within the beef and dairy classes, but includes admixture of the blood of the two classes. With the rise in prices of dairy products the common cows have been bred to dairy bulls; with depreciated values for dairy products, these same cows and their female progeny have been bred back to beef sires, and so on. On the other hand, there are plenty of instances where herds possessed of cows of a small type, producing a small flow of rich milk, nave been bred to a bull of a larger breed noted for heavy milk flow, and vice versa. There are too many animals in our yards today saved from bulls bred to females for no other purpose than to freshen them again. The lack of good breeding among our cattle today is not due to lack of introduction of good blood at an early date. Live Stock Improvement Not Difficult. Questions of breeding are generally regarded as being obscure, intricate and extremely difficult, except to those skilled in the art through long years of train- ing. It is true that we are obliged to look back upon the achieve- BREEDS OF BEEF CATTLE 271 ments of the master breeders of history with feelings akin to rever- ence, for their tasks of type founding, breed forming and breed im- provement were difficult, requiring a whole lifetime in some in- stances to gain the mastery, and in others two whole generations to attain the highest success. But the initial step in live stock breeding for improvement confronting us today, is an exceedingly simple one ; we do not need to undertake the establishment of new types or breeds, as there are plenty now in existence to choose from, which, judiciously chosen will respond favorably to the conditions to which they are adapted. The first step in the line of live stock improve- ment must come from the cessation of the practice of admixing the blood of the various breeds, and of using grade and scrub sires. Plan for Live Stock Improvement. Before introducing the plan of live stock improvement, known as up-grading, it should be the ambition of every man owning live stock to eventually get into some line of pure-bred live stock breeding. The plan that would naturally be suggested for the improvement of the common stocks of the country, is that known as up-grading, which consists in in- grafting the characteristics of a superior breed upon animals of com- mon, or mixed breeding for the purpose of improving them. This improvement is due to the superior quality of the males used, and chiefly their prepotency, or power of transmitting accurately these qualities to their offspring. This plan differs from cross breeding, in that pure blood is used on the sire's side, and females of mixed blood, or no blood, on the dam's side. Thus we have the prepotency concentrated in the bull, and the very opposite in the females, as the more mixed the breeding, the less stable are the inherent character- istics of the individual, and therefore the less resistant to improve- ment. It would be absolutely impractical to advise all owners of common cattle to send their stocks to the block and purchase pure bred foundation stocks ; only a few could do this for the following reasons: First, if the great majority now possessed of common stocks were to simultaneously seek to purchase pure bred foundation stocks, they could not get them, they are not in existence, for only about one per cent of the cattle in the United States are possessed of pedigrees. Second, the finances of a great many holders of common stock are not such as to allow them to make extensive purchases of pedigreed animals, and replacement is out of the question, as it would require the returns from the sale of three or four common animals to purchase one pedigreed one. Third, it is highly desir- able for breeders to grow into any line of pure breeding rather than to buy into it suddenly, and take up a work in which experience is necessary. In general, then, it is necessary for the majority of holders of common stock to make the best use of the animals on hand, with a view to improving them. Let us suppose the case of a herd of com- mon, or mixed cattle of say eighteen head, and apply a plan of im- provement. The first thing for the owner of this herd to do, is to decide upon some one line of production, either beef or dairy, and then stand by the resolution. Without this he cannot improve his 272 DOMESTIC ANIMALS, DAIRYING, ETC. herd, for the animals of mixed breeding are largely the result of frequent change of purpose. Suppose in this case, that the owner has decided to go into the dairy business; that being the case, the next thing to do will be to look over the herd of eighteen, and decide which ones are so possessed of dairy type and characteristics, as to warrant their being used in the business. They can be divided into three classes, such as best, medium and inferior, from a dairy stand- point. Then, in the majority of cases, it will be found to be a decided advantage to send the six inferior ones to the block and use the re- maining twelve for the foundation herd. Having selected the fe- males to be retained, the next and one of the most important steps is to decide upon the breed to be used in improvement. In this, adaptability of the breed to the conditions, and the question of per- sonal preference, are the two important factors; the decision of this question is also an important factor, for a change of mind after the work has begun, and the use of other blood, is more apt to result in retrogression for a time, than improvement. Haying decided upon the breed to be used for improvement, suppose it is the Holstein, then purchase the best Holstein bull that the pocketbook will allow. Mate this bull with the twelve selected cows, and use him for two seasons, after which his progeny will be old enough to breed. At this point secure another Holstein bull, a better one than the first if possi- ble ; follow him with others of the same breed, indefinitely. Let it be Holstein bull after Holstein bull, nothing but Holstein bulls. We have cited the Holstein merely for the purpose of this illustration. The same plan must be used, no matter what the breed is. We may expect, after a few top-crosses in upgrading, that the progeny will resemble the type of sires used in improvement, quite closely, both as to form and general characteristics ; in fact, so much so that the high grade may eventually equal the pure blood improver from a standpoint of utility in meat or milk making, as the case may be. There is some question as to the number of crosses that must be produced before this high standard of excellence will be se- cured in the grade. This will be somewhat dependent on the dura- tion of the purity of the improving blood, the prepotency of the indi- vidual sires, and the plasticity of the common females. Instances are on record where ideal high grades have resulted from the third cross ; in general, one would be safe in counting on at least the fifth. We must not, however, lose sight of the fact that while a high grade may eventually equal the improving breed from a standpoint of meat or milk making, that it can never be possessed of a pedigree, nor equal the full bloods from a standpoint of prepotency in breed- ing, this is the chief argument used against grade sires. The Grade Sire. Attention has been directed to the fact that high grade animals may be eventually produced capable of equalling those of the pure breed used in their improvement, insofar as meat or milk production are concerned, but at the same time they can never equal them in prepotency nor become possessed of pedigrees, except in rare instances. So far as external form and indications of quality are concerned, a high grade sire may look equally as good BREEDS OF BEEF CATTLE 273 as a pure bred one, and still this is no justification for his use. Though an animal may be an exceptionally good individual, if he is lacking in prepotency, as the grade derived from mixed blood on the dam's side is sure to be, his offspring cannot equal those of the pure male. And so in actual practice, except in rare instances, grade sires fail to produce offspring possessed of the marked uniformity and quality of those from the pure bred male. Attention just here is called to the fact that the quality of prepotency more markedly manifest in the breeds of most ancient origin has been developed through centuries ; one must not expect to develop it in high grades in one decade. It would be useless to say that no grade sires should be used at all, for of the bulls that are needed, as indicated by the last state census, only a portion of the number could possibly be made up of pure breds, as they are not to be had. Therefore, the only rational thing to advocate is the utilization of all pure bred bulls to their fullest extent, the use of the fewest possible high grade sires for the present, the use of the best of this class and the replace- ment of these by pedigreed animals as rapidly as possible. Occa- sionally, in purchasing, a man hesitates between two sires, the one a grade, the other a pure bred; the former perhaps about as good as the latter in individuality, judging from appearances. On this basis, the purchaser secures the grade because it is at least one-half cheaper, but in considering the final results we should not lose sight of the fact that the superiority of a crop of ten calves from a pure bred sire is almost sure to be so much greater than the same number from a high grade, that the difference in the purchase price of the two sires may be more than made up in a single season. Discarding the So-Called Aged Bull. In general, it can scarce- ly be said of a bull, that he has reached full maturity until four years of age, though this perfect stage of development is commonly regarded as being attained at a somewhat earlier age among some breeds. It has been a common practice for years, among farmers, to send the three or four years old bulls to the block, largely because there is no sale for them as breeders. The general rule among pros- pective purchasers is to search for nothing but young bulls, yearlings or less, with the idea that they will grow into money for them, if they can dispose of them before maturity. It is a false economy to pur- chase on this basis solely and take more or less chance on a young, untried animal when the actual results from a mature animal may be ascertained. There are two principal reasons why sires are usually sent to the block at three or four years of age. First, it is claimed that their dispositions do not mellow with age, and second, they become too large, heavy and clumsy, and it may tend to impotency. In answer to the first of these objections, we believe that except for the inheritance of mean, treacherous dispositions, bulls in general re- turn on the points of their horns only that which is dealt out to them on the points of the fork, or in other words, the bull responds to the character of the treatment and management given him. Mature bulls should not have a tendency towards impotency if prop- erly fed, managed and exercised, but because of the fact that the bull 274 DOMESTIC ANIMALS, DAIRYING, ETC. is isolated, he is frequently neglected to a greater extent than any other animal on the farm. Too many bulls are fed irregularly and improperly, and confined constantly for long periods in small dark filthy box stalls; these conditions are not conducive to good breeding qualities. There are some decided advantages in purchasing mature bulls. One of the greatest of these is found in the fact that the buyer can ascertain something relative to the character of their get ; this is most important to the breeder of dairy stock. Another advantage arises from the fact that there is always more or less uncertainty regarding the future development of the bull calf, while this factor is entirely eliminated in the purchase of a mature sire. It is also not unreason- able to conclude that a mature sire will beget more vigorous off- spring, especially because the young ones are frequently used to ex- cess. Three and four year old bulls can generally be secured at very reasonable prices. Some of the best show cattle were sired by bulls far past the mature stage. The expert breeder appreciates the value of mature sires. Evil Effects of Breeding Immature Females. During the past decade or two, there has been a growing tendency to breed heifers at an early age; this is particularly true among the dairy breeds. The men who advocate and practice the breeding of heifers so as to produce calves under or at about twenty months of age, are extremely numerous. In fact, the practice has been carried to such an extreme that in many localities mature cows of some of the dairy breeds can- not be found bearing the same size that these types did twenty years ago. This practice is supported chiefly on the following grounds, viz. : First, that the earlier a heifer is made to produce, the sooner she begins to make some financial return for her keep, and second, the capabilities of the dairy cow can be increased if stimulated at an early age. There are those who claim not to object to lack of size in dairy cows, and also that the smaller cows are more profitable, but this latter claim has not yet been proven. The relative value of small versus large dairy cows as economic producers has not been deter- mined, though much discussed. It is a notable fact, however, that the world's record makers and the majority of the cows entered in the various advanced registry associations, are, in general, consider- ably above the average as to size. It is also a notable fact that the twenty-five Jersey cows entered in the dairy cow demonstration at St. Louis in 1904, were large cows, the average weight for the twenty- five at the beginning of the test was 911.2 pounds, and at the close 983 pounds. These figures place them considerably aiboye the aver- age of the cows of this breed in general use in many dairy sections today. These cows were used in a test where comparative economic production was one of the main features. Some expert dairy breeders are inclining more and more to the belief that heifers should be allowed greater maturity before dropping the first calves and are also permitting them to lay on more flesh than has been thought to be safe; these men are demonstrating the accuracy of their theories in the results produced, While it is clearly apparent BREEDS OF BEEF CATTLE 275 that immature breeding has reduced the size of many of our dairy cattle, it has not been proven that diminished constitutional vigor has accompanied this loss of size, though many hold to that view. It is rational to assume that in unduly immature breeding some of the physiological laws of nature must be violated, and this cannot occur without being followed by some evil results. No fixed age can be given for the breeding of heifers, it should be dependent on the rapidity and character of the development of the individual. Cross-Breeding. A cross-bred is the progeny of two distinct breeds. Though there has been an indiscriminate mixing up of the blood of various breeds, cross-breeding in its strictest sense is not prevalent, owing to the small number of pure bred females in exist- ence. The grades of the various breeds, however, are crossed fre- quently. The practice has been stimulated by sudden and somewhat prolonged fluctuations in market values; a depressed dairy market leads to more or less crossing of beef blood upon dairy types and vice versa; an increased price for the longer and coarser staples of wool always causes more or less crossing of coarse wools upon fine wools or the reverse, as the case may be. No breeder can make such radical changes as these, frequently, for every time he alters his breeding operations so radically in trying to meet market fluctua- tions, he introduces factors leading to the final deterioration of his breeding stocks. It is much safer to choose some definite line of pro- duction, and stand by that through the temporary ups and downs of the market; the men who have done this have made a success of animal breeding. It would not be sensible to say that no changes should be made in one's breeding operations; if a man is sure he has made a mistake, the only rational thing to do is to make a change, but these should not be made often, as they are usually attended by some loss. The progeny from some first crosses have shown highly de- sirable results and while cross-breeding is more justifiable in the pro- duction of market animals, it cannot be employed continuously in the production of breeding stocks. From the breeders' standpoint, each succeeding cross becomes less and less satisfactory. Cross-breed- ing is more justifiable among those classes of animals such as swine, which reproduce quickly and abundantly, and mature early, for in such cases it is easily possible to return to the original types for breeding animals. While it must be admitted that cross-breeding has rendered valuable service, in the form of single out crosses in the formation of new breeds and types, still, it should not be prac- ticed among cattle on the ordinary farm, for three reasons, viz. : (1) It would tend to destroy the identity of breeds; (2) The results are in many cases uncertain, and (3) It might render pure bred females less capable of breeding true to type. In-and-in Breeding. Because of the fact that the several terms used in connection with the breeding of variously related animals are not always properly used, or understood, it may be well to define them. (1) In-and-in breeding implies the mating of animals closely related, for a number of successive generations; it includes close relationships and continuous repetition. (2) In-breeding implies 276 DOMESTIC ANIMALS, DAIRYING, ETC. the mating of related animals in a single instance, or at intervals among the generations, without much regard for the closeness of the relationship. (3) Close breeding merely implies that closeness of re- lationship existed between the animals mated. (4) Line breeding implies the breeding of animals within the members of one family, or one or more related families. It is virtually a continuation of in-and-in breeding, the relationships being less close. It is astonishing the extent to which in-and-in breeding and in- breeding are allowed among the common stocks of the country, and this too, by some persons who realize fully the seriousness of the practice. It arises, of course, from the selection of sires from among the offspring of the herd; in some cases, it may be due to a lack of means to make a suitable purchase, but in general, it is due to care- lessness or indifference. When in-and-in 'breeding is carried too far the following evils are likely to result, viz. : loss of size, delicacy of constitution, impaired reproductice powers, and in fact general deterioration. The practice of in-and-in breeding, and in-breeding, should not be denounced entirely, for they may become useful factors when em- ployed by those skilled in the art of breeding ; they must almost nec- essarily be used in the formation of new breeds, where it is the aim to fix new characters in animals, and secure uniformity and perma- nence in the transmission of the same. But, on the other hand, the improver of common stocks has no occasion to resort to close breed- ing. He is not going to become a former of new breeds or types but is going to improve his common stocks through up-grading, in which he will rely solely on the prepotency of the sires chosen to work the transformations by w r hich each succeeding generation will be brought more near to his own standard of excellence. Prepotency. What is prepotency? Strictly speaking, prepo- tency is the superior power which one parent has over the other in determining the character of the off-spring. But the term is more commonly used to indicate that power which an animal has to trans- mit its own qualities. If a pure male were to beget progeny from fe- males of the same breed, which bear a close resemblance to the male parent, this result would be a stronger evidence of prepotency in the male, than a similar result produced by mating him with females of mixed breeding, since the resistance to modification in the progeny of the females in the first instance, would be stronger than resistance to the same in females in the second instance. This quality in a sire is one of the most important factors stimulating rapid improvement in any process of upgrading. It is more important in the sire than the dam, as the effect on the sire's side is more far reaching. Prob- ably one of the most difficult things in animal breeding is to deter- mine whether a sire is possessed of prepotency or not. It is conceded by some, that prepotency is the result of certain lines of breeding, and that certain visible characteristics must accompany it. The fol- lowing are some influences tending to produce prepotency, viz. : (1) duration of purity of breeding without admixture of alien blood; (2) uniformity of type and results from animals in pedigree; (3) BREEDS OF BEEF CATTLE 277 inherent vigor of type, race or individual; (4) line breeding. To illustrate the first point; it is well known that it matters little with what breed or type a Holstein bull is mated, the offspring is almost sure to resemble the sire markedly in characteristics, and particularly in color; it is doubtful if any breed of cattle has been bred pure for a longer period than the Holstein, and the inherent vigor of the breed is indisputable. The ability of the Hereford, also, to transmit uniformly its characteristic color markings, especially the white face, is an evidence of prepotency, the result of a long period of pure breeding. In selecting a prepotent sire, it is well to study the pedi- gree and ascertain as far as possible what is known relative to the- performance of the ancestry as breeders, for an animal the progeny of prepotent ancestry, is certainly likely to be more prepotent than an animal whose ancestors have not been prepotent. BREEDERS SHOULD CO-OPERATE. It would seem highly desirable that some forms of co-operation, in breeding methods, should be established by communities, such for instance as the joint ownership and use of males by several parties rather than one. In theory this proposition sounds well, but in ac- tual practice it has not worked satisfactorily in the majority of in- stances, as illustrated by the universally undesirable results from the formation of stock companies in the ownership of stallions. In this instance, however, it is only fair to venture the assertion that the initial troubles among these companies is generally the fault of the organizer or promoter, the seller of males, who unloads something on the company that does not prove satisfactory. One cannot conceive of any logical reasons why several men in a community could not form, a co-partnership in the ownership and use of good sires. If such a plan could be followed, the good influences of superior sires would become more far reaching and fewer males in all would be needed than in the case of individual ownership. At present pedi- greed males are usually introduced into a community by individuals. These men usually possess small herds and the one sire could be used upon a number of other herds providing the neighboring owners could but see the advantage to be gained thereby. But at present the man who introduces a good male and offers his services at a reason- able price, does not greatly benefit his community, as the prevailing practice is to patronize the sire offered at the smallest fee, and this is always the grade or scrub. The scrub is likely to flourish and con- tinue to be used until such time as national or state legislation places a prohibitive tax on him. The form of co-operation discussed would ho particularly suited to thickly settled communities where the farms and holdings of cattle are small, and consequently close together. In general, it is the men with the smaller holdings of cattle who resort most to mixed breeding, and who are in greatest need of good sires. It is highly desirable for the various breeders in a community to co-operate in other ways in addition to that just referred to. Great advantages would accrue from unity of purpose and methods in breeding. One of the great difficulties existing today is found in the 278 DOMESTIC ANIMALS, DAIRYING, ETC. fact that the blood of altogether too many breeds of a given species is to be found in each community; this facilitates the admixture of the blood of various breeds. There is really no occasion for the use of so many breeds; in fact there are some notable disadvantages. There is no disputing the fact that individual likes and dislikes vary greatly, but it nevertheless seems to be the case, that if one man in- troduces a certain breed, his nearest neighbor will at once introduce another, apparently for no other purpose than to have something different, whereas, if they were both using the same blood it would work to their mutual advantage. Probably it would not be wise to advocate a single breed of cattle, for instance, for each community, but it would unquestion- ably be wise to limit the breeds to those only which are peculiarly adapted to the conditions of each community and the lines of produc- tion therein pursued. The greatest success that has been achieved in the history of animal breeding has occurred where there were har- monious community interests, and but one principal line of breeding. Examples are numerous, for instance, Jerseys only have been bred on the Isle of Jersey, Holsteins in Holland, and all the leading breeds of cattle and sheep in England and Scotland were each devel- oped largely within one or more counties or shires, to the almost total exclusion of other 'breeds of the same species. When a given com- munity is specializing in the production of some one or two breeds of cattle, it soon becomes noted for these breeds, and prospective pur- chasers are attracted thereby to the mutual interest of all those co- operating in the work. There is a great lack of proper organization among stockmen today. It is true that a state live stock breeders' organization exists, and also that there are a number of breeders' associations, and one or two county live stock organizations. It would seem highly desirable for most counties and perhaps some townships, to organize live stock breeders' organizations. It would seem possible through such or- ganizations, to bring the live stock breeders into closer touch with one another, and thereby present favorable opportunities for the discus- sion and adoption of methods of breeding best suited to the interests of the community. (Mich. B. 241.) GRADES OP FEEDING CATTLE. There are six fairly well defined grades of feeding cattle recog- nized in the cattle markets. They are known as (1) Fancy, (2) Choice, (3) Good, (4) Medium (5) Common, (6) Inferior. Grade 1. Fancy Feeders. Animals of this grade contain nearly one hundred per cent of the blood of the improved beef breeds. The dams are high grade cows and the sires are registered. "While there may be a slight lack of uniformity in size of this grade of steers, they possess the quality and conformation that ac- company the typical beef-bred steer. It is also true that age, as well as ^quality, conformation, and condition, is characteristic of the various grades of feeding cattle. Usually when the better grades of feeding cattle are selected for feeding they are comparatively young. To make this point more clear it may be said that it would be impos BREEDS OF BEEF, CATTLE 279 sible to secure a two-year-old inferior feeder, as inferior steers of this age would possess neither the weight nor the flesh demanded in the feeder class. As a rule, we may classify as feeders, steers weighing 900 pounds or more that are eighteen months old or older, and that are fleshy enough so as not to render an extended period of low feeding necessary. Manifestly the slower maturing, lower grades will always be the older animals when feeding weights are attained. The individual steers comprising this fancy grade possess out- standing quality. They are the kind from which car-load show cat- tle are produced. Those who have attempted to collect such a group of cattle know how very scarce they are. Such feeding cattle are very seldom seen in any of our feeding-cattle markets, for when such a bunch is known to be for sale it is usually eagerly sought, hence it is unnecessary to ship them to the market to find a buyer. Grade Q. Choice Feeders. The steers in this group are unques- tionably choice. They possess large frames and perhaps average six months older than the fancy selected grade, though still younger than grades 4, 5, and 6. Owing to their more advanced age and the appearance of being more growthy, thi a grade of steers is frequently selected by experienced feeders as the best calculated to produce the largest and most rapid gains of any in the market. They are the heaviest cattle and perhaps, everything considered, carry slightly more flesh than the others, although grades 1 and 2 are similar in this regard. They are high-grade steers, uniform as to size, color, and conformation. Fed to a finish, steers of such quality ought to pro- duce prime steers of sufficient merit to sell at the top on any ordinary market. Grade 3. Good Feeders. The quality and finish so manifest in the choice and fancy grades are not so much in evidence in this group, although it is easy to see that beef blood still predominates. While these cattle possess a strong infusion of beef blood, they do not meet the requirements of the ideal feeder in type or conformation. They are inclined to be upstanding, while some of the steers are rather plain in their rumps. They lack that attractive uniformity that characterizes grades 1 and 2. As to condition they are hardly as fleshy as the grades already described. It should not be gathered from what has been said that these are an undesirable grade of feed- ing cattle, for they are not. In fact, cattle of their quality are not at all plentiful in the markets of our country, and can only be pro- duced by the use of bulls of some of the beef breeds. Grade 4- Medium Feeders. Undoubtedly the most noticeable characteristic of this grade is its lack of uniformity in color. This suggests their probable mixed breeding. The lack of uniformity is not by any means the main difference between this and the better grades. A closer study reveals a coarseness and angularity not at all characteristic of those of better quality. There is a plain, old style appearance about them that is very evident. The cattle appear to be close to three years old. Experienced feeders would select now and again a steer from this grade that would be expected to make large 280 DOMESTIC ANIMALS, DAIRYING, ETC. gains, and occasionally one that would finish quite smooth, but the majority would always remain rather coarse, rough, and paunchy. Grade 5. Common Feeders. This group shows but a very small percentage of beef blood. Native and unimproved blood predomi- nates. There is no uniformity in color and every steer shows a lack of both quality and conformation. The steers are rather coarse boned and large headed, and are plain throughout. They do not all have similar faults, but all are noticeably deficient in some particular. They are the kind that result from the somewhat common practice of indiscriminate breeding and the too common practice of breeding from inferior grade bulls. Grade 6. Inferior Feeders. There are so many standards by which feeding cattle might be designated as inferior that it is well to be explicit in specifying the standard employed in the selection of the cattle comprising this grade. It is not that they should be steers carrying a high percentage of dairy blood, although steers in this group are undoubtedly strongly dairy bred. Nor is it that they should be beef-bred steers of faulty conformation and lacking in constitution. An effort is made to select cattle inferior in quality and conformation from the standpoint of beef breeding, that is, those possessing very little, if any, of the blood of any of the improved beef breeds. This is a more difficult task than would seem to those who have not attempted it. The majority of this grade are selected from grass cattle shipped to the Chicago market. They show no evi- dences of beef blood and every evidence of being scrubs. (111. B. 90.) BEEF AND BEEF PRODUCTION. Demand for Baby Beef. The packers report that they have never been able to supply the demand for baby beef, and that there is no likelihood of the market ever becoming oversupplied, even though stockmen generally should go to producing it. The best demand and the highest prices are in the months of April, May, and June. During these months butchers want light cuts, and they find less waste in baby beef than in that from larger cattle. After July 1 the price for baby beef has a tendency to become lower, as light grass-fed cattle compete. The best prices are obtained for well-fat- tened calves weighing from 600 to 1000 pounds. Calves either above or below these weights do not top the market. The age should be from twelve to fourteen months. Care in Feeding for Baby Beef. In forcing calves for baby beef, the feeder must remember that the calves are babies and must be treated as such to secure the greatest gains. The feeder who loves them and pets them and never allows a harsh word to be spoken in the feed-lot will get many more pounds of gain from his feed than will the feeder who simply puts an equal amount of feed in the boxes and kicks a calf when it gets in his way. The feed should be fresh and palatable at every feeding, and the calves should be fed in such a way as to induce them to eat the greatest possible amount and yet come to the feed-boxes hungry at every feeding. The feeding should be done regularly to the minute. BREEDS OF BEEF CATTLE 281 Water and salt should be before them all the time, and both should be palatable. We prefer fresh salt and place it in the boxes under the shed. Fresh salt should be placed in the boxes at least twice each week, and care must be taken to see that the salt does not cake and harden. If it does the calves will not eat enough for best results. The best results will be obtained by feeding the grain mixed with the roughage, and the mixing is best when done in such a way that each particle of grain is taken into the mouth attached to a piece of roughage. When this is done the calves chew the greater part of the grain over a second time with the cud. Greater gains are made from each hundred pounds of gain, and scouring and getting off feed are not troublesome. (Kan. B. 113.) In stormy weather it will pay the feeder to stay in the feed-lots with the calves all day. In bad weather a calf feels "blue," just as a human being, and often, if left to himself, will not eat. When a calf does not eat he will not gain. At such times, if the feeder who has petted his calves will stay in the feed-lot, stir up the feed in one box, freshen it in another, and offer a handful to the calf that is not eating, the calf will come around his feeder for companionship, and, after he has had a few mouthfuls of feed, will find that he is hungry and will eat a hearty meal. The calf makes a good gain from that day's feed. Care and kindness do not cost money, but come from thoughtfulness and love for animals. They pay. What Does the Production of Baby Beef Mean? Nothing to the ranchman who has cheap pastures; a complete change in the methods of crop-production and of feeding to the farmer with high- priced, limited pastures. The farmer who raises and fattens mature steers has to furnish pasture for his cows, the yearlings, the two- year olds, and often for the three-year-old steers. He waits three years from the time the calf is born until he realizes on the invest- ment, and only one-fourth of his herd are cows producing calves. If the farmer will produce baby beef, he can fill his pasture to the full limit with cows producing calves, and he will realize on the calves twelve months from the date of their birth. Capital is turned an- nually instead of once in every three years. The farmer's grain will produce from 50 to 100 per cent more pounds of baby beef than it will of beef from a mature steer, and for the past three years the baby-beef animal has sold for as high prices per hundred as has the average steer. In producing baby beef, the farmer can market his heifer calves at the same price as his steers, and will usually get more for the twelve-months-old heifer than he would for the same animal if kept until maturity. (Kan. B. 113.) Quick Returns Saving in Pasture. The production of baby beef gives quick returns on the investment. The farmer who raises and fattens mature steers has to furnish pasture for his cows, the yearlings, the two-year-olds, and often for the three-year-old steers. He waits three years from the time the calf is born until he realizes on his investment, and only one-fourth of his herd are cows produc- ing calves. If the farmer will produce baby beef he can fill his 282 DOMESTIC ANIMALS, DAIRYING, ETC. pasture to the full limit of cows producing calves, and he will realizes on the calves twelve months from date of birth. The Economy of Gain at Different Ages Compared. It is a well-established principle in animal nutrition that young animals make more economical gains than older ones, and that the amount of feed required for a given gain increases as the age of the animal advances toward maturity. Comparatively few practical feeders are aware of the marked variation due to the operation of this law. Experiments are recorded where gain has been made at the rate of 1 pound of increase in live weight for each pound of dry matter in the feed consumed. (Arms- by's Manual of Cattle Feeding.) This was made with calves under three weeks of age. The ration consisted of 17.6 pounds of milk per head daily with 3.9 pounds of cream added. In an experiment conducted at the Iowa Agricultural Experi- ment Station (Bulletin No. 25, p. 24, Iowa Experiment Station), a gain of 1 pound of increase in live weight was obtained from each 1.97 pounds of dry matter in the feed consumed. This experiment covered a period of ninety days, beginning when the calves were about one week old. The ration consisted of separator skim milk, supplemented with corn, oats, and oil meal, and in addition a mod- erate allowance of hay. For the first eight months it required 4.6 pounds of feed (dry matter) for a pound of gain, and for the first seventeen months it required 5.97 pounds of feed for a pound of gain, and for a period of two years the amount of feed required for a pound of gain had increased to 7.19 pounds, and during the last four months the amount of feed per pound of gain ran up to 9.02 pounds. In another experiment, recorded in Bulletin No. 24 of the Iowa Station, five steers were finished for market at the age of 32 months, and it required 10.4 pounds of feed for a pound of gain at this age. Director Thorne and Professor Hickman have presented a summary of results (Bulletin No. 60, Ohio Station), obtained at the stations in eight States, covering 132 head of cattle ranging in age from 2 to 3 years, in which it is shown that it has required on an average 10.24 pounds of feed (dry matter) for a pound of gain, while the work done by Lawes and Gilbert along this line indicates an average of about 11 pounds of feed per pound of gain on cattle approaching maturity. These results have been repeatedly verified by many other careful experiments, not only with cattle, but with sheep and hogs as well, and the law of diminishing returns for feed consumed as animals advance in age toward maturity is conclusively established, and gov- erns the economy of gain in all practical as well as experimental feed- ing. This law should be kept constantly in mind by the meat pro- ducer. Economy of production is one of the important factors in the practical problem of determining profit, and the advantages are all with the young and growing animal as compared to the one that has practically attained its growth. In comparing the cost of gain made by pure-bred Shropshire lambs and pure-bred Shropshire year- lings at the Iowa Agricultural Experiment Station, it was found BREEDS OF BEEF CATTLE 283 that the lambs made gain in weight at the rate of 1 pound from each 7.18 pounds of feed (Bulletin 33, pp. 536 and 565) consumed, at a cost of 2.88 cents per pound for the gain made, while it required 11 pounds of feed to make a pound of gain on the yearlings, and at a cost of 4 cents. All conditions except age were the same. The market also pays a premium on the younger animal, owing to the fact that it furnishes a more profitable carcass and less waste by reason of the absence of excessive fat. The modern feeder must combine the advantages of economy of production resulting from early maturity, and the excellence and enhanced value of the finished product that can only come from the right kind of stock well handled. This implies good breeding and continuous good feeding. These requirements are no longer merely subservient, but practically imperative. (F. B. 71.) Grain for Young Cattle. This is almost self-evident. Three year old steers, for example, can handle ear corn and coarse roughage far more advantageously than can calves, say, that are just being weaned. It is not at all difficult to make a fair rate of gain on young animals, and to accomplish only this result would not require any special preparation of grain. ^ But to make a gain that is sufficiently rapid to fatten the animal within reasonable time does require that the grain be offered in an easily assimilable form and that the rough- age be of a very palatable and nutritious character. In other words, as has already been pointed out, the first draft a young animal will make on its food, outside of maintenance, is for growth, and it is nec- essary to induce the animal to eat and digest an amount considerably in excess of the requirement for maintenance and for growth in order to make it fat. The aged steer, on the other hand, has little use for food for growth, and puts practically its entire ration, outside of that required for maintenance, to the uses of fat production, and it is not, therefore, so vital a matter that the animal gain to the absolute limit of its capacity in order to get fat in a reasonable time or to prove prof- itable. Thus it comes about in practice that the feeders use ear corn for aged cattle and crushed or ground or soaked or shelled corn for calves and yearlings. (Mo. B. 76.) Long Time to Make Young Animals Fat. The younger the ani- mal, the longer the time required to make it fat. This is on account of the tendency of the young animal to utilize its feed so largely for growth instead of for the production of fat. It is fat that makes the animal ripe and marketable. Clearly, the young animal, when on full feed, puts its food to three distinct uses: 1. Maintenance; 2. Growth; 3. Fat. The rate of growth diminishes as the age of the animal increases. After a certain time, therefore, the animal would reach an age when growth would cease entirely. At such a time in the life of any animal all of the available food above maintenance would necessarily go to the production of fat. The presumption is that the recfuirement for growth gradually diminishes, but not directly with the age of the animal. This rate of growth has not been determined for the different ages of the beef steer, but it is well known that after the age of something like two years is reached, 284 DOMESTIC ANIMALS, DAIRYING, ETC. varying greatly with the individual, and with how he has been fed previously, it is very much easier to make him lay on fat than before. This of course is saying that with the decline in the tendency to grow comes a corresponding increase in the tendency to fatten. These are all matters of common observation among feeders. Particularly has the ease with which older cattle may be made fat, and the com- paratively short feeding period necessary to bring this about become a matter of common observation and likewise the great difficulty ex- perienced in making young animals fat and the long time required to accomplish it. Starting with six months old calves in good flesh, twelve months is the minimum time in which these animals may be made thick and prime, whereas three year old or four year old steers, of similar qual- ity and much thinner in flesh to start with, may be made prime in less than six months. Or, the same principle may be illustrated in another way. To make a six months old calf crime will require the laying on of from 600 to 750 pounds of additional weight, making the finished animal weigh from 1,100 to 1,250 pounds, and requir- ing, as has been said before, some twelve months of full feeding. Whereas, a three year old steer, even thin in flesh at the outset, may be made strictly prime by the addition of 400 pounds, weighing at the close of the feeding period between 1,450 and 1,550 pounds. (Mo. B. 76.) Young Cattle Must Be Fat to Sell Well. Attention has already been called to the fact that the yearling must be fully finished to sell well. This fact, while so well known to the experienced feeder, is so often overlooked that it will bear further emphasizing in this con- nection. It seems to be a well established law in the cattle trade that the older and larger the animal is, the less fat beyond a certain point it is required to carry to sell well up toward the top of the market for its class. It not infrequently occurs that heavy three year olds will bring the top of the market for heavy cattle, while a yearling equally fat would not sell within 50 cents of the market, and might even be classed on the market as a well advanced feeder rather than as a fat steer. In this connection the reader is again referred to the replies from the commission men and packers in relation to the factors affecting the demands of the market. One cannot fail to be im- pressed with the unanimity with which these men agree that the so- called dressed beef steer, or the 2 year old, weighing from 1,300 to 1,400 pounds, is in most active demand and sells at a better price one day with another, year after year, than any other age or weight of similar quality and of equal finish. It is furthermore significant that the feeder has said with striking unanimity that the 2 year old steer weighing between 1,300 and 1,400 pounds has returned him the greatest profit. (Mo. B. 76.) The Feeder. The average feeder may not be guilty of getting his cattle too fat. For this reason it is sometimes sugge*sted that he be encouraged to get his cattle as fat as possible, in order not to fall below the market requirements. While it is doubtless true that many feeders fail to eet the proper finish to their cattle, this is no reason i' 1 ' 1 ' 1 ! I'iii', ',',!! OPEN AND COVERED MILK PAILS. DEPT. OF AGR. Ill I IB BARN 90 FEET IN DIAMETER; ONE OF THE FEW DAIRY BARJSS WITH SUFFICIENT LIGHT. DEPT. OF AGR. BREEDS OF BEEF CATTLE 287 why they should remain in ignorance of what constitutes a proper finish. The feeder should be taught as to what is meant by an ideal beef, and encouraged to reach that ideal whenever it is possible, and to be able to recognize it when it is reached. Such knowledge will inspire a feeder to do better feeding and will undoubtedly result in the marketing of better cattle. Another class of feeders may market their cattle in a finished condition, but, not being able to recognize this condition, may be led by unscrupulous buyers to imagine their cattle are not fat enough, and sell them accordingly. Feeders need to know what they have and what their cattle will show upon the block. The more knowledge feeders have along these lines the more certain they are to be re- spected and to get their just dues. (Kan. B. 118.) The Butcher. The butcher buys a beef animal for the amount of lean meat he is able to cut from it, and especially for the amount of lean in the high-priced cuts. He wants just as little waste as possi- ble. It is his business to cater to the desires of the consumer, and whatever the consumer demands he tries to secure in the purchase of a beef animal. The Consumer. The consumer dictates to the butcher, the butcher to the feeder, and the feeder to the breeder; in other words, the consumer is the supreme judge as to what constitutes good beef, and all the others must bow to his judgment. There is no question but that the consumer is demanding more lean and less fat. As in- dicated in the cooking tests, there must be enough fat distributed among the fibers of the lean to make the meat tender and well fla- vored, but the heavy layers of fat are now relegated to the tallow box, and not served on the meat platter. If this be true, it behooves both the breeder and feeder to produce beef animals that will furnish the largest amount of well-marbled meat in the highest-priced cuts with the least amount of extraneous fat. (Kansas B. 118.) DAIRY TYPE STEERS COMPARED TO BEEF TYPE. Dairy type steers show a considerably higher percentage of fat and a lower dressing percentage. They also carry a higher percent- age of fat on internal organs, thereby increasing the total weight of cheap parts. Beef type steers carry a higher percentage of valuable cuts and also furnish heavier and thicker cuts ; they are more evenly and neatly covered with outside fat and show superior marbling of flesh. The flesh of beef type steers is brighter red in the lean and the fat a little clearer white, but there is little difference in fineness of grain of the lean meat. It is neither profitable nor desirable to feed steers of dairy type for beef purposes. They are unsatisfactory to the consumer, because they do not furnish thick and well marbled cuts; they are unsatis- factory to the butcher because they furnish low-grade carcasses which are difficult to dispose of and they are decidedly unsatisfactory to the feeder, because they yield him little or no profit and both breeder and feeder waste their time in producing such a type of steer for beef purposes. (la. B. 81.) 288 DOMESTIC ANIMALS, DAIRYING, ETC. Practical Feeders' Conclusions Usually Right. As a rule the practical man arrives in the long run at correct conclusions on the main points involved in his practice. This is perhaps more true of the cattle feeder than of any other class of farmers, for several rea- sons : First, he is among the most intelligent and progressive of the farming class. Second, giving most of his attention to the buying, feeding and marketing of cattle, makes him in a large sense a spe- cialist in this particular branch of agriculture. Third, he has oppor- tunities for checking up his observations and judgment with accurate data that men in other lines of farming do not have. This comes about because, as a rule, he buys his cattle by weight and has, there- fore, an accurate knowledge of the cattle at the time he begins his feeding operations. He always sells by weight and has, therefore, the weight of his cattle at the close, and can easily determine quite ac- curately, the gain. Furthermore in many instances, he buys a large portion, and frequently all of the feed used, which enables him to determine with a fair degree of accuracy the amount of food con- sumed. These are the necessary data, of course, for reliable con- clusions as to the outcome of his feeding operations. Fourth, the pro- fessional feeder is of necessity more or less of an experimenter. He is forced by the varying supply of different kinds of feed to vary the material fed from season to season, and thus one season while he may naturally prefer a certain grain or hay the supply is inadequate or the price is too high, and he adopts another. Normally he might prefer to feed his corn whole, but the price may be such as to warrant him in grinding it, and so on throughout the entire range of steer feeding. The state of the feeder market will justify his feeding three or four year olds in one season, heifer calves in another, and so on. Thus his experience is forced, so to speak, to take a very wide range in the quality and condition of cattle fed, and in the kind, condition and quality of feed used. These considerations therefore would seem to justify us in giving to the conclusions of these men the greatest weight. That is, the dif- ference between two or more methods or practices, when large, may be safely assumed to have already been discerned by the practical man, by reason of his exceptional facilities for securing accurate data already pointed out, and furthermore because of his capacity for close observation and sound reasoning. (Mo. B. 76.) Advantages of Summer Over Winter Feeding. The advantages of summer over winter feeding may be very^ briefly summarized as follows: First, gains made in summer require less grain. Second, the gains are made more rapidly, so that the animal is finished in less time. Third, steers may be made thick and prime on corn and grass in summer without the use of expensive supplementary feeds like cottonseed meal or linseed meal, and will carry to market a lustrous coat. It is impossible by the use of corn and such roughage as tim- othy or prairie hay to bring animals within a reasonable time to any- thing like the degree of fatness that may be easily made with corn and grass, and they will never carry the bloom that is put on by full feeding at pasture. Presumably the green grass contains sufficient BREEDS OF BEEF CATTLE 289 protein to give the high finish and excellent coat required of animals that bring a high price. To approximate this finish in winter feed- ing requires the use of a considerable quantity of expensive grain like cotton seed meal or linseed meal, or the use of clover, cowpea or alfalfa hay for roughage. Fourth, the hog makes larger gains and shows a very much lower death rate in summer than in winter feed- ing. Fifth, there is a considerable saving in labor in summer feeding over winter feeding, in view of the fact that only the grain has to be hauled, and in view of the further fact that as a rule the steers need to be fed but once a day either about sunrise or near sunset. To offset this, however, labor on the average farm is scarce and much higher priced in summer than in winter. The manure is scattered by the cattle themselves, and the hauling of it out upon the ground is dispensed with. Grass is cheaper than hay, as has already been pointed out, and makes better gains. The handling of the roughage is likewise disposed of. (Mo. B. 76.) Feeding Two Year Old Steers. With the gradual increase in the price of grain, the feeder is becoming confronted with a new prob- lem. He is in the business for profit and unless the price of animal products increases proportionately with the price of grain, he must decrease expenses or quit the business. The latter is serious for no country can be kept in a prosperous condition without a large number of farm animals, and any condition that tends to hinder the raising of farm animals should be discouraged. The amount of grain fed to dairy and beef cattle is changing. Experiments with dairy cows are beginning to show that less grain can be fed, for heavy maximum production than has been the prac- tice to feed. Enormous quantities of grain have been fed, but on account of the increase of its price, farmers of the United States are probably not feeding grain as heavily as in former years. Reports from various parts of the country show that less grain is being fed. A large amount of grain for a short period with fleshy steers or a small amount of grain with considerable roughage for a long period! with thin steers, seems to be giving good results and is apparently finding favor. Reports from the middle and eastern states, are that farmers are looking more to silage, roughing their cattle through the winter and finishing on grass in the spring with less grain than in former years. This may not be very general yet, but it shows that there is a tendency to feed less grain. (Montana B. 78.) Silage Fed Cattle Kill the Best. While the percentage of good meat in any of the slaughter tests is thus considerably below what should be a fair standard, it indicates that with improved sires, the standard of beef cattle could be quickly raised in the' state. A grati- fying result of the slaughter test is found in the fact that the silage fed cattle showed the highest per cent of good meat, it being the pre- vailing though erroneous belief of the farmer and butcher that an animal fed succulent food will not kill well. The slaughter testa speak for themselves on that point and sound the death-knell of a prejudiced and absurd belief. The weight of the livers was not ma- terially influenced by the character of the ration fed, though the 290 DOMESTIC ANIMALS, DAIRYING, ETC. pound of intestinal fat showed considerable variation. It was highest as a rule with the silage fed cattle. WMle the greater weight of the intestinal fat may be attributed in a measure to the succulent food, it is also influenced by individuality and is not a factor of sufficient importance to have any marked influence on the investigation. (Tenn. No. 3, Vol. XV.) RATIONS AND ENERGY VALUES. Components of the Animal Body. The essential working parts of the body contain a great variety of substances, but these may, for our present purpose, be grouped under three heads water, ash, and protein. The bones, constituting the framework of the body ; the liga- ments, muscles and tendons which bind together and move the bones ; the skin and hair, or wool, which cover and protect the body; the internal organs of circulation, respiration, digestion, excretion, and reproduction ; the brain and nerves in short, the whole mechanism of the body can be regarded as being composed substantially of these three classes of substances Water. Rarely less than half and sometimes as much as three- fourths of the weight of the live animal consists of water. The pro- portion of water is greatest in young and lean animals and decreases as they become more mature or fatter. Ash. The ash or mineral matter is the portion left after com- plete burning. Its presence is most familiar in the bones, but it is found in all parts of the body and is just as essential as water or pro- tein. It amounts to from 2 to 5 per cent of the weight of the body. Protein. Protein is the name given to a highly important group of substances, of which the white of egg, washed lean meat, the casein of milk, the gluten of wheat flour, etc., are familiar examples. They are composed of the chemical elements carbon, hydrogen, oxygen, nitrogen, and sulphur. They are what are commonly called organic substances, which simply means that they may be burned completely in air or oxygen. They differ from the other groups of substances found in the animal body in containing sulphur and especially nitro- gen, the latter element constituting from 15 to 18 or 19 per cent of their weight. Protein is the basis of the living tissues of the body the so-called protoplasm and is the substance through which life especially mani- fests itself. In the body it is always associated with water and ash. Fat. Besides its working parts, the body contains a store of reserve material in the form of fat. While the fat deposits in the body are of use mechanically as cushions between the various organs and as a protecting layer under the skin, nevertheless fat represents essentially a storage of material derived from food consumed in ex- cess of the body's immediate needs. When the food is insufficient or entirely lacking, this store of surplus material is drawn upon, and the animal gradually becomes lean. The percentage of fat in the bodies of agricultural animals may vary greatly, but seldom falls below 6 or rises above 30 per cent. Glycogen. Besides fat there are stored up in the muscles, liver, and other organs of a healthy animal rather small amounts of a sub- BREEDS OF BEEF CATTLE 291 stance called glycogen, belonging to the group of carbohydrates de- scribed in the next section. Neither fat nor glycogen contains the elements nitrogen or sulphur, but each is composed entirely of carbon, hydrogen, and oxygen. Composition of the Entire Body. The average results of an- alyses shown in the following table indicate the composition of the bodies of different animals in different conditions: Percentage Composition of Live Animals. Ox. Fat calf. Sheep. Swine. Well fed. Half fat. Fat. Lean. Well fed. Half fat. Fat. Very fat. Well fed. Fat. Water . . . Perct 54.3 4 8 Per ct 50.2 4 4 Perct 43.6 3.9 Perct 60.1 4.5 Perct 56.6 3.4 Perct 53.7 3.3 Perct 50.7 3 2 Perct 44.8 2.9 Perct 39.0 2 8 Perct 53.9 2 7 Perct 42.0 1 8 Ash... Fat 7.1 15.8 14.9 15.5 26.8 13.7 13.1 15.3 8.6 15.4 13.2 14.8 18.3 13.8 28.1 12.2 37.2 11.0 22.5 13.9 40.2 11.0 Protein Contents of stomach and intestines 18.0 15.0 12.0 7.0 16.0 15.0 14.0 12.0 10.0 7.0 5.0 Total 100.0 100.0 100.0 100.0 100.0 100.0 100.0 100.0 100.0 100.0 100.0 Components of Feeding Stuffs. Like the animal body, the vege- table feeding stuffs which nourish it contain a great variety of sub- stances, but these, too, like those of the animal, may be classified into a few groups. Not only so, but these main groups are the same as those found in the animal, viz, water, ash, protein, fats, and carbo- hydrates. The proportions of these ingredients in the animal body and in vegetable substances, however, are widely different. Protein and Fat. Protein is the predominant ingredient, aside from water, in the animal body, while the latter stores up its reserve material in the form of fat with but little carbohydrates (glycogen). Protein is also contained in all plants and, as in the animal, forms the basis of the living tissues, but the predominant ingredients as regards quantity are the carbohydrates. In the form of cellulose, or crude fiber, they form the cell-walls of the plant, while as starch and sugar they are stored up in large amounts in the cells of seeds and roots as reserve material. A few plants, like flax and cotton, store up oil instead of starch and are likewise rich in protein, but as a rule the common feeding stuffs contain relatively small amounts of protein and fat and are rich in carbohydrates. The protein and fats of plants are not widely different from those of animals and call for no special description here. Carbohydrates. The carbohydrates, as starch, sugar, etc., con- stitute a distinct group, represented in the animal chiefly by the small amounts of glycogen mentioned previously and by the sugar of the milk. They are composed of the chemical elements, carbon, hydro- gen, and oxygen, the two latter being present in exactly the same relative amounts as in water, Like the fats, they contain no nitrogen 292 DOMESTIC ANIMALS, DAIRYING, ETC. or sulphur, but they differ from the fats in containing less carbon and more oxygen. The carbohydrates of feeding stuffs may be divided into two classes. The first of these includes those substances which are found in the cell walls and constitute the framework of the plant. This class includes cellulose and a great variety of other substances, most of which are rather difficult to dissolve. The crude fiber obtained in the analysis of feeding stuffs represents this class of carbohydrates. The second class of carbohydrates consists of the reserve material stored up in the cells and includes starch, the various kinds of sugar, and other less familiar substances. Some of these carbohydrates, like the sugars, dissolve in water and all may be converted into soluble forms rather easily. In analyses of feeding stuffs they are contained in the nitrogen-free extract which, however, also includes a variety of other substances of ill-defined nature. The Animal Body as a Machine. Mechanically the body of an animal is a very wonderful machine, but what is of peculiar interest in this connection is that the body is what the engineer calls a prime motor that is, like the steam or gasoline engine, it moves itself and may supply power to move other machines. In fact, there is in some respects a very close likeness between the animal body and what are known as internal-combustion motors, i. e., those engines in which power is developed by burning liquid or gaseous fuel (gasoline, alcohol, producer gas, etc.) in the cylinder of the engine itself. Such an engine requires two things for its operation : ( 1 ) Sufficient repair material to keep its working parts in running order, and (2) a supply of fuel in proportion to the work to be done. Just these same two things are what the animal requires repair material and fuel. In one respect, however, the animal body differs from the arti- ficial machine it can not be stopped and started again at will. As long as the animal lives the vital machinery is in operation, although less actively at some times than at others. The animal might be com- pared to an automobile whose engine must be kept running at a low speed in order to have the power available when needed. Conse- quently, the animal requires to be supplied with repair material and with fuel as long as it lives and not merely when it is in active use. That the feed of the animal is its source of both repair material and fuel is sufficiently obvious. We do not need a physiologist to tell us that when an animal is deprived of food its tissues waste away while its fat is burned up in the effort to keep the bodily machinery in motion. We may proceed at once, therefore, to consider the feed in these two relations, but at the same time must weigh the effects of all kinds of food as regards their comparative values in the economy of fat-production, heat-generation and muscle formation. It is not so much what the animal needs nor what the feed will furnish in the way of heat, energy and strength, so much as it is in what the animal can transform into those effects from the feed. In other words, the desired elements in the feed must be so available that the particular animal can transform them into the power required. (This leads to a study of both animal digestion and plant nutrition.) BREEDS OF BEEF CATTLE 293 Average Composition of Feeding Stuffs. The following table shows the average composition of a considerable number of American feeding stuffs. In this table the common practice has been followed of dividing the group of carbohydrates into two portions. The crude fiber or woody fiber is stated separately, partly because it is of some- what inferior nutritive value and partly because it gives some indica- tion of the bulkiness and wobdiness of the feeding stuff. The column headed nitrogen-free extract includes all the carbohydrates except the crude fiber that is, the sugar, starch, etc. Feeding stuff Water Ash Crude protein a Carbohydrates Fat (ether extract) Crude fiber Nitrogen free ex- tract Green fodder and silage: Alfalfa Per cent 71.8 80.9 70.8 79.3 74.4 71.1 85.7 76.6 61.6 8.4 15.3 42.2 40.5 10.7 7.7 16.0 11.3 13.2 9.2 7.1 9.6 88.6 91.2 78.9 88.6 90.6 10.9 10.9 15.1 11.0 10.5 11.6 10.5 8.0 75.7 11.8 8.2 7.0 6.8 8.1 8.2 8.1 9.2 9.9 10.2 11.8 89.9 6.4 11 9 12.1 Per cent 2.7 1.7 2.1 1.2 1.5 1.7 2.0 1.8 2.1 7.4 6.2 2.7 3.4 7.5 6.0 6.1 7.2 4.4 5.1 3.2 4.2 1.0 1.0 1.0 1.2 .8 2.4 1.5 1.5 3.0 2.6 1.9 1.8 3.4 1.0 4.8 7.2 2.0 2.1 1.3 .9 1.0 5.7 5.6 5.7 3.5 .4 3.3 5.8 3.3 Per cen 4.8 3.1 4.4 1.8 2.2 3.1 2.4 2.6 3.1 14.3 12.3 4.5 3.8 16.6 7.5 7.4 15.4 5.9 4.0 3.0 3.4 1.1 1.4 2.1 1.2 1.3 12.4 10.5 8.5 11.8 20.2 10.6 11.9 24.1 5.4 28.0 42.3 29.2 17.3 23.2 24.5 28.3 32.9 35.9 23.2 14.7 1.0 10.8 15.4 15.6 Per cent 7.4 5.2 8.1 5.0 5.8 9.2 2.2 11.6 11.8 25.0 24.8 14.3 19.7 20.1 27.7 27.2 22.3 29.0 37.0 38.9 38.1 1.3 .8 .6 1.3 1.2 2.7 2.1 6.6 9.5 14.4 1.7 1.8 13.0 3.8 6.3 5.6 11.0 12.3 6.4 6.1 1.1 8.9 8.8 10.7 3.3 2.2 19.8 9.0 4.6 Per cent 12.3 8.4 13.5 12.2 15.0 14.2 7.1 6.8 20. 2 42.7 38.1 34.7 31.5 42.2 49.0 40.6 28.6 45.0 42.4 46.6 43.4 7.6 5.4 17.3 7.5 5.9 69.8 69.6 64.8 59.7 51.1 72.5 71.9 44.8 12.5 41.9 23.6 39.4 51.0 54.7 47.8 50.8 35.4 36.8 48.5 63.9 6.3 58.4 53.9 60.4 Per cent 1-0 .7 1.1 .5 1.1 .7 .6 .6 1.2 2.2 3.3 1.6 1.1 2.9 2.1 2.7 5.2 2.5 2.3 1.2 1.3 .4 .2 .1 .2 .2 1.8 5.4 3.5 5.0 1.2 1.7 2.1 6.7 1.6 7.2 13.1 11.4 7.5 6.3 12.5 10.7 7.9 3.0 1.7 2.8 .2 1.3 4.0 4.0 Clover crimson Clover red Corn fodder Corn silage Hungarian grass Rape Rye fodder Timothy Hay and dry coarse fodders: Alfalfa hay Clover hay red Corn forage, field cured Corn stover, field cured Cowpea hay Hungarian hay Oat hay..., Timothy hay Straws: Oat straw Wheat straw Roots and tubers: Mangle-wurzels Turnips Grains: Barley Corn Corn-and-cob meal Oats Pea meal Rye Wheat By-products: Brewers' grains: dried Brewers' grains wet Buckwheat middlings Cotton-seed meal Distillers' grains dried Principally corn Principally rye Gluten feed dry Gluten meal Buffalo Gluten meal Chicago Linseed meal old process Linseed meal new process Malt sprouts Rye bran Sugar-beet pulp fresh Sugar-beet pulp dried Wheat bran Wheat middlings Total N X 6-25. 294 DOMESTIC ANIMALS, DAIRYING, ETC. The Demand for Repair Material. The repair material for any machine must be of the same kind of which the machine is made. We have just seen that the machinery of the body is composed of protein, ash, and water. These, then, are the materials which must be supplied to keep it in repair. Water, of course, is or should be abundantly supplied in the drink and scarcely need be considered in a discussion of rations. Ash. The ash supply has received less attention in the past than its importance deserves. In the ordinary operation of the bodily ma- chinery its ash ingredients are being continually excreted and the food must supply ash sufficient in amount and of the right kinds to make good the loss, while the growing animal needs an additional supply for building up its new tissues. Fortunately, normally con- stituted rations appear to be rarely deficient in ash. Usually it is only when large amounts of certain by-product feeds are used or when there is a misrelation between grain and coarse fodder that special attention needs to be given to the ash supply. Protein. The protein supply, on the other hand, calls for care- ful consideration. Protein is the characteristic ingredient of the animal mechanism, and is broken down and destroyed in its opera- tion at a fairly regular rate. Moreover, since the bodily machinery is running all the time, whether any external work is done or not, this loss is continually going on. The body differs from a machine in being self-repairing, but it can not manufacture protein for repair purposes out of the carbo- hydrates and fats of its feed any more than it is possible to make repairs for an automobile out of the gasoline which supplies the power. For its protein the body is absolutely dependent on the protein of the feed. This protein is needed for two purposes. First. It is required for repair purposes in the strict sense; i. e., for making good the wear and tear of the bodily machinery. The amount needed for this purpose is comparatively small, and is no greater under normal conditions when the animal is doing work than when it is not. Like a good engine, the body makes relatively small demands for repair material and requires chiefly fuel. Second. Protein as well as ash is needed in the growing, preg- nant, or milking animal to furnish the material for enlarging the working machinery of the body of the animal itself or of its young. The amount of protein required for this purpose is just so much in addition to that needed for repair purposes simply, and hence the feed of these animals must contain a more liberal supply of this in- gredient. This is important physiologically to secure proper nutri- tion of the young and economically because the growth of milk pro- duced is the principal object of the feeder. Feed as a Source of Repair Material. For the reasons stated the ash has generally been omitted from consideration in discuss- ing the feed as a source of repair material. The value of a feeding stuff as a source of protein to the animal body evidently depends in the first place on the amount of protein which it contains. Cotton- iseed meal, carrying some 43 per cent of protein, is evidently, other BREEDS OF BEEF CATTLE 295 things being equal, a better source of protein than Indian corn, car- rying about 10 per cent. In the second place, however, the protein of the feeding stuff must be capable of being digested by the animal. Of two feeding stuffs containing equal amounts of protein, that one is the more valuable as a source of supply in which the larger proportion of the protein is digestible. The second column of the table herein shows the average percentage of digestible protein contained in a number of the more common feeding stuffs. These figures are the average results of a considerable number of analyses of the feeding stuffs and a smaller number of determinations of their digestibility. In- dividual samples may vary more or less, 'and sometimes considerably, from the average. A third question is at once suggested, viz, whether the digest- ible protein from different feeding stuffs is equally valuable to the animal. It is unlikely that this is exactly the case, but whether these probable differences are of much practical significance, espe- cially in rations containing a number of feeding stuffs, seems doubt- ful. At any rate, the only course open at present is to assume them to be of substantially equal value. The Demand for Fuel Material. Since the animal machinery is running continually, it requires a continual supply of fuel ma- terial, the amount which is necessary depending upon the amount of work done. This fuel material consists chiefly of the carbohy- drates and fats of the food, although if more protein be fed than is required for repair and construction purposes it, too, may be used as fuel, while the worn-out portions of the protein tissues are also util- ized that is, the bodily engine can burn up its own waste products as fuel. The unnecessary use of protein as fuel material, however, is wasteful, because protein is ordinarily more expensive to buy or to produce on the farm than are carbohydrates and fat. If the fuel materials supplied in the food are just adequate to the work to be done, they are virtually burned up as a source of power. If more are supplied than are immediately needed, the body is able to store away the surplus for future use, much as we may fill up the gasoline tank of an engine. To a small extent the body stores up carbohydrates (in the form of glycogen), but most of its surplus fuel it converts into fat. The fat of the body, therefore, is its re- serve of fuel. In fattening, the body is accumulating a surplus against future needs which man diverts to his own use as food. If the food becomes insufficient, this store is drawn upon and the ani- mal gradually becomes lean. Similarly, in growth and in milk pro- duction, the animal sets aside a part of the supply of both repair and fuel material in its food for its own growth or for the use of its young, and man appropriates the resulting meat or milk as repair and fuel material for his own body. Fecrl. as (i Source of Fuel Material. We can run an engine with various kinds of fuel. For the steam engine we may use coal, wood or petroleum ; for the internal-combustion motor, gas, alcohol, or gaso- line may be employed. Similarly we supply the animal body with 296 DOMESTIC ANIMALS, DAIRYING, ETC. a great variety of feeding stuffs from which it has to extract its sup- ply of fuel, and even the materials which it actually burns up are of various sorts. These fuel materials are not all of equal value. A pound of good anthracite coal, for example, is, other things being equal, about 14 per cent more valuable as fuel than the same weight of alcohol, while a pound of fat in the food has over twice the fuel value of a pound of starch. Evidently, it will greatly simplify comparisons of different feeding stuffs and rations as sources of fuel material to have some simple method by which we can learn not only the amount of fuel material which the feed contains, but also the quality of that fuel. Such a basis of comparison is afforded by a study of the energy values. Measurement of Energy. Anything which has the capacity to do work is said to possess energy. Hence we say that the fuel of the engine and the feed of the animal possess energy, since they enable the engine or the body to do work. They hold this energy stored up in the "latent" or "potential" form of chemical energy. When they are burned in the engine or the body, this chemical energy is set free, part of it being converted into work and the rest escaping as heat. Plainly, then, the value of a fuel, or of a feeding stuff so far as it serves as fuel, depends, in the first place, on how much chemical energy it contains. This can be measured without difficulty by converting it all into heat, by burning the substance, and measur- ing the heat produced. Various units have been employed in meas- uring heat, but the one used in this article is the therm. A therm* is the quantity of heat required to raise the tempera- ture of 1,000 kilograms (2,204.6 pounds) of water 1 C. A pound of good anthracite coal would produce heat enough to raise the temperature of about 3,583 kilograms of water 1 C. Consequently, the chemical energy contained in the coal is 3.583 therms per pound. In precisely the same way the amount of chemical energy contained in many feeding stuffs has been measured. The following are the results of a few such determinations : Chemical Energy in 100 Pounds (With 15 per cent moisture.) Therms. Timothy hay 175.1 Clover hay 173.2 Oat straw 171.0 *In the nutrition investigations and studies of foods and feeding stuffs made by this Department and by the State agricultural experiment stations, the results, so far as energy or fuel value is concerned, have been expressed in calories. There is consequently a large mass of available data so expressed. The calorie is the amount of heat required to raise 1 kilogram of water 1 C. (approximately 1 pound of water 4 F.). The small size of the unit has made it necessarv to use inconveniently large numbers to express the fuel values of foods and feeding stuffs, a difficulty which is obviated by the use of the therm. As the latter unit is equivalent to 1,000 calories, available data, such, for example, as those in Farmers' Bulletin No. 22, can be readily given expression in the new unit. The use of the word therm, with the abbreviation *., has also been proposed as th equivalent of the small (or gram) calorie, but it has not come into general use, BREEDS OF BEEF CATTLE 297 Therms. Wheat straw 171.4 Corn meal 170.9 Oats 180.6 Wheat bran 175.5 Linseed meal 196.7 Utilization of Energy. But the value of a fuel depends also upon how much of the chemical energy which it contains can be used. Hard coal contains plenty of energy, but it would not be of much use to run a gasoline engine. Wheat straw contains fully as much chemical energy as corn meal, but much of that energy can not be utilized by the animal machine. Two causes combine to affect the utilization of the chemical energy contained in feeding stuffs. First, more or less of the feed escapes from the body unburned. If a coal is of such quality that portions of it drop through the grate unconsumed, and if smoke and combustible gases are carried off through the stack, it is evident that a ton of it will supply far less heat to the boiler than it would if the combustion were perfect. The case of the feeding stuff is similar. Much of even the best feeding stuffs escapes digestion and is excreted in the dung, carrying with it a corresponding quantity of the chemical energy of the feed. More or less incompletely burned material is also contained in the urine, while ruminants, and to a certain extent horses, also give off combust- ible gases, arising from fermentations in the digestive tract. Thus about 22 per cent of the chemical energy of corn meal and fully 55 per cent of that of average hay has been found to escape in these ways. Second, as already pointed out, the animal body has to extract its real fuel material from its feed, separating i'; from the relatively large proportion of useless material which it excretes. To effect this separation requires work and consumes energy, and this energy, of course, is not available for other purposes. The case is somewhat as if the gasoline engine had to distill its own gasoline and separate it from impurities. Moreover, when the animal eats more feed than is required simply to furnish energy to run its machinery, and hence is able to produce meat or milk, the process of converting the food into suitable forms to store up in the body seems to require a further expenditure of energy. It is not, then, the total chemical energy contained in a feeding stuff which measures its value as fuel material to the body, but what remains after deducting the losses in the unburned materials of the excreta and the energy expended in extracting the real fuel ma- terials from the feed and transforming them into substances which the body can use or store up. For example, while 100 pounds of corn meal contain, as stated, about 170.9 therms of chemical energy, only about 88.8 terms remain, after all these deductions have been made, to represent the actual value of the corn meal as a source of energy to the organism. Energy Values of Feeding Stuffs. While it is a comparatively simple matter to ascertain the total amount of chemical energy con- tained in a feeding stuff, the determination of the proportion of this 298 DOMESTIC ANIMALS, DAIRYING, ETC. energy which the body can actually utilize requires the use of com- plicated and costly apparatus (respiration apparatus or respiration calorimeter) and the expenditure of much time and labor. While much has been accomplished along this line, vastly more still re- mains to be done before we can claim to have even a fairly com- plete knowledge of the energy values of feeding stuffs. At the same time, enough has already been accomplished, chiefly through the investigations of G. Kiihn and of Kellner at the Mockern Experi- ment Station in Germany, since 1882, and in part also by experi- ments carried on, in co-operation with this Department, by the Institute of Animal Nutrition of The Pennsylvania State College, to demonstrate that the method still generally current of comparing feeding stuffs on the basis of the digestible matter which they con- tain is seriously erroneous and to furnish the beginnings of a reform. The last column of the table on page 300 contains the energy values of the feeding stuffs, whose composition is given herein, com- puted on the basis of Kellner's investigations. They are what Kell- ner call production values i. e., they show primarily the value of the different feeding stuffs for the production of gain in mature fattening cattle. Even for this purpose many of them are con- fessedly approximate estimates, and still less can they be regarded as strictly accurate for other kinds of animals and other purposes of feeding. Nevertheless, there seems to be reason for believing that they also represent fairly well the relative values of feeding stuffs for sheep at least, and probably for horses, and for growth and milk production as well as for fattening. At any rate, there can be little doubt that they are decidedly more accurate than the figures which have been commonly used, and we are quite justified in using them tentatively and subject to correction by the results of later ex- periments. As regards swine, the matter is far less certain, and it may per- haps be questioned whether the values given in the table are any more satisfactory for this animal than the older ones. Feed Requirements. Assuming that the big table on next page represents, with a fair degree of accuracy, the amount of repair material (protein), on the one hand, and of energy, on the other, which the various feeding stuffs can supply, we still need to know how much of each is required by the bodies of animals of different kinds and kept for different purposes ; in other words, we need some formulation of the feed requirements of farm animals. Since the animal machine can not be stopped when it is not in active use, it requires, as shown herein, and as is a familiar fact of experience, a continual supply of food. This amount of food, which is required simply to support the animal, is commonly designated as the maintenance requirement i. e., it is the amount required sim- ply to maintain the animal when it is doing no work and producing nothing. In other words, it is the least amount on which life can be permanently maintained. The maintenance requirement is naturally greater for a large than for a small animal. Experiment has shown, however, that this BREEDS OF BEEF CATTLE 299 increase is not proportional to the weight of the animal, but approx- imately to the amount of surface which it exposes, so that the large animal requires less food in proportion to its weight to maintain it than does the small one. The following tables show the amounts of protein and of energy required per head for the maintenance of cattle, sheep, and horses of different weights. The figures given for sheep include a sufficient allowance for the normal growth of wool. No very satisfactory figures for swine are available. It should be understood that strict accuracy is not claimed for these figures, although they are sub- stantially correct. In particular there seems to be reason to believe that the maintenance requirement of fattening animals increases somewhat more rapidly than these tables indicate. Maintenance Requirements of Cattle and Horses, Per Day and Head. Cattle Horses Live weight Digestible protein Energy value Digestible protein Energy value Pounds Pounds Therms Pounds Therms 150 0.15 1.70 0.30 2.00 250 .20 2.40 .40 2.80 500 .30 3.80 .60 4.40 750 .40 4.95 .80 5.80 1.000 .50 6.00 1.00 7.00 1.250 .60 7.00 1.20 8.15 1,500 .65 7.90 1.30 9-20 Maintenance requirements of sheep, per day and head. Estimated energy value of I pound of gain in weight by growing cat- tle and sheep. Live weight. Digestible protein. Energy value. Pounds. Pounds. Therms 20 0.23 0.30 40 .05 .54 60 .07 .71 80 .09 .87 100 .10 1.00 120 .11 1.13 140 .13 1.25 Age. Energy value. Months. 3 6 12 18 24 30 Therms. 1.50 1.75 2.00 2.50 2.75 3.00 Requirements for Growth. While young animals gain in weight faster than do older ones, a pound of increase in live weight in the young animal contains much more water and less dry matter than in the case of a more mature animal. Moreover, the dry mat- ter in the case of the young animal contains relatively more protein and less fat, as a rule, than in the older one, and fat contains much more chemical energy than protein, the proportion being 1 to 1.67. The consequence is that a gain of 1 pound in live weight represents the storing up of much less energy in the young than in the mature animal, and therefore requires a smaller supply of energy in the food. 300 DOMESTIC ANIMALS, DAIRYING, ETC. Dry Matter, Digestible Protein, and Energy Values per 100 Pounds. Feeding stuff Total dry matter Digestibl protein Green fodder and silage: Pounds Pounds Alfalfa 28 2 2.50 Clover crimson 19 i 2 19 Clover red 29 '.2 2 !21 Corn fodder green 20.7 .41 Corn silage 25.6 1.21 Hungarian grass 28.9 1.33 Rape 14.3 2.16 Rye 23.4 1.44 Timothy 38.4 1.04 Hay and dry coarse fodders; Alfalfahay 1-6 6.93 Clover hay red 84.7 5.41 Corn forage, field cured -Q'K Corn stover 1.80 Cowpeahay Hungarian hay * Oat hay S4.0 2.59 Soy bean hay ".'.'.'.'.'.'.'.'.'.'.'.'.'.'.'.'.'.'.'.".'.".'.'.'.".'.'.'.'.'.'.'.''.'.'.'.'.'.".'.'.'.'.'. '.'.'.'.'. ' f8.7 7.68 Timothy hay 86.8 2.05 ^oli straw... 90.8 1.09 Rye straw 92.9 .63 Wheat straw 90 - 4 .37 Roots and tubers: Carrots A -* ' Mangel-wurzels 011 Potatoes **} -fl Rutabagas .88 Turnips 9 - 4 -22 89.1 8.37 .'.''.'.'.'.'.'.''.'.'.'.'.'.'.'.'.'.'.:'.'.'.'.'.'.'.'.".'.'.".::::'.".'.":::: 89. i 6.79 Corn-and-cbb meal ..'..'.'.'.'.'.'.'.'.'.'.'.'.'. '.'.'.'.'.'.'.'. '.'.'.'.'.'.'.'.'.'.'.'.'. *- 5 ,3 Oats oy.u o.ob Pea meal' "'.'.'.'.'.'.'.'.'.'.'.'.'. !!"..".'!!!".'.'!.';.*.'!!"!! !!!!!!! !"!!""!! 89.5 16.77 Rve 88.4 8.12 wh^at::::::::::::::::::::::::::;:::::::::::::::::::::::::::::::::: 89.5 8.90 By-products: Brewers' grajns dried 92.0 19.04 Brewers' grains wet 24.3 3 81 Buckwheat middlings 88.2 22 '34 Cotton-seed meal 91.8 35.15 Distillers' grains dried Principally corn 93.0 21 93 Principally rye 93.2 10 38 Gluten feed dry 91.9 1995 Gluten meal Buffalo 91.8 21 56 Gluten meal Chicago 90.5 33.09 Lindseed meal old process 90.8 27.54 Lindseed meal new process 90 . 1 29 26 Malt sprouts 89.8 32.36 Rye bran 88.2 11.35 Sugar-beet pulp fresh 10.1 .63 Sugar-beet pulp dried 93.6 6.80 Wheat bran 88. 1 1021 Wheat middlings 84.0 12.79 Unfortunately no very extensive determinations of the compo- sition and energy values of the increase of live weight in growing animals have yet been reported. The following estimates by the writer, derived from such data as are available, may serve to give a general idea of the requirements per pound of growth of cattle and sheep at different ages, but they can not lay claim to any high de- gree of accuracy. The figures refer to normal growth, with no con- siderable fattening. BREEDS OF BEEF CATTLE 301 The growing animal also requires a sufficient supply of digesti- ble protein for maintenance and to supply material for new growth. No very systematic study of the latter requirement has yet been made, but from the results of a considerable number of practical feeding trials it is possible to make a fairly satisfactory estimate of the total amounts of digestible protein which should be contained in the ra- tions of cattle and sheep at different ages to insure satisfactory growth. These estimates are contained in the following table. They are expressed in pounds per head and include the maintenance requirement. As a matter of convenience, the table also contains the estimated energy values required per head for normal growth, and it thus constitutes a set of approximate feeding standards. In their use the weight rather than the age of the animal should be the controlling factor. Estimated Requirements Per Day and Head. FOR GROWING CATTLE. FOR GROWING SHEEP. Age. Live weight. Digestible protein. Energy value. A * e - Live weight. Digestible protein. Energy value. Months. founds. Pounds. Therms. Months. Po unds. Pounds. Therms. 3 275 1.10 5.0 6 70 0.30 1.30 6 425 1.30 6.0 9 90 .25 1.40 12 650 1.65 7.0 12 110 .23 1.40 18 850 1.70 7.5 15 130 .23 1.5O 24 1,000 1.75 8.0 18 145 .22 1.6O 30 1.100 1.65 8.0 a Including the maintenance requirement. No satisfactory data for colts are available, while, as noted else- where, knowledge of the relative values of feeding stuffs for swine is somewhat deficient. Requirements for Fattening. The foregoing data refer to what might be called normal growth, in which the animals are kept in a good thrifty condition, but do not become fat. If any considerable fattening is desirable, somewhat heavier rations must be given in proportion to the amount of gain made, because the increased gain, in fattening animals consists to a very large extent of fat, and there- fore means the storing up by the animal of more reserve energy. For fairly mature fattening animals such, for example, as the 2 to 3-year-old steers which are commonly fattened in the corn belt probably 3.5 therms per pound of gain in live weight is a fair allow- ance, although more appears to be often used in practice. As yet no corresponding data are available for the fattening of growing ani- mals, as, for example, in the production of the so-called baby beef. It is not probable, however, that any larger amount of protein is re- quired in such fattening than in feeding simply for normal growth, so that the additional food given for fattening may, from this point of view, consist largely of nonnitrogenous material, i. e., carbohy- drates and fats. It is to be noted, however, that an excess of these material* in the ration tends to cause less perfect digestion, and also 302 DOMESTIC ANIMALS, DAIRYING, ETC. that a moderate proportion of the more nitrogenous concentrates .seems to aid in securing the consumption of heavy rations. Kellner recommends that at least 1 pound of digestible protein be supplied in the ration for each 8 to 10 pounds of carbohydrates and fat to each animal. Requirements for Milk Production. Of all forms of animal production that of milk is perhaps the most variable and most in- fluenced in its amount by the feed supply. The energy relations of milk production have not been very fully investigated. Tentatively, however, it seems safe to estimate that the production of 1 pound of average milk, containing about 13 per cent of total solids and 4 per cent of fat, will require approximately 0.3 therm of production value in the feed. Naturally this amount would vary with the quality of the milk, milk rich in fat and in total solids requiring more than milk containing more water or a lower percentage of fat. This state- ment is based upon the best authority. The matter of the protein requirements for milk production has not been altogether cleared up. It seems to have been pretty well demonstrated that, for a time at least, milk production may be kept up on a supply of protein very slightly exceeding that found in the milk produced (of course, in addition to the maintenance re- quirement) . In the case of average milk, this would call for about 0.032 pound of digestible protein for each pound of milk. It has not been demonstrated, however, that a cow can keep this up in- definitely. Furthermore, for the production of liberal yields of milk more protein seems to be required, or at least to be advantage- ous. No definite statement can be made at present as to how large an excess is necessary. For the ordinary commercial dairyman, how- ever, it is believed that an allowance of 0.05 pound of digestible protein per pound of milk will prove ample. Requirements for Work. Since the horse (or mule) is the usual working animal in the United States, consideration will be limited to this animal. There is on record a considerable amount of data as to the relation between the work performed by the horse and the amount of energy necessary to be supplied in the feed. Where large numbers of horses are kept and the work is relatively uniform in amount, it is possible to make fairly satisfactory compu- tations from these data, although the method is somewhat compli- cated. The amount of w r ork required of farm horses, however, is so varied in amount and kind and so difficult of measurement or esti- mate as regards amount, that it is scarcely practicable to base the calculations of rations upon it. The large table herein probably shows with at least a fair degree of accuracy the relative values of different feeding stuffs as sources of energy for work production, while the amount to be fed will ordinarily be based upon the obser- vation of the feeder rather than upon arithmetical calculations. As a sort of general average, however, Kellner recommends the follow- ing rations for a 1,000-pound horse, the amounts stated including the maintenance requirement: 3 C/5 w 5 BREEDS OF BEEF CATTLE 305 Requirements of the Working Horses. Digestible protein. Energy value. Pounds. 1.0 Therms. 9.80 1.4 12 4O 2.O 16.00 Dry Matter in Rations. The total volume of feed which an animal requires, although rather variable, has its limits. In com- puting rations the most convenient indication of the bulk of the feeds is the percentage of dry matter shown in the first column of the table on page 15. In very general terms it may be said that a 1,000-pound ruminant should be given from 20 to 30 pounds of dry matter per day, 25 pounds being perhaps a fair average, while for the horse smaller amounts will be appropriate. A study of the table shows that concentrated feeding stuffs con- tain much more protein and energy in proportion to their dry mat- ter than do the forage crops. Evidently, then, in heavy feeding, where the purpose is to give the animal all the feed possible, the ra- tion should consist as largely as practicable of concentrated feeding stuffs, because only in that way can the required amount of food be obtained, without unduly increasing the bulk of the ration. On the other hand, in light feeding the coarse fodders may predominate, because they are usually relatively cheaper and can supply the re- quired amount of food in a bulk which the animal can consume. THE COMPUTATION OF RATIONS. General Considerations. In the foregoing pages we have con- sidered the requirements of the animal machine for repair material (protein), and for fuel material (energy), and have also studied the food as a source of these two. If we knew exactly the requirements of the animal in any given case, and if we knew exactly what amounts of protein and energy the feeding stuffs at our disposal could furnish, the computation of a ration would be almost purely a matter of arith- metic. We would simply have to devise a mixture of the feeding stuffs which would yield the requisite amounts of protein and energy and would at the same time be of suitable bulk and of such a char- acter as to exert no injurious action upon the animal. As a matter of fact, we have no such exact knowledge. Prac- tically, animals vary in their requirements, while feeding stuffs of the same name show a wide range in composition, digestibility, and nutritive value. Furthermore, what is still more important, the economic conditions vary from case to case so that, for example, a very liberal ration might be advisable in one instance, while for the same animal under different conditions it would be highly uneco- nomic. The figures given on previous pages can not be made the basis of infallible recipes which shall save the user the trouble of observing and thinking. 306 DOMESTIC ANIMALS, DAIRYING, ETC. But notwithstanding all this, the foregoing data can afford val- uable aid to the feeder. By their use he can get a general idea of the feed requirements of his animals and can compute a ration which will approximately supply the requisite amounts of protein and energy. His ability as a feeder will be shown, first, in his power to estimate the conditions which will modify the feed require- ments of his particular animals and cause his feeds to vary from the average, and, second, in the skill with which he can interpret the daily results and modify his feeding in accordance with them. The problems given on the following pages are intended simply as illustrations of the method of using the tables and not as model rations. Limitations of space forbid the multiplication of examples, but the reader who grasps the method will have no serious difficulty in applying it to his own conditions, while facility will be required with surprising rapidity by practice. It will be observed that the form of these tables and the methods of computation do not differ materially from those which have been used for many years in com- puting rations on the basis of digestible nutrients, although the sig- nificance of some of the figures is different. It may be added that the digestible protein in the tables is true protein that is, it does not include the so-called "amids" of the "crude protein." Con- sequently the percentages, as well as the amounts estimated in the rations on succeeding pages, are somewhat smaller than in the older tables. Total Feed Required. A bunch of feeders 2 to 3 years old, averaging 1,000 pounds per head, are to be fattened on clover hay and corn-and-cob meal. Such cattle, if of good grade, should weigh 1,400 pounds each when ready for market and should not require over two hundred days to make the gain of 400 pounds. They should therefore make an average gain of 2 pounds per day. On page 301 it was estimated that a gain of 1 pound live weight requires about 3.5 therms energy value in the feed ; for a daily gain of 2 pounds, therefore, the energy requirement would be 7 therms. To this must be added the maintenance requirement, which will in- crease as the animals grow heavier. For the average weight of 1,200 pounds it is sufficiently accurate to use the maintenance requirement computed in the table on page 299 for 1,250 pounds, viz., 7 therms. This makes the total energy requirement per day 14 therms on the average of the whole feeding period. If we assume that 2 pounds of grain will be fed for each pound of hay, it is easy to compute from figures given on the foregoing pages, the amount of feed required to supply 14 therms of energy, as follows: Therms. In 100 pounds of clover hay 34.75 In 200 pounds of corn-and-cob meal. 144.10 In 300 pounds of feed 178.85 In 1 pound of feed 596 BREEDS OF BEEF CATTLE 307 To supply 14 therms requires 14-^0.596=23.49 pounds of total feed, consisting of 7.83 pounds of clover hay and 15.66 pounds of corn-and-cob meal, or, in round numbers, 8 pounds of hay and 16 pounds of meal. This, of course, represents the average ration for the whole feeding period. At the beginning the feed will naturally be lighter and consist to a larger extent of hay, while the amount of feed, and especially the proportion of grain, will be gradually increased until toward the end of the feeding the animals are consuming all the grain they will take, with only enough hay to insure the necessary bulk and proper digestion. Naturally, too, the form in which the corn is given will usually be varied in the course of the feeding. Improvement of a Ration. In the foregoing example it was assumed that the feeding stuffs to be used had been decided upon and attention was directed simply to the quantity required. Let us now take up the question from the other end and see where a study of the ration may not yield some suggestion of possible improve- ment. According to the table herein, clover hay and corn-and-cob meal, respectively, contain in 100 pounds^ Feed. Total dry matter Digestible protein. Energy value. Pounds. 84 9 Pounds. 5 41 Therms. 34 74 Corn-and-cob meal 84 4 53 72 05 The 8 pounds of clover hay in the ration will evidently contain eight one-hundredths of the amounts given in the table, viz: 84.7 X0.08=6.78 pounds of dry matter. 5.41x0.08=0.43 pounds of digestible protein. 34.74X0.08=2.78 therms of energy value. A precisely similar computation for the corn-and-cob meal gives the following results: 84^9 X0.16=13.58 pounds of dry matter. 4.53X0.16= 0.72 pounds of digestible protein. 72.05X0.16=11.53 therms of energy. Adding these amounts, it is found that the total ration contains: Kind and amount of feed. Total dry matter. Digestible protein. Energy value. Pounds . R 78 Pounds. Therms. 13 58 Total .. . 20.36 1.15 14 31 The quantity of energy, of course, corresponds with that esti- mated to be necessary, because the amounts of feed were fixed upon that basis. It is observed, however, that the amount of digesti- ble protein in the ration is considerably less than is estimated on 308 DOMESTIC ANIMALS, DAIRYING, ETC. page 301 to be needed by cattle of this age. A ration like the above might produce fair gains, but it would fail to take full advantage of the capacity of such cattle, for growth and the gain would most likely fall below that which was anticipated. An increase in the protein could be expected to make the ration more efficient. One way of accomplishing this which naturally suggests itself is to feed more clover hay, since it is richer in protein than the meal. This would make the ration more bulky, and the rather low total for dry matter indicates that a moderate increase in this direction is prac- ticable. In the early stages of fattening in particular, at a time when we may suppose that the call for protein is greater than at subsequent periods, a freer use of clover hay would usually be prac- ticable, as well as desirable on the score of economy. Even if we suppose the proportion of hay and grain reversed, however, and the ration to consist for a time of 16 pounds of hay and 8 pounds of meal the digestible protein is after all only slightly increased. Pounds. 16 pounds of clover hay contain of digestible protein 0.86 8 pounds of corn-and-cob meal contain of digestible protein . . .36 Total digestible protein 1.22 To make any marked change in the ration in this respect, it is evident that there must be introduced into it some feed much richer in protein than either of those composing it. On consulting the table it is evident that what is needed is one of the by-product feeds like gluten feed or meal, the oil meals, etc., and also that only a small amount of one of these will be needed to effect a marked change in the ration. Thus, if there be substituted 2 pounds of old- process linseed meal for 2 pounds of the corn-and-cob meal, the ra- tion will foot up as follows : Kind and amount of feed. Total dry matter. Digestible protein Energy value. Clover hay, 8 pounds Pounds. 6.78 Pounds. 0.43 Therms. 2.78 Corn and-cob-meal, 14 pounds 11.87 .63 10.09 Old-process linseed-meal, 2 pounds 1.82 .55 1.58 Total... 20.47 1.61 14.45 Thus at a comparatively small additional expense it is possible to improve the ration materially by adding the lacking protein, and there is little doubt that the improved ration would produce a more rapid gain and, under ordinary conditions, a more profitable one as well, either by increasing the total gain or shortening the feeding period. Computing a Ration From Given Feeding Stuffs. There are available for a dairy herd field-cured corn forage (including the ears), clover hay, corn meal, wheat bran, and gluten feed. The table herein shows that these feeding stuffs, if of good average qual- ity, will furnish in 100 pounds : BREEDS OF BEEF CATTLE 30(9 Feed. Total dry matter. Digestible protein. Energy value. Pounds. Pounds. Therms. Corn forage 57.8 2.13 30.53 Cloverhay 84.7 5.41 34.74 Cornmeal 8&.1 6.79 88.84 Wheat bran 88.1 1O 21 48.23 Glutenfeed 91.9 19.95 79.32 The cows average 850 pounds per head and have produced in previous years an average of 20 pounds of milk per day. According to the table above, the maintenance requirement of such animals per day and head would be approximately Digestible protein pound . . 0.45 Energy therms . . 5.60 For the production of 20 pounds of milk of average quality there would be needed. Digestible protein (0.05X20) pounds.. 1 Energy (0.3X20) therms.. 6 The total feed requirements per day and head are therefore : Digestible Energy protein. value. Pounds. Therms. For maintenance 0.45 5.6O For milk production , 1.00 6.00 1.45 11.60^ The problem, then, is to find a mixture of the available feeding stuffs which will yield these amounts of digestible protein and of energy and which shall have a suitable bulk. The first step in the construction of a ration is to fix upon the amounts of coarse fodders. It is usually desirable to use as large a proportion of these as possible, since they are usually cheaper sources of food than grain. On the other hand, the amount of them which an animal can consume is limited. Much depends upon the individual animals, and the proper amount can only be told by trial, but it is aimed to get from 12 to 14 pounds of dry matter in the form of coarse fodder. Corn forage being a cheap feeding stuff, it is best to use this freely, with prob- ably some hay for variety. By a little trial, it is found that 14 pounds of corn forage and 6 pounds of clover hay will give us 12 pounds of dry matter and the amounts of digestible protein and of energy shown below: Kind and amount of feed. Total dry matter. Digestible protein. Energy, value. Corn forage. 12 pounds , Clover bay. 6 pounds . Total. Pounds. 6.94 5.08 12.02 Pounds, 0.26 .32 .58 Therms. 3.66 2.08 6.74 310 DOMESTIC ANIMALS, DAIRYING, ETC. To this is added sufficient grain to bring the ration up to the requirement. The proper amount must be ascertained by trial. At a venture there is taken 5 pounds of corn meal and 2 pounds of wheat bran. Add this to the ration and the result is Kind and amount of feed. Total dry matter. Digestible protein . Energy value. Corn forage, 12 pounds Pounds. 6 94 Pounds. 26 Therms. 3 66 5 08 32 2 os Corn meal, 5 pounds 4 46 34 4 44 1 77 20 % Total 18.25 1 12 11 14 Comparing these totals with the requirement as computed, it is found that the ration is slightly deficient in energy and considerably so in digestible protein, while the rather low figure for dry matter shows that more feed may be added to it if desirable. Of the feeding stuffs available, gluten feed is the one richest in protein, and nat- urally this is used to make up for the lack of this material. The ration still needs 0.33 pound of digestible protein in the ration, and this will be almost exactly supplied by IMj pounds of gluten feed. Making this addition, the ration stands thus: Kind and amount of feed. Total dry matter. Digestible protein. Energy value. Corn forage 12 pounds Pounds. 6.94 Pounds. 0.26 Therms. 3.66 Clover hay, 6 pounds 5.08 .32 2.08 4.46 .34 4.44 Wheat bran, 2 pounds . 1.77 .20 .96 Gluten feed. 1 J4 pounds 1.38 .30 1.19 Total . 19.63 1.42 12.33 This ration contains almost exactly the desired amount of digestible protein, but it supplies a surplus of energy which would probably tend to fatten the cows rather than to cause any marked increase in the milk flow. It is wished, therefore, to reduce the energy content while retaining the same amount of protein. This can be done by taking out some material, such as corn meal, which supplies chiefly energy, and substituting for it a smaller quantity of some substance like gluten feed, rich in protein. Thus, exchang- ing 1 pound of corn meal for one-half pound of gluten feed gives a ration which agrees very closely with the computed requirements : Kind and amount of feed. Total dry matter. Digestible protein. Energy value. Corn (orage, 12 pounds Pounds. 6.94 Pounds. 0.26 Therms. 3.66 Clover hay, 6 pounds 5 08 .32 2 08 Corn meal, '4 pounds 3.56 .27 3.55 Wheat bran. 2 pounds 1 77 .20 .96 Gluten feed, 2 pounds 1.84 .40 1.59 Total 19.19 1.45 11.84 BREEDS OF BEEF CATTLE 311 This ration corresponds with the average requirement of the whole herd, since it is based on its average performance. It hardly need be said that it should be modified to suit the requirements and capacities of the individual cows, the heavy milkers getting more and the lighter ones less. By proceeding in this manner, with a little patience there can usually be obtained a ration corresponding as closely as it is neces- sary to the requirement, provided the feeds available admit of it. With a little experience one very soon learns to guess pretty closely, and with some practice finds the computations very easy. An exact agreement with the requirement need not be sought for, since in practice the composition of the feeds will probably vary more or less from the average of the tables. The Choice of Feeding Stuffs. When, as in the last example, feeding stuffs must be purchased in order to get the desired relation between the protein and the energy of the ration, it is evident that often a wide range of choice may be offered. In such a case the question at once arises which of the various feeds available is it most economical to purchase, it being evident, of course, that this is not necessarily the one offered at the lowest price. No simple method of determining this point is possible, be- cause, as seen, the food serves two entirely distinct purposes in the body. Sometimes the supply of protein is the specially important point, and in other cases what is needed is a supply of energy with- out special reference to whether its source be protein or non-nitrog- enous material. Consequently, the relative values of two feeding stuffs may vary under different circumstances. Some writers have based their comparisons of the values of by-product feeds solely upon their content of protein, for the reason that such feeds are often bought especially to supply this ingredient, while the fats and especially the carbohydrates are usually produced in abundance upon the farm. They regard that purchased feeding stuff as the most economical which furnishes a pound of digestible protein at the lowest cost, ignoring any value in the other ingredients. It is obvious, however, that this is a one-sided view. The other ingredi- ents have a value, and this is especially true in the case of a feeder who buys a considerable part of his grain supply and depends upon it as a source of energy, as well as of protein. The method of com- parison illustrated in the following pages is based primarily upon the cost per unit of energy because this is on the whole the most im- portant function of the feed, but the method takes account also of the amount of protein present. Suppose the following feeding stuffs are available to a dairy- man at the prices named : Prices of Feeds Per Ton. Oats (40 cents per bushel) $25 Corn meal 25 Wheat bran 21 Wheat middlings 24 Dried brewers' grains 23 312 DOMESTIC ANIMALS, DAIRYING, ETC. Gluten feed $27 Cotton-seed meal 30 Old-process linseed meal 33 The supply of coarse feed on the farm is sufficient to furnish each animal per day 32 pounds of silage and 8 pounds of clover hay; the cows average 1,000 pounds each and may be expected to produce about 24 pounds of milk per day. The first step is to com- pute, in precisely the same way as in the previous example, the esti- mated requirements of these cows per day as follows: Requirements. Digestible protein. Energy value. Pounds. 0.50 Therms. 6.00 For 24 pounds of milk; Protein 24X 0.05 1.20 Energy 24 X 0.30 7.20 1 70 13.20 The amounts of silage and clover hay available will furnish, ac- cording to the table, the following amounts of dry matter, digestible protein, and energy value: Kind and amount of feed. Total dry matter. Digestible protein. Energy value. Pound*. 8 lo Pounds. 39 Therms. 5 30 6 7o 43 2 78 Total 14.97 .82 8.08 The question now is what feeding stuffs is it most economical to buy (or to refrain from selling if in stock) to complete the ration. The first step in deciding this question is to compare the various feeds as sources of energy and see which one furnishes a unit of energy value at the lowest price. This computation gives the fol- lowing results : Kind of feed Cost of 100 pounds Energy value of 100 pounds Cost of 1 therm en- ergy value Oats $1.25 Therms 66.27 Cents 1 89 Corn meal .25 88.84 1.13 Wheat bran .05 48.23 2.18 Wheat middlings .20 77.65 1.55 Dried brewer's grains .15 60.01 1.92 Gluten feed .35 79.32 1.70 Cotton-seed meal 1.50 84.20 1.78 Old-process linseed meal .. . . 1.65 78.92 2.09 Evidently, if it were simply a question of supplying energy to the animals, the farmer should use corn meal, since that supplies a unit of energy at a much lower price than any of the other feeding BREEDS OF BEEF CATTLE 313 stuffs. If it were thought desirable to add variety to the ration, wheat middlings would obviously be the next choice. It is evident, however, without going through the labor of com- putation, that while corn meal and wheat middlings may be used in the ration, neither will supply enough protein if used exclusively. Of the available feeding stuffs which are rich in protein and which may therefore serve to balance the deficiency of this ingredient, gluten feed is relatively the cheapest, and cotton-seed meal comes next. While the difference between the two is not great, naturally it is best to try the cheaper one. It is not difficult to determine by a few trials that 4 pounds of corn meal and 2 1 /2 pounds of gluten feed, in addition to the coarse fodder available, will give a ration corresponding very closely to the requirements, as the following table shows: Kind and amount of feed Total dry matter Digestible protein Energy value Pounds 8.19 Pounds 0.39 Therms 530 Clover bay, 8 pounds 6.78 .43 2.78 3.56 .31 3.55 Gluten feed, 2/4 pounds 2.30 .50 1.73 Total 20 83 1 63 13 36 This ration shows as close an agreement with the computed requirement as could be desired. The comparatively low figure for dry matter indicates that more coarse fodder might have been used had it been available, with the probable effect of cheapening the ration. As it is, the farmer has used the feeds relatively lowest in price and apparently have a very economical ration. Since, according to the assumed figures, corn meal is relatively cheap as compared with the other feeding stuffs, the farmer should naturally use as large a proportion of this in the ration as practic- able. In order to increase the corn meal, however, it will plainly be necessary to use some other feed richer in protein than gluten feed. Cotton-seed meal is nearly as cheap as a source of energy as gluten feed, while it contains almost twice as much protein. Therefore the farmer should try the effect of increasing the corn meal to 4^ pounds and using l 1 /^ pounds of cotton-seed meal in place of the 2M> pounds of gluten feed, with the following results: Kind and amount of feed. Total dry matter. Digestible protein . Energy value. Corn silape, 32 pounds Pounds. 8.19 6.78 Pounds. 0.39 .43 Therms. 5.30 2 78 4.01 .31 4 00 Cotton-seed meal, 1% pounds 1.38 .54 1.26 Total 20.36 1.67 13 34 This ration agrees with the computed requirements even better than the previous one, while a simple comparison shows that it is 314 DOMESTIC ANIMALS, DAIRYING, ETC. actually a trifle cheaper. The grain portion of the two rations costs as follows: Feed in ration. First ration. Second ration. Cents. 5 00 Cents. 5 63 3.37 Cotton-seed meal 2 25 Total 8 37 7 88 It thus appears that a ration made up with the somewhat more expensive cotton-seed meal was actually cheaper because it was pos- sible to use more of the cheap corn meal. The difference, to be sure, is small, yet for 30 cows fed for 200 days, it would amount to $30. Such a difference is only likely to be found, however, when, as was assumed in this instance, some feed low in protein but rich in energy can be had at a relatively cheap rate. In general, it may be said that when there are no very marked differences in the cost of a therm of energy value in the feeding stuffs constituting the bulk of the ration, one of the various high-protein feeds which supplies energy at the lowest cost should ordinarily be used, although it is always wise to check up this point, as in the example just given. THE COMPOUNDING OF RATIONS. While in the foregoing examples an exact daily ration is com- puted, it would, of course, be utterly impracticable in most cases to weigh out separately each day's ration for each animal. Indi- vidual weighings of feeds at intervals would often yield valuable in- formation and might be profitably undertaken, but for the ordi- nary routine of feeding simpler methods must be used. When practicable, the grain feed may be advantageously mixed in advance in the desired proportions in as large quantities as the storage capacity available and the proper preservation of the ma- terials will permit. Where facilities are available, the whole amount of grain required for all the animals may be weighed out daily, or even for each feeding, without much additional labor. In distrib- uting the grain to the individual animals, regard of course should be paid to their productive capacity and their individual peculiari- ties. The ration, as computed, is for the average animal. The skill of the feeder is shown in adapting it in quality and in amount to the individual. Doubtless individual weighings at intervals, as al- ready suggested, would be useful as a control on the accuracy of the distribution. The weighing of coarse fodder is usually a more difficult prob- lem on account of its bulk. When, however, silage or cut fodder is handled in trucks, the matter is still comparatively simple. Long fodder, on the contrary, is not readily weighed. Nevertheless, even here an occasional weighing, if practicable, as a control upon the feeding, is very desirable. In all these and similar matters common sense is necessary. The computed ration expresses the best estimate that can be made BREEDS OF BEEF CATTLE 315 of the actual average requirements, but it is at best more or less of an approximation. It would be foolish, therefore, to seek extreme ex- actness in realizing it or to go to more expense in the weighing and apportioning of the feed than the saving in the latter would amount to. The scale upon which the feeding is conducted will play an im- portant part. Where scores or hundreds of animals are being fed, an exactness may be profitably sought which would be absurd in the case of two or three animals. Finally, it should be remembered that these computed rations are guides and not recipes. They may aid the feeder in wisely using the resources at his command, but they can not take the place of experience and good judgment. BEARING ON FARM MANAGEMENT. The data and the methods of computation on previous pages will aid the feeder in determining the amounts of each class of feeds needed for each class of his animals. The man of good busi- ness habits will find them useful in determining the quantities of each kind of feed to grow or purchase and in deciding upon the pur- chase of animals to feed and the feeds to keep or to purchase for feeding them. These facts and methods will aid the farmer, the feeder, or the user of work animals in deciding upon the chances of profit in proposed enterprises. Often by using these formal ways of checking up a proposed business project the way is made more clear to avoid loss and to secure the largest practicable profit. In case of the farmer who grows most of his feed stuffs, these facts and methods of calculation may often be used in connection with the planning of his scheme of crop rotation and in proportioning the acreages of the respective crops to each other and to the numbers of each class of animals. They will prove useful in reducing the farm- management plan to a scientific basis. (Agr. Dep. F. B. 346.) FEEDS AND FEEDING FOR BEEF PRODUCTION. Importance oj. Corn as a Stock Food. Corn is the great Amer- ican stock food. No other plant compares with it in its wide and general distribution, in the ease, certainty and cheapness with which it may be produced ; in the yield of valuable food material per acre, and in the close relation it bears to the development of the live stock interest of the country. Practically every State in the Union is re- ported as growing corn commercially. Where corn is grown ex- tensively, there the live stock interests are extensively developed and prosperous. A corn center is synonymous with a live stock center, and the geographical distribution of corn production is in a general way an index to the distribution of live stock production. Eleven prominent corn states, producing something over 75 per cent of all the corn of the United States, produce practically 60 per cent of the horses, mules, cattle, hogs, milch cows and sheep of the country. From these states are drawn the chief supplies of well finished beeves and hogs, and well developed horses and mules. They are the feed yard of the nation. (Univ. Mo. Circ. Inform. 11.) Dairy Cows. Jordan reports the result of an experiment in which the yield of milk from cows when fed on six pounds of corn daily and all the timothy hay they would eat was compared with 316 DOMESTIC ANIMALS, DAIRYING, ETC. the quantity of milk obtained from the same cows when fed on a balanced ration consisting of two pounds corn meal ; two pounds of cottonseed meal; and two pounds of gluten meal together with all the timothy hay they would eat. (Maine State College Annual Re- port 1893, page 81.) Both rations supplied practically the same quantity of digestible nutrients, but the proportion of protein was nearly twice as much in the mixed grain ration as in the corn meal ration. The results showed that during the time the cows were fed the balanced ration, they produced from one-fifth to nearly one- third more milk than when they were fed on the unbalanced ration, and that the yield of milk solids was from 30 per cent to 40 per cent greater. (Univ. Mo. Circ. Inf. 11.) Corn a Carbonaceous Food. Notwithstanding the fact that corn is the best single stock food known and that thousands of ani- mals are successfully wintered or fattened each year on an exclusive ration of corn and corn stover or some similar roughage, it is true that it is by no means a perfectly balanced or complete food. As has been shown, corn contains a very large quantity of carbona- ceous matter in proportion to the protein compounds. It does not give a proper balance between the carbohydrates (which includes starch, the sugars, fat and digestible fiber) and the protein. In other words, practical experience and scientific experiments have proven beyond doubt that by combining corn with some feed that will increase the proportion of protein, a more efficient ration will be the result; more rapid gains will be made by the animals to which it is fed; more rapid and healthful growth will be made on young animals; a larger flow of milk will be obtained from the dairy cow; and the steer will carry a smoother finish and a finer coat to market; and under ordinary circumstances, or if the mate- rial for balancing the corn be selected judiciously and with a due regard to the cost as compared with the increased efficiency obtained, an increased profit will be returned. Preparation of Corn for Feeding. Upon this point Prof. Jor- dan has summed up the results of the investigations and practical experience as follows: Much labor and expense have been ex- pended by farmers in giving to feeding stuffs special treatment, such as wetting, steaming, cooking and fermenting, in order to secure a supposed increase in nutritive value, an increase which must come chiefly, if at all, from a more complete digestion. It is plainly no- ticeable that these methods of feeding have lost in prevalence rather than gained. Practice does not seem to have permanently ratified them, and, so far as digestibility is concerned, this outcome is in accordance with the results of scientific demonstration. The conclu- sions of German experimenters have been that these special treat- ments have no favorable influence, their effect being either imper- ceptible or unfavorable. German and American experimenters unite in condemning the cooking of foods already palatable, because this causes a marked de- pression of the digestibility of the protein, with no compensating advantages. Digestion trials with cooked or steamed hays, silage, BREEDS OF BEEF CATTLE 317 lupine seed, cornmeal, and wheat bran, and roasted cotton seed, uni- formly show their protein to be notably less digestible than that in the original materials, a fact which may explain the lessened pro- ductive value of cooked grains which has been observed in certain experiments. It must be conceded, of course, that when cooking feeding stuffs by steaming or otherwise renders them more palata- ble, and thereby makes possible the consumption of material other- wise wasted, the influence upon digestibility is a minor considera- tion. A large number of careful experiments have been made in this country with corn on hogs with results unfavorable to cooking. Corn was either shelled or ground and in some cases a mixture of corn meal and middlings was used. In most cases the raw food was more efficient than the same food carefully cooked. Averaging all the trials, 476 pounds of uncooked meal or grain were required for 100 pounds gain while after it was cooked 505 pounds were re- quired for the same gain. CORN THE BASIS OF PROFITABLE RATIONS. In general the best ration is made of such a combination of food stuffs as will give the proper proportion of protein and carbo- hydrates for the particular class of animals or the special purpose for which it is to be used, at the same time that careful attention is given to the cost of the material to be used, the palatability of the ration and the convenience with which it may be obtained and fed. In short the controlling factor in making up every ration should be its cost in proportion to its productiveness, but as has already been stated the taste and appetite of the animal should be catered to and heed should be given to the adaptability of the ration to the special use to which it is proposed to be put. A vast majority of the feed- ers of America find it necessary and profitable to use the product of the corn plant as the basis of all rations and for all classes of stock. It is clear that when feed is to be purchased, it should, as far as prac- ticable, be selected with reference to supplementing, balancing or adding to the value of the material already on hand, rather than to purchase more of the same class. For example, it would not be good business to purchase timothy, kafir corn, sorghum, millet, or any of the straws to feed with corn and stover, since such a combination adds nothing to the ration above the sum of digestible nutrients con- tained in the two feeds. Whereas, if clover, alfalfa, cowpeas, bran, middlings, gluten meal, cottonseed meal, or linseed meal be selected to combine with the corn products, the feeding value of the resulting ration would be directly increased. Fattening Steers. Corn is conceded by all authorities to be the best single grain ration for fattening animals especially when its low cost is considered. At the same time the combination of corn with such food stuffs as will increase the proportion of protein in a ration, will result in a more rapid gain. Grinding. Experiments indicate that corn when ground into meal or the grain and cob crushed together will be somewhat more digestible than when fed whole. The difference, however, is so 318 DOMESTIC ANIMALS, DAIRYING, ETC. small that when corn is very cheap the increased efficiency may not meet the expense of grinding. The following concise advice is commended: This subject is a difficult one to discuss owing to the great variety of conditions existing as to both grain and animals. Directions are here given which may serve to guide the feeder in his practice. For horses which are out of the stable during the day and worked hard, all grain, with the possible exception of oats should be ground. For those at extremely hard work, all grain should be ground and mixed with chaffed hay. For idle horses oats or corn should not be ground, nor need the hay or straw be chaffed. A cow yielding a large flow of milk should be regarded as a hard work- ing animal and her feed prepared accordingly. Fattening steers and pigs may be crowded more rapidly with meal than with whole grain, though there is more danger attendant upon its use. Sheep worth feeding can always grind their own grain. In general, idle animals and those having ample time for mastication, rumination and digestion do not need their grain or roughage prepared as care- fully as do those with only limited time for these essential opera- tions. Experiments quite generally show increased gains from grind- ing grain, but in many cases they are not sufficient to pay the cost of grinding. It is believed that it will pay to grind or crush corn for calves, colts and all young cattle in the average season, particu- larly if they are to be fed strong, and it will undoubtedly pay to Erepare corn in this way for dairy cows in any season. It is not elieved that the cob has any considerable nutritive value, but it seems to have a very favorable effect upon the mechanical condition of the grain in the stomach of the animal. VALUE OF SOFT CORN FOR BEEF PRODUCTION. The early fall frosts affect the corn crop in the central and northern states more or less each year. The crop of 1902 was seri- ously damaged in many sections by the early September frost. The yield per acre was very much reduced. The percentage of market- able corn was a variable quantity. In some sections practically all of the corn was worthless from a regular market standpoint, due to the fact that it was too soft and watery for shipping purposes. This presented a serious condition of affairs. There was then but one way to utilize that portion of the crop which was soft and immature. It must be fed to live stock. The feeding value of the soft corn at once became a question of vital interest. Many men regarded it as being worthless from a feeding standpoint. Some claimed that the frost affected the composition, thus the necessary food constituents were not present. Others claimed that that part of the food value which was not present in the corn grain proper was contained in the cob, thus by the utilization of both the cob and corn all the food nutrients could be obtained. It was also claimed by many that this soft corn might give fairly good results at the beginning of the fattening period, but that it would be impossible to finish animals on the same. There certainly was an urgent need for some information which would enlighten the people on the feeding value of soft corn. BREEDS OF BEEF CATTLE 319 Information along this line was needed by the man who desired to purchase soft corn for feeding purposes. The same was true for that large mass of people who make a business of grain farming. They needed information concerning the value of the corn which they must either sell to the stockman or allow to rot in the fields. Recognizing the need of securing some light on this subject the Animal Husbandry Section of this Station with the co-operation of the Agronomy and Chemical Sections conducted the work presented in this bulletin. A practical feeding test, in which sixteen steers were divided into two lots of eight each, was outlined and carried through a period of six months. The lot fed on soft corn required almost one pound less dry matter in the corn fed to make one pound of gain than did the lot fed on mature corn. The amount of moisture in the soft corn was determined at the beginning and end of each month and an aver- age of the same was used in computing the figures for the month in question. At the beginning of the test the amount of moisture was de- termined by taking the average of several samples which had been analyzed by the chemical section. From the beginning until the end of the test the amount of moisture was determined by a series of chemical analyses and the results of a corn shrinkage test. In the corn shrinkage test the crib was weighed at the end of each month, thus we had the results of a considerable amount of corn which very much reduced the possibility of error in our estimates. It will be further noticed that the cattle fed on soft corn sold for the same price as did the lot fed on mature corn which was practi- cally the top of the market. In shipping, the soft corn lot had the lightest shrink, and in the slaughter test they dressed out .8 of a per cent more meat than did the mature corn lot. (la. B. 75.) COMMERCIAL STOCK FOODS. From Wheat. Bran consists of the outer coating of the wheat kernel and because of its fat and protein content is a very valuable feed. Middlings and Shorts are terms used interchangeably in the trade and consist of the coating of the wheat kernel just below the bran layer, the finer particles and fragments of bran and flour par- ticles. They are rich in digestible fat and protein and an excellent feed. Middlings are often divided into standard middlings, germ middlings, flour middlings, etc. White middlings as used in many parts designate a product which is in reality a low grade flour much below red dog in feeding value. Shipstuff consists of a mixture of bran and middlings, bran and shorts or of all three of these mate- rials. Red Dog Flour consists of low grade flour and fine particles of bran which cannot be separated in the process of milling. Screen- ings consist of the smaller, imperfect grains of wheat, weed seeds and other foreign materials separated from the wheat in preparing it for milling. Scourings consist of the small particles from the outer bran coating of the wheat kernel and the dust and dirt re- moved by the scourer. Sweepings consist of the cleanings from the bin, around spouts and other parts of the mill. Bee Wings con- 320 DOMESTIC ANIMALS, DAIRYING, ETC. sist of the light, fine, thin, membranous coating set free from the crease of the wheat kernel in the process of crushing the wheat. From Rye. These products are secured from the same portions of the rye grain as are the bran and middlings from the wheat kernel. From Buckwheat. Bran consists of a mixture of buckwheat hulls and middlings prepared by the millers of buckwheat to enable them to dispose of buckwheat hulls. Middlings consist of that por- tion of the buckwheat grain immediately inside the hull and are rich in crude fat and crude protein and have a high feeding value. Mixed Feed consists of relatively large proportions of middlings and shorts and a small proportion of hulls. Two of the samples were deficient in crude protein. From Corn. Bran consists of the outer coating of the corn kernel and is variable in composition, depending on the process of manufacture. It is of low feeding value and is often used as an adulterant for wheat bran and other wheat by-products. Hominy Feed or Chop consists of the bran coating, germ and part of the starch portions of the corn kernel secured as a by-product in the manufacture of hominy. Hominy Hearts are secured as a by- product in the manufacture of hominy and consist of the germ or heart of the grain. Gluten Meal This is a by-product of corn, produced in the glucose factories in the manufacture of starch. It is difficult to se- cure detailed information as to the various steps employed in the manufacture of these products, due to the fact that the owners of these factories prefer to withhold some things from the public. The following points in regard to the preparation of the same may be of interest to feeders. The corn is first soaked, then by mechanical de- vices the different parts of the corn are separated. First the germ is taken out; then the bran, which is the hull of the corn, is sepa- rated from the gluten and starchy portions. The gluten and starch are then separated by a filter process. The starch, being the heavier of the two, settles to the bottom, while the gluten runs off and is taken to the feed house where it is kiln dried into gluten meal. Buffalo Gluten Feed. This, like gluten meal, is a by-product of corn, produced in the manufacture of starch. It differs from gluten meal in that it contains the hulls (corn bran) as well as the gluten part of the corn. Gluten and corn bran are found in gluten feed in about the following proportions: gluten 55 per cent; corn bran or hulls 45 per cent. The corn bran gives it more bulk than gluten meal, thus making it an easier product to feed. It does not contain as much protein, however, as gluten meal. For the average farmer we would recommend the use of gluten feed in preference to fluten meal unless his other grain feed is of a bulky nature. (la. .66.) Hominy Feed. Hominy, as manufactured for human use, consists of the hard or flinty part of the corn kernel. The hull, germ, and part of the starch portions of the kernel constitute the BREEDS OF BEEF CATTLE 323 waste of hominy manufacture. These materials are sold together under the name of hominy chops or feed. Distillers' Dried Grains. These are a by-product obtained in the manufacture of alcohol or whisky from the cereals. Corn and rye are most often used, sometimes singly, more often in combina- tion. Sometimes certain proportions of oats, wheat, and barley are also added. The grains are coarsely ground, mixed with water, a malt solution added, and the whole kept at a uniform temperature until most of the starch has changed to sugar. Yeast is then added to convert the sugar to alcohol, which is distilled. The residue from the distillation, or distilling slop, is filtered, dried, and placed on the market as a concentrated food. The dried material, on account, of the removal of a large part of the starch and sugar of the grain by the above process, contains an increased percentage of proteids, fat, and crude fiber. Corn and Cob Meal consist of the whole ear of corn ground or crushed just as it is received from the field without the addition either of cob or kernel. Corn Sweepings consist of small pieces of cob, butts of corn, particles of husks, chaff and the imperfect and decayed kernels which are not removed in the process of shelling. This material is often used as an adulterant. Cob Meal consists of finely ground corn cobs which are largely woody fiber. It contains but little crude fat and crude protein and a large amount of crude fiber. It is often used as a filler, serving to give bulk and roughness. It has little or no feeding value and is a common adulterant of feeding stuffs. From Oats. Oat Clippings are the small hairs and dust sepa- rated from the oats in the clipping machine. They bear much the same relation to the oat kernel as scourings do to the wheat kernel and contain considerably larger amounts of crude fat and crude pro- tein than the hulls and considerably less fiber. They are often used as a filler and also as an adulterant. Oat Hulls are a common adulterant of feeding stuffs and are much used as a filler. They contain about the same amount of crude fat, crude protein and crude fiber as cob meal, serve a similar function in feeding stuffs and have little or no feeding value. From Flax Seed. Flaxseed Meal consists of the entire flaxseed ground. Oil Cake is the unground residue from the extraction of oil from ground flaxseed. Linseed Meal is the ground residue from the extraction of oil from ground flaxseed. The extraction of the oil is accomplished by two methods known as the old and new proc- ess and the meals from the two processes are designated as old and new process linseed meal. New Process Linseed Meal consists of the residue from crushed flaxseed which has been heated and the oil extracted by repeated leachings with light naphtha. After the ex- traction is complete the naphtha is driven from the rasidue with steam and the meal is entirely without naphtha odor. The extrac- tion of the oil in the new process meal is much more complete, the 324 DOMESTIC ANIMALS, DAIRYING, ETC. new process meal containing only one-half as much crude fat and from one to two per cent more crude protein. (Ind. B. 141.) At the oil mills after the flaxseed is crushed there are two ways of removing the oil. The first, known as the old process, consists of crushed flaxseed heated and placed in sacks which are piled one on another and the mass subjected to hydraulic pressure to extract the oil. After the oil has been pressed out, the residue, after it is stripped of its coverings appears in the form of slabs about one inch thick, one foot wide, and two feet long. In this form it is shipped abroad as it is then in its purest form and contains no adulterations. In this country it is usually ground up and sold in the form of meal, known as old process oil meal. The new process oil meal has been treated in a different way by the use of chemicals and steam, and contains about the same amount of digestible protein and carbohy- drates but not nearly so much fat. A simple test to distinguish old process oil meal as outlined is as follows: Pulverize a small quan- tity of the meal and put a level tablespoonful of it in a tumbler; then add ten tablespoonfuls of boiling hot water to the meal, stir thoroughly and leave to settle. If the meal is new process meal it will settle in the course of an hour and will leave about half of the water clear on top. Old process meal will remain jelly like. (la. B. 66.) In making cold pressure linseed cake the flaxseed is run through a screw press and the oil extracted by pressure, the process being similar to that employed in the production of cold pressed cot- ton seed cake. Ground flaxseed cake is a term used to designate a low grade linseed meal made of inferior flaxseed. Flax Screenings consist of the broken flaxseed, hulls, weed seeds and other foreign materials separated in preparing the flaxseed for the manufacture of linseed oil. From Flax. Flax Bran as used by manufacturers of com- pounded feeds is of variable composition and ingredients, but usually consists of flax pods, flax stems from which the tow has been ex- tracted, and small flax seeds. The pods and stems are invariably present in largest amount. This product is sometimes used as an adulterant for alfalfa. From Cotton Seed. Cotton Seed Cake is the residue of cotton seed from which the oil has been extracted after removal of the hulls. In the process of extracting the oil from cotton seeds they are first delinted, the hulls removed, the meats and such hulls as cannot be separated cooked, wrapped in cloths, placed in presses and all the oil possible extracted by pressure. The residue in the cloths from the extraction is cotton seed cake. Cotton Seed Meal is ground cotton seed cake. It is rich in both crude fat and crude protein, relatively low in crude fiber and is highly regarded as a concentrated feeding stuff. Cold Pressed Cotton Seed Cake consists of the residue from cotton seeds after extraction of the oil by what is known as the cold pressure system. In preparing this material the cotton seeds are delinted and the entire seed without heating or hulling is put into BREEDS OF BEEF CATTLE 325 a screw press and the oil extracted by pressure. The residue from this process consisting of the hulls, meal and such lint as was not removed constitutes the cold pressed cotton seed cake which is sold as a feeding stuff without further crushing. It is a light, rather fluffy material containing on an average less crude fat and 17.5 per cent less crude protein than cotton seed meal. Cold pressed cotton seed cake is not as valuable for milk and butter production as an equal weight of choice cotton seed meal and hulls mixed in the pro- portion of two parts of meal to one part of hulls. The analysis of cold pressed cake is a reliable indication of its feeding value. Among the principal claims made for this product is that not having been f.'ooked the albuminoids are more digestible than those in cotton seed meal and being more bulky and less concentrated it can be fed in large quantities without danger of the undesirable results pro- duced when excessive amounts of cotton seed meal are used. Cotton Seed Feed Meal is a trade name used to designate a mix- ture of cotton seed meal and cotton seed hulls generally in the pro- portion of 50 to 55 per cent hulls. Cotton Seed Hulls are the outer portion of the cotton seed. They are high in crude fiber and have little feeding value. Their principal use is as a filler, as a source of roughage and as an adul- terant for cotton seed meal. From Barley. Malt Sprouts consist of the dried shoots secured in the germination of barley in the production of malt. They are low in crude fat and rich in crude protein. Dried brewers' grains consist of the residue left after mashing the malt, whereby the greater portion of the carbohydrates is re- moved, leaving a residue rich in protein, which, on drying becomes a valuable feeding stuff. From Alfalfa. Alfalfa meal consists of ground alfalfa hay. The better grades of alfalfa meal contain a larger proportion of leaves than stems. Corn and Oats Feed. Corn and oats feed, usually sold under the name of Corn and Oats Chop, or Chop Feed, are prepared by mixing corn and oats together, generally in the proportion of 56 pounds of the former to 32 pounds of the latter, and then grinding. (Ind. B. 141.) Animal Meals. These consist of by-products from the packing industry, such as dried blood, meat meal, blood meal, digester tank- age, etc. They are very rich in protein, and have been found to be an excellent concentrate in a ration for swine. They are sold in a dry condition, finely ground. In some cases the bone has been sub- jected to steam under pressure or kettle rendered, in which case the resulting product is lower both in fat and protein. (Dep. Agr. Bu. Chem. B. 108.) Dried Blood. This is a product from packing houses, prepared as follows: The blood runs from the cattle when stuck, into a re- ceptacle from which it is promptly pumped into a cooking tank where it is cooked to a point where the water separates from the clots. It is then dropped into large press cloths and put under hydraulic 326 DOMESTIC ANIMALS, DAIRYING, ETC. pressure to press out most of the water. The residue, which is then in the form of a cake about three inches thick and containing about 50 per cent of moisture is put into a mechanical dryer, which is heated by steam radiation, from which it comes, containing about 6 per cent of moisture. It is then ready for the mill where it is ground and put into sacks ready for the market. In the preparation of blood for feeding purposes it must be handled very quickly and not allowed to decompose between the different stages of manufacture. Some samples of blood have a frightful odor, caused by decomposition in the process of manufacture. (Iowa B. 66.) Dried Beet Pulp. The beets are thoroughly washed, shredded, and placed in a large cylinder ; water is admitted and sugar extracted by the diffusion method. After the liquor is withdrawn, the beet pulp is run through a press to remove excess of water. Molasses residues from the sugar factory are thoroughly mixed with beet pulp and the whole kiln dried by direct heat. The resulting dry product is placed on the market as a feeding stuff. Molasses Grains. These residues are added to some dry and bulky material, such as brewer's grains, malt sprouts, oat hulls, or light oats, in such amounts that they are all absorbed. This mixture after drying is known to the trade as "molasses grains." Propnetary Feeds. These are derived from numerous and varied sources, but very often they serve as the outlet for industrial by-products, such as are obtained in the manufacture of breakfast foods. Poultry Foods. These are composed principally of several cereals, either whole or coarsely ground. Some poultry foods con- tain also charcoal and ground oyster shells. Other foods of this class are fortified with dried blood, meat scraps, cottonseed or linseed meals. Wheat screenings, containing the small and shriveled wheat and weed seeds, are very often among the chief ingredients. (Dep. Agr. Bu. Chem. B. 108.) MOLASSES FOR FATTENING CATTLE. Methods of Feeding Molasses. The most common method of using barrel molasses is to carry it out in buckets and mix it by hand with feed in the bunk. In all our experiments the molasses was mixed with an equal volume of water and poured over the mixed grain and hulls, the whole then being thoroughly stirred. This, however, entails too much labor to be profitable when feeding on a large scale. A common practice is to take a spraying outfit, the barrel being filled with equal parts of water and molasses, and drive through the feed lot, spraying on the mixed feed in bunks such amount of the mixture as is to be fed. This practice in some degree prevents the loss occasioned by the feed being blown from the bunks. Feeders who mix meal and hulls in the mill, buy their molasses in tank cars, empty it into storage tanks in proximity to the mixing room and mix it with the meal and hulls before loading it into the feeding wagon. Others recommend allowing steers constant access to molasses. Amount of Molasses to Feed. Those feeders who have been using molasses as a cattle food, have in most instances restricted its BREEDS OF BEEF CATTLE 327 use to a quart per day, mixing it with the feed principally to render it more palatable, inducing the cattle to consume greater amounts. The idea prevails to a considerable extent that molasses has a laxative action, and its use in large quantities is not advisable. This impres- sion is probably founded upon the experience of feeders of beet mo- lasses, the ash of which is more abundant and contains more potash than the ash of cane molasses. Although observing very closely, we have never noted that increase in amount of molasses fed caused any more inclination to scour than follows the too rapid increase of any new feed. So far as the danger of scouring is concerned there is no reason to refrain from using molasses in the same manner as in any other feed of similar composition would be used. Experiment III. Feeding Molasses from Trough. At the close of experiment II, Lot II was divided and added to the original lots I and III, which two lots were increased to ten head each by the addi- tion of other animals of same age and weight. These two lots were turned on grass and fed similarly except that one lot was allowed access to a tight bottomed feed bunk in one end of which a barrel of molasses was placed and gauged to run fast enough to make sure of continuous supply. These cattle, now two-year-olds past, weighing about 900 pounds and eating twelve pounds grain each per day, prin- cipally corn, at the start ate molasses at the rate of six pounds or two quarts each per day. They continued to take increasing amounts of the molasses until in the third week they were taking twelve pounds (one gallon) each daily. Some steers seemed especially fond of the molasses and ate it in such large quantities as to cause them to scour. This is the only experience we have had with the system of feeding clear molasses separately. The grass on which the cattle were de- pendent for roughage was very washy and so scarce that at no time were they as well filled as is desirable. Summary. The addition of molasses to a fattening ration has always produced an increased gain. Addition of molasses to a ration of cottonseed meal and hull lowered the cost of gains. When mo- lasses was added to a balanced ration it gave larger gains and im- proved the appearance of the cattle but did not lower the cost of gain. There was no undesirable result from feeding yearling steers one gallon of molasses each per day. and there is good reason to be- lieve that larger amounts might be used. The cheapest gains in each month were made by the lot receiving most nearly a balanced ration. Molasses returned from 3 to 30 cents per gallon. The lower value was obtained when molasses was added to a ration already balanced and when, in the early part of the feeding period, an unbalanced ra- tion was fed the higher value was obtained. (Texas B. 86.) FEEDING ALFALFA. The use of alfalfa as the sole roughage in full-feeding cattle is becoming quite general and seems to give the best of results. Some feeders, however, are of the opinion that where too much alfalfa of high quality is supplied to steers, they will not consume enough grain to produce satisfactory results. It has been observed in the progress of feeding experiments that cattle receiving nothing but al- 328 DOMESTIC ANIMALS, DAIRYING, ETC. falfa as a roughage always seem to have a taste for coarse roughage of various kinds. Other kinds of roughage have been fed in connec- tion with alfalfa but the results seem to indicate that the advantage lies with the feeding of alfalfa as the sole roughage in comparison with the feeding of other kinds in connection with it. (Kan. B. 130.) MIXING GRAIN AND ROUGHAGE TOGETHER. The first thing that a practical feeder notices when he goes into a feed-lot where steers are fed grain and roughage mixed is the ab- sence of scouring. The stockman who is feeding his fattening steers grain and roughage thoroughly mixed finds that, with ordinary care in feeding, his steers not only do not have the scours, but that an animal is seldom off feed. Why? Average corn contains seventy-two per cent of starch. Starch in feed is not absorbed into the system and used in building up the body and sustaining life until it is changed to sugar. When changed to sugar it is readily absorbed and used in the body. The saliva of the mouth has the power to make this change while the juices of the stomach do not. It follows, then, that the method of preparing the feed that will induce the steer to chew it the most thoroughly and for the longest time will secure the greatest amount of saliva mixed with the feed and the greatest amount of starch changed to a form that will build up the steer's body. When grain and roughage are mixed together the steer eats slowly, giving much time for the food to become saturated with the saliva and for the saliva to act on the starch. When the food is swallowed it goes from the mouth to the paunch. When the food reaches the paunch the finer portions, such as grain fed alone, are forced directly into the third stomach and onward. The coarse food and the grain mixed with it, when the grain is thoroughly mixed with the roughage, is held for quite a while in the paunch, where the saliva and the water which the steer drinks makes it very soft and moist and the saliva continues to change the starch to sugar. After the coarse feed has remained in the paunch until it is thoroughly softened it is brought back to the mouth and rechewed as the cud ; this allows more saliva to be mixed with it, which in turn changes more starch into sugar, and the rechewing reduces the food to a greater fineness. The second time the food is swallowed it passes to the paunch and the fine particles go to the third and fourth stomachs, where the action of the saliva ceases. When the grain is fed separately from the roughage, the animal chews it but little, swallows it quickly, it stays but a short time in the paunch, and but a small portion or none is brought up with the cud and remasticated. This allows for slight action only of the saliva. The starch which forms seventy-two per cent of corn is not acted on by the gastric juice of the stomach, and the large proportion, which has not been changed by the saliva, passes to the intestines undi- gested. Some of the juices of the intestines change the starch to sugar, but what remains unchanged irritates the intestines, producing looseness and scouring. BREEDS OF BEEF CATTLE 329 Mixing the grain with the roughage compels the steer to spend more time in chewing his ration than when the grain is fed alone. The mixed grain and roughage is held in the paunch, where most of the water drank by the steer is stored, and the water thoroughly softens the mixed feed. The lengthening of the time needed to chew the feed and the holding in the stomach gives the saliva a longer time in which to change starch to sugar. After the mixed feed has become soft it is returned to the mouth as the cud, and the chewing of the cud grinds the grain to greater fineness, putting it in such shape that the digestive juices of the stomach and intestines can better act on it. The result is that a larger portion of the grain is made of use in building up the body of the steer ; a less portion of the grain is undigested. The steer gains more for each bushel of grain eaten, better digestion keeps his body in better health, and scouring is avoided. It is obvious that the best results will be obtained where the feed is so well mixed that every mouthful which the steer takes is part grain and part roughage. (Kansas B. 112.) USE OF PULP. It should be stated that the attempts to compute the cash value of pulp compared with other foods do not indicate its total value. It supplies a succulent food at a time when such food is either not avail- able or is scarce, and its effect on stock seems to be much more favor- able than either its chemical analysis or the return in increased meat or milk would indicate. To its actual nutritive effect as a food should be added its general effect on the quality of meat and milk and on the animal system. Pulp undoubtedly overcomes much injurious effects of dry and concentrated foods, puts the system in good sanitary condition, keeps off disease, ana so aids the appetite and digestion and assimilation of food that there is less waste, both of food which is generally discarded in eating, and that which usually passes through the animal undigested. There seems to be no difficulty in regard to keeping beet pulp. While there is some loss of material when placed in open piles, the fermentation which takes place seems to be beneficial rather than otherwise. Animals eat the sour pulp as well, and after a little time even better than they do the pulp fresh from the factory, and the dry beet chips on the surface of the piles are very palatable to sheep and cattle. Nebraska feeders claim that pulp which has been left in open piles for two or three years is as good as ever. No injurious effects have been observed from feeding pulp, un- less too large amounts are given before the animals become accus- tomed to it. The Michigan Station warns feeders against too liberal use of pulp from frozen beets. Freezing does not seem to injure the pulp itself, except that it probably does not pay to feed large amounts of frozen pulp in cold weather, as the animal must expend much food energy to raise the temperature of the pulp to the heat of the body. During the past spring the Denver papers gave an account of catties' mouths becoming sore from eating pulp, claiming that the injury was produced by acids added to the pulp in the process of manufacture. This is hardly possible, as the pulp is subjected to 330 DOMESTIC ANIMALS, DAIRYING, ETC. nothing but hot water at the factory. Through the process of fer- mentation from long keeping butyric and acetic acids develop in pulp, but we have no accounts of any injurious effects from feeding fermented pulp. The greatest difficulty with pulp feeding is that the large amount of water it contains makes it heavy and rather expensive to handle, and it is sometimes difficult to keep the animals dry and comfortable while feeding large amounts of it. The feeder who is near the factory and has the appliances so arranged that he can handle the pulp with the least expense, should make the greatest use of pulp and will gain the greatest profit from its use. If it can be placed before stock at a cost of not more than one dollar per ton, we believe it will bring good returns for the investment, and in many instances it may be worth two or three times this amount. Whether fresh, fermented, or dry, beet pulp is a valuable stock food, and one of which our farmers should make the largest possible use. (Colo. B. 73.) BEET PULP AND CORN MEAL. The conclusions to be drawn from these three feeding trials, in comparison of dried beet pulp and corn meal for fattening steers are: Beet pulp produced gain cheaper than corn meal. The ab- solute gains produced by feeding beet pulp were practically the same as from feeding corn meal. The gains of the pulp fed steers were in the nature of growth and development, the corn-meal produced fat and finish. As a result, at the end of the feeding period, the corn meal steers were in better condition for market than the others. For growing animals, beet pulp produced the greatest gains. For ani- mals in a condition for finishing corn meal gave the most rapid gains. From this it would be safe to conclude that in the earlier part of the feeding period, beet pulp could be fed in a larger quantity to ad- vantage, because of its cheapness and at the same time ability to pro- duce gain rapidly. During the finishing period it should, however, be replaced at least in a large measure by corn meal, which possesses more value for finishing purposes. The corn meal is a much more concentrated feed, hence its especial value for forcing at the close of the feeding period when beet pulp could not be used on account of the bulky character rendering it impossible to feed sufficient quantity for the best results. These trials show that a thousand-pound steer will not consume over 10 Ibs. of dried beet pulp in a day. (Mich. B. 247.) CONDIMENTAL AND MEDICINAL STOCK AND POULTRY FOODS. Food Ingredients. The chemist and microscopist have found these foods to consist principally of ordinary grains and concentrates, such as wheat by-products (bran and middlings) and corn meal. In some oases a few hundred pounds to the ton of linseed, cottonseed and occasionally meat and bone meal have been added, obviously to increase the amount of protein ; such mixtures contained from 10 to 20 per cent of that nutrient, Occasionally the presence of consider- BREEDS OF BEEF CATTLE 331 able quantities of mustard hulls, cocoa shells and weed seeds are noted, used evidently as a filler. The poultry foods more frequently reveal the presence of from 10 to 50 per cent of ground oyster shells or noticeable quantities of ground bone, which accounts for the exceptionally high ash per- centage. Nutritive and Commercial Values of the Food Ingredients. It having been shown that the bulk of these foods is made up of or- dinary ground grains and by-products, it must be evident to all that they cannot have a greater nutritive value than is to 'be found in the materials of which they are composed. The extravagant claims made by the manufacturers concerning their wonderful nutritive properties is in no way substantiated by the analytical results. It also must be clear that their commercial value from a nutritive standpoint cannot exceed 1 to 1% cents a pound. Certainly no one would entertain the idea of purchasing these mixtures, at the prices asked, because of any particular nutritive value they may possess. Character of Medicinal Ingredients. In addition to the various cereals and by-products, these foods contain small quantities of a variety of substances, most of which possess simple medicinal qual- ities, to which it is understood is attributed the wonderful nutntive and curative properties claimed for them. The condition powders, so called, generally contain larger quantities of these medicines than the stock and poultry mixtures. The medicinal substances are de- scribed as follows: Fenugreek and fennel are the ground seeds of plants grown in southern Europe, known botanically as Trigonclla Fanum Groecum and Fceniculum vulgare. They are aromatic substances, used to ex- cite the action of the stomach, thereby relieving indigestion and gas, and also to impart an agreeable flavor. The quantity used is com- paratively small. Anise or Aniseed (Pimpenella Anisum) is the seed of a plant cultivated in Spain and Malta. It has a pleasant warm taste and an agreeable odor, and is used for much the same purpose as fenugreek. Gentian, occasionally recognized, is the dried root of the plant known as Gentiana lutia, and is grown in central and southern Europe. It is very bitter, and is used as a stomach tonic, promoting an increased secretion of the gastric juice. Ginger is the powdered underground stem of Zingiber officinale, grown principally in India and the West Indies. It stimulates the various membranes with which it comes in contact, and is used as an appetizer and to reduce the griping effects of purgatives. Pepper, the common black form, is obtained from the brown berries of an East India climbing plant, Piper nigrum. Cayenne pepper consists of the dried ripe fruit of Capsicum fastigiatum and (tit a mn. Both kinds are used as a stomachic and to increase the ac- tivity of the reproductive organs. Salt, of which many of the mix- tures contained from 2 to 20 per cent, was used as an appetizer. 8ul fates of magnesia and soda, in the form of Epsom and Glauber's salts, are purgatives, and are frequently spoken of as salts. Saltpeter, 332 DOMESTIC ANIMALS, DAIRYING, ETC. nitrate of potash or niter, is used in medicine to excite the action of the kidneys and to reduce fever. Sodium bicarbonate is employed to neutralize an undue acidity of the stomach. Sulphur is used as a laxative, alterative, and as a stimulant of mucous surfaces. Iron found as the oxide Venetian red or Princess metallic is not used medicinally, but is employed to color or disguise the real character of the food. Sulfate of iron used as a restorative and tonic was seldom identified. The medicinal value of charcoal consists in its ability to check fermentative changes, and to absorb undesirable gases. In most cases it appears to have been ground fine and mixed with the other in- gredients to conceal their identity. Tumeric, the powdered root of an East Indian plant, the Cur- cuma longa, is a stomachic, but is used principally as coloring matter. Quantity of Medicinal Ingredients. No attempt was made to determine the exact quantity of each of the several drugs employed. Most of the foods contained from 5 to 40 per cent of ash. Ordinary grains and by-products rarely contain more than 5 per cent of ash ; the excess in the present cases was made up of such mineral substances as oyster shells, bone, sand, common salt (2 to 20 per cent), Epsom or Glauber's salts (about 5 per cent), niter (1 or more per cent) and Venetian red. The vegetable drugs fenugreek, fennel, anise, gentian, ginger and pepper were employed in sufficient quantities to produce an agreeable odor and smart taste, probably in quantities varying from 5 to 10 per cent of the whole mixture. In some cases the total quantity of mineral and vegetable drugs constituted from one-sixth to one-third of the mixture, while in other cases the amount of such substances was very much less. Cost and Selling Price Compared. None of the mineral drugs, excepting niter, cost much over 1 cent a pound ; the vegetable drugs vary in price from 3 to 12 cents a pound. Judging from all the data at hand, the cost of the entire mixtures grains and drugs- could rarely have exceeded 3 to 4 cents a pound. In many oases it could not have been more than 2 cents a pound. The initial cost of the condition powders is probably somewhat greater than the ordinary stock foods. The retail prices of the latter vary from 6 to 25 cents a pound, depending on the brand and quan- tity purchased. Condition powders are much higher priced, varying from 30 cents to $1 a pound. Is it not strange that many are willing to pay extravagant prices for materials possessing such ordinary feed- ing and medicinal values? It is hoped that poultrymen have suf- ficient common sense to purchase bran, corn meal, salt, oyster shells, charcoal and meat scraps separately, rather than pay from 10 to 20 cents a pound for such mixtures put up in attractive packages, for which the manufacturers make the most astounding and unreason- able claims. Utility of These Foods. Their food value cannot be greater than the ordinary grains, of which they are largely composed. Their medicinal value depends largely upon the aromatic seeds and roots used as a tonic for the stomach, on charcoal as an absorbent and on BREEDS OF BEEF CATTLE 333 the purgative effect of the Epsom or Glauber's salts. The quantity recommended to be fed daily is usually so small (1 ounce or less) that very little if any effect can be expected unless the material is fed for a considerable length of time. While it is probably true that some of these stock foods may prove beneficial under certain con- ditions, it is also true that most of them ore heterogeneous mixtures, and evidently put together by parties quite ignorant of the principles of animal physiology, pathology % and vetrinary medicine. Claims Made by Manufacturers. The following are the prin- cipal claims made by one of the largest manufacturers of stock and poultry foods: Horses. Gives greater speed endurance. Imparts new life and strength. Makes colts grow very rapidly and keeps brood mares and colts healthy. Guaranteed to save corn and oats. Makes horses fat, gives glossy coat and fine appearance. Cattle. Increases the milk yield 15 to 25 per cent and increases the richness of the milk. Removes taint from milk, cream and butter, and makes milk more healthful for human use. Such milk will convey some of the beautiful elements of the vegetable ingredients we use into the systems of your children, and they will be stronger to ward off dis- ease. Makes calves grow as fast as new milk. Saves thirty days' time in fattening cattle, and 15 to 25 per cent of the grain usually required. Hogs. Cures and prevents hog cholera, and is the quickest hog grower ever discovered. Makes juicy and tender meat. Poultry. It prevents disease and cures chicken cholera. It greatly increases egg production and makes chickens grow very rapidly. The amount ad- vised to be fed daily to horses and cattle to accomplish these mar- velous results is two-thirds of an ounce I The material costs 14 cents a pound in 25-pound lots. The Connecticut, Pennsylvania, Rhode Island, Virginia, Iowa, South Dakota and Massachusetts stations have found this stock food to consist principally of wheat (bran and middlings), to which has been added fine charcoal, a bitter substance resembling gentian, cay- enne and common salt. Another large manufacturer makes es- sentially the same claims as above, and the material sells at 6 cents a pound in 25-pound lots. The same experiment stations found it to be composed largely of corn meal, with small quantities of fenu- greek, gentian, charcoal and salt. Farmers, dairymen and poultrymen: What would be your opinion of any experiment station worker who would make such statements concerning the nutritive, medicinal or commercial value of corn meal, wheat bran, charcoal, gentian arid salt? Do you think there is any humbug in the claims made by the manufacturers of such goods? The question is left for you to decide. You may be the judge. Do Healthy Animals Need Medicine? Animals in a state of health do not need condition powders or tonic foods. There is in the body of a healthy animal a condition of equilibrium of all body func- tions. The processes of digestion and assimilation are at their best. All that is required to maintain this condition of balance is that the animal be kept under sanitary conditions, and receive a sufficient 334 DOMESTIC ANIMALS, DAIRYING, ETC. supply of healthful, nutritive food and pure water. While tonics may improve the appetite so that the animal will temporarily con- sume and digest more food, should this increased quantity of nu- trients consumed not be appropriated by the tissues of the body, harm may result from thus overloading the lymphatic system, or from an increased action of the excreting organs. Treatment of Sick Animals. It is believed to be unwise to give drugs to animals when it can possibly be avoided. Even such simple substances as salts, ginger, gentian and the like should be used as sparingly as possible. If an animal is out of condition, and it is be- lieved a tonic will be helpful, try the following : Pulverized gentian, 1 pound; pulverized ginger, % pound; pulverized saltpeter, */4 pound; pulverized iron sulfate, l /2 pound. Mix and give one table- spoonful in the feed once a day for ten days, omit for three days, then give ten days more. Cost of the above, 20 cents a pound. In ex- ceptional cases, when skilled medical treatment appears absolutely necessary, it is far wiser to employ a reliable veterinarian than to at- tempt home doctoring by the indiscriminate use of patent medicines or powders recommended to cure everything. (Mass. An. Kept. Part II, 1910.) AUTHORITIES CONSULTED. Beef Production. Mo. B. 76; Miss. B. 76; Kans. B. 118, 113; Mich. B. 241; Kas.B.lll;Tenn.B.79;Tex.B.86;Tenn.B.3.Vol.XV; S. Dak. B. 100 ; Ag. Dept, F. B. 71 ; Miss. B. 92, 136 ; Nebr. B. 75, 85, 90; la. B. 66; Mich. B. 247; An. Rept. Sec'y Ag. U. S., 1908; Mont. B. 48; la. B. 75, 79; Miss. B. 137, 145, 149, 152; Ag. Societies of Ont. llth Rept. ; Tex. B. 121, 147 ; Kans. B. 146, 158 ; Miss. B. 125 ; Pa. B. 26 ; Minn. B. 60 ; Kans. B. 86 ; Mass. An. Rept. Part II, 1910 ; Tex. B. 97 ; Tex. B. 86 ; Mass. B. 44 ; la. B. 75 ; Tex. B. 135 ; Kans. B. 112; Kans. B. 130; Ag. Dept. Bu. An. Ind. B. 34; 111. Cir. 88, 92, 94 ; Mich. B. 241. Commercial Cattle Foods. R. I. A. E. S. B. 77; Miss. B. 114; Mass. B. 45; Mass. B. 94; Nev. B. 26; N. J. B. 185, 237, 153, 160, 230; Tex. B. 141; Mass. B. 108, 106; Tex. B. 127; Mass. B. 101; N. J. B. 165, 175, 212; Pa. B. 41; R. I. B. 94; Conn. Rept. 1905, Part 3; N. J. B. 193, 201, 185; N. Y., Geneva, B. 268; Term. B. Vol. 9, No. 3 ; Pa. B. 81 ; Conn. Rept, 1909, Part 3 ; La. B. 86 ; Va. B. 107; N. Y., Geneva, B. 198; La. B. 114; N. Y. (State) 217; N. H. B. 147 ; Mass. B. 93 ; La. B. 88 ; Conn. Biennial Rept. 1908, Part 10 ; N. H. B. 116; Mass. B. 56, 64, 85, 71; N. H. B. 147; Mass. B. 53, 136, 139; la. B. 66; Nev. B. 26; Vt. B. 144; Vt. B. 138; R. I. B. 78, 105, 112; la. B. 65; N. H. B. 149; R. I. B. 119; La. B. 98; Mass. B. 78 ; R. I. B. 119 ; R. I. Inspection B. 1911 ; Conn. Rept, 1906, Part 3 ; N. H. B. 133; R. I. B. 134, 140; Wis, Cir. Inf. 11, 22, 1; Tex. B. 70; R. I. B. 98; Ind. Cir. 7, 6. PART III SHEEP. INTRODUCTION. SHEEP are associated with man in the earliest records of the human race. They were first used only for milk and later the skins were used for clothing. Nearly a century and a half have elapsed since Robert Bakewell of Dishley, Loughborough, England, began the first systematic and intelligent improvement of mutton sheep. Prior to that time wool had been the primary con- sideration in sheep raising. Spain, the home of the Merino, at one time controlled the wool markets of the world, and in the early management of the Spanish Merino the ewes were so small that it was common to kill half the lambs in order that those remaining might go to two ewes. The fleece was practically the only consideration in the sheep reared in that country, and this has been the distinguishing characteristic of the Merino breed until within the present decade. As late as 1892 J. H. McKibbon of Albion, Iowa, exhibited a yearling American Merino at the Iowa Sheep Breeders' shearing meeting that yielded a 15-pound fleece from a 54-pound carcass. Bakewell's work marks the beginning of a new era in sheep raising in Great Britain. His achievements in the practical and scien- tific improvement of live stock and the consequent increased value and profit in farm animals entitle him to take rank with the great- est benefactors of humanity. Bakewell's contemporaries credit him as being a man of such analytical and systematic methods, such force of intellect and creative genius, that he would have been eminent in any field of labor or undertaking. The problems connected with live-stock production are even more intricate at the present time and the conditions in agriculture more exacting. Good animals never come by chance or haphazard methods ; they have been the product of a high degree of intelligence, skill, and intellectual ability. This field will always be worthy of the best minds and highest talent the world affords. (Dep. Agr. F. B. 96.) THE PRINCIPAL BREEDS. Merinos. Modern Merinos originated in Spain but their ances- try traces back to the sheep of Italy, Greece and Syria. For the most part they have been raised in large flocks and, hence, adapt them- selves to range conditions more readily than the English Mutton Breeds, which have generally been handled in small flocks. Thero are many distinct types of Merinos known by different names. All, however, are characterized by the extreme fineness of their wool and 335 336 DOMESTIC ANIMALS, DAIRYING, ETC. the heavy fleeces they shear. As a sheep for mutton purposes they compare with the English breeds in about the same way as a Jersey compares with a Shorthorn or Hereford. They are essentially the sheep of Southern Europe, Australia, New Zealand, the Argentine Republic and the prairies of the United States. Even in these coun- tries, however, there is a marked tendency to cross with rams of the English Mutton breeds, so as to produce a sheep of greater value for the export mutton trade. This tendency accounts for the fabulous prices which, of late years, have been paid by breeders from these parts of the world for rams of the Lincoln and other English breeds. One strain of Merinos, the Rambouillet or French Merino, has re- cently become particularly, popular in parts of the United States and elsewhere. This strain, called after the little village in France where it originated, is characterized by more size, better mutton form and a little coarser wool than any other of the Merino sheep. The Rambouillet and other Merino sheep have the ability to conceive early and drop their lambs in fall and winter, a characteristic shared by the English Dorset 'breed. (Annual Report Sec'y Agr. Prov. Nova Scotia, 1907.) ENGLISH LONG WOOL SHEEP. Leicester. Although sheep existed in the British Isles as long ago as history records, yet it was not until about the year 1755 that a systematic effort at improvement was made. About that time Robert Bakewell, of Dishley Grange, Leicestershire, famed, also as a breeder and improver of Longhorn cattle and cart horses, made a systematic effort to improve the sheep of his neighborhood, as a result of which he produced the English Leicester, or Dishley breed of sheep. He had conceived a clear idea of the modern, smooth, easily-fed and early-maturing type of sheep as superior to the sometimes larger, but coarser and later-maturing sort then existent. As a result of careful selection, and, it is believed, considerable inbreeding, he produced a class of sheep measuring up to his ideal, which were so highly appre- ciated that as much as 2,000 guineas ($10,000), per year, each, was paid for the rent of seven rams bred by him. The Dishley Leicester has been used extensively in effecting improvement in other long- wool breeds. The Border Leicester. The Border Leicester, thought by some to have been produced in the Border areas between England and Scotland by crossing the Dishley Leicester with the Cheviot, is now generally considered to have been produced through crossing of ewes of the Teeswater Valley with Dishley rams. The Dishley and Border Leicester are much alike, the principal differences being that the head of the Border Leicester is white, and bare of wool, whereas that of the English Leicester has a bluish-white appearance, and the head and face is not so free from wool. The carcass of the Border Leicester is considered to be a little larger and longer than that of the English Leicester. The following description of the Border Leicester will, with the exception of the above points, fit the English Leicester as well: SHEEP 337 The face is bare and pure white. The body is scarcely as low set as that of some of the other breeds, but is a little longer. The back is exceptionally wide, and the quarters very smoothly rounded on top. No breed possesses a more marked aptitude to fatten, a characteristic which places a special premium upon the Leicester for crossing pur- poses. The wool of the sheep is lustrous, five or six inches long, and very soft, though frequently too open, and sometimes absent on the belly. The Lincoln. This is the largest sheep of the British Isles, and also possesses the heaviest and strongest fleece of wool. The breed is a growth of many years' culture in the Lincolnshire fens and ad- joining districts. Here, agriculture has been carried on under the highest system, and roots, grasses and grain, all grown in profusion, have been the means of developing a very large-framed sheep. The Lincoln of early times, like that of today, was a large sheep, but was coarse, and of slow maturity. Marked improvement was effected by a cross of the improved Leicester. The modern Lincoln is a magni- ficent-looking sheep. The head is rather long and massive, the face pure white, free from wool, but surmounted by a conspicuous tuft of wool. The body is exceedingly full in its development all over. The wool is long in fibre, very strong, and noted for its lustre. It is especially valuable for the worsted class of goods, as well as for braids, bunting for flags, etc., where length and strength are needed. As to mutton qualities, the breed is a little large and strong to meet the ap- proved demands of an exacting market. Their special value seems to be for crossing upon the common American stock to improve their size. Farmers generally are not recommended to adopt this breed, unless they were prepared to accord them somewhat of the same luxurious feeding as their ancestors were accustomed to on their native soil. The Cotswold. This breed, contrary to the haibit of most long- wooled sheep, has made its home on the uplands the Cotswold hills of Gloucester and adjoining counties. It is a very ancient breed and, with the exception of a little resort to Leicester blood to improve the quality, has been kept pure for a long period. In form, the Cotswold is rather deeper, squaror in outline, and larger than the Leicester, in fact, rivalling the Lincoln in size. The head is rather long, but wide between the eyes, though scarcely as massive as that of a typical Lincoln. The face is usually white, but dashes of grey are quite ad- missible and, by many, admired. The face is surmounted with a full, long forelock. It is said of the Cotswolds that they are a sheep that "can look over a hurdle" in reference to the prominent way in which they carry their heads. Many Cotswolds are, on this account, inclined to be ewe-necked, although this has boon bml out of the best of them. As regards wool, Cotswold breeders prefer a bold, open curl, rather than the close, spiral of the Leicester. A long, strong fibre that yields heavy is the ideal. Owing to its length, the fleece is some- times open along the back. In regard to mutton qualities, Cotswolds are open to the same criticism as the Lincoln and their greatest value in this country is for crossing upon and improving the size of the 338 DOMESTIC ANIMALS, DAIRYING, ETC. smaller grades. In selecting Cotswolds foe very particular to get them dense fleeced, especially along the back, and of extra quality. The Downs. In the south of England is a chain of chalky hills covered with fine, short grass. As long as history records, there has been on these hills a race of short-wooled sheep for the most part pos- sessed of horns. From this old type, through selection and crossing and careful feeding, have been developed the Southdown, Shrop- shire, Oxford, Hampshire, Suffolk and Dorset horn, breeds of sheep which, in greater or less numbers, are to be found in the United States and Canada. These breeds are, for the most part, somewhat smaller than the Long-wools, but they atone for this by their quality and even more by the fineness and denseness of their fleeces, the latter being particularly important as a means of protecting them from rains and snows, which are all too often the cause of colds and other diseases. The Southdowns. This breed is a striking illustration of the possibilities of breeding. A native of the Sussex-downs, and some- times so designated, the unimproved ancestors are described as being small in size, of bad shape, long in the neck, low at both ends, light in shoulders, narrow in front, coarse in bone, possessed of horns, but boasting of a big leg of mutton. Today, the breed is one of the most perfectly formed breeds in existence. The size of Southdowns is medium' to small, but so compact and thick fleshed are they and so close to the ground that their weights will astonish any unacquainted with the breed. The head is mod- erate in size, short and cleanly cut. The forehead should be covered. with wool, as also the cheeks, but this does not usually join under the eyes. There is an absence of horns and the ears are small, pointed and very alert. The face is of a mouse or slightly darker brown color (speckled face objected to). The neck, body and quarters are most symmetrical and the very embodiment of mutton type. No other sheep has such a development of hind quarters. The fleece is characterised more by its fineness and density, rather than its weight, which is usually not great on account of the shortness of fibre and a comparative lack of yolk. The great transformation in the quality of the Southdown was effected exclusively by selection, and the result has been not only a very handsome, but exceedingly prepotent class of sheep that have been used extensively in the improvement of the short-wools, just as the Leicester has been used in the improvement of the long-wools. Southdowns are not very numerous in this country, their lack of size and rather light fleeces being strongly urged against them. Never- theless, they will always find a place, and every breeder of short-wool sheep must feel a debt of gratitude to this splendid breed of sheep, whose blood has so greatly improved the mutton qualities of almost all the Down breeds. Shropshires. This well-known breed originated a little further north in England than the Southdowns. The fact that, at the pres- ent time, it has the largest number of registering breeders, indicates its great popularity. In size, the Shropshire is considerably larger SHEEP 341 than the Southdown, and shears a heavier fleece, while at the same time preserving, to a large degree, the compact mutton form, for which the latter is so deservedly noted. The breed had its origin in the mingling of the blood of a diminutive black or brown-faced and horned sheep, called from its habitat, the "Morfe Common sheep," with that of the Leicester, Cotswold, and Southdown. These Morfe Common sheep dressed, when matured, about forty to fifty pounds of mutton, and sheared about two (2) pounds of wool. A comparison of this sheep with the modern Shropshire ought to convince anyone of the possibilities there are for stock improvement through the per- sistent use of high-class sires of the type sought after. In sixty years the Shropshire sheep as compared with their ancestors, doubled their carcass weight, and more than trebled the weight of their fleeces. Since about the middle of the Nineteenth Century the breed has been kept pure. The type of the Shropshire is, as stated, veiy similar to the Southdown, except that it is on a larger scale. The head is of mod- erate size, short, wide and clean cut. It should be closely covered with wool right down the bridge of the nose. There should, of course, be no appearance of horns. The ears should be far apart, pointed and moderate in thickness and preferably covered with fine, curly wool. The fleece should be strong and fine in fibre, with all the density possible, extending from the bridge of the nose all over the body and right down to the hind fetlocks. Black wool fibres are objectionable, though sometimes hard to avoid forward of the ears. The characteristic color of the face and legs is a rich, dark seal brown. No breed of sheep will adapt itself to varying conditions better than the Shropshire. The greatest rivals of the Shropshire are the Oxford and Hamp- shire Downs. Of these two, the Oxford very much resembles the Shropshire, so that it is sometimes almost impossible to distinguish a coarse Shropshire from a fine Oxford. The chief points of differ- ence are to be seen in the greater size, larger, heavier head and ear and the longer but more open fleece of the Oxford as compared with the Shropshire. Hampshire. These have not, as yet, been extensively bred in America. However they are gradually coming into favor. The Hampshire is one of the more recent additions to the 'breeds of Eng- lish sheep and is the result of the skillful mingling of bloods of an old, white faced, horned breed called the Wiltshire (somewhat simi- lar to the Dorset), the Berkshire Knot (.->hing. After a careful investigation of the subject one is convinced that, in the long run, it is more profitable to dispense with washing altogether. Better results have been secured by shearing sheep during the first half of April than later in the season. This, of course, makes it impossible to wash sheep before shearing. A heavier average fleece and also a wool of better strength may be se- cured from the same flock by shearing during the first half of April than by shearing in May or June. If reasonable care is taken to keep the wool free from dirt and litter while on the sheep's back then there is little to be gained by washing. Wool market quotations show a class of unmerchantable wools. This class includes wools poorly washed. A large per cent of washed wools are sold as un- merchantable, at a price about equal to that of unwashed wools. The custom of washing the sheep is of doubtful utility on ac- count of injury to the sheep. Sheep are often roughly handled and not infrequently more injury i corn at 70 cents a bushel, and the cost of seeding the red clover is also taken into account, each pig cost $4.98. It is getting to be a common practice in the Middle States, where cowpeas thrive well, to plant the peas in the corn at the last cultiva- tion and graze the hogs on both crops. This method saves a great amount of labor, and the waste of corn is very small indeed if small pigs are given the run of the field after the fattening animals are taken off ; in fact, the loss of corn is not as great as is usually the case when hired help gathers it. (F. B. 411.) Soy-Bean Pasture. The soy bean is a very valuable crop both for hay and for use as a pasture for hogs. The Tennessee station, Bulletin 82, has compared the cowpea and the soy bean as to their habits of growth, yields, etc. According to this bulletin the cowpea has the following advantages over the soy bean: (1) The soy bean may fail to come up through a crust which would offer little resist- ance to cowpeas. (2) The germination of the cowpea seed is surer than that of the soy-bean seed, which is liable to be spoiled by heating. The cowpea is therefore better than the soy bean for broadcasting, especially on land that is heavy and liable to bake. (3) The cowpea is much better suited than the soy bean for planting with either corn or sorghum. (4) Cowpea hay is more easily cured by the methods in common use, without the increased loss of either leaves or fruit, than soy-bean hay. The soy bean, on the other hand, appears more valuable than the cowpea (1) as a grain producer, (2) as an intensive farm crop, (3) as an early hay or grazing crop (for which purposes the early and medium varieties will produce either hay or seed several weeks ahead of any variety of cowpeas which had been tasted at the station) , (4) the seed decay more slowly than those of the cowpea when left on the ground, so are better adapted to being pastured off by hogs. Rabbits feast upon the soy bean while they will not bother the cowpea at all. Therefore the farmer who plants soy beans should plant enough for both himself and the rabbits. The soy beans proved to be greatly superior to sorghum. In fact, sorghum was practically worthless, while satisfactory results were secured from soy beans. When corn alone was used 61.4 cents were realized upon each bushel, with hogs at 5 cents; but when the corn was supplemented by the soy-bean pasture each bushel of corn used was worth 98.6 cents (al- lowing $8 to make each acre of soy beans) . Even when the interest on the land and the cost of putting in the crop were counted against the gains, pork was still made for less than one-half of what it cost when corn was used alone. Again, when corn alone was used only 48.9 cents were secured for each bushel, but when a three-fourths, a one-half, and a one-fourth ration of corn were used along with the pasture the value of a bushel of corn was 472 DOMESTIC ANIMALS, DAIRYING, ETC. raised to $1.59, $1.69, and $3.35, respectively (estimating the cost of making the crop at $8 an acre). The Southern Yellow variety of bean was used in all cases. Other varieties can he used if it is desired that the grazing period should be extended. For instance, the Hollybrook variety is ready for grazing two or three weeks before the Southern Yellow, although planted at the same time. (F. B. 411.) Soy beans will furnish pasture for hogs during the latter part of August and September, and the green and ripening beans when harvested by the hogs in this way make an excellent feed. The beans when fed in a ration consisting of one part beans and three to five parts of corn or Kafir corn, as shown by the Kansas Agricultural Ex- periment Station, make a very profitable ration for fattening hogs. (F. B. 331.) The soy bean is regarded as somewhat better adapted for finish- ing a bunch of hogs than the cowpea ; at the same time if one does not care to bother with so many different crops, the cowpea may be used instead with satisfactory results. (Mo. B. 79.) Canada Field Peas.- The seeding is done in April or early in May, and the crop can be pastured by midsummer. The best season for pasturing is when the peas have formed, the stock being allowed to harvest the crop. Hogs make a very thorough harvesting, clean- ing up the peas and the vines quite thoroughly. What vines are left on the ground, together with the manure, enrich the soil and add more humus to it. In addition to this the labor of harvesting is saved. (F. B. 33.) Peanuts. Other things being equal, legumes should always be made use of when planning a succession of crops for hogs, on account of their favorable influence in building up soils. Peanuts range among the exceedingly valuable leguminous hog crops. Many farmers are already aware of their high feeding value, and they are used in those few sections of the South that at the present time are producing more pork than is used at home. As a rule, when a hog-producing section is found in the South, a peanut-growing section is also found. This plant, used along with soy beans, affords a long summer and fall grazing season. It is a very valuable crop for fattening hogs. It should also be remembered in this connection that these hog-grazing crops do not cost a cent to harvest ; the hogs save the expense by con- suming the crops in the field. Again, when the hog grazes on the crop there is practically no danger of losing it on account of con- tinued rain at harvesting time. (F. B. 411.) As a whole, peanut pasture was found to be more useful than any other pasture tried. Notwithstanding the fact that the peanut pastures were not good two years out of the three they still gave ex- cellent results. Pork was made at a good profit when peanut pasture was used in conjunction with corn. (Ala. B. 143.) Spanish peanuts fed alone yielded a larger gain than corn fed alone. The results indicated that an acre of peanuts of a yield of forty bushels would produce approximately $18.40 worth of pork at $6.25 per 100 pounds. With pork at $9 per 100 pounds the same BREEDS OF SWINE 473 acre would produce $26.64 worth. Peanuts and corn combined pro- duced much more rapid gains than peanuts alone. The quality of the pork produced by peanuts was much inferior to that produced by corn. (Tex. B. 131.) Sorghum. Sorghum is less palatable and nutritious than many other forage crops adapted to this region. For this reason many do not like it as a pasture crop. Hogs do not thrive as -well on it as on alfalfa and require more grain to keep them growing nicely. The special value of sorghum lies in the fact that it furnishes a great abundance of pasture in dry hot weather when alfalfa makes little growth. After it is well started, say 2 feet high, it will furnish fairly good pasture for 30 hogs to the acre for a few weeks, and a good crop will carry 25 head of 100-pound pigs nearly all summer. (F. B. 331.) Mature sorghum pasture has very little to recommend it as. a feed for fattening swine. Both the gains and the financial outcome were unsatisfactory. When the sorghum was cut and carried to the hogs the results were better than when the hogs were made to graze the crop. (Ala. B. 143.) Sorghum is a green crop well thought of in the South as a feed for swine. Its chief advantage lies in the large yields and the sure- ness of the crop, there being very few seasons in which it fails. But it must be remembered in planting a rotation of crops that sorghum is not a legume, so that the land will not be made better on account of its having been grown. It should also be borne in mind that corn and sorghum do not make up a balanced ration for animals. They are both low in protein, so if sorghum is to be used at all, the concentrate feed should be partly made up of a feed high in protein, as cotton-seed meal or tankage. Sorghum has probably one valuable place as a hog feed to help carry the brood sows through the sum- mer months economically when the pastures are short. Sorghum is a bulky feed and is more suited to ruminants than to the hog. The young hog makes no use at all of the leaves and the fibrous part of the stalk; his stomach is too small for such bulky roughage, but older hogs can use roughage to a considerable extent. (F. B. 411.) Plant8 for Winter Pasture. Many plants, in addition to the ones previously mentioned, can be used for winter pasture. Of course it is more difficult to secure winter than summer grazing, but with the proper use of bur clover, rye, oats, vetch, and crimson clover all fall sown there is little trouble to secure grazing areas throughout the whole winter. Bur clover is a permanent pasture and will grow upon almost any character of soil. It occupies the land with Ber- muda, but makes its growth in the winter time and dies down when spring appears, and the Bermuda takes its place. Rye, oats, vetch, and crimson clover can be fall sown, following the general summer crops, and be ready for use during the winter and early spring months. Oats Pasture. The great value of oats is due to the fact that they furnish succulent feed at a season when it is much needed. They are also greatly relished by hogs. Oats are particularly val- uable as pasture for sows and young pigs, many farmers sowing 474 DOMESTIC ANIMALS, DAIRYING, ETC. them for this purpose. One farmer claims that he is less troubled with scours in pigs on oat pasture than on alfalfa. (F. B. 331.) Rape Pasture. One of the valuable green crops for hogs is rape. It can be sown in the fall after the summer crops are taken off the land, and within seventy days is ready for the hogs to be turned upon it. It is a winter growing crop, or one that can be used be- tween the two summer crops. As a result of its use the land can be kept in use and covered with green vegetation the year round. Sev- eral experiment stations have demonstrated its value as a hog feed. While rape when planted in the spring will make a summer growth almost anywhere in the South, it is not advisable for the farmer to use it as a summer pasture. Other pastures can be used during the summer months, and the rape can be sown in the fall, after the sum- mer crops are taken off the land, and be ready for pasturing by Janu- ary. As a rule, lands lie idle throughout the winter months, thus exposing them to the heavy washes, but if rape is used the land can be made to produce a green crop the year round, and at the same time afford the fattening or breeding hogs a good winter pasture. The experimental work in both Alabama and Wisconsin has shown rape to be an excellent grazing crop to supplement corn. In Alabama the area was grazed twice, as the rape grew up behind the hogs after they had grazed it the first time, and as a result of both grazings it was learned that 1 acre of the rape pasture was equivalent to 61.9 bushels of corn (assuming that 580 pounds of corn will make 100 pounds gain) ; or, leaving out of consideration the expense of making the crop, each bushel fed at the first grazing was worth 95.8 cents (hogs at 5 cents) and each bushel during the second grazing realized $1.36. If it cost $8 to make an acre of rape, and this ex- pense is charged against the gain, the corn during the first grazing sold for 67.8 cents a bushel while that of the second grazing sold for 91.6 cents. In the Wisconsin test 1 acre of rape was found to be equal in feeding value to 45 bushels of corn, or, estimating, as in the Ala- bama test, the corn sold for 99.6 cents a bushel when the cost of making the rape crop was not considered, and for 91.9 cents a bushel when the cost is counted against the gain at the rate of $8 an acre. These results were secured in winter, a time of year when the average farmer is realizing no returns at all upon his land. Thus the farmer is one crop ahead, equal to about 30 bushels of corn. Rape is not a legume ; it will not enrich the soil. Its chief value lies in the fact that it can be grown in the winter time between the main farm crops. It comes off in the spring in ample time for the same area to be planted in any of the general farm crops. (F. B. 411.) Rape at the present time is the most favorably known of the fleshy-leaved plants for swine pasture. (Ind. B. 82.) Chufas. The chufa plant is one that can be used for winter grazing also, but it has two disadvantages. One of these is that it must be planted in the spring and occupies the land throughout the whole summer; the other is that while it occupies the ground for a long time it is not a soil improver. Nevertheless many farmers make excellent use of. it for pigs that they wish to finish for late spring kill- BREEDS OF SWINE 475 ing or for the early spring or late winter markets. Some farmers make a practice of planting it upon the same land and at the same time with peanuts, but in alternate rows. This is a good practice. The peanuts are ready to graze before the chufas are matured, so the animals when turned into the field first consume the peanuts and later on in the fall or winter make use of the chufas. The chufas lies in the ground without much loss by rotting. (F. B. 411.) Grain to Feed When on Pasture. It would be of interest to the farmer to know just how much grain to feed along with the pasture crops. Of course the amount of grain fed depends upon the kind of pasture used and whether the animals are just being carried along or are being rushed to a finish. No farmer can afford under present conditions to sell his corn directly upon the market as corn, even for $1 a bushel. He should market it through hogs. In the Alabama test from $1.42 to $2.82 was secured for each bushel of corn fed when hogs sold for 5 cents a pound live weight. Some farmers hold that the most profitable method is to feed no grain at all while the hogs have the freedom of a good pasture, but it is seen from the above prices realized upon corn that the man who has corn to sell should make more money by feeding it in conjunction with the pasture. Third, the amount of available pasture will have something to do with the amount of corn to feed. If the area of pasture is small for the number of hogs on hand, it would pay to be liberal with the corn in order that the pas- ture may be extended over as long a time as possible. Fourth, the amount of grain used depends upon the length of time the farmer has in which to get the animals ready for the market. If prices are ruling low, it may be wise to simply carry the animals along slowly until the prices advance. If hogs are selling at a good figure and there is danger of their depreciating in value on account of prices falling, it would be the part of wisdom to finish rapidly through the liberal use of grain. (F. B. 411.) Grass alone does not furnish a satisfactory ration for hogs. When they have the run of a large pasture with opportunity for root- ing, the supplementary food thus obtained enables them to maintain their weight, and probably gain slightly. When the grass pasture is supplemented by a small grain ration, or by skim milk, or possibly by the slops from the house, the hogs make much better use of the pasture, and they will make quite satisfactory gains -on a small amount of supplementary food. The hogs gain in live weight more slowly, but the gain is made at a lower food cost on the part ration than on the full grain ration. In this conclusion nothing is allowed for the pasture. By feeding a part grain ration on pasture the hogs eat more of the pasture and thus make a pound of gain on less grain than when fed a full grain ration, but do not gain so rapidly. Thus, on one side there are more economical but slower gains, accom- panied by slower returns, greater risk and more labor; contrasted with more costly gains, lae grown for pasture, thus furnishing materials for a well-balanced ration. The purpose of these remarks is not to minimize the value of corn in meat production of any kind. Corn is, perhaps, with a favorable climate and soil, the most economical grain that is at the command of the stock raiser and feeder in those sections of the United States where it can be grown successfully. It is nutritious and highly palatable. Without its use it is difficult to imagine how the animal products of the United States could have attained their present position in the world's commerce; and so long as meat products are a factor of American agriculture corn will probably be a leading element in meat production in this country, and the corn belt will naturally continue to be more or less the center of feeding operations. On the other hand, the condition is ever present that farmers in local- ities where corn is a limited product have their own wants to supply. If, in addition to their own needs, the farmers of these localities can supply a share of the export demand, great strides will have been taken in their agricultural development, for live-stock husbandry is the foundation of successful agriculture. A market for the surplus is, of course, essential, but where a supply is available the market will probably be forthcoming. (F. B. 205.) Feed for the Boar. A boar not mature will need nitrogenous food to develop his vital organs, muscles and bones, while the mature boar can be maintained on a more starchy ration. The mature boar should carry sufficient flesh to be thrifty in appearance. Exercise is of prime importance to the boar, and an over-abundant amount of flesh is not conducive to exercise. He should have plenty of range with good pasturage. If he be given forage crops of rape and cow peas and alfalfa, but little grain need be given. If the pasture is rich in proteid. he should be given one or two pounds of corn a day, with perhaps bran or middlings slop. The ration should be increased in the breeding season, as any weakened condition might lessen the number of pigs in the litters. The boar should not be confined to too small a yard in winter, but given opportunity for exercise. The ration should then be rather bulky, and may consist of corn, bran, alfalfa, meal, or hav and short*. A few roots make a good appetizer and help to regulate tne bowels. (Mo. Cir. 28.) The boar pig should be pushed with growing feeds, so that he will make a gain even* day until he reaches full, mature weight. A mixture of any two or more of the following grains is good: Corn, 482 DOMESTIC ANIMALS, DAIRYING, ETC. barley, or milo maize, with wheat, peas, or shorts. A liberal supply of skim milk is especially good. He should have all the alfafa he will eat every day, either pasture or hay. A small feed of roots or cooked potatoes is good. Stunting, even for a short time, will per- manently injure his value. He should weigh 300 to 400 pounds when 12 months old. After reaching full growth, the boar, when not in service, should be given bulky feeds that will keep him full, satisfied, and in good condition, but that will not put on fat alfalfa, roots, and a small daily ration of any kind of grain. A few weeks before the beginning of the breeding season the grain feed should be gradually increased, giving a mixture the same as when he was growing, and the amount of roots and alfalfa should be slowly reduced. The animal should be put in perfect condition and good flesh, but not made fat. The best results are not secured from a sire that is either fat or thin. During the breeding season the boar should have an abundance of food, using the same combination as recommended for him while growing, except that just sufficient succulent feeds (alfalfa and roots) should be given to keep his bowels in good condition. A full supply of succulent feeds at this time is likely to make him infertile. (Colo. B. 146.) The feed of the boar when not in service may be of a succulent nature mainly pasture and cut green forage during the summer months and roots in winter. A boar can hardly be sustained on this alone, and some grain should be allowed to keep him in condition. This should be nitrogenous in character, consisting of mill feeds such as shorts, middlings, and bran some oil meal, and the legumi- nous grains, with a little corn. As the breeding season approaches the feed should be increased, so that the boar will be in good condi- tion. (F. B. 205.) Feed for the Sow. The sow should be given wide range, and if in good condition when put in pasture, will need but little if any grain. In Nebraska it was found that sows weighing 200 pounds each gained nearly half a pound a day for 63 days on alfalfa pasture and no grain. In the absence of alfalfa, forage can be provided by land sown with a mixture of the following: rape 2 pounds, cane or corn 20 pounds, cowpeas 8 pounds. Or if sown early, oats and barley may be used. It is well to plant a lot of ground each week, and so have a pasturage of green forage for several weeks to turn into. Over 10 tons of green forage can be produced on an acre. During winter the sows may have the run of the cattle yards until 6 weeks before farrowing time. They should be given clean water, a little corn and middlings and a couple of roots a day. After removing them from the yard, give laxative foods. Sows are more often underfed than overfed. They should have plenty of protein feeds of a bulky nature. If a large number of brood sows are kept, and the hog cot system used, more grain will be required. Feed 3^2 pounds per day of the following ration : Corn 3 parts, shorts 3 parts, oil meal or tankage 1 LARGE YORKSHIRE. (COURTESY OF PROF. DIETRICH, ILLS.) DEPT. OF AGR. DUROC-jERSEY SOW IN FAIR SHOW CONDITION. DEPT. OF AGR. BREEDS OF SWINE 485 part, with some alfalfa meal or hay. The cost of this method is 2 to 4 cents per sow daily. If sows have been summered on alfalfa, they will eat a larger amount of alfalfa hay if it is kept clean in a rack. (Mo. Cir. 28.) Feed for Sow Before Farrowing. It will be shown later on that pastures are the basis for the profitable handling of hogs. The pigs should be gotten up to w r eaning time as cheaply as possible, and the cheapest way to do this is to have a pasture for the sows to run upon every month in the year. It is very little trouble to have pas- tures practically the year round in the South. Of course the sow should be provided with some grain in addition to the pasture, but the pastures will save a great amount of grain. It must be remem- bered that the sow must be nourished in such a way that the pigs will come into the world strong and healthy. Corn alone will not keep the sow in a good healthy condition, neither will it develop the pigs in the mother's body. But corn along with good leguminous pasture will provide her with a good ration. When pastures are not avail- able such feeds as skim milk and bran should be used along with the corn. Not more than one-half of her ration should ever be made up of corn ; the other half should be made up of a feed that will furnish plenty of ash and protein to build up the litter of pigs in the body. Leguminous pastures are the cheapest feeds that can be found to go along with the corn. With a good leguminous pasture the sow will be maintained in good flesh when she is fed a ration of corn equivalent to 1 per cent of her live weight. For a 200-pound sow this would be 2 pounds of corn daily. When no pasture is provided it requires from 6 to 7 pounds of grain to maintain a 200-pound sow in proper condition. Some farmers make use of a leguminous hay for the sows when the pastures become short. Alfalfa, cowpea, and soy-bean hay are all good for this purpose. They save a great amount of grain. When the farm is supplied with a cutter it will pay to cut the hay into small parts, which should be mixed with the corn and fed as a thick slop. But it will not pay to go to any extra expense to get ready to cut this hay. Some feeders throw the uncut hay on the ground, but this causes considerable waste, especially in rainy weather. In the South, where hay is high in price, it will pay to provide a small rack so that the animals can pull the hay from below without getting it under their feet. If neither pastures nor hay are available, the feeder should use corn along with wheat shorts, oran, tankage, skim milk, etc. Corn should never be used alone. Corn and skim milk should be fed in the proportion of one part of corn to three parts of skim milk. Under average conditions the dry sow should be fed about one part of shorts or bran to three parts of corn, or one part of tankage to nine parts of corn. It would pay some farmers to use cowpeas and soy beans along with the corn in the proportion of one part of the peas to about six parts of corn. (F. B. 411.) During pregnancy two facts must be borne in mind. The first is that the sow is doing double duty. Not only is she keeping up her 486 DOMESTIC ANIMALS, DAIRYING, ETC. own bodily functions, but the development of the fetal litter is a con- stantly increasing drain on her system. Although feeding at this time will not need to be so heavy as after the pigs are farrowed, it should be liberal. The sow's condition should be good neither too fat nor too lean. It is hardly too much to say that the mistakes in feeding breeding animals are more frequently those that keep such stock in a thin, half-starved condition, under the idea that the repro- ductive organs are so peculiarly liable to become transformed into masses of fat. The use of the reproductive organs in either sex creates demands of an unusual nature on the animal organism, and these demands must be met in the same manner as those of a differ- ent character such as growth, work, etc. and that is by providing liberal supplies of the proper kinds of feed. The amount of nitro- genous, or protein-bearing, feeds in the ration at this time should be increased. These are bran, peas, beans, oats, and barley, and, to a moderate extent, wheat. The forage plants that are especially suit- able to pregnant brood sows are the clovers and their relatives al- falfa, pease, beans, vetches, etc. The ordinary pasture grasses are also of much value. Feed should be given in such form that the system of the sow will be at its best. All breeders lay special empha- sis on the condition of the bowels during pregnancy, and particu- larly at farrowing, the special danger to be avoided being constipa- tion. To this end the greater part, if not all, of the grain ration is given as slop, and toward the close of the period of gestation oil meal or a small amount of flaxseed meal is introduced into the ration. Corn should not be fed in large amounts to breeding stock. If possible, it should not be fed at all to any but fattening animals. In the corn belt many farmers are often so situated that they have no other grain feed at hand. If corn must make up the greater part of the ration of the brood sow, the injurious effects may be counter- acted in a measure by compelling the sows to exercise. Various schemes may be necessary to bring about this result, such as having the house and feeding floor or the feeding floor and watering place at opposite ends of the hog lot; so that a good walk is a necessity several times each day. If the lot is located on a hillside, the walk is made a climb. Some men scatter grain among straw and corn fodder with this idea of exercise in mind, and others resort to the whip and drive the sows gently for a mile or two each day. (F. B. 205.) The following ration is for brood sows during pregnancy, fed entirely on grain. The addition of the bran increases the bulk and laxative effect. Corn meal, 23 pounds; ground oats, 23 pounds; wheat middlings, 23 pounds; wheat bran, 23 pounds; oil meal, 6 pounds; salt, 2 pounds; total, 100 pounds. This should be fed as a slop. (Wis. B. 184.) Feed for Sow After Farrowing. The mother should receive no feed at all for about twenty-four hours after giving birth to the pigs. She is feverish, though, and should be liberally supplied with fresh water. The second day after farrowing she should be given a small BREEDS OF SWINE 487 feed. It is well to start her on a light slop made up of shorts and skim milk. If there is no skim milk on hand, mix about four parts of com with one part of shorts, cowpeas, or soy-bean meal and give a small quantity. She should be gradualy brought up to a full feed; this should require about three weeks. If she is overfed at first the pigs are apt to take scours and thumps. When she is on full feed she will be eating daily an amount equivalent to about 4 per cent of her live weight, provided she is not on pasture. If she has the run of a good leguminous pasture, at least one-half of the grain will be saved. If she has no pasture, she should be fed just about as she was fed before farrowing, except that she should receive more feed than when she was dry. When the pasture is composed mainly of blue grass or Bermuda grass she should receive a grain feed equiv- alent to about 3 per cent of her live weight, and the grain part of the ration should be partly composed of shorts, tankage, cowpeas, or soy beans. When the pasture is made up of a leguminous crop, a grain ration equivalent to not more than 2 per cent of her body weight will keep her in excellent flesh, and in this case corn can be used for the grain portion of the feed. (F. B. 411.) Give the sow all the water she wants for the first twenty-four hours after the pigs are born, but no grain. Take the chill off the water in cold weather. For three or four days after the first twenty- four hours, give plenty of water, but feed grain and milk sparingly. Then slowly increase until, when the pigs are three weeks old, the sow is having all the feed she will consume. Give the pigs exercise and sunshine from birth, but do not allow them, to get damp nor to be exposed to the wind. When the sow is given a warm, rich slop, or other milk-pro- ducing feeds just after her pigs are born, a strong milk flow is forced. The new-born pigs get too much and have diarrhoea, w r hich often, kills them. They cannot take all the milk, and the sow's udder becomes inflamed and caked. When the pigs suckle, the pain be- comes so intense that in desperation she jumps up, kills, and eats them. Overfeeding and lack of exercise cause the thumps in young pigs, but usually in Colorado, when pigs are thought to have the thumps, they actually have pneumonia, due either to damp beds or exposure to draughts. (Colo. B. 146.) A sow should be kept quiet and fed very little, if at all, during the first 24 hours after farrowing. Begin by giving a drink of water, followed by a light bran mash. The feed can be increased gradually up to the fifth day, after which the sow may be fed more liberally. At farrowing times the pigs should be examined and the useless ones discarded. (Wis. B. 184.) Until the pigs are weaned, the sow should be fed twice a day a thin slop of corn meal and wheat shorts or rice polish. When the pigs are two weeks old the sow is to be turned out to pasture for a few hours, and soon the pigs may fol- low. Some hog raisers feed the sow only soaked corn after she is fully accustomed to grazing; generally, however, it is better to con- tinue the slops till the pigs are weaned, about eight or ten weeks. (W. S. Cir. 30.) 488 DOMESTIC ANIMALS, DAIRYING, ETC. After farrowing increase the food of the sow, giving her all she will eat of a ration of mixed grains, with skim milk if available. A shady pasture in summer, and a warm, dry, sunny pen in win- ter mean health and thrift for the young pigs. Probably no other farm animals gain as rapidly as young pigs. Weighing from two and one-half to three and one-half pounds when farrowed, they will nearly double their weight in a week, and, if the sow is generously fed, will weigh from fourteen to eighteen pounds at a month old, and will double it at two months old. When one month old, the young pigs should receive food in addition to the milk of the dam. (Utah B. 94.) The sow should be fed light for a few days after farrowing. If she does not eat anything for a day or two after farrowing, it is so much the better. For a few days she should be fed small quan- tities of thin slop made of middlings and water. Increase the sup- ply gradually from day to day until she gets on full feed at the end of a week or ten days. If the sow has a large litter, she will require liberal feeding, but if the litter is small, it may be necessary to feed more sparingly. (N. D. B. 83.) Feed for Pigs Before Weaning. Here, again, the most im- portant point of all, as far as economy of gains is concerned, is to have a pasture for the pigs to run upon as soon as they begin to eat. When a good pasture is available and the mother is fed liberally of the proper feeds, the little pigs will need little in addition to what they obtain from the pasture and the mother. But the pigs will make use of some additional feed, especially if the litter is a large one. The pigs will begin to eat when they are about 3 \veeks old if they be given the opportunity. For these young animals nothing is superior to skim milk mixed with shorts. Many farmers have no skim milk, though, so something else must be used. In such case probably the best thing to feed is a thin slop of shorts up to the time that the pigs are from 4 to 6 weeks old, after which the ration should be made up of equal parts of corn meal and shorts. These young animals should never be fed corn alone. The feed for the pigs must be fed in separate troughs, around which a fence has been built to keep the sow r s away. There is no advantage to be gained by pushing the pigs too rapidly with supplementary feeds. They should not be fed much fattening feeds, as corn; they should rather be given feeds which tend to make bone and muscle, as skim milk, shorts', pasture, cow- peas, soy-bean meal, etc., so that when the time arrives to finish them for the market they will have a well-developed body upon which to put the fat. They should, while young, be given just enough feed to keep them in a good healthy growing condition. Oftentimes when the litter is small and the mother is a good milker the little pigs will need no feed at all in addition to the pas- ture and the mother's milk. The Wisconsin station has done some experimental work which seems to show that gains on young pigs can be made as economically by feeding a given amount of feed to the mother as by feeding directly to the pigs. To be able to keep BREEDS OF SWINE 489 up an average-sized litter in this way, the mother must be fed lib- erally. The mother and the pasture should be depended upon to furnish the greater part of the feed for the small pig. (F. B. 411.) About one-half pound of shorts mixed with one or two quarts of skim milk, will make an excellent ration. Feed it in a small pen apart from the sow. Start with a small quantity, and increase as fast as the pigs will eat it. Wean the pigs at seven to eight weeks old. Remove two of the strongest pigs the first day, in two or three days the next two most vigorous, and so continue till all are removed. Such a method will tend to dry up the milk of the sow, thus avoid- ing trouble from that cause. (Utah B. 94.) The appetite for something besides the dam's milk may begin to assert itself by the time the pigs reach three weeks of age. This time will vary, of course, some pigs being more precocious than others. They will be noticed nibbling at grass, rooting a little, and even investigating the sow's feed. A pen should be arranged adjoin- ing that of the dam and separated from it by a partition, with suf- ficient room at the bottom to allow the pigs to run under. In this inclosure put a low, shallow trough and place in it a little skim milk or a thin gruel similar to that recommended for the sow the first day after farrowing. This gruel may be made with any concentrate that is free from woody matter. If ground barley or oats is fed the meal should be first sifted to remove the hulls. There is a great va- riety of feeding stuffs that can be used. The main point to be ob- served is that the pig's stomach is very easily deranged at this age and feeds must be given that will digest readily. The trough in which the pigs are fed should be kept clean. No stale feed should be allowed to remain in it from one feed to the next. As the pigs learn to eat the feed may be increased. Skim milk should be used liberally, using rather large quantities at first from 6 to 12 pounds of milk to each .pound of gram. During this period comparatively little corn should be fed, as a rule. More growth can be obtained with a narrow ration, and the corn should be withheld until the fattening period comes. The pigs should be kept growing constantly, and the best results will come with feeding a little under their capacity rather than all they can consume. To counteract the tendency to become too fat they should have plenty of exercise. Scours and thumps often cause very serious losses among young pigs. The former is caused usually by overfeeding, by feeding badly spoiled feed, by an abrupt change of feed, or by a change in the feed of the dam that affects her milk. Thumps is generally caused by overfeeding and lack of exercise. (F. B. 205.) Make a creep for the pigs, and in a low trough supply a thin slop made of 2 parts corn, 3 parts shorts stirred in milk. Forcing a pig to eat from a high trough may produce a weak and sway back. (Mo. Cir. 28.) The following ration is especially useful for feeding small pigs during a short period just before and after the weaning time. When supplemented with warm skim milk, young pigs take to it very readily. If it is desired to wean pip 5 early, in order to breed for fall 490 DOMESTIC ANIMALS, DAIRYING, ETC. litters, the ration should be carefully prepared to suit their needs. It is very important to avoid stunting little pigs, for growth once checked proves permanent and means loss of profit. Begin feeding small quantities of this ration to pigs about four weeks old, and con- tinue for 2 weeks: Ground oats (hull free), 35 pounds; wheat mid- dlings, 35 pounds; corn meal, 20 pounds; oil meal, 8 pounds; salt, 2 pounds. (Wis. B. 184.) Feed for Pigs After Weaning. Pigs just weaned should be fed from 3 to 5 times a day. They took meals from their mother every two hours, and too sudden a change is detrimental. After they start growing vigorously, cut down to 2 meals a day. When they weigh 75 pounds each, if on good pasture, feed once a day and that at night. A variety of grains will give larger and cheaper gains than will any single feeds. Peas, barley, wheat, rye, milo maize and corn are the grains used in Colorado. Soak from 24 to 48 hours, feeding at least 2 grains. Do not sour the feed, and keep all uten- sils sweet and clean. Half the weight of a 200 pound pig should bo made from pasture. Alfalfa makes the best pasture, followed by rape, clover and a mixture of wheat, oats and barley, sown thick. (Colo. B. 146.) The following ration is suited to swine from weaning time until weighing 250 to 300 pounds. If for market, supply all the ear corn they will eat in addition. Skim milk will be valuable also. The oil meal in the slop keeps the other feeds from settling in the barrel. It also regulates the digestive organs. Corn meal, 30 pounds; ground oats, 30 pounds; wheat middlings, 30 pounds; oil meal, 8 pounds; salt, 2 pounds. Feed as a slop. (Wis B. 184.) After weaning the pigs, continue the skim-milk and shorts ra- tion, gradually adding heavier grains and giving a larger proportion of skim milk as they grow and develop. In our experience, skim milk is almost an indispensable food for young pigs. When fed on grain alone, whether wheat, barley or corn, especially if confined in a pen, they make very slow growth, and make very poor use of the food consumed. This probably would not apply to hogs after they attain a live weight of forty to sixty pounds. Young pigs always do better, however, on a variety of foods, and for this reason, as well as for the advantage of the exercise and healthful surroundings, a shady pasture is an excellent place to raise them. In addition to the pasturage, however, young pigs, especially, need some grain feed. (Utah B. 94.) The pigs should be fed a slop of equal parts corn meal and shorts twice a day till they are twelve or fourteen weeks old, so as to give them a vigorous start, and they should receive all the soaked corn they will eat up till they are turned into the early cowpea pas- ture in July. This may be done when about half the pods begin to turn (from July 15 to August 1). Prior to this time the pigs^are pastured on rape and clover. About August 20 turn the pigs into the corn, and after September 20 give them full range of the corn, BREEDS OF SWINE 491 poavine, and peanut pastures. If soy beans are planted, turn on them also. (U. S. Cir. 30.) After weaning hogs should be supplied with a good pasture, a leguminous pasture preferred. Alfalfa affords one of the best pas- tures obtainable for young pigs. With a good pasture and a half ration of grain they will make good and profitable gains up to the time they are ready to finish for the market. (F. B. 411.) Overfeeding and lack of exercise cause the thumps in young pigs, but usually in Colorado, when pigs are thought to have the thumps, they actually have pneumonia, due either to damp beds or exposure to draughts. The sow pig intended for a breeder should be pushed for the first year and given feeds that will make rapid growth, but that will not fatten. Such feeds as milk, alfalfa pas- ture, or hay, and moderate quantities of grain, such as wheat, peas, barley, milo maize, and shorts. Ample exercise every day is neces- sary for health and to develop muscles and lungs. If the sow has made a good growth, she may be bred to drop her first litter when she becomes twelve months of age. The gestation period for the sow is 112 days. (Colo. Cir. 2.) Fattening for Market. The cost per pound of growing and fat- tening a hog for market increases with the size and age of the ani- mal. It costs much less to raise two hogs weighing 300 pounds each than to grow one weighing 600 pounds, and even 500 pounds is too heavy to be profitable under ordinary circumstances. A hog must consume a certain amount of food to maintain his present weight, and for that food the owner receives no returns. Whatever the hog can be induced to eat in excess of the amount required for main- tenance goes to the production of growth, and it is from this excess that all gains and profits are made. These facts make it to the interest of the feeder to induce his hogs to eat all they can digest and to secure gains as rapidly as pos- sible. A pig which is made to weigh 200 pounds at six months or 300 pounds at a year old is always profitable, while if it takes two years to make 300 pounds the last 100 pounds will usually be made at a loss. As the rate of growth, both in proportion to the size of the animal and to the amount of food given, decreases as the hog be- comes larger, there must come a time when a pound of increase will cost more than it will bring on the market, and it is a nice point with the feeder to decide when that time will come and to market his hogs before it is reached. Ordinarily, this time will come when the hog weighs from 250 to 300 pounds, but may be reached either above or below those weights. A hog 1 year old and weighing 300 pounds in November may still make a profitable gain if he has the gleaning of a recently harvested cornfield with an abundance of cowpeas, the leavings of a sweet potato field, or any similar food which would otherwise be wasted, but if none of these feeds are avail- able, and all the food consumed must be purchased, it will be more profitable to sell at once, even if the weight is not more than 200 pounds, 492 DOMESTIC ANIMALS, DAIRYING, ETC. As showing the increased cost per pound of gain with the in- crease in weight, Professor Henry, of the Wisconsin Station, has com- piled the results of more than 500 tests made at many different ex- periment stations. More than 2,200 hogs were used in these tests, and the work has been so extensive and carried on through so many years that the results may be regarded as very conclusive evidence. The figures are as follows : Weight of pigs. Average feed per day. Feed eaten daily per 100 pounds of live weight. Average gain per day. Feed eaten for each 100 pounds of i-'ain. Pounds. Pounds. Pounds. Pounds. Pounds. 15-50 0.223 5.95 0.76 293 50-100 3.35 4.32 .83 400 100-150 4.79 3.75 1.10 437 15O-200 5.91 3.43 1.24 482 2OO-250 6.57 2.91 1.33 498 250-300 7.40 2.74 1.46 511 300-350 7.50 2.35 1.40 535 From these figures it is seen very plainly that the greatest as well as the most profitable gains are made on the lighter hogs, the last column showing a constant and almost regular increase in the amount of feed consumed for each 100 pounds of gain. Up to the time when the pigs weighed from 200 to 250 pounds each it required an average of 422 pounds of feed for each 100 pounds of gain, while for those exceeding 250 pounds in weight 523 pounds, or nearly 24 per cent more food was required to produce an equal gain. Pigs weighing less than 100 pounds each made the greatest gains for the food consumed, needing only 347 pounds of feed for each 100 pounds of gain, and, if feed were the only consideration, the 100-pound pig would be the most profitable; but there are other ex- penses which must be charged against him. The cost and care of the boar and sow are the same whether the pigs are butchered at 100 or 500 pounds. Losses are much more frequent among young pigs than among those which weigh more than 100 pounds each, and, while there is a limited demand for "pig pork" at good prices, such pork can not be sold in unlimited quantities, as packers want only hogs which are fairly well matured. These expenses, risks, and market conditions all combine to make a somewhat heavier ani- mal more profitable, even at some additional expense for feed. Al- though the figures given above represent the actual amounts of food consumed by pigs of different weights, they do not represent exactly the cost of the feed. The food of the younger pigs must consist largely of the more costly feeds, shorts, oats, pease, etc., while the older animals can be kept in good condition on coarser and cheaper foods, such as sweet potatoes, sorghum, or artichokes. When steers are being fattened on whole corn, hogs running in the same feed lot will secure a large proportion of their feed without expense from the droppings of the cattle. This will not be the case, however, when the steers are fattened on other feeds, corn meal giving very little feed for the hogs, and droppings from the steers fed on cotton- BREEDS OF SWINE 493 seed meal, the common fattening feed in the South, often prove positively injurious. (F. B. 100.) The previous treatment and the condition of the hogs when the fattening process begins, have as much influence on the subse- quent gains as does the kind of feed used. (Ind. B. 137.) The fat hog should be sent to market carrying a deep, uniform covering of flesh all over the body. The flesh should be comparatively firm. Corn makes the best grain for the major part of the ration during the finishing period. There is some danger, however, of producing a carcass with too much flabbiness if corn is too exclusively used. (N. D. B. 83.) From 60 to 75 days before the pig is to be marketed he should be confined in limited quarters and fed heavily on grain until he be- comes well finished and fattened. Up to this time he should be kept growing every day, but fed as little grain and as much forage as can be done and maintain a thrifty growth, and he should be given ample exercise. Fattening hogs will make the greatest gains when they have just enough exercise to keep their appetites sharp. A fat- tening hog should be limited to half an acre, and 25 fattening hogs kept on this area will do better than a greater number. The hogs should be sorted to lots of even size and age, and no matter how many are being fattened, not over 25 should be allowed to run to- gether. Brood sows should not be kept with fattening hogs. The hogs should be fed at regular hours, either two or three times a day, and at each feed should be given just a trifle less than they will eat up clean. The profits come from inducing the hog to consume a large quantity of grain and maintain a sharp appetite. The feeder will secure the best results by watching the hogs each time until they finish eating. He will then know whether the hogs are slow about cleaning up the feed, showing over feeding, or whether they clean up the feed quickly and need more. The hogs should have all the clean, pure water they will drink at least three times a day. Colorado feeds are rich in protein, and a hog eating them needs much more water than when eating corn. The hog should, before being marketed, be well fattened, smooth and well rounded with a good outer covering of fat, and be firm and solid to the touch. If the feeder will go into a pen of thin hogs and feel them along the loin and back, and then into a pen of well fattened hogs, he can quickly learn the "feel" that indicates a good finish. The hogs should be sorted to an even size and weight before being shipped. (Colo. B. 146.) Finishing. The feeding period for finishing should not last over 6 weeks. During this time the hog should eat a ration in weight equal to 4% per cent of his own weight at the beginning of the finishing perioa. This should consist mostly of corn, supple- mented with the proteid feeds, middlings, oilmeal, tankage and bloodmeal, depending on prices. (Mo. Cir. 28.) Among the hogs produced by the supplemented rations, the most profitable OUCH to the packer were tho^o which had received con- centrated rations. Bulk in the ration is prejudicial to the packer's 494 DOMESTIC ANIMALS, DAIRYING, ETC. interest. The hog which shrinks the least in killing is the corn- fed hog. Bought at the same price and the products sold at the same prices, the hog which has been fed on whole corn without sup- plements, is the most profitable to the packer. This is the least profitable hog to the farmer. The higher the proportion of corn that is in the ration and the less the feed the hog has been in the habit of eating, the cheaper is the cost per pound, net dressed weight, to the packer. The hog with which the farmer has made the cheap- est pork has probably been raised on grass or has received milk or nitrogenous grain supplements along with its corn. (Mo. B. 65.) It is a well known fact that beans and peas make a softer flesh and fat than corn. Corn pork is the standard in this country, and the flesh and fat produced by corn in this experiment was dry and firm. Soja beans and chufas made fat of about the same firmness, but not quite equal to corn. Peanuts made a soft and oily fat. As to the flavor when cooked, no difference between the meats could be detected. The usual practice, when pigs are fattened on other foods than corn and grain, is to feed corn to them for a few weeks to harden the flesh and fat before marketing. (Ark. B. 54.) Short or Long Period. For the short growing period the March and April pigs are grown rapidly and marketed in 6 to 10 months, while the long period pigs are grown through the summer and winter, and marketed the following spring and fall. Ordinarily the short feeding period is the more profitable. There is a consider- able saving in cost of feed by the latter method. The cost of producing a pound of gain increases as the pig ad- vances in age. The risk in growing the pig for a longer period is also greater. In special cases it may pay to keep the hogs over the second summer, feeding clover with a small grain ration, pro- vided an extra price can be obtained for them in the fall. (Mo. Cir. 28.) Usually it is better to have hogs ready for miarket as early as November or December, and it rarely pays to feed through the win- ter for making pork. Summer feeding is cheap while winter feed- ing is expensive. Pigs farrowed in the spring should weigh from 200 to 250 pounds by fall, and if the market is not unusually de- pressed it is better to let them go then rather than to feed through the cold weather and risk still lower prices in the spring. If good grazing is assured through the entire winter and grain is not too expensive, winter feeding is sometimes profitable on account of the higher prices which usually prevail in the spring, but ordinarily it is better to winter only the breeding animals and the fall pigs. (F. B. 100.) In rare instances it may pay to keep a pig over winter as a store hog, but generally he loses the flesh he accumulated while suck- ling his dam, and this can not be replaced except at increased ex- pense. Corn will now come into the ration, and should be supple- mented by all the variety of feed at the feeder's command, to keep the appetite keen and the digestive system in the best condition. This variety should consist of mill feeds, dairy by-products, and succu- BREEDS OF SWINE 495 lent feeds, and, according to some authorities, pasture. If skim milk, whey, and buttermilk are at command they can be combined to very good advantage with the ration, commencing with a propor- tion of about 2 pounds of milk to 1 of grain at weaning time, and reducing the quantity of milk until the pigs are finished on grain alone. A pig gives best returns from dairy by-products while young. The fattening pigs should gain from 1 pound to 1^ pounds daily, and should weigh between 250 and 300 pounds at 9 or 10 months of age. Gains made after this weight are nearjy twice as expensive as those made when weighing from 50 to 100 pounds, and a well- bred pig having good quality and conformation finished at a weight of about 250 pounds will very nearly fill the market requirements fed. (Mich. B. 243.) In winter feeding it will be advisable to supply the feed while warm, but in the use of all warm feeds every pailful used should be stirred until at an even temperature and then tested with the finger. It is a cruel neglect to supply hot food to a hungry pig. Sore mouths, dislike of food, and apparent loss of appetite are sometimes traceable to no other cause. Such mistakes will sometimes occur un- less the feeder adopts the plan of stirring and testing every pailful fed. (Mich B. 243.) Water. It is dangerous to let hogs have access to irrigation ditches or streams, as these are great carriers of disease. A conven- ient way to water hogs is to mount a barrel on a small sled and at- tach a hog waterer. As many barrels and sleds can be used as are needed to maintain a full supply of water, and by this method the water can be placed in the pasture or feed lot wnere the hogs can reach it without travel. A hog should drink small quantities of water often, and not overload the digestive tract with large quanti- ties, as he will when he has to travel a considerable distance for it. (Colo. B. 146.) Stock Foods and Mineral Mixtures. In themselves, there is no special objections to stock foods. In fact, there are brands made that are rich in nutriment, and have a high value as a food. The principal criticism that can be made is the excessive price generally charged for them, which is far beyond their value. No doubt, in many cases oil meal will give fully as satisfactory results as the stock food. (Ind. B. 93.) The result of comparison indicates that so far as the true feed- ing value of any of the stock foods examined is concerned, the bran is rather the better food. Now as to cost, it seems that the International retails at 12 cents per pound, the Clover brand at 11 cents and the others at 10 cents. Thus these foods cost the farmer respectively $240.00, $220.00 and $200.00 per ton. In this respect the bran has even at its present inflated price, $20.00 per ton, from ten to twelve times the advantage. By comparing the analyses given in the foregoing table with those published by the Iowa Station. Bulletin 87, another grave fault appears in these so-called foods. They are not of uniform com- position. That is, they are not scientifically compounded so that a 496 DOMESTIC ANIMALS, DAIRYING, ETC. feeder who buys different lots each time gets a food of a different composition. It matters not what view point is claimed by the man- ufacturer, whether food, medicine or condiment, this is a grave and serious objection. It has been suggested that the formula for a home-made stock food be: Gentian, two pounds, cost $0.50; ginger, one pound, cost $0.40; sodium bicarbonate, one pound, cost $0.10; fenugreek, one- half pound, cost $0.10. Purchase these materials at a drugstore and have them mixed into fine powders. Then, mix with five pounds of common salt and twenty-five pounds of shorts. This compound will cost about 4% cents per pound. For the pig, mix one pound with every 48 pounds of grain. (S. D. B. 105.) The general health of hogs depends most largely upon ju- dicious feeding and good sanitation. "Stock-foods" are never profit- able to buy. The cost is out of all proportion to their value. If hogs need medicine or a condition powder, it can be made cheaper than stock food can be bought. A good condition powder is the Govern- ment Hog Remedy, made as follows: Wood charcoal, 1 pound; sulphur, 1 pound; common salt, 2 pounds; baking soda, 2 pounds; sodium hyposulphite, 2 pounds; sodium sulphate, 1 pound; anti- mony sulphide, 1 pound. Dose Large tablespoonful once a day for each 200 pounds live weight. Mix well with the feed, and feed in the slop. Good for dispelling worms, and for the digestion. Another good and cheap condition powder for general use is the following: Ashes, 10 pounds; salt, 1 pound; sulphur, 8 ounces; lime, 2 pounds; copperas, 1 ounce; charcoal, 3 pounds. Pulverize and mix thoroughly. Keep in a box where the hogs can have con- stant access to it, or give small amounts along with the feed. Hogs crave ashes and charcoal. Prof. Henry found it took 629 pounds of corn meal to make 100 pounds gain when ashes were not fed, as compared with 491 pounds when ashes were fed. (Mo. Cir. 28.) Soft coal in unlimited quantity seemed not to be harmful to pigs in confined pens. Soft coal, wood charcoal and a tonic mixture ranked according to value as correctives in the following order: (1) tonic mixture; (2) wood charcoal; (3) soft coal. The lot of pigs having no corrective made smaller gains than any of the other lots, but produced pork more cheaply than the lot on soft coal. (Md. B. 150.) Salt. In the use of salt with pigs to which salt has not been supplied regularly care must be taken to offer it in small quantities at first. When supplied suddenly or in excessive quantities very serious, or even disastrous consequences may follow. Always keep- ing this caution in mind, it will be found advantageous to use some salt with every mess of beans cooked, about the same amount as would be used for human food would probably be sufficient. Salt is an appetizer and renders the food more palatable. It also possesses laxative properties. (Mich. B. 243.) The following mixture should be kept constantly in supply in a dry place and accessible at all times to hogs and pigs. This mixture aids digestion and tends to keep the hogs in perfect health : BREEDS OF SWINE 497 Charcoal ............................ bushels . . Common salt ........................ pounds . . 4 Hardwood ashes ...................... pounds. . 10 Slaked lime ......................... pounds. . 4 (U. S. Cir. 30.) QUARTERS AND CARE. Cost of Housing Pigs. What is the necessary cost of housing a litter? Where lumber is $25 to $35 a thousand, good single- walled houses need not cost over $10 to $20 a pen, and double-walled $20 to $30 a pen. It is doubtful economy, under most conditions, to make them cost over $30 a pen, and very good sheds are some- times made for less then $10 a pen. The owner of a new hog house once showed it to the writer with considerable pride. It contained 18 pens besides the feed bins, and cost, according to the contractor, approximately $4,000, or $222 a pen. The interest on this invest- ment at 5 per cent amounts to $11.10 for every sow pen, and the annual cost of each pen, including interest, depreciation, repairs, and insurance, would be about $27, which, as has been shown, is amply sufficient to pay for a good pen outright; or, at average Omaha prices ($5.50 per hundredweight), it would take two 250- pound hogs every year to pay for the maintenance of a single sow pen. It is hard to see how such a building can ever pay for itself. By careful management it is not difficult to make each pen ac- commodate three litters a year. Taking $25 as the cost per pen (which is sufficient to make a good double-walled building), we have the following: Interest on investment ($25), at 5 per cent ..... $1.25 Insurance, at 50 cents per $1,000 .............. 0125 Repairs, i l /2 per cent ........................ 375 Depreciation, 5 per cent .................... 1.25 Total ................................ $2.8875 Using each pen for three litters a year, the cost of housing one litter would be slightly less than $1. This is about what one pig has cost when farrowed. Or, with the high prices that have prevailed for several years, one pig at weaning time would pay for the use of one good pen a whole year, which would accommodate three litters, averaging seven pigs or more each. Of course, more shed room is re- quired for the older hogs, but this may be of much cheaper construc- tion. If only one litter a year is raised, no other shed would be needed. Many farmers have provided usable structures for less than half the above figures. (F. B. 438.) Housing in Mild Climates. In the South and in much of the country west of the main chain of the Rocky Mountains the win- ters are sufficiently mild to obviate the necessity of constructing buildings of much warmth. Not only are the winters mild, but they are comparatively short, and green feed is available much longer than in other parts of the country. In such localities a shed will often suffice, but it should be well constructed, in order to provide protection from storms and damp, chilly weather. The location 498 DOMESTIC ANIMALS, DAIRYING, ETC. should be high and well drained, affording clean, dry sleeping places; the shed should open to the south. The expense of such a 'building is well warranted in view of the added comfort to the stock and increased number of pigs raised. Under all circumstances, re- gardless of climate, whether a man is breeding pure-bred stock or grades, hogs shpuld have sleeping places that are dry and warm and feeding places that are clean. (F. B. 205.) Portable Hog Houses. Swine were originally native of warm, damp, climates, but when domesticated and given proper protection are found profitable in all agricultural districts. And yet no other farm animal is subjected to such uncomfortable quarters; he fre- quently sleeps in filth and eats from sour and slimy troughs. For- tunately farmers are now appreciating better methods for shelter and herd management. With the practice of these improved methods we find the portable house rapidly coming into favor. Some advantages of the portable house are as follows. It is easily and economically constructed; it can be easily moved and lo- cated wherever desired ; it is useful both to the general farmer and to the breeder of pure-bred stock; and of all systems for housing swine, it is the most natural and sanitary. Only the simplest kind of workmanship is necessary to build the portable house and much odd lumber can be worked into it. The method of construction can be easily understood from explanations and directions given with the description of each house. The portable house is peculiarly ad- vantageous since it can be readily moved. The renter who finds it impossible to provide expensive quarters for his hogs can well afford to construct portable houses since they can be retained as personal property. Many farmers construct hog houses without considering the importance of sanitation, ventilation, and drainage. A hog house of any kind should be located on a high, dry site, and, if possible, on soil containing sufficient sand to drain well. A house located on an elevation may be somewhat colder in winter, but it is much cooler and more comfortable in summer. Hogs suffer greatly with the extreme heat of summer and it is equally as important to keep them cool in summer as it is to keep them warm in winter. The portable houses are useful on any sized farm, as the num- ber can be regulated to the size of the herd. With separate pad- docks to accommodate swine of different ages and sexes a portable house is practically a necessity. Swine will never pile up in a damp, poorly-ventilated quarter and come out steaming in the cold morning, air unless compelled to do so. Where a large number of animals are continually housed in one hog house and fed in or around the house the surroundings are sure to become more or less filthy and unsanitary. If feeding is done on the inside it keeps a portion of the floor wet, and gives the entire building an offensive, disagree- able appearance. On the other hand, by using the portable house, moving it occasionally onto a fresh piece of ground, and feeding the hogs at a different place one avoids these unsanitary conditions. These portable houses are built to accommodate from four to six BREEDS OF SWINE 499 mature animals or ten to twenty shoats. This method keeps them much cleaner and more thrifty than when allowed to congregate in larger numbers. Individuals of a herd showing evidences of a con- tagious disease can be readily isolated. By locating the portable houses adjacent to the main farm barn yards, it gives the animals freedom for exercise and exclusive shelter from the other farm stock. Six to eight of the 8 by 8 A- shaped houses will easily accommodate a car load of shoats. A feed- ing floor can be conveniently arranged in some protected quarter so that the work in caring for the herd is reduced to a minimum. It will be found that by locating the houses in a high and dry place, that they will keep in good condition if thoroughly bedded once a week. But in damp and muddy seasons it is better to 'bed them oftener. The beginner in planning accommodations for swine should thoroughly compare the merits and the economy of this sys- tem with the conditions and expense connected in maintaining a large hog house. (Wis. B. 153.) For providing the pigs with shelter when they are out in the lots, the portable cot is a desirable thing to have. They also come very handy during the winter months, for they can be used to pro- vide shelter for something around the barns. (N. D. B. 83.) The portable house is coming into very general favor, espe- cially in disease-infected districts. It is of various forms, and should be large enough for five or six grown hogs, with enough height to allow a man to stand erect ; 6 by 6, 6 by 8, or 8 by 8 feet are good sizes. Such houses should be strongly constructed of good lumber, with perfectly tight siding and roof. They may be made with or without floors. If lined inside with the same materials as outside, such a house will be warm enough for a sow and pigs in zero weather; and on extremely cold nights a lantern hung in the house will provide warmth enough. The plan for a portable house used by two successful breeders A. J. Lovejoy, of Illinois, and L. N. Bonham, of Ohio are de- scribed as follows: The Lovejoy pens or portable houses are each situated in the middle of an acre lot and on either side of a drive- way, the divisions being made by the use of wire fencing. The houses are 8 feet square. Four 16-inch boards make the floor, and the roof and sides are made of matched flooring lined with building paper, and that covered on the inside with common lumber. The houses are set to front south. There is a door in both north and south ends, and a window in the south end, the latter being hinged at the top with a rope and pulley attached, so that it can be swung up out of the way when it is open. In cold weather and early spring the north door is closed, and, if necessary, the south openings are also closed, fresh air being secured through the ventilator in the roof by carrying the ridge a trifle higher than the sides that com- prise the roof. In hot weather the houses are converted into summer resorts by leaving both doors and window open. Each house is nicely painted with two coats and trimmed in white, and costs, complete, 500 DOMESTIC ANIMALS, DAIRYING, ETC. about $10. They are set up on blocks in the summer to keep the floors dry, and in the winter time they are dropped to the ground and banked to keep the wind out from under the floor. The primary object of the Bonham pig house is to secure shel- ter, warmth, sunshine and pure air at reasonable cost, and the sec- ondary object is to have it as handy for feeding and handling the sows and pigs as possible. For some sows the main roof may be shortened 18 inches. This will give a pitch to the front, and a sash 6 by 1% feet in front to let in the sunlight and keep out the rain and cold may be provided. This adds a little to the cost, but makes an ideal shelter for spring litters, when sunshine is never in excess and of inestimable value. In very cold weather we add a swinging door, but a gunny sack hung at the top of the door will do. If the weather is below zero and windy, a lighted lantern hung to the roof inside until the pigs are dry and have had their first meal of the sow's milk will keep them comfortable in the coldest weather. The warmth of the sow is sufficient in other weather to keep the pigs comfortable in such a pen. This house is 5 by 6 feet. Four scant- lings 2 by 2 inches by 12 feet and two scantlings 2 by 4 inches by 12 feet will make the frame and roof supports. The bottom rail is 2 by 4 inches, the others 2 by 2 inches. The three pieces for the roof are cut 6 feet by 6 inches to give a 3-inch projection of the roof be- yond the sides. (F. B. 205.) There are two systems now commonly used for housing swine, the central house system and the cot system, where small separate houses are used. Both have their advantages and many fanners will do well to use both to a certain extent. The important factor in housing swine is to keep them dry and free from drafts. Damp beds and sleeping pens cause trouble. Cement floors are preferable for a hog house, but sleeping pens should be overlaid with board floors. As a rule hogs should always be fed outside on a feeding floor. Inside feeding is unsanitary and wasteful of space, even though it may be convenient. (Wis. B. 184.) One shed roof hog house is provided with a door in the rear the same size as the lower front door and placed diagonally opposite so that by opening all the doors, it makes a cool house in summer. On the other hand, by closing both lower doors and opening the upper front door, for ventilation, it makes a warm house for cold winter weather. The upper front door is arranged with a wooden ratchet on the back side, which holds it in any desired position. By having the hinges on the top, the storm and hot sun cannot enter and yet by ad- justing the opening, air can circulate freely without causing a draft on the animals. This door at the top is an important factor. It is a serious mistake to build these houses with but one opening, as is sometimes done. There is then no ventilation whatever, and the house in warm weather becomes a suffocating quarter. To build the shed roof house, construct the frame 8 feet long by 6 feet 4 inches wide on 7 joists 2 inches by 4 inches 6 feet long, and two pieces 2 inches by 4 inches nailed across the ends of the joist. This will make the foundation for the floor 6 feet 4 inches wide and CHESHIRE HOG. DEPT. OF AGR. POLAND CHINA Hoc. DEPT. OF AGR. BREEDS OF SWINE 503 8 feet long. Beneath the frame are nailed 3 pieces 2 inches by 4 inches to serve as runners for moving the building. (Wis. B. 153.) Reference has already been made to the desirability of hog cots to use in connection with the piggery. When climatic condi- tions are not too rigorous, cots only are employed for handling the entire herd. In general, the climatic conditions in Michigan are too extreme to permit the use of cots for all classes of hogs for all pur- poses during the entire year. They are especially desirable, how- ever, for dry brood sows and young males and females being reared for breeding purposes ; it is in this way we are using them. They are desirable because an abundance of fresh air, sunshine and exercise are provided. During the summer season cotting and yarding nearly all classes of pigs cannot be excelled. The form of cot used here is desirable in that it is warm in winter but objectionable in that it provides little protection against the extreme heat of summer. It is also considered a good form of cot for the brood sow to farrow in in moderate weather as she cannot lie down close enough to the sloping roof to crush her pigs as against a wall. A general mistake is made in fastening this form of cot permanently to the skids, or runners, on which it is built. These are the first to decay and along with them the lower ends of the boards, thus making repairs impossible even though the balance of the structure remains sound. A separate pair of skids should be constructed for this or any other form, of cot so that they can be re- placed. Its own weight will hold the cot in place on the skids while being moved. (Mich. B. 223.) Farrowing Pens. For farrowing there should be a separate house and yard for each sow. A house 6 feet by 8 feet made of boards, covered and floored, will answer; roof 7 feet high at front end and 4 feet at rear. The floor foundation may be made of 2- inch pine or oak, floored with 1-inch boards. Two by four studding will answer for sides. The roof may be made of boards battened. The front should have a board 1 foot wide for the roof to rest upon ; then a door 2 feet wide should be hung to this top board. This door should extend across the front end and be propped open except in very stormy weather. In sheltered places the door is generally omitted and the door space left open. Two 2 by 6 inch runners should be placed under the pen, upon which to draw it when change of location is desired. A yard, using wire or board, 16 feet by 33 feet, will answer for exercise. (Utah S. Cir. ,30.) The farrowing pen should be provided with fenders around at least three sides about 6 or 8 inches from the floor and 6 or 8 inches from the wall. These should be strong enough to support the weight of the sow should she lie on them. They will, to a great extent, pro. tect the pigs from being lain upon during the first few days of their lives. This will go far to prevent a very fruitful cause of loss among young pigs. The little fellows will soon learn to creep under these fenders when the sow lies down. Many breeders now use a specially arranged farrowing pen for the object being to allow the sow room enough to farrow 504 DOMESTIC ANIMALS, DAIRYING, ETC. with reasonable comfort, but not enough to turn around. The safety of the pigs under such circumstances is said to be much greater than when the sow is given all the space she cares to take. Provision is made for the safety of the pigs by raising the walls of the pen 6 or 8 inches from the floor. Such a pen may be readily arranged by placing the sow at one end of her pen and nailing boards across so that she can not turn, leaving space for the pigs to slip under the barrier. A number of patented farrowing pens are on the market. (F. B. 205.) The farrowing quarters should be a pen with a hard smooth clay floor, covered with a bushel or two of fine chaff. The next best is a pine floor. Cement absorbs too much heat, and will chill the young pigs. The projecting rail around the pen 6 inches from the wall and 6 inches from the floor should prevent the mother from smothering the pigs. (Mo. Cir. 28.) When hogs are not supplied with plenty of comfortable bed- ding in cold weather, they pile on top of each other to keep warm. In this way the under ones become heated, and when they get out into the cold air are easily attacked by pneumonia and rheumatism. If the attack is not sufficient to kill them, it makes them unthrifty. It is best to allow only a limited number of hogs to sleep together, and they should have such shelter and bedding that they can keep warm without becoming heated. Bathing in cold water in irrigat- ing ditches is likely to result in rheumatism. Hogs are more dis- turbed by wind than any other farm animals. Their shelter should thoroughly protect them from wind and from draughts. (Colo. B. 146.) Many farmers in this state use a straw covered shed in which to shelter their brood sows. This proves very successful. We have used one with good results at this experiment station. Where straw is so abundant such a shed is very easily made. It is well, however, to use considerable care in order to construct a frame work which will support the straw placed over it. Cases have been known where they have "caved in" from the weight of the straw over them and the pigs have been smothered. The shed was made so that it is very convenient. The frame was made high enough to enable one to walk erect with ease in it. The openings in front were provided with doors and an old window was inserted on the front side to fur- nish light. The expense of equipping a shed in this manner that will do to raise a pig crop successfully requires very little expenditure of money. (N. D. Bui. 83.) In the South, the far South especially, very little shelter is needed except at farrowing time. There is no occasion for expen- sively constructed buildings. Of course, at farrowing time the mother should always be supplied with a building that will afford shelter from the rain and the wind for both the mother and the pigs until the pigs become dry. If the wind strikes the young pigs when they are first born they will often chill to death. Each farmer can make his own shelter, to be in keeping with his surroundings, but probably the best and most economical building that can be made BREEDS OF SWINE 505 is the portable hog house. These houses may vary in size; those with floor dimensions of 6 by 8 feet, 6 by 9 feet, or 8 by 8 feet will be found most satisfactory. The roof need not be over 7 feet high at the highest point. The house may be made on runners to facili- tate moving it about. To prevent the sow from crushing the pigs at farrowing time, -a scantling should be fastened to the inside of the house, about 8 inches from the ground, projecting about 10 inches toward the center of the pen. The small pigs can run under this protection and keep the mother from lying upon them. There is no necessity for a floor for these houses. Some straw at farrow- ing time is all that is required. (F. B. 411.) Floors. The hog house floor is an unsettled question. A good floor is the ground with woven wire stretched on top to prevent the hogs from rooting. Electrically welded corncrib wire is very satis- factory. This makes a floor which is easy on the hogs, almost free from rats, and, if properly bedded, warm and dry. It is, however, more difficult to keep free from dust than some other floors. Many concrete floors are used, but they are cold, liable to be wet, and are hard on the hogs' feet. Often almost an entire pig crop and many sows are lost by taking cold on concrete floors. Concrete floors are, however, very satisfactory when covered with plank overlays, or false floors, which should be raised from the concrete about an inch by nailing cleats on the under side. The wood portion of this floor consists of 2 by 4 inch timbers laid about one-fourth inch apart to allow drainage. Board floors are expensive, short lived, cold if up off the ground, and make the worst kind of rat harbors. The writer once visited an old hog house with wood floor in which the owner said the rats had gotten over half the pigs. Several men report that rats may be kept out by packing sand or cinders to the top of the joists before laying the floor, but these materials are often too expensive to be used for this purpose. (F. B. 438.) Alfalfa Racks. In order to prevent undue waste when feeding alfalfa to pigs, the hay should be fed in a slatted rack placed in a flat bottomed trough. The spaces between the slats should not ex- ceed 2 1 /2 inches and the trough should extend at least 18 inches be- yond the rack in every direction. The coarse stems left by the pigs may be fed to stock cattle. (N. M. B. 62.) Troughs. "Well made troughs are a necessity in pig feeding. The time-honored V-shaped trough is very common and is doubt- less familiar to all who handle hogs. Others advise the use of a low, wide, shallow trough. Troughs should not be so long that they can not bo handled by one man, and they should be so strong that they will not readily be broken to pieces by the pigs. A very con- venient arrangement of the feeding troughs is shown in the draw- ings of the Maryland Agricultural College hog house. The troughs extend across the front of the pen and are built solidly, so that they will not be displaced. The front of the pen is hung on hinges, and attached to it is a strong iron rod which fits into holes in the edges of the trough and holds the pen front firmly. When filling the troughs *06 DOMESTIC ANIMALS, DAIRYING, ETC. the pen front is swung back and the rod inserted in the inside edge of the trough. The pigs can not then get to the feed until the front is lowered. The plan permits feeding without being disturbed by the eagerness of the animals, and the feed is evenly distributed. (F. B. 205.) For feeding pigs, there should be a slatted trough to prevent the more greedy getting into the food. It is constructed as follows: A bottom board 1 by 12 inches and 8 feet long, edges beveled, end piece 2 by 6 inches, a center board 8 inches wide nailed to the ends, the lower edge standing 2 inches above the bottom of the trough the top edge would be 10 inches above the trough. On the two edges of the bottom nail 1 by 4 inch strips 8 feet long, and nail slats 2 inches wide from the top of the 4-inch sides to the top of the center board, far enough apart to allow the pigs to eat 6 inches will an- swer for small pigs ; 8, 10, and even 12 inches may be required for larger. (U. S. Cir. 30.) The troughs are made of two-inch hemlock constructed in a V shape, one side being two-by-ten inch material and the other side and ends two-by-eight. These troughs are simply toe-nailed in be- tween the division posts so that they can be removed easily and re- placed when necessary. We like the V shaped troughs in prefer- ence to any flat bottomed sort, in the piggery, because the pigs can clean them more readily and thoroughly and there is practically no contact at the floor except for the short end pieces ; as a result filth and moisture do not accumulate beneath them. On the under side of the V shaped trough, next the alley, the floor is always dry and on the pen side it can be cleaned thoroughly and is always exposed to the air. Hemlock troughs last from two to five years, or even longer, particularly if protected by a strip of band iron on the inner edge. Sloppy feed does not chill or freeze in wood troughs as readily as in cement or metal. We like flat bottomed troughs for out door feeding where they are moved about frequently, they are not upset so readily as the V-shaped ones. We also like low sided, flat bot- tomed troughs for weanling pigs. (Mich B. 223.) Dipping Vat, One vat which has proven very successful is constructed entirely of concrete. It is three feet deep, seven feet six inches long on top and three feet six inches long on bottom. It is eighteen inches wide on the bottom and thirty at the top. The end next the passageway is perpendicular, requiring the animals to plunge in ; the other end is sloping with creases in the cement form- ing little steps to enable sheep and hogs to walk out. Adjacent to the vat and separated from it by an eight-inch cement partition, is a dry chamber five and one-half feet long, two and one-half feet deep, and eighteen inches wide, for an attendant to stand in and hold or handle sheep, as the vat is used for both sheep and hog dipping. One end of this chamber is raised nearly a foot to enable the attend- ant to assist sheep up the incline. The cement floor around the vat is so graded that the drippings are returned to it. This illustra- tion shows, also, the drain pipe leading to an underdrain with the valve in the dry chamber below the floor level of this part. This BREEDS OF SWINE 507 vat was easily constructed, inexpensive, durable, and is entirely sat- isfactory. (Mich. B. 223.) Yard Fences. The question of cheap, durable, and serviceable fencing for the small yards adjacent to the piggery is an important problem. During the past, lumber in various forms has been con- verted into fences of different styles for this purpose, but now its scarcity and high price renders its use almost prohibitive. A tight board fence probably makes the most perfect one for turning hogs. We have attempted to make a suitable substitute, in large part, for the lumber except in the case of the divisions between the boar pens. The fences forming our small pens are constructed of woven wire with two-by-six inch material at bottom and top. Cedar posts are placed, in this case, a little less than eight feet apart. (They should not be more than this distance for pen fences.) The posts were notched out at the bottom and top one-inch deep and the width of the two- by-six. Thus, the two-by-sixes when firmly spiked in place, instead of being flush, projected an inch out from the surface of the post The 26-inch woven wire was placed on the posts with top and bottom wires just touching the two-by-sixes. The woven wire was not stapled to the end posts but each strand brought around the post and wrapped on itself. The wire fencing was also stapled to the intermediate cedar posts and the top and bottom wires to the two-by- sixes against which they rested. The woven wire used was special hog fence with seven lateral wires, top and bottom wires No. 9 and intermediate No. 12. There are twenty-eighth No. 11 cross wires to the rod. The woven wire and two-by-sixes make the fence thirty-eight inches high. This has furnished a cheap fence and after three seasons' use we are perfectly satisfied with it. But one repair has been made and that at a point where a flaw occurred in the wire. The openings of these pens con- sist of doors which slide up and down in grooves at the sides, drop- ping into slots at the bottom to prevent pigs from opening them. Lot Fences. The term lot is here used to designate larger en- closures, such as those furnishing pasture and forage crops. In pur- suing economic methods of swine husbandry, pasture and forage crops are essential throughout the greatest possible portion of the year. Few crops provide continuous pasturage throughout the grow- ing season and even those which do may require resting spells for recuperation. Continuous pasturing and foraging by hogs is largely dependent on a succession of these two classes of crops. As a small area can be made to produce sufficient green crop for large numbers of hogs, this fact, in addition to the two already stated, would seem to require either a number of small lots or one large one subdivided by portable fences or hurdles. Portable fences constructed of light lumber have been commonly used in the past but this material is no longer practicable under general conditions. If the number of hogs on a farm will justify the growing of say six acres of forage crops, this should be enclosed and divided through the center by permanent fences. Division of the two halves can then be made by means of a portable woven wire fence as follows : Set a row of posts 608 DOMESTIC ANIMALS, DAIRYING, ETC. two rods apart across each half for the support of the portable fence ; owing to the distance between the posts they will not interfere seri- ously with cultivation. (Mich. B. 223.) A good permanent fence for a pig lot can be made as follows: Place posts 4 inches by 7 feet one rod apart. Staple a string of barb wire two inches from the bottom. Two inches above it place a ribbon of 26-inch woven wire and six inches above it another string of barb wire. The post will project one and one-half feet above the height of the fence. Short posts can be used, but the long posts may be used some time later in case it is desired to place more wires on the fence to keep in cattle or horses. A good movable fence can be made in practically the same way. Use smaller posts, sharpen them and drive them into the ground two rods apart. On the bot- tom string a barb wire. Stretch the woven wire on the post and staple it tightly to the post so that it can be readily removed and rolled up when you wish to move it. A fence of this kind can be readily moved from place to place, and set up without a great deal of labor. The panel portable fence is a very convenient type of fence. The cost of it makes it almost prohibitive, however, on the average farm. In Bulletin 104 of the Minnesota Experiment Sta- tion, the cost of the material for a temporary fence and placing it, is given as 37.7 cents per rod. The temporary fence here, judging from the comparative cost of similar fences, would be about 45 to 60 cents a rod. (N. D. Bui. 83.) No man should attempt to raise hogs without adequate fencing of yards and pastures. An animal of any kind, but especially a hog, can make himself an intolerable nuisance if not confined within proper bounds. For pastures woven wire is the best fencing mate- rial, all things considered. Such a fence may bo purchased ready- made or may be made on the farm by machines, of which there are several good kinds on the market. From motives of economy it may be desirable to run a fence of woven wire around a field to a height of 30 to 36 inches, and above this to stretch two or three strands of ordinary barb wire. This will make a hog-tight fence, and if horses are necessarily placed in the field the fence will be much safer than the ordinary one made entirely of barb wire. Mid- way between the posts the lower strand in the fence should be se- curely stapled to a small post or stake ; this will prevent hogs from working their way under the fence. A further precaution against this may be secured by plowing a furrow against the lower strand, or, better still, by digging a trench 5 or 6 inches deep along the fence line and nailing 2 by 12 inch planks or cedar or locust poles to the posts and fastening the lower strand to these. In building any kind of wire fence, ground wires may be put down to moisture at frequent intervals to give stock protection from lightning. A board fence makes, perhaps, the most secure inclosure for hogs, but its expense precludes its use generally except for yards and pens. Barb wire is a very poor material for a hog fence. It can hardlv be made close enough or strong enough to .prevent a shoat BREEDS OF SWINE 509 from crawling through. In this respect it is only a little better than a hedge, which is expensive and unsatisfactory when used to con- fine stock. Gates must, of course, be carefully made, hung, and fastened. (F. B. 205.) The best adjunct of the fencing proposition is a good pasture on the inside. We do not ring the hogs. It has been our experience that hogs kept on pasture all the time will do very little damage by rooting. (Miss. B. 107.) If from 150 to 200 hogs were raised, the 20-acre corn field could be easily fed off by them. And here again would be realized the ad- vantage of large fields. The cost per acre of the outside fence would be about $1.20. Forty rods of movable fence would be necessary so as to fence off a portion of the field which could be used by the hogs. This would cost about $10. Since this strip of fencing could be used for many years, the annual cost per acre would not exceed lOc, making the total cost per acre for fencing this cornfield hog tight and in plots about $1.30. It would cost from $3 to $5 per acre to pick and feed this corn. Hence, there is a saving of from $1.70 to $3.70 per acre by feeding off the corn as it grew in the field. Since fencing is quite an item in the cost of pastures and in hogging off corn, the arrangement of fields in such a way as to use the least possible amount of fencing and still have the hogs near the farm buildings so they may be sheltered, watered and fed econom- ically is essential. A piece of land one rod wide and 160 rods long contains one acre and requires 322 rods of fence to enclose it. A piece of land 12% rods square contains one acre and requires 51 rods of fence to enclose it. A 10-acre field (40 rds.x40 rds. ) requires 160 rods of fencing to enclose it or an average of 16 rods per acre. It is quite evident from the above facts that the larger and more nearly square a field is the less fence is required per acre to fence it. Likewise, two adjoining fields may be fenced more cheaply than two separate fields of the same size as a portion of the fence answers for both fields. (Minn. B. 104.) The pen and yard for the boar should be separate from the rest of the herd and out of sight of it. The pen should be so strong that the boar can not tear it down or go through it, and a tightly fenced pasture of one-half to 1 acre in area should adjoin. A sow about to farrow, if she is to farrow in the piggery, can have the run of the alley for exercise. It she has a house to herself, a small yard should adjoin. It will generally be a satisfactory practice to keep hogs away from other stock except when following fattening steers. Pregnant brood sows should never be allowed to run in the same yards or pas- tures with cattle, horses, or mules. Many good sows have been ruined by the playfulness or viciousness of me larger farm animals. Watering. A better plan than to put water for the pigs into troughs is to set one-half of a kerosene barrel on brick or stone so as to raise it 3 inches from the ground. Place the barrel between two posts planted opposite to each other; then wire it in position. Insert a pipe near the bottom, with an automatic valve which will let the water now into a small trough without overflow. There are special 510 DOMESTIC ANIMALS, DAIRYING, ETC. devices on the market which accomplish this purpose. Fill the half barrel with water and fasten on a board cover. In this way the drinking water is always kept clean and accessible. An open shed, floored, is advantageous for feeding. The hogs are thus protected from the sun in hot weather, and the soaked corn can be scattered on a clean floor. Never throw corn for hogs on the ground. It forces them to eat too much dirt. It is emphatically necessary to avoid all wallowing holes if the herd is to be kept healthy. (U. S. Cir. 30.) Exercise. A fact that has recently been determined indicates that the influence of exercise upon the functional activities of a pig is an important factor. Hence the lack of exercise is a handicap to the fall pig because during the winter on account of cold weather not so much exercise is usually taken as in the summer, except dur- ing very hot periods. For maximum and most economical produc- tion it seems absolutely necessary for the young and growing pig to have an abundance of exercise. Its chief value seems to be in the influence it exerts upon the respiratory and digestive functions. (111. Cir. 133.) The foundation on which to build a successful breeding ani- mal is ample range, affording an abundance of exercise, and a rather narrow ration. Growth should be continuous and feed plentiful. The pigs should not be given so large a range and so little feed that they will develop nothing but bone; neither should they have so much to eat that they will become indolent and refuse to take the exercise required to develop necessary bone and muscle. Exercise will strengthen the sinews and develop strong muscles, as well as firm joints and strong legs, while a well-filled stomach will nourish these ; and from this management we may expect a sow that will be strong, thrifty, and a good breeder, and a boar that will do good work in the herd without breaking down in any respect before he should. No time should be lost after farrowing in getting the sow into the open air. Of course, if the pigs were farrowed during the winter months care will be needed, and it may be necessary to let the pigs reach the age of tw r o weeks before turning them out. They can, how- ever, get considerable exercise in the piggery or in the lot with the sow, and there is often a lot adjoining a barn that is sunny and shel- tered from cold winds where the new family may be turned out for exercise. Avoid particularly allowing the pigs to run out during a cold rain. They are especially tender during the first weeks. (F. B. 205.) Comparing sets II and III with the same feed but one fed in the pen and the other in the yard, it will be seen that the yard set gained 18 pounds more or .035 of a pound more per pig daily. The set getting exercise consumed 221 pounds more food during the period (125) days and required ten per cent more food for 100 pounds gain. The most economical gains were made by the set confined in the pen. (Utah B. 70.) Ventilation. The Boar's permanent quarters should be a clean, dry, warm, well-lighted, and well-ventilated pen, 10 or 12 feet square, BREEDS OF SWINE 511 with a yard adjoining where sows may be brought for service. This yard should be large enough to give him some exercise during the breeding season, when it may be inconvenient to allow him the run of the pasture. Adjoining the yard should be the boar's pasture, from one-half acre to an acre in extent, consisting of clover, alfalfa, or good pasture grasses that thrive in the locality. (F. B. 205.) It is very important to provide means for ventilation in the pig- gery to prevent the accumulation of dampness on the walls which cause rheumatism, bronchitis, and often pneumonia. Provision for ventilation is more necessary in a cold climate than in warmer cli- mates, because the moisture collects readily on the walls, due to the cold weather. (N. D. B. 83.) A little pig loves sunshine and needs it almost as much as he needs food. No piggery is fit for the purpose unless it admits direct sunshine onto the floor of every pen at the time the pigs are farrowed, furnishes plenty of fresh air, and provides for exercise in the open air. Dryness, sunshine, warmth, fresh air, freedom from drafts, and exercise are of primary importance in raising pigs. These secured, the 'battle is half won. In putting up buildings the six requirements just mentioned must be kept constantly in mind; not one can be neglected. (F. B. 438.) One of the first requisites for success with hogs is a shelter where young pigs can be kept warm and well supplied with sunshine and fresh air. A little pig takes cold very easily and recovers slowly if at all. To prevent taking cold he must be kept dry, warm, away from drafts, and provided with fresh air. (F. B. 438.) It is not easy to secure a good supply of fresh air and prevent all drafts from striking the pigs. There are, however, several quite satisfactory methods of ventilation in use. The commonest one is to make some of the windows so they will either slide or swing on hinges. The box ventilators are very satisfactory. The cloth curtain window also does good work. Whitewashing. Whitewashing the inside of the house is an excellent practice. Besides going a long way toward disinfecting, it increases the light materially. When the sunshine strikes a white- washed wall, much of it is reflected to the floor and does a great deal of good. Dark houses which must be used will be much improved by whitewashing. (F. B. 438.) Importance of Sanitation. The greatest drawbacks to the hog industry in this country are the losses through hog cholera and swino plague, and through tuberculosis, as well as by parasites, especially of young pigs. Hog Cholera and Swine Plague are so similar as to be identical for practical purposes. They are caused only by disease germs or bacteria, carried from one animal to another, and can best be pre- vented by thorough disinfection and cleanliness. Tuberculosis is more difficult to detect, and is slow in developing. It is frequently present when hogs are fed on dairy products, or run after cattle. (F. B. 205.) Dipping and quarantine should be applied to every hog or pig that is brought to the farm, as it will often prevent serious 512 DOMESTIC ANIMALS, DAIRYING, ETC. losses from lice and disease that would otherwise be carried by the new purchase to the swine already on the farm. (Colo. B. 146.) MARKET PORK. Bacon or Lard Hogs. All of the breeds are included in two types, the lard type and the bacon type. Those breeds that are low, deep, broad and heavy fleshed, such as the Poland China, are known as lard hogs. They are chiefly of American origin, having been de- veloped by generations of feeding on a fat producing ration, prin- cipally corn. The bacon type, on the contrary is of long, narrow, deep, smooth and thin fleshed conformation, illustrated by the Tamworth. These breeds are of foreign origin and have been developed largely on nitrogenous rations of grains and skim milk. A majority of experiments show that all breeds of the same type do equally well under similar conditions. The bacon hog compared with the lard hog, dresses but 70 to 75 per cent net to gross weight, whereas the lard hog dresses from 84 to 87 per cent. Owing to the difference in dressed weight compared to live weight, and the fact that packers can buy a supply of immature lard hogs in place of true bacon hogs, the breeding of the bacon type should not be undertaken in competition with the lard hog, unless there is sufficient demand to insure a profitable price. (Wis. B. 184.) The hog adapted for the production of high grade bacon gives promise of being produced extensively in the Northwest before many years pass. A great many farmers are using the blood of the bacon breeds of swine in their herds at the present time. The Large Im- proved Yorkshire breed is being raised by many. The farmers of the Province of Ontario, Canada, raise the bacon type of swine for market by the use of the -bacon breeds almost uni- versally to the exclusion of the lard type. They feed practically the same feeds that the farmers of this state can grow successfully. The farmers of Ontario, however, feed considerable dairy by-products, because they are extensively engaged in dairying. As a result of the farmers of Ontario growing the bacon type of hog so generally, they have succeeded in capturing the English trade for fancy bacon, and they are in direct competition with Denmark and Holland the coun- tries that have the reputation for producing the best grade of bacon put on the market. High class bacon sells for better prices than the poorer grades of pork, and this has enabled the Canadian packers to pay more for hogs than they do on our markets in this country. A comparison of market prices of hogs at Toronto, Canada, and Chi- cago, shows that the prices paid at Toronto ranged on the average 52 cents to $1.23 per cwt. higher than those paid at Chicago. There is not a great deal of difference in the merit of the Poland China, Berkshire, Chester White and Duroc Jersey breeds, for they are quite uniform in type. The success that the farmer has with any breed will depend more upon the skill he exercises in handling them than upon the difference that exists in the characteristics of the breeds. All the best individuals of the lard breeds are compact and thick fleshed, and mature at an early age. If one desires to produce BREEDS OF SWINE 513 bacon hogs, the following breeds are best adapted for that purpose : the Large Yorkshire, the Tarn worth and Hampshire. The objection to producing the bacon hog is that the cost of growing them is greater than to grow the lard breeds. Experiments made at several experi- ment stations in the United States and at the Ontario Agricultural College, do not support this objection, since the bacon breeds in some of these trials made cheaper gains than the lard breeds. The bacon breeds also have in their favor greater prolificacy. (N. D. B. 83.) Pork Classified. Hog products may be described under three heads: (1) Dressed Hogs, (2) Pork Cuts and (3) Lard. As a rule, not more than one or two per cent of the number of hogs slaughtered in large packing houses are sold as whole carcasses. Approximately three-fourths of the trade in hog products consists of various cured meats and fresh cuts, the remainder consisting principally of lard and a small percentage of sausage and canned meats. Further, fresh pork is of much less importance, relatively, than fresh beef or mutton, only about one-fifth of the domestic trade and five per cent of the export trade in pork products (other than lard) consisting of fresh meat. Thus the classification of pork consists largely of cured and manufactured products, the number and variety of which ren- ders the outline of this subject quite complex. Dressed Hogs. The classification of the hog carcasses is based on the uses to which they are adapted, or the products into which they can be converted. The classes generally recognized and average weights included in each are as follows: CLASSES. CARCASS WEIGHTS. Smooth Heavy or Heavy Loin Hogs 240 to 400 Ib. Butcher or Light Loin Hogs 160 to 240 Ib. Packing Hogs 100 to 400 Ib. Bacon or Marked Hogs 90 to 170 Ib. Shippers 100 to 200 Lb. Pigs 20 to 100 Ib. Different styles of dressing are characteristic of the different classes of carcasses except heavy and light loin hogs, and shippers and pigs. Dressed hogs of all classes are cut open along the under- line and through the aitch-bone and brisket, but the method of splitting and trimming varies with the class. Grading Dressed Hogs. The grades of hog carcasses are much less numerous and complex than those of carcass beef or mutton, owing to the greater variation in the latter with respect to age and general development. Standard grades are recognized only in the bacon and packing hog classes. In a broad sense, however, the six general classes may be regarded also as grades, since they are differ- entiated largely by shape, finish, quality and weight as well as by styles of dressing. The shape dasired in loin and packing hogs is great width of side and back in proportion to length of body, straight, even linea and well-filled hams and shoulders. In bacon hogs, length of side is more important, with less width and thickness of back in propor- tion to that of the side than in the grades of fat hogs. Finish is indi- 514 DOMESTIC ANIMALS, DAIRYING, ETC. cated by the depth and evenness of fat covering the carcass, espe- cially along the back and over the sides; also by the amount and quality of leaf fat. (The leaf is the eternal fat of the carcass. It includes the kidney fat and extends down to the flanks and skirt (diaphragm.) It is essential that the fat be white and firm. The depth of covering and proportion of leaf fat desired are described and illustrated in connection with the various classes. Quality implies firm, bright, smooth-grained flesh and solid, white fat evenly distributed over the carcass; smooth, thin, mel- low skin free from wrinkles, blotches or bruises; moderately small, fine shanks and head; soft, red chine-bones, back-bone and brisket; and an absence of coarseness in general. Points of special import- ance in selecting dressed hogs are the development and quality of loins and sides, and the size, shape, firmness and covering of the hams. Coarse or extremely large shoulders, neck and jowls, are indications of stagginess, and seedy sows are classified as packing hogs because of their coarse quality. The importance of weight in grad- ing dressed hogs varies according to the class. In general, weight is >a very important factor, and in the case of loin hogs it determines not only the grade but also the class to which a carcass belongs. Pork Cuts. The various cuts made from dressed hogs may be divided into the following general classes: Hams, sides, bellies, backs, loins, shoulders, butts and plates and miscellaneous. These products are quoted and handled according to the man- ner in which they are prepared or packed viz., Fresh pork cuts, dry- salt and bacon meats, barreled or plain-pickled pork, sweet-pickled meats, smoked meats, English meats and boiled meats. It will be necessary to define these terms before attempting to describe the grades and uses of the different classes of cuts. Fresh pork cuts are sold either chilled or frozen. The bulk of the uncured product is disposed of within a few days after slaughter, during which time it is chilled at temperature slightly above the freezing point. Freezing is employed for the storage of pork loins and other fresh cuts and edible offal when supply exceeds demand, and in some cases for keeping bellies, hams, shoulders and other cuts intended for future curing. Frozen pork, however, is not quoted nor handled to the same relative extent as frozen beef and mutton. Cut meats may also be kept without curing by packing in brine and storing at about 15 F., until it is desired to cure them in the regular manner. Cuts packed in a light brine and kept slightly above the freezing point for a short time are sometimes sold as "partly cured" meats. Fresh pork cuts are taken more or less from all classes of hogs. Since the pork loin is by far the leading fresh cut, light loin hogs are more extensively used for fresh pork than any other class. The varying demand for loins determines to a considerable extent the method of cutting other classes of hogs from time to time. Tender- loins and spareribs are also primarily fresh cuts. Skinned shoulders, shoulder butts, hams, bellies, fat backs, and raw leaf fat are sold fresh to a small extent. Some packers purchase their raw material in the BREEDS OF SWINE 515 form of fresh cuts, such as bellies, hams, picnics, leaf and back fat, and convert the minto smoked meats, lard and other products bear- ing the trade-mark of the packer. Dry-salt meats are domestic cuts made from heavy fat pack- ing and loin hogs, cured and shipped in coarse salt, and with a few exceptions, pumped before salting. These are distinct from English meats both as to selection and packing. The cuts that are sold in this form are heavy sides, bellies, shoulders, fat backs, plates and jowls. The same cuts, and particularly bellies and short clear sides, are also quoted as bacon meats, which, after being cured in dry salt are smoked before shipping. The term bacon, when used as a pre- fix, refers to dry-salt meats, while smoked meats, as described below are cured in sweet pickle. Dry-salt and bacon meats are generally shipped loose, but are sometimes put up in boxes containing 25 to 500 pounds. Barreled or plain-pickled pork is packed in plain salt brine in tight barrels (18x29 inches) at 200 pounds net weight of cured pork per barrel (355 pounds gross) . The strength of brine is varied some- what according to the cuts of pork and their destination. Barreled pork is made largely from sides of packing and heavy loin hogs, and consists principally of mess, fat back and belly pork of various grades. A much smaller proportion of the pork supply is barreled than formerly. Sweet-pickled (S. P.) meats are cured in sweet brine. Standard cuts of this class are packed as follows for delivery on the Chicago Board of Trade: 300 Ibs. block weight shall be packed in each tierce with either 22 Ibs. of salt, 3 quarts of good syrup, 12 ounces of saltpetre and tierce filled with water, or tierce filled with sweet pickle according to above standard. After curing, sweet-pickled meats are commonly packed in slack barrels or boxes, or sold loose, but are also sold in tierces (21x32 inches), either pickle on or drained. The bulk of sweet-pickled and other sugar-cured meats are smoked before they reach the consumer, as explained in the following paragraph. A percentage of heavy sweet-pickled hams, picnics and loins are also boned out and sold as boiled meats which are described below. The cuts that are quoted as sweet-pickled meats are hams, picnics, New York cut and skinned shoulders, boneless butts, light bellies, and spareribs. This class of meats is cut princi- pally from butcher hogs and from medium and light packing hogs; hams and picnics from all classes of hogs are generally sweet-pickled. Smoked meats are sweet-pickled as described above and smoked after curing. They also include light breakfast-bacon bellies that have been dry-cured in salt and sugar. In packing smoked meats, fancy hams and breakfast-bacon bellies are wrapped in parchment paper or canvas and packed in 50 and 100 pound boxes and crates. Other grades are sold either unwrapped, canvassed, or wrapped in burlap, and either loose, boxed or crated (100 to 500-pound packages) or packed in slack barrels or burlap sacks. English meats is a term applied to certain cuts that are dry- cured in English salt and saltpetre and primarily adapted to English trade, being given a milder cure than domestic meats. They are 516 DOMESTIC ANIMALS, DAIRYING, ETC. made principally from bacon hogs. The leading cuts of this class are English bacon sides, long-cut hams, clear backs and bellies, and square shoulders. After curing, these cuts are packed in borax or salt in 500 to 550-pound boxes for export. Borax is principally used, but a small proportion of English cuts such as long clears are shipped in salt, which continues the curing process during shipment. Eng- lish meats are generally dried or smoked lightly after their arrival at British ports before being sold. Meats cured by this process are used to some extent in this country, being quoted as English-cured sweet-pickled meats are also shipped in borax to England in con- siderable quantities. Boiled meats consist of hams, picnic shoulders and loins cured in sweet pickle, cooked in water and lightly smoked. The cuts are usually boned and the fat trimmed off within one-half to one inch' of the lean before cooking. Boiled hams and shoulders are generally quoted as rolled boneless cuts, which are pressed in a cylin- drical form, or rolled and tied with cord. Three loins are tied to- gether for boiling, making a loin roll. Boiled meats are made prin- cipally from the heavier cuts but various averages are used, including 12 to 30 pound hams, 10 to 14-pound picnics and 14 to 24-pound loins. The boning and fatting reduces the weight of hams about 25 per cent and of loins, about 60 per cent. Grading Pork Cuts. The grading of pork cuts is more complex than that of other meats since it involves not only their quality, shape, proportions of fat and lean, and weight, but also the styles of cutting and methods of packing by which they are prepared for different classes of trade. Many of the grade names refer merely to different methods of cutting and curing ; but since they are applied only to cuts of specified quality, thickness or weight, the grades are in reality based on the latter factors to a large extent. The various cuts differ considerably as to methods of grading. Lard. From one-tenth to one-third of the hog carcass is made into lard in large packing-houses, the proportion varying with the relative price of lard and grade of hogs. The standard grades are kettle-rendered leaf, kettle-rendered, neutral, prime steam, refined and compound lard. They differ as to the kinds of fat they contain, methods of rendering, color, flavor and grain. (111. B. 147.) There is a growing demand for clean, wholesome pork which should be catered to by intelligent farmers. Thousands of people are willing to pay increased prices for pork made from healthy, well- fed animals, kept in a cleanly manner. There is no reason why farm- ers cannot co-operate and establish small packing houses which shall send out smoked ham, breakfast bacon, sausage and lard, which will be eagerly bought up at good prices by a discriminating public. A market for choice pork must be created and enlarged and the public properly informed of the situation before this matter will take proper shape. The plan is feasible, and certain sooner or later to be brought about. Hogs fed to produce a large percentage of lean meat must, to be profitable, sell for at least 20 per cent more than current prices; BREEDS OF SWINE 517 a discriminating market will soon pay this difference. Every animal requires a certain amount of food. (Wis. 10th A. R.) Curing Pork on the Farm. The State Commissioner of Agricul- ture and Immigration (Louisiana), has, for years, employed the following methods of curing pork on his farm with such success that we take the liberty of reproducing them here : When hogs are fat, select any time during the month of De- cember, January or first half of February, when weather is clear, wind from the north to northwest, with the thermometer registering below 35 at sunrise. Have your water hot and scald as soon as hog is dead. Hang up and disembowel the animal just as soon as it is cleaned. No butchering animal should ever be permitted to cool off until after it is disemboweled. Cut up the carcass as soon as it is through dripping. Saiw or split the backbone. Let it and the spare rib remain on the side, and make them as long as you can. Hams and shoulders small. Hams to sell readily should weigh from fifteen to eighteen pounds. Jowl will mix very nicely with trimmings and shoulder in making sausage, either for house use or the market. Feet, when cleaned properly, and put, raw, in strong brine, will keep all right for several months. Spread the joints and sides in your smoke house, applying a small quantity of salt to each piece. Let it lay until next morning to cool, then pack away, using plenty of clean salt. To Sugar Cure Hams. To half bushel fine salt add half pound pulverized saltpeter, one pound finely ground black pepper, four pounds brown sugar, mix thoroughly. Rub hams with mixture. Pack in box, skin side down. Apply double handful of mixture to flesh part of each ham. Then apply plenty of clean salt, never per- mitting the meat to touch, without salt being between. Covering all parts and filling every crevice, and let them remain in the salt six weeks. How to Smoke Ham. After being in salt six weeks, select a clear day, string each ham, and dip in a boiling solution of one pound borax dissolved in fifteen gallons of water and hang up high in a dark smoke house (the higher the better) and smoke, using green hickory wood. Smoke daily for two weeks or more, as preferred. By April 1 at latest, hams should again be dipped in boiling water, to cleanse them from all impurities, wrapped in paper, then cloth, and this painted with some cheap mineral paint. Hang up again and leave until used or sold. To Make Good Sausage. Grind your meat as fine as possible; don't have it too lean. Season with salt, ground black pepper, a good supply of pulverized soda crackers, not too much sage, and some red pepper tea. Well mix and stuff in sausage cases. Cases can be secured from packing houses. (La. B, 124.) PART V POULTRY KEEPING. BREEDS. THERE is probably no other domestic animal which has a more general distribution than the hen, and the part which she plays in the agricultural wealth of this country is almost incredible. According to the most recent statistics of the Department of Agriculture, the products of the American hen aggre- gate a total value of more than $620,000,000 annually. This sum is stated to be equal to the value of the hay crop for 1908 and greater than the combined value of oats and potatoes for the same year. It is nearly nine times the value of the tobacco crop and equal to that of wheat. Poultry and eggs are produced in all sections of the country, but the business finds its greatest scope in areas presenting the most favor- able conditions. It is a noticeable fact that the bulk of these impor- tant products is produced on the farms of the Mississippi Valley. In this section there are practically no large intensive poultry farms such as are commonly found in the Eastern States and on the Pacific coast. Poultry keeping, therefore, is largely incidental, the hens being considered and treated largely as an agency for converting material which would otherwise go to waste into a salable product. Conse- quently the poultry and eggs produced constitute merely a by-product of the general farm. Because prices for poultry products are com- paratively low the farmers make no effort to keep larger flocks than can be supported by this waste without much attention or extra feed, and because individual flocks are small little attention or thought has been given to improving the product or the method of disposing of it. It should be kept in mind, however, that while individual sales of poultry products are small, the aggregate for the year is large, reaching for each State in the Middle West a total of many millions of dollars. (Dep. Agr. Bureau Animal Ind. B. 141.) Making a Start With Poultry. The safest way for those who are about to make their first attempt at poultry raising is to start in a small way with a few fowls, and learn the business thoroughly be- fore making large investments. Mistakes will be made and many dif- ficult problems will be presented for solution before success in any large measure will be attained. As soon as it is found to be a paying investment, more capital may be put into the plant. Another good plan for the beginner who wishes to learn the art of poultry keeping is to secure a position with some successful poultry- man. One or two years of work on a large, practical plant will be 518 u POULTRY KEEPING 521 found a great help, as the methods of caring for the birds and of marketing the products can thus be learned better than in almost any other way. The question is often asked as to what is the best time of the year for one to begin. When to begin is not very important, but the fall of the year is a good time, for then stock can be purchased for less money than at any other season. It is also advisable that the fowls be moved to their new quarters before they begin to lay. If the beginner has had experience in poultry keeping, it will be all right to purchase eggs, otherwise he should begin with the fowls and thus gain some knowledge of caring for poultry before attempting to raise chickens. -(F. B. 287.) The American Poultry Association has recognized certain breeds of fowls as "standard bred" and for these breeds it has adopted a description and scale of points to be used in judging. It has also noted the most common serious defects in these standard breeds for exhibition purposes. It should be remembered that the scale of points for the various recognized breeds as determined upon and published by the American Poultry Association in a little vol- ume known as The Standard of Perfection, has to do almost wholly with exhibition birds and does not especially pertain to the produc- tion of either meat or eggs. The standard, however, serves a most useful purpose in maintaining the purity of breeding and in secur- ing uniformity among breeders. Classification. There are over 100 standard and a large num- ber of non-standard varieties of chickens raised in this country. The standard varieties are divided as follows : 1. American class: Barred, White and Buff Plymouth Rocks; Silver, Golden, White, Buff, Black, Partridge, Silver-penciled, and Columbian Wyandottes ; Black and Mottled Javas ; Rose-comb Dom- iniques; Single-comb and Rose-com'b Rhode Island Reds, and Pea- comb Buckeyes. 2. Asiatic class: Light and Dark Brahmas; Buff, Partridge, White, and Black Cochins; Black and White Langshans. 3. Mediterranean class: Single-comb Brown, Rose-comb Brown, Single-comb White, Rose-comb White, Single-comb Buff, Rose-comb Buff, Single-comb Black, and Silver Duckwing Leghorns; Single- comb Black, Rose-comb Black, and Single-comb White Minorcas; White-faced Black Spanish; Blue Andalusians, and Mottled An- conas. 4. English class: White, Silver Gray, and Colored Dorkings; Rose-comb Redcaps; Single-comb Buff, Single-comb Black, and Single-comb White Orpingtons. 5. Polish class: White-crested Black, Bearded Golden, Bearded Silver, Bearded White, Buff-laced, Nonbearded Golden, Nonbearded Silver, and Nonbearded White Polish. 6. Dutch class: Golden-spangled, Silver-spangled, Golden- penciled, Silver-penciled, White, arid Black TIarnburgs. 7. French class: Mottled Houdans, Black Crevecoeurs, and Black La Fleche. 522 DOMESTIC ANIMALS, DAIRYING, ETC. 8. Game .and Game Bantam class : Black-breasted Red, Brown Red, Golden Duckwing, Silver Duckwing, Red Pyle, White, Black, and Birchen Games ; the same varieties for Game Bantams. 9. Oriental Game and Bantam class: Oornish and White In- dians, Black Sumatras, Black-breasted Red Malays, and Black- breasted Red Malay Bantams. 10. Ornamental Bantam class: Golden and Silver Sebrights; Rose-comb White and Rose-comb Black; Booted White; Light and Dark Brahmas; Buff, Partridge, White, and Black Cochins; Black- tailed, White, and Black Japanese; Bearded White, Buff -laced, and Nonbearded Polish. 11. Miscellaneous class: White Silkies, White Sultans, and Frizzles. For practical purposes the above eleven classes may be grouped into four general classes, as follows: 1. The general purpose breeds: The American class, the Orpingtons, and the Houdans. 2. The meat or table breeds: The Asiatic class, the Dorkings, and the In- dian Games. 3. The egg breeds: The Mediterranean class, the Dutch class, and the *Redcaps. 4. The ornamental breeds: The Polish, the Crevecoeurs and La Fleche, the Game and Game Ban- tam class, the Oriental Game and Bantam class (except the In- dians), the Ornamental Bantam class, and the miscellaneous class. GENERAL PURPOSE BREEDS. Plymouth Rocks. This is the most popular of all breeds of poultry as a general-purpose fowl. The Barred variety is the best known, and its history dates back over a quarter of a century. Va- rious breeds were used in its making, the belief being general that it originally came from a cross between the American Dominique and the Black Java. It has also been shown that the Light Brahma, Dark Brahma, and Pit Game have been used in its making. The Barred Plymouth Rock is of a grayish-white color, each feather regularly crossed by narrow, parallel bars of dark blue-black running in distinct lines throughout the entire length of the feather and showing on the down, or undercolor, of the feathers. The barr- ing is somewhat smaller on the hackle and saddle feathers than on other portions of the body. A medium-sized bird with a broad, full breast, a rather long and broad body, medium-sized wings that fold gracefully, the wing fronts being well covered by the breast feathers and the wing points by the saddle feathers; a moderately large head; ornamented with an upright bright-red comb and wattles; a large bright-red or bay eye, and yellow beak, shanks, and toes places the picture before us. For the farmer or market poultry man these fowls are favorites, being of medium size, well proportioned, with a deep full breast, making a most admirable bird for market purposes. They are hardy, mature early, and make excellent broilers when from 8 to 12 weeks old. They are good layers the year round, and in winter lay exceptionally well. Their eggs are brown in color and average 8 to a pound. They are good sitters and excellent mothers. POULTRY KEEPING 523 The characteristics of this breed are noticeable in the other va- rieties of Plymouth Rocks, excepting that of color. The sizes, shape, general outlines, and qualities are the same in the other varieties as in the Barred. The White Plymouth Rock is pure white in plumage throughout, and the Buff variety is a clear golden buff, uniform in shade. The buff should extend to the undercolor as much as pos- sible the deeper the better. The standard weight of cocks is 9^ pounds; hens 7^> pounds; cockerels, 8 pounds; pullets, 6% pounds. Wyandottes. This is another of the general-purpose fowls and is rated next to the Plymouth Rock. From the first it sprang into popular favor and has continued so to the present time. It came originally from the Dark Brahma, Silver-spangled Hamburg, and the Breda (a French fowl). Not a few authorities say that Wyan- dottes have Cochin blood in them, from the fact that their ancestors produced single combs and feathered shanks. For general purposes the Wyandottes have proved a success, be- ing of medium size, weighing on an average a pound less than the Plymouth Rocks, being hardy of constitution, and prolific layers. They are easily cared for and bear confinement well. For table purposes they are of superior worth ; their flesh is sweet, juicy, and tender, and they make excellent broilers and roasters. As layers they are among the best, averaging about fourteen dozen eggs a year, and as winter layers they do well under ordinary circumstances. There are eight varieties of the Wyandotte breed, and it is only a matter of opinion as to which is the best. The general characteristics are the same in all, the difference in color of plumage being the only distinguishing mark. The Silver Wyandotte is of a silvery-white plumage, with regu- larly marked black lacing on the breast and a generous distribution of white and black throughout the entire body. The cock has a silver-white head, rose comb, silver hackle, with a black stripe down the center of each feather ; silvery-white back ; saddle same as hackle ; breast feathers black, with large white centers ; tail black ; wings half black and half white, or, rather, black edged with white; when the wing is folded there should be a well-defined bar across it; shanks and toes rich yellow, free from feathering. The hen of the silver variety is marked similarly to the male ; excepting the back and wing, which are whiter in the male than in the female. The breast of the female is of much importance in breeding good birds; the lacing should be distinct, and the white centers of each feather free from black or brown penciling. The standard weight of cocks is &1/2 pounds; hens, 6^ pounds; cockerels, 7V& pounds; pullets, 5^ pounds. Javas. This breed is one of the oldest of the American class, and at one time was considered the most profitable of all breeds. At present Javas are not raised extensively ; the more modern or newer breeds have seemingly supplanted them in popularity. There is no reason why this should be so, as they are useful and good general- purpose fowls. In size they are about like the Plymouth Rocks, but differ in general symmetry and appearance. They are good layers 524 DOMESTIC ANIMALS, DAIRYING, ETC. and do well in winter, and for table purposes they are quite satis- factory. They mature early, are good sitters and mothers, and are easily kept in confinement. There are two varieties of Javas, the Black and the Mottled. The Black is more generally seen than the Mottled. The plumage of the Blacks is glossy black throughout ; the Mottled is of broken black and white throughout, with black predominating. The Java has a small single comb, standing upright on the head in both male and female. The shanks and toes are free from feathers, black in color, with the bottom of the feet yellow in the Black Java, while the color of the shanks and toes of the Mottled variety should be broken leaden blue and yellow. The standard weight of cocks is 9^ pounds; hens, 7% pounds; cockerels, 8 pounds; pullets, 6% pounds. Dominiques. Similarity in plumage of the American Domin- ique and Barred Plymouth Rock has been the cause of the former's popularity. The color is grayish white, each feather regularly crossed with parallel bars of dark blue-black, producing the effect of a bluish-tinged plumage, the color being the same throughout. They have rose combs, in both male and female, and bright-yellow legs. Those who are partial to their color of plumage will find the Dom- iniques good birds to keep. They are good layers, are hardy, mature early, and dress well for the table. The standard weight of cocks is 8 pounds ; hens, 6 pounds ; cockerels, 7 pounds ; pullets, 5 pounds. Rhode Island Reds. This is one of the new standard breeds which has gained prominence as a general-purpose fowl. They are of medium size, hardy, mature early, lay brown-shelled eggs, and are good sitters and mothers. There are two varieties of this breed, the Single-comb and the Rose-comb, the only difference being in the shape of the comb. The color of the plumage of the male should be a rich, brilliant red, except in the wings and tail, portions of which should be black. A harmonious blending of red is desirable, but in most specimens the color is accentuated on the wing bows and back. The plumage of the female should be somewhat lighter in color than that of the male. Portions of the hackle, wings, and tail are black in color. The beak of both male and female should be reddish horn, the shanks yellow or reddish horn, and the toes reddish horn in color. The standard weight of cocks is S 1 /^ pounds; hens, G 1 /^ pounds; cockerels, 7 l /z pounds; pullets, 5 pounds. Buckeyes. This breed was originated by Mrs. Metcalf, of Ohio, and was produced by crosses of Plymouth Rocks, Buff Cochins, Black-breasted Red and Indian Games. In shape the Buckeyes re- semble somewhat the Indian Games, but have a more fluffy plumage. In color they should be a dark, lustrous red, never buff or brick color. The unexposed flight feathers and the main tail feathers may be partially black. The color of the beak, shanks, and toes of the male is yellow, shaded with red horn, and of the female yellow. Both the male and the female should have a small pea comb. The standard weight of cocks is 9 pounds; hens, 6 pounds; cockerels, 8 pounds; pullets, 5 pounds. POULTRY KEEPING 525 Orpingtons. These fowls constitute our most recent importa- tion of a breed from England. They were originated by William Cook, of Orpington, county of Kent, England. They are a good general-purpose fowl, being of good size and good layers of brown- shelled eggs. There are ten distinct varieties of this breed the Single-comb Buff, Single-comb Black, Single-comb White, Single- comb Spangled, Single-comb Diamond Jubilee, and the Rose-comb varieties of the same colors. Of these ten varieties the first three have gained admission to the American Standard of Perfection. The standard Orpington should have a medium-size single comb, perfectly straight and upright ; the neck should be well arched and have an abundance of hackle feathers ; the body should be long and broad, with a broad, deep breast and a long, broad back; the wings should be of medium size and nicely folded ; the tail should be of medium length, fairly well spread, and carried at an angle of 45 from the horizontal in the male and at an angle of 40 from the horizontal in the female; the thighs and shanks should be rather short and stout, and the toes should be of medium length and straight. Shanks and toes should be perfectly free from any feathers or down. The skin should be white or pinkish white in color, and the face, comb, wattles, and ear lobes bright red. The color of the surface plumage of the Buff variety should be a rich golden buff throughout, the head, neck, hackle, back, wing bows, and saddle being richly glossed with a metallic luster. The beak, shanks, and toes should be white or pinkish white in color. The color of the surface plumage of the Black variety should be black or greenish black throughout. The beak should be dark horn, shading to a pinkish tint near the lower edge. The shanks and toes should be bluish black in color; web and bottoms of feet, pinkish white. The plumage of the White variety should be pure white throughout ; the beak, shanks, and toes, white or pinkish white in color. The standard weight of cocks is 10 pounds; hens, 8 pounds; cockerels, 8 ! /2 pounds; pullets, 7 pounds. Houdans. The three varieties of poultry in the French class are the Houdans, Crevecceurs, and La Fleche. Of these the Houdans are conceded to be the most popular and profitable, being bred to a great extent throughout the entire country. They are nardy and prolific layers of large, white eggs. For table purposes they are among the best fowls. They have small bones and the flesh is tender and delicious. The chicks are sprightly and active and feather rapidly. They are nonsitters and light feeders. Like the Leghorns, they may be fed at a small cost as compared with some of the larger breeds. They are of medium size and of a mottled plumage, black and white intermixed, the black predominating. Houdans are a crested variety. The crest of the cock is large, well fitted upon the crown of the head, falling backward upon the neck, and composed of feathers similar in shape and texture to those of the hackle. The crest of the female is large, compact, and regular, inclining backward in an unbroken mass. The Houdan has a small V-shaped comb, which rests against the front of the crest, A peculiarity of the breed 526 DOMESTIC ANIMALS, DAIRYING, ETC. is their having five toes, like the Dorkings ; shanks and toes are of a pinkish-white color, mottled or shaded with lead color or black. The standard weight of cocks is 7 pounds ; 'hens, 6 pounds; cockerels, 6 pounds; pullets, 5 pounds. THE MEAT BREEDS. Brahmas. The leading variety of the Asiatic class is the Light Brahma. This fowl has a history that would fill many pages were it recorded. These are the fowls which caused the "hen fever" of the fifties, about which so much has been written in later years. Their early history is a matter of controversy, the best authorities differing as to their origin. They were first known as "Brahma Pootras," "Gray Shanghais," "Chittagongs," "Cochin Chinas," and what not. The early breeder named them according to his fancy for high-sounding and sensa- tional names in order to sell his stock. Fabulous prices were paid for them when the craze for fine poultry was at its height in the early days of the last half of the nineteenth century. They have stood high in popular favor since then without abatement. The vast num- ber of breeders who are raising them fully attest their worth to the industry as a practical bird. The Brahma is unlike other breeds, and it should not be confounded in shape with the Cochin. In shape the body of the Brahma is rather long and deep, with full, broad, and round breast, carried well forward. The fulness is. typical of the Brahma and is characteristic of prolific birds. In plumage the Light Brahma male is white and black, white largely predominating. Any color but white and black is a fault in the standard-bred bird. The hackle is white with a black stripe ex- tending down the center of each feather and tapering to a point near the extremity. The tail feathers are 'black, and the sickle feathers are glossy greenish black. The shanks are well feathered, with the feathering extending down the middle toe. The toe feathering may be white, or white sprinkled with black. A small pea comb, a broad crown projecting over the eyes, bright-red face, wattles, and ear lobes are essential to a good head. The shanks and toes are bright yellow. The Brahma female is much like the male in head qualities, having a broad crown, projecting well over the eyes, and a small pea comb. The head is white ; hackle, white striped with black, as in the male ; tail, black, excepting the two highest main tail feathers, which may be edged with white ; tail coverts one or more rows, distinctly covering a part of both sides of the main tail, two rows being prefer- able are black, edged with white. The Light Brahmas are valuable birds for the farm. They have always been made to pay for their keep and have seldom been set aside by any who have bred them. They are the largest of do- mestic poultry and do as well in confinement in small runs as on free range. As layers they will average from 12 to 13 dozen eggs a year, and they lay exceptionally well in winter. Their eggs are large, about 7 to a pound, of a rich brown color and excellent flavor. For table purposes the birds are good ; they do not mature as early as do the varieties of the American class, yet they are hardy, and can be POULTRY KEEPING 527 raised with as much ease as any of the earlier maturing varieties. As sitters and mothers they are fair. For practical purposes the Dark Brahmas are not to be com- mended as highly as the Light Brahmas. The close breeding for points in feathers is likely to interfere with their productiveness, yet with proper attention and care they can be bred profitably as well as for beauty. The standard weight of Light Brahma cocks is 12 pounds; hens, D 1 /^ pounds; cockerels, 10 pounds; pullets, 8 pounds. The standard weight of Dark Brahma cocks is 11 pounds; hens, 8^ pounds ; cockerels, 9 pounds ; pullets, 7 pounds. Cochins. The four varieties of Cochins are popular with breed- ers. They are second to the Brahmas in the meat breeds, weighing but a pound lighter than the Light Brahma. Old and experienced breeders of Cochins are pronounced in praise of their equalities as profitable fowls. They are hardy, fair winter layers of rich, brown, medium-sized eggs, and fairly good table fowls. The chicks grow well and develop rapidly under proper care. The Buff variety is the most generally bred; their color tone offers an attraction to fanciers that is hard to resist. Both male and female are of a rich golden buff, uniform in shade throughout, un- dercolor same as surface color, but of lighter shade and should ex- tend to the skin. In breeding, select females as near as possible to the desired shade of buff, as free from dark or white in wing and tail, and of as even a color as can be. To such females mate a cock of deeper shade. This mating will produce good results in cockerels and pullets. The heavy leg and toe feathering so characteristic of the breed should have constant care and attention. While the feathering should be abundant, all semblance to vulture hock, or stiff feather- ing, should be avoided. Black Cochins are much more easily raised than either the Buff or the Partridge. Being of one color, the care bestowed in breeding particolored or penciled birds is not necessary, and the time may be spent in furthering their general utility in egg production. A solid- color bird is the more practical bird for the farmer and market poulterer. The Black Cochin is of a rich glossy black plumage throughout. The White Cochin is pure white in plumage. The standard weight of Cochin cocks is 11 pounds; hens, 8^ pounds; cockerels, 9 pounds ; pullets, 7 pounds. Langshans. These are the smallest and most active of the Asiatic class. They are practical in more senses than one, and their fair laying and other excellent qualities make them profitable for the farmer and market poultryman. They constitute one of the old- est breeds of poultry and have always been held in popular esteem. The shape of the Langshan is distinct from that of the Brahma or Cochin and should not be confused with either of the last-named breeds. Figure 8 shows the accepted contour of the Langshans, and a comparison with the birds in figures 6 and 7 shows at a glance the characteristics of the Langshan as compared with the other Asiatics. Langshans have white flesh and dark shanks, while the others have yellow skin and yellow slianks. The quality of the flesh of the Lang- 528 DOMESTIC ANIMALS, DAIRYING, ETC. shans is excellent, 'being fine-grained, tender, and nicely flavored. As layers they rank with the Brahma, averaging from 12 to 13 dozen eggs a year and as winter layers they are to be recommended. The chicks are hardy and mature early. Langshans are good sitters and mothers, being of gentle disposition ; they are easily kept, either in confinement or on free range. Being excellent foragers, they are ideal fowls for the farm and will gather during the year a consider- able proportion of their food. The Langshan is a stylish, medium-sized bird, not overgrown or gawky in appearance, of active nature, and lively disposition. Many confound the Black Langshan with the Black Cochin. This need not be, as the following comparison between the two varieties shows : The Black Cochin is square in shape, with heavy-looking neck and legs, plenty of fluff and leg feathering, cushion rising from middle of back to tail; tail short and almost concealed by cushion; neck, breast, cushion, and tail all represented by convex lines. The Lang- shan head is small for the size of the body and the comb is rather large, well up in front, and arch shaped ; the Cochin head is larger than that of the Langshan and not so arched over the eye ; the comb is smaller, low in front, and almost straight on top of serrations. The back of the Langshan is concave, that of the Cochin is slightly con- vex, and the Cochin has a large convex cushion. The Langshan fluff is moderate and close ; that of the Cochin is extremely full and loose. The wings of the Langshan are of medium size, quite prominent at the shoulders; the Cochin's wings are smaller and almost hidden by the fluffy plumage of the cushion and the fluff. The Langshan 's legs are medium in length, the toes are long and tapering, and the color of the shank is bluish black showing pink between scales ; the Co- chin's legs are shorter and stouter, with larger bone; the toes are shorter and stouter, and the color of the shanks is black or yellowish black. There are two varieties of Langshans, the Black and the White. In the black the plumage of neck, back, saddle, and sickles is a glossy metallic black with greenish sheen; the breast, primaries, secondaries, tail, fluff, shank, and toe feathers are black. The under- color is black or dark slate. The White Langshan is pure white throughout. The standard weight of cocks for both varieties is 10 pounds ; hens, 7 pounds ; cockerels, 8 pounds ; pullets, 6 pounds. Dorkings. This is one of the oldest of domestic fowls. There are no definite records to show when it first lived in England, or whence it came, but the supposition is that it was carried to England by the Romans, who evidently possessed chickens of similar charac- teristics. The chief distinctive mark of the breed is the presence of a fifth or supernumerary toe, springing behind, a little above the foot and below the spur. The feature in which this bird is most popular is its table qualities. The flesh is white and very delicate in texture. It is claimed by many to equal if not to excel the French varieties. The broad, deep, and projecting breast of the Dorking admirably fits it for table purposes, and in this respect it is conceded by some to rival POULTRY KEEPING 529 the Indian Games. As layers the Dorkings are considered rather in- different, but they are careful sitters and attentive mothers. There are three varieties of Dorkings the White, Silver Gray, and Colored. The White Dorking is really the purest blooded of the three, as for years this was the only variety which produced in- variably the fifth toe, although the Colored and Silver Gray varieties seldom fail to breed this peculiarity. In color the White Dorking is of clear, unblemished white. The comb and wattles are a bright red ; the shanks and toes are white. Silver Gray Dorkings are beautiful in plumage. The head of the cock is silvery white; hackle, silvery white and as free from stripes as possible; comb, face, ear lobes, and wattles, bright red; beak, white, streaked with horn ; eye, bright red. Colored Dorkings differ from the others only in color, the gen- eral color of the male being black and straw color, while the female is marked with black and mixed gray, with breast of dark salmon edged with black. The combs of Dorkings differ in the three varie- ties ; the White has a rose comb, Silver Grays and Colored have single combs. The standard weights for Dorkings differ. The weights for Whites are: Cocks, 7% pounds; hens, 6 pounds; cockerels, 6Mj pounds ; and pullets, 5 pounds. For Silver Grays : Cocks, 8 pounds ; hens, Q l /o pounds; cockerels, 7 pounds; pullets, 5% pounds. For the Colored: Cocks, 9 pounds; hens, 7 pounds; cockerels, 8 pounds; pullets, 6 pounds. Cornish and White Indian Games. The Indian Game has many fine qualities to recommend it to the breeder, and for many years past has been a popular fowl. In plumage the Cornish Indian male is green-black intermixed with red and bay. The plumage of the hen should be a combination of bay and black throughout. The breast is very wide, round, and prominent, the thighs are well rounded, and thick and meaty next to the body ; the shanks are very stout, smoothly scaled, and yellow in color ; the back toe should be almost flat on the ground ; the tail close and hard, carried at slight elevation, and sickles narrow; wings tightly folded, the ends of the secondaries rounding off abruptly and resting close against the tail or just below it ; eyes yellow, beak yellow, or yellow striped with horn color. The Indian Game is a beautiful bird, and its every movement bespeaks its high breeding. The White variety is identical with the Cornish except that the plumage should be pure white. The stand- ard weight of cocks is 9 pounds; hens, Q l /2 pounds; cockerels, 7 1 / pounds; pullets, 5 l /2 pounds. EGG BREEDS. Leghorns. These are the best known of the egg-producing varieties, or Mediterranean class. They are the premiers in laying and the standard by which the prolificness of other breeds is judged. As to the origin of the Leghorns there are differences of opinion, and there is but little information to be found anywhere concerning their early history. It is generally conceded that a race of fowls bearing a close resemblance in many respects to the Leghorn has existed in 530 DOMESTIC ANIMALS, DAIRYING, ETC. Italy and other parts of the continent of Europe for a long period. That this race has been widely disseminated admits also of littlo doubt, inasmuch as at the present day it is known in Denmark and other countries as the Italian. There seems to be good ground for the statement that Leghorns were first introduced into America from Italy. The story goes that as early as 1834 a vessel from Leghorn brought to this country as a part of its cargo a small shipment of fowls, which were at once named "Leghorns." They immediately became popular, their prolific laying and nonsitting qualities being recognized at this early date. White and Brown Leghorns were the first varieties known. Modern breeders are responsible for some of the subvarieties of the breed ; and, in point of color at least, exhibition birds of to-day, even of the older varieties, vary considerably from those seen at the present time in Italy. The question of profit in poultry has been decided in favor of the egg-producing breeds. Leghorns are lively, active, and of a rest- less disposition, the best of foragers, and will pick up a good part of their living during the year. They are light eaters, and the cost of raising them to maturity is about one-half that of the Asiatic varie- ties. They mature early and feather quickly ; the pullets often begin laying when 4% months old, and cockerels crow at a much younger age. They are the best of layers, averaging between 150 and 200 eggs a year. Their eggs are pure white in color and weigh about 10 to the pound. As table fowls they are fairly good ; by many they are considered excellent ; the only thing that can be said against them is that they are small in size. Altogether, they are one of the most profitable breeds of poultry that can be kept on the farm, and the cheapness of their keeping will allow the raising of two Leghorns for the cost of one Asiatic. They must be dryly housed in winter to lay well and to protect their pendulous wattles from frostbite. In shape a Leghorn cock should be graceful, with body of medium length, broad at the shoulders, and tapering toward the tail. The body should be well balanced on a fair length of shank and thigh, the length of leg giving the bird its sprightly and proud car- riage. Closeness of feathering adds to the general shape. The breast should be full, beautifully curved, rather prominent, and carried well forward; neck, long and well arched; back, of medium length, with saddle rising in a sharp, concave sweep to the tail ; tail, large, full, carried at an angle of 45 from the horizontal; the full, flowing tail, and long, well-curved sickles are characteristics of the bird that are much desired. Ear lobes should be white or creamy white. The Leghorn hen in many respects resembles the cock, except- ing carriage of comb and sexual differences. In shape and carriage the hen is even more graceful and sprightly than the cock, very close in feather, and rather small in body. Her breast is full, very round, and carried high; legs fairly long, and shanks thin; tail carried at an angle _of 40 from the horizontal. Her comb is the marvel of her beauty; in the single-comb varieties it falls gracefully to one side, but not in a limp manner nor so as to obscure the sight. Legs, comb, POULTRY KEEPING 531 and face are the same color as in the male, but the ear lobe is much! smaller. There are eight standard varieties of Leghorns: The Single-comb and Rose-comb Brown, Single-comb and Rose-comb White, Single-comb and Rose-comb Buff, Single-comb Black, and Silver Duckwing. The Brown Leghorns are one of the prettiest of the Leghorn varieties, but they are the most difficult of all to breed to feather. They have merited the confidence of poultry lovers for a long time ; their hardy constitutions have withstood rough usage, and promis- cuous interbreeding has not effaced their characteristics. They are a fixed variety, and their merits are noticeable from the newly hatched chick to the oldest specimen. The White Leghorn is the most generally bred of the Leghorn varieties. It is, no doubt, the most advantageous to breed for profit, and the easiest to raise on the farm. Being of one color in plumage, these birds are more successfully raised and cared for than the parti- colored varieties. Their plumage is pure white throughout, and feathers other than white will disqualify them. It has been a matter of much speculation as to which variety of Leghorns is most prolific in egg production. This is a difficult question to adjust properly to the satisfaction of the specialty breeders, but from a conservative standpoint it is generally considered that the Whites have slightly the advantage over the others. Phenomenal individual egg records have been made by almost all varieties, but the foregoing opinion is based upon the general results obtained from various sources. The Buff Leghorn is a beautiful bird and one that will win its way wherever bred. Buff-colored birds have many admirers, and those who have bred them are pronounced in praise of their qualities. Besides having the general characteristics of the Leghorn type, the Buff Leghorn cock has a plumage of an even shade of rich golden buff throughout. The undercolor is of a slightly lighter shade, but even in color throughout. White and black feathers in plumage are objectionable. The hen is of the same color as the cock. The Black Leghorn is a popular bird and a favorite with those who are partial to its color of plumage. The Black Leghorn is mis- taken by many for the Black Minorca, but is quite different in type. The Minorca is larger in size, has a longer body, larger comb, and dark slate or nearly black shanks and toes. The plumage of the Black Leghorn is a rich glossy black throughout. The comb, face and wattles are bright red, the ear lobes white, and the shanks yellow or yellowish black. Silver Duckwing Leghorns are not generally bred in this coun- try, though they are frequently seen in the showrooms. They are considered as profitable as any of the other Leghorn varieties, and in point of beauty they are very interesting and fascinating. The hackle feathers of a Silver Duckwing Leghorn cock are pure silvery white, without the slightest straw or creamy tinge, with a narrow black stripe along the center of the lower hackle feathers; back, saddle, and wing bow, silvery white; breast, under parts, wing bar, and tail, lustrous black. The Silver Duckwing Leghorn hen nas a 532 DOMESTIC ANIMALS, DAIRYING, ETC. silvery gray hackle, with a narrow black stripe through the center of each feather. The breast is light salmon, shading off to gray toward the sides ; the body color, when viewed at a short distance, should ap- pear gray, with a faint bluish tint all over. A tendency to ruddy gray, either in ground color or penciling, is objectionable. The tail is black, except the two upper feathers, which are light gray. The penciling or markings are irregular or wavy. The only distinguishing difference between the single-comb and rose-comb varieties is in the comb. The Rose-comb Leghorns have a small rose comb, square in front, firm and even upon the head, tapering evenly from front to rear, without inclining to one side, the top comparatively flat and covered with small points, terminating in a well-developed spike in the rear. There is no standard weight given for Leghorns. Minorcas. This breed belongs to the Mediterranean class, and they are placed next to the Leghorns in laying qualities. They are in appearance very similar to the Leghorns. Their general outline is, in fact, that of the latter, but with more length of body and heavier in mold. The origin of the Minorcas, like that of so many others of our profitable poultry, is much in doubt. Some persons are of the opinion that they originally came from Minorca, one of the Balearic Isles, in the Mediterranean Sea, while others contend that they are a variety of the Black Spanish. Be that as it may, they are one of the most profitable breeds of poultry for the farm. The Minorcas are good for table purposes, the flesh being white or light colored and fine grained. Their chief advantage is their egg production. They are nonsitters and year-round layers. As winter layers they are exceptionally good when kept under fairly favorable circumstances. While the Leghorn surpasses them in the number of eggs laid, the Minorca's eggs are larger and equal the output in bulk. Their eggs are white and average 8 to the pound. They lay from 14 to 15 dozen a year. Being of an active, restless disposition they keep in splendid condition and make good foragers. For suburban poultry keeping they are very useful birds, and net good results to the keeper. They are hardy, easily raised, and mature quickly. The Minorca fowl is large in outline, well bodied, stands well up on its legs, has a broad chest, and a long, broad back, with tail carried at an angle of 40 from the horizontal. The body of the Minorca male is long, broad, deep, tapering from front to rear. Thighs are stout; shanks, long, stout in bone, and in color dark slate or nearly black in the black varieties, and white or pinkish white in the white variety. The comb of the Minorca is larger and more bulky than that of the Leghorn. The wattles are thin and pendulous, corres- ponding with the size of the comb ; the ear lobes are pure white. The female is in body of the same general appearance as the male, rather long, broad, and deep. Her comb is perceptibly larger than that of the Leghorn female. Black Minorcas are in plumage a rich, glossy, greenish black throughout, and gray tips are considered serious de- fects. The White Minorca is not quite as popular as the Black. The standard qualifications as to shape are the same for the two; in color POULTRY KEEPING 533 the white variety must be pure white throughout, feathers other than white disqualifying. The comb, face and wattles are bright red, the face being free from white ; the eyes are dark hazel in the Black va- riety and red in the White variety. Before concluding in regard to Minorcas it is worthy of note that the latest acquisition to the breed is the Rose-comb Black Min- orca, which is now a standard variety. The only objection that has ever been raised against the varieties of the Mediterranean class is their susceptibility to frostbite of the comb. Their combs are so large that continued cold or exposure is sure to result in this injury. To obviate this one defect, if it may be so termed, in this valuable class of birds has been the purpose of breeders in producing a bird that possesses the other qualifications, but with a low rose comb. The comb of the Rose-comb Black Minorca male should be rose, square in front, and set close and even on the head. The head of the female is similar to that of the male. The standard weight of Single-comb Black Minorca cocks is 9 pounds; hens, 7 l /z pounds; cockerels, 7V& pounds, and pullets B 1 /^ pounds. The standard weight of Rose-comb Black and Single-comb White Minorca cocks is 8 pounds ; hens, 6Mi pounds ; cockerels, 6% pounds ; pullets, 5 l /2 pounds. Black Spanish. The Black Spanish fowls constitute one of the oldest varieties of domestic poultry. Their name has been identified with the industry for hundreds of years, and their practical worth on the farm has long been recognized. Their haughty bearing, large red comb and wattles, and the white face and lobes peculiar to the breed, contrasting with their glossy black plumage, render them most striking birds. White-faced Black Spanish have longbeen favorably known for their exceptionally fine laying qualities. The pullets are early layers, averaging 150 to 180 eggs a year; the hens begin somewhat later, after molting, but compensate for any loss in number by the in- creased size of the eggs. Hens and pullets alike are well above the average for winter laying. Their eggs are large and white and of good flavor. The white face is a distinguishing feature and should be long, smooth, free from wrinkles, rising well over the eyes in an arched form, extending toward the back of the head and to the base of the beak, covering the cheeks and joining the wattles and ear lobes; the greater the extent of surface the better. It should be puiv white in color. The color of plumage throughout is rich greenish black, and any gray is considered a serious defect. The shanks and tH> are blue or dark leaden blue. The comb is single and bright red in color. The wattles of males are bright red, except the inside of the upper part, which is white ; and of females bright red ; the ear lobes are pure w T hite. The standard weight of Black Spanish cocks is 8 pounds; hens, 6% pounds; cockerels, 6^ pounds; pullets, 5V 2 pounds. Andalusians. This as one of the prettiest of the feathered race, being of a beautiful light and dark blue plumage. Tt is called the Blue Andalu-qan, and is the only variriy of its breed. It is not as popular in this country as it should be, owing to the ae&tunent 534 DOMESTIC ANIMALS, DAIRYING, ETC. against white skin and blue shanks. English and French poultry- men prefer these qualities in a bird, and with them it is very popular. The hens are nonsitters and splendid layers of large white eggs, near- ly equaling in size those of the Minorcas. The chicks are hardy and mature early, and the pullets begin laying when five or six months old. For farm purposes the Andalusians rank with the Leghorns and the Minorcas, the preference being only in the color of their plum- age. For fancy purposes they are an ideal bird on account of their beauty. The hackle and saddle feathers are dark blue, approaching black; breast a lighter shade of blue, each feather having a well- defined lacing of a darker shade ; body and fluff similar in color to breast ; primaries, slaty blue ; secondaries and wing coverts, similar in color to breast ; wing bows, darker blue, approaching black ; tail and sickle feathers, dark blue, approaching black ; shanks and toes, blue or leaden blue. The standard weight of cocks is 6 pounds ; hens, 5 pounds ; cockerels, 5 pounds ; pullets, 4 pounds. Anconas. The Mottled Anconas are one of the least common varieties of the Mediterranean class. They are hardy, quick to ma- ture, and prolific layers of white-shelled eggs. In shape Anconas should be the same as Leghorns. The color of the plumage should be a beetle-green ground, each feather tipped with white ; the mottling should be even throughout, with no tenden- cy to lacing. The eyes, face, comb, and wattles should be red, and the ear lobes white. The color of the beak should be yellow, with the upper mandible shaded with black, and that of the shanks and toes should be yellow, or yellow shaded or mottled with black. There are no standard weights for Anconas. Redcaps. Redcaps are an old breed, mention of them being made by some of the old authors. The large comb stands in their way as popular birds, and unless it is square and even it makes a miserable sight They mature early and are good layers. For market purposes they are good, the size and quality of flesh being recommendations for popular favor. They are reputed to be non- sitters, though occasionally they are known to sit and hatch broods. The comb is rose, large, not overhanging the eyes, square in front, and uniform on each side. It must be firm and even upon the head, without inclining to one side, the top covered with small points, terminating at the rear in a well-developed, straight spike, and bright red in color. Wattles and ear lobes are also bright red. In plumage the male and 'the female are red, brown, and Black; the head of the male is red, with blue-black hackle, each feather edged with red ; the back is red and black, and the breast purplish black. The head plumage of the female is brown in color; the neck black, each feather laced with golden red; the back brown and black, and the breast the same color. The shanks and toes are slate-colored or leaden-blue. The standard weight of cocks is 7^ pounds; hens, 6 pounds ; cockerels, 6 pounds ; pullets, 5 pounds. Hamburgs. These are in the front rank of egg producers. There are six varieties of this breed: The Golden-spangled, Silver- POULTRY KEEPING 535 spangled, Golden-penciled, Silver-penciled, Black, and White. They are all very pretty birds, and seldom fail to prove attractive and profitable to the average breeder and fancier. Hamburgs are eco- nomical fowls to keep ; besides being light eaters and great foragers, they are prolific layers and nonsitters. The only thing against them is trie smallness of their eggs. They lay a pretty, white-shelled egg, but smaller in size than those of the Leghorn. There are some which lay larger eggs than others, and by careful selection from year to yejar of the birds which lay the largest eggs this defect may be remedied and the size of the eggs improved. The Silver-spangled Hamburg is perhaps the most beautiful as well as the most popular variety of the Hamburgs. Its proud car- riage and graceful and symmetrical form command attention when- ever seen. Breeders of Hamburgs universally adopt the following as a standard for the breed : Comb, rose, square at front, tapering nicely into a spike, which inclines upward slightly; top of comb covered with small points, firmly and evenly set on the head ; face, red ; ear lobes, moderate size, round as possible, and clear white; shanks and toes, leaden blue; carriage, graceful; plumage, profuse. Golden- spangled -color, bay and black; back, glossy reddish bay, spangled with greenish black ; neck and saddle nicely striped. The feather markings of the penciled varieties differ greatly from those of the spangled, the latter being commonly called "moon- eyed," from the round or oval appearance of the spangles, while the markings of the penciled varieties are in parallel bars of reddish bay or black, or clear silvery white and black, as the case may be. White and Black Hamburgs are solid white or solid black in plumage. No standard weight is given for Hamburgs. ORNAMENTAL BREEDS. Polish. One of the oldest breeds of poultry is the Polish, its ancestry being traced as far back as the sixteenth century. Among the varieties mentioned in those early days was the "Woolly" fowl, similar to the silky fowl of to-day. Mention in history is also made of the "Frizzled" fowl, the "Persian" fowl, the "Turkish" fowl, and tho "Crested" fowl. The latter is described as being a fowl with a lark's crest. Another variety is known as the "Patavinian" fowl, which is believed to bo the progenitor of the Polish breed. The cock is described as exceedingly beautiful, being richly decorated with five colors, black, white, green, red, and ocher. The 'body is black, the neck covered with white feathers, and the wings and back partly black and partly green; the tail is the same, but the roots of tho feathers are whitish, and some of the flight feathers are also white. The eyes are surrounded with red circles, the comb is very small, the bill and feet are yellow, and the head is adorned with a beautiful crest. In the hen there is no white except the white pellicle at the opening of the ears. She is altogether of a greenish-black color, with yellow feet and a very small comb slightly tinged with red. The general characteristics of the Polish are those of small to medium sized fowls, larger than tho Hamburgs; a full, round breast, carried well forward; the neck of the cock beautifully arched; a 536 DOMESTIC ANIMALS, DAIRYING, ETC. straight back, broad at the shoulders, and narrowing rapidly to the tail; large and closely folded wings; a large, well-expanded tail, which in the cock is furnished with an abundance of tail coverts and sickle feathers; shanks of a blue or slaty-blue color in all vari- eties but the White-crested Black, in which they are of blue or dark leaden blue ; and, above all, a large crest and a small V-shaped comb. Polish chickens are bred extensively in this country and by some are considered practical for general purposes; but, while some breeders may secure good results, the Polish is not to be fully recom- mended as a general-purpose fowl. They are considered more as fancy birds and are generally bred for pleasure and the showroom. Their large crests are against them, hindering their vision and causing them to become listless, inactive, and suspicious. Extra care must be given to be fairly successful in raising them, and their houses and coops must be kept absolutely dry; the least water in their crests is likely to result fatally .to them. They are fairly good layers of medium-sized eggs and are nonsitters. For table purposes they are considered good, their flesh being fine-grained, tender, and sweet. . Of the varieties of the Polish, the White-crested Black is the most popular. The color of the plumage of this variety is a rich, glossy black throughout, with the exception of the crest, which is pure white; a narrow band of black feathers at the base of the crest in front is allowable, but the fewer the better. The shanks and toes are blue or dark leaden blue ; comb and wattles are bright red, and ear lobes are white. The Golden and Silver varieties are beautifully marked in plumage. In the Golden the feathers are marked with rich golden bay and laced with black. The feathers of the Silver are silvery white, instead of the golden bay, and are laced w r ith black. The White Polish is pure white throughout the plumage. The feathers of the Buff Laced should be of a rich buff color with a narrow white lacing. There are two distinct subbreeds of Polish, the plain (non- bearded) and the bearded. The latter has a thick, full beard, run- ning back of the eye in a handsome curve, and in color correspond- ing with the balance of the plumage. The eight varieties of Polish are: White-crested Black, Bearded Golden, Bearded Silver, Bearded White, Buff Laced, Nonbearded Golden, Nonbearded Silver, and Nonbearded White. No standard weight is given for Polish; they are of medium size, about that of Leghorns. CrevecoBurs. This variety is not so generally known in this country as the Houdans, but in France, their native country, they are bred extensively for market purposes. They are considered of superior quality for the table, their flesh being white and delicately flavored. They are of gentle disposition and do well in confine- ment. They have weak constitutions and require extra care and attention. As layers they are only fair, and are nonsitters. They are a crested variety, have a leaf comb like the letter V in shape, and in plumage are a rich, glossy black throughout. The standard MAINE STATION POULTRY HOUSES AND YARDS. DEPT. OF AGR. BEEHIVES IN HAWAU ON STANDS TO AVOID ANT ATTACKS. DEPT. OF AGR. POULTRY KEEPING 539 weight of cocks is 8 pounds; hens, 7 pounds; cockerels, 7 pounds; pullets, 6 pounds. La Fleche. These fowls differ in character from the other two varieties of French poultry mentioned. Houdans and Crevecoeurs are more compactly built than La Fleche, the latter being tall and rather gaunt looking, and in style and character denote the prepon- derance of Spanish blood. Their plumage is a rich, glossy black throughout. The comb is peculiar, being V-shaped, of moderate size, branching and antler-like, somewhat like two horns pointing upward. The birds are of extremely delicate constitution and diffi- cult to raise. The flesh is more delicate and juicy than that of any variety except the Game. They are moderate layers of very large, white eggs, but are by no means so good as the Spanish in this respect; as table fowl they are superior, but do not mature early not nearly so early as the Houdans or the Crevecoeurs. The stand- ard weight of cocks is 8^2 pounds; hens, 7 1 / pounds; cockerels, T l /2 pounds; pullets, 6*/2 pounds. GAMES AND GAME BANTAMS. The Game is one of the most interesting breeds of domestic poul- try. Its origin -and history are seemingly linked with all topics concerning poultry and its origin. For a long time Games have -been favorites in this country. They are noted for their vigor and courage, having formerly been bred for fighting. By careful selec- tion in breeding for many generations they have been brought to a high state of perfection. The beauty of an exhibition Game is much praised in this and other countries and the pens are generally filled at the shows. They are sought after and courted by fanciers, and as ornamental fowls they have few equals in the number of their admirers. The practical qualities of the Game have never been demonstrated with accuracy, their tall figures standing in the way of popularity and general usefulness. It should not be under- stood that they are unprofitable to keep, but rather not a fowl for farm purposes. They are usually good layers and excellent table fowl, their meat being fine-grained, tender, and juicy. They are splendid sitters and mothers. Their tall, commanding, and striking figures are decided contrasts to those of other poultry, and afford a diversion to admirers of fine poultry. The varieties are Black- breasted Red, Brown Red, Golden and Silver Duckwing, Red Pyle, White, Black, and Birchen. Bantams. These are purely ornamental poultry and are kept for pleasure exclusively, though some maintain that they are profit- able egg producers. They are sometimes spoken of as "The chil- dren's fowl." The Sebright, Rose-comb and Cochin are among the most popular. Rose-Comb Bantams. These are miniature Hamburgs. There are two varieties, the Black and the White. The cock has a small, round head; a short and slightly curved beak; large prominent bright eyes; rose comb, square in front, fitting firmly on -the lic.-itl and ending in a spike with a slight upward curve; ll.it. closely fit- ting ear lobes; broad, thin, and well-rounded wattles; neck small 540 DOMESTIC ANIMALS, DAIRYING, ETC. at the head, increasing in size as it approaches the shoulders, nicely arched, and carried well back; abundant hackle of good length, sweeping over the shoulders, with long and plentiful saddle feathers; full round breast, carried prominently forward; plump, compact, and symmetrical body; wings large, the points carried low, the secondaries slightly expanded; full expanded tail carried at an angle of 40 from the horizontal, and furnished with long curving sickle^ and coverts ; short thighs, and short, clean, tapering shanks. The head of the hen should be small and neatly rounded ; eyes bright and full; comb of the same character as the cock's, but smaller; flat, smooth ear lobes; small wattles; the neck should be short, tapering, and carried well back; the back short; the breast full and prominent; the -body compact; wings large; tail full and expanded; thighs short, and shanks short and tapering. The plumage of the Rose-comb Black Bantam is lustrous black, and of the White, pure white. The beak of the Black is black, or dark horn color; of the White, white. The ear lobes of both varieties are pure white. The shanks of the Black are dark, leaden blue, or -black; of the White, white. (Agr. Dep. F. B. 51.) (Publications quoted and consulted: F. B. 51; Pa. B. 87; Minn. B. 91 ; Ark. B. 99; Colo. B. 164; Minn. B. 119; Kan. B. 150; N. Dak. B. 78.) INCUBATION. Selection of Laying Hens. The first thing to notice concern- ing the shape is, as to whether or not the hen is rangy or blocky. A blocky hen indicates a meat producer, while the more rangy one indicates the production of eggs. Since the development of the egg, to a large extent, takes place in the region of the body below the broad part of the back, that part of the body should be broader than the fore part. This gives to the body a V-shaped appearance as viewed from the top, the small part of the V lying toward the front. When a hen is in heavy laying condition, her abdomen is lower than the breast line. This gives the body the appearance of being V-shaped as viewed from the side along the top and bottom, lines, with the small part of the V toward the front. This enlarge- ment of the body in the abdominal region makes the back appear somewhat narrower, giving the body a V-shaped appearance from the back downward on the sides as viewed from the rear. Thus, a body V-shaped in three directions indicates large productive powers. A large hen usually lays the larger eggs. This rule may not hold true if she happen to be a heavy producer, for then the ten- dency is to produce smaller eggs. With such fowls as the Leghorns, whose tendency is to lay smaller eggs, the selection should be for large size of body rather than small. A good layer is longer in body, neck and legs than a meat-producing hen. She stands up well and has a well spread tail. Observation has shown that a pinch- tailed Leghorn is not generally as good a layer as is a fan-tailed one. The character of the head furnishings is an indication of the hen's laying condition. When a hen is in full laying her comb is POULTRY KEEPING 541 full and bright red. Some Plymouth Rocks when laying heavily will have lopped combs, and therefore become disqualified as show birds. When hens are molting they lose all their color in face and comb and the size of their combs become very small, but as soon as laying commences, the combs enlarge and the color returns. Many instances have been noted with Leghorns and Minorcas which indi- cate that the birds with the largest and reddest combs are in heavy- laying condition. Exceptions to this rule sometimes occur, but they are rare. A laying hen is nearly always a singing hen. She works and hunts for food all day, is the first off of the roost and the last to go to roost. She is nervous and very active, keeping herself up to the greatest passible pitch. The pelvic bone test is one which some have claimed as final and conclusive. Immediately below the tail at the end of side pieces of the back are two somewhat bony protuberances. These are called the pelvic or "lay" bones, and are just above the vent through which the eggs must pass. When an egg is laid, these bones must be forced apart to allow its free passage. When these bones are soft and pliable, and spread sufficient to allow three fingers to be placed between them, it is an indication that the hen is laying. If they are hard and bony, and close together, the hen would not be considered as laying at that time. Experience has shown that this method will usually tell whether or not a hen is laying at the time the examination was made. To sum up, an ideal laying hen should conform as nearly as possible to the following: (1) She must be healthy; (2) comb, wattles and face, red in color; (3) eye bright and lustrous; (4) neck not .', except, of course, that each has its own period of incubation. Period of Incubation. Name of fowl. Days. Name of fowl. Days. 21 30 25 24 28 80 28 Turkey 28 25 544 DOMESTIC ANIMALS, DAIRYING, ETC. In spite of all notions to the contrary, the process of hatching can be suspended and held in check for several days without total destruction of the germ. This fact is of practical importance, and, if remembered, may save the breeder a good hatch when, because of some accident or oversight, a lot of eggs has been left without out- side heat and allowed to cool. Such eggs, if placed at a proper temperature, may hatch fairly well, provided this temperature is maintained a few days longer than the usual period of incubation. The writer has known hatching to be delayed to the twenty-second, in one instance, until the twenty-fourth day by accidents to his incubators. Hence, where accidents of this kind occur it is wise to keep the eggs warm a day or two overtime, with the expectation that, while incubation may be delayed, the germ is still alive and will develop. This brings to mind one of the greatest advantages of the incubator to the farmer or the farmer's wife to people who are accustomed to rely upon the mother hen and prefer to raise chickens by natural incubation. Many times the hen will get sick, will die, or without any apparent excuse will leave the nest, and unless another hen is ready to take her place the eggs will spoil. A small incubator in the house will be found useful upon such occasions. The eggs can be removed from the nest and placed in the warm incubator and hatched or kept there until another hen is ready to take up the work. For this purpose alone an incubator is worth its price to any farmer who raises poultry. Many times has the writer saved valuable clutches of eggs by the use of one of these machines when it was found some perverse hen had deliber- ately abandoned her nest. Natural Incubation. After selecting the eggs they must either ibe entrusted to hens or an incubator; this must be decided according to circumstances. If it is not the intention to keep many hens or raise early chicks, by using one of the heavier breeds of fowls, one can get along very well without an incubator. Some poultry raisers claim they can care for a machine with less trouble and expense than the necessary hens, no matter what breed they may keep. One thing is certain, however, the machine will bring off chicks at any season of the year that may be desired, while one must wait until the hens get ready to sit. If Leghorns or other nonsitting breeds are kept, an incubator is an almost indispensable part of the equip- ment. Some individuals of nonsitting breeds may make good mothers, but so many of them cease sitting after the first few days that they are very unsatisfactory, as a rule. If individuals of other breeds as Cochins, Wyandottes, etc., seem inclined to sit and would make good mothers, they may be used, providing chickens are wanted at that time. It is claimed that the hen's time is too valu- able to waste in sitting, but if she is properly cared for while broody, it will serve as a resting period, and she will probably lay about as many eggs in the year as she would if confined to the coop for a few days to break up the desire to incubate. After a hen hag hatched and reared a brood of chicks she will usually begin laying again and apparently seem to try to make up for lost time. It is a POULTRY KEEPING 545 mistake to kill a hen just because she raised a brood of nice chicks. She probably will be one of the best layers the next winter. Some hens, however, seem to be chronic sitters; these are of little value for anything but hatching chicks and might as well be killed if they are not wanted for that purpose. Such hens develop but few eggs at a time and can never make a good year's record. Breeds Adapted to Incubation. The question of the relative merits of the different breeds as sitters often arises. There is much difference of opinion on this subject and also a great difference in the individual hens themselves. In general, however, the Cochins and Wyandottes make very good sitters. Some may prefer Plym- outh Rocks, Rhode Island Reds, etc., but we believe that no other breeds are as nicely feathered for incubation purposes as the Wyan- dottes and Cochins. It is generally conceded that Leghorns, Minor- cas and others of the special egg producing breeds do not make good mother hens. Some of these make good sitters, but far too many will prove worthless for the purpose. The Nest. In the first place one should select a good location for the sitting hen. When they are located where others can lay in with them, trouble is sure to occur, as they generally quarrel over the nest, thus breaking and soiling the eggs. Therefore, it is essential to secure a place where there cannot be any possibility of disturbance. The nest may be made of soft hay sprinkled with sulphur and powdered tobacco stems, or some other good insect powder to prevent the ravages of lice. After nightfall select those hens that have been sitting steadily for a few days and remove them to the prepared nests. If they do not settle down contentedly at first do not entrust them with eggs, until safe to do so. Some hens prove too cranky to be profitable even though they do not cease incubation entirely, or spoil the nest of eggs; they should be taken off the nest and fed once or twice to test their dispositions. If they go back on the nest of their own accord it is safe to entrust them with eggs. If they do not go back at the end of half an hour, catch and place them gently on the nest. Some hens learn to go back quickly and take their own nest, while others are very slow. A very serviceable nest is made by cutting a door in the side of a barrel and hinging it fast with light hinges or straps. Place old newspapers on the bottom and then make a nice firm nest of soft hay. Be sure and make the nest so large that the eggs will not pile up on each other \mder the hen, but not large enough to allow them to roll away from her body. The top of the barrel can then 'be covered Avith boards, old sacks or anything of the kind con- venient. The top hoop may be removed and a sack fastened down the same as in shipping potatoes to market in barrels. Small holes can be bored in the side to admit plenty of air. Good nests may be made from boxes about 15"xl5"xlo". Remove one side with the exception of a 6" piece at one edge which serves as the bottom of the nest on the front side and holds the nest material in place. Hinge the part removed to one edge, thus making a door that can be quickly opened or closed. Nests of this style may be made in. 546 DOMESTIC ANIMALS, DAIRYING, ETC. sections of five or six and placed one above the other, when one has to be economical of space. A small room may be lined around next to the wall with such nests and the blank space in the center left for feed and water dishes. Food and Management of Sitting Hens. If the hen is well disposed and can be left to come off the nest at will, little or no trouble is involved. If for any reason the hen has to be confined to the nest she should be taken off regularly once a day and allowed to eat and drink. Good sound corn is about the best food for sitting hens, although they may be fed such grains as wheat, oats, barley, or buckwheat. Rye is not recommended, as the hens do not like it and it does not prove to be a very healthful food for them. Grit, in the form of coarse sand or broken stone, should be kept convenient. Water must also be supplied. If the weather is hot, keep water inside the nest so that the hen can drink whenever she desires. Otherwise she becomes very thirsty and drinks to much at once, often resulting in bowel trouble and diarrhoea. Some take the hens off the nest in the morning and allow them a little run in the wet grass. In that way the hen's feathers become moistened slightly, thus adding a little moisture to the eggs each day. If the nest is in an extremely dry place moisture should be added in some way. There are several ways of keeping the eggs sufficiently moist. The practice of allowing the hens to run in the wet grass each morning is one of the best. Another is to place damp earth and sods under the eggs. A third method, and one probably most largely used, is to sprinkle or dip the eggs in water heated to 103 F. This is done at least twice, once about the 14th and again the 18th day of the hatch. If the eggs are on the ground or in a damp place no mois- ture should be added. When removing the hens from the nest, handle them carefully. Many good hens are spoiled by careless or rough handling. If the hen has to be caught in order to put her back on the nest do not place her directly on the eggs but on the edge of the nest, thus allowing her to cover them in her own cau- tious way. Precautions Against Lice and Mites. Sitting hens must be kept free from lice and mites. In order to rid them of these pests take each one gently by the legs and with the head hanging down- ward, dust the feathers well with some good insect powder and replace on the nest. It would be best to repeat this about the 10th and 18th days of the hatch. Attention to lice at this period may save many chicks later in the season. A hen cannot be a satis- factory sitter if she is infested with lice. Very often those that are well fitted by nature for good mothers are driven from the nest by insect pests. The lice running around over the body and gnawing at the skin and feathers cause intense itching and in trying to get away from these pests the hen forgets all about her desire to sit and deserts the nest. If strongly inclined to sit she may desert one nest and move to another, trying to escape her enemies. If a hen shows any sign of uneasiness be careful to inspect her body for lice and also the cracks and crevices about the nest for mites. If either is POULTRY KEEPING 547 found, thoroughly dust her once more, sponge off the eggs with a damp cloth and move to a clean place. Burn everything about the nest and either thoroughly disinfect or burn it. Wage constant warfare against lice and mites during the period of incubation and the result will be a clean lot of chicks. It has been said that three lice will break up a sitting hen or kill a brood of chicks. This probably is not always true, but it is certain that a hen that starts to incubate with three lice on her body will probably have enough by the end of the hatch, unless properly cared for, to infest all the chicks and render the whole brood either very unsatisfactory, or worthless. An ounce of lice powder at the beginning of the hatch is worth a good many pounds after the chicks are a few weeks old. (Mich. B. 245.) ARTIFICIAL INCUBATION. THE INCUBATOR. The machine used in artificial incubation or hatching is called an Incubator. There are so many different kinds of machines used, that a description of them all is quite impossible in an article of this kind. At the present time they are all constructed upon similar principles and along the same lines, and nearly all of them derive their heat from lamps that burn kerosene. In some of the hot-air machines the heat is applied through the medium of heated air, while in others the hot-water machines the eggs are supplied with heat from pipes filled with hot water. Hot-Air and Hot-Water Incubators. In the hot-air incubator a common kerosene lamp is used to furnish the current of hot air which passes over and around the egg chamber and which keeps the eggs at the proper temperature for hatching. Like the hot- water machine, it is supplied with a regulator, which, acting upon a valve or damper, regulates the admission of heat to the egg chamber. In this incubator water is heated and forced through metal lubes over the eggs, thus distributing heat throughout the egg chamber. It is supplied with a regulator which works upon the same principle as does that of the hot-air machine. PARTS OF AN INCUBATOR. The selection of the lamp is so important that all poultry men should be warned against buying a poor lamp. Manufacturers, as well as purchasers, should remember that while the lamp is half the incubator the burner is half the lamp. The lamp is the primary source of heat in both hot-air and hot-water machines. Many kinds of lamps have been tried and many patents have been granted upon lamps and parts thereof for incubator use, but the tendency is to discard all that are in any manner complicated and to return to the plain, old-fashioned burner and chimney. The oil reservoir should be made of metal, either copper or galvanized iron, as those made of glass are too liable to break and are too heavy to handle conveniently. This reservoir should have a flat bottom and a flat top. It should have a capacity exceeding the twenty-four hours' 548 DOMESTIC ANIMALS, DAIRYING, ETC. demand of the machine. This is very important, for sometimes it happens that the operator is detained for some reason and can not reach his machine at the proper hour, and in such a case the lamp must contain oil enough for a few hours overtime. This reservoir should be plain and smooth outside and inside. It should be well made and well finished, having no rough projections or slivers of metal or solder to catch the hands, the clothing, or the cleaning cloths. Attached to this reservoir, or body of the lamp, should be a good, strong handle large enough for the hand of the operator. Better no handle at all than one that is slender, sharp-edged, flim- sily attached, or too small for the use of more than one or two fingers. Select a lamp with a handle that is broad, strong, smooth, and firmly attached. The lamp is for use, and it should be built to stand handling. It must be strong in order that it may be con- venient. Burner. The burner is the very important part of the incu- bator lamp. It should be made with the greatest regard to stability and accuracy. The flat>wick tube is the most common, and, when the burner is properly constructed, it answers every purpose. But many manufacturers are careless about the quality of their burners, and are sending out flimsy and poorly made articles that are diffi- cult to manipulate and are imperfect in action. A little careless- ness in selecting a burner has led to the condemnation of many a good incubator. The burner should be made of good material, such as brass or copper, and never of poor material, such as iron or plated tin. The wheel or lever used in raising and lowering the wick must be stout, large enough for its purpose, easy to find, and must turn exactly and easily. Never waste any time upon a burner that does not work promptly and readily, so far as the wick is con- cerned. If it turns hard, or does not turn to the thirty-second of an inch, it is useless and will cause trouble. The tube holding the wick should be strongly made of material that will not break, spring, or bend, and it should be so adjusted to the size of the wicks furnished with the outfit that the wick can pass up and down freely without pinching or binding. On the other hand, it should not be so large or loose as to allow the escape of gas along the side of the wick. In one case the pinching of the wick will interfere with capillary attraction, and in the other the looseness of the wick will cause an uncertain or unsteady flame. The wick tube should be perfectly true and smooth across the top. A rough edge with notches, depressions, or projections of metal or brazing will make it difficult to trim the wick; and a poorly trimmed wick gives off an uncertain degree of heat. Alongside the wick should be a small tube for the escape of surplus gas or vapors from the reservoir, but this tube must never project above or even to the top of the wick tube, for if it does it will interfere with trim- ming and be likely to fill with cinder or soot. The space under the wick screen should -be wide open. The hinge to the cap should be very strong and work freely to the fullest extent. The snap, or catch, to the cap should have proper strength; POULTRY KEEPING 549 and tension, and should fasten the wick cap firmly to the burner. Every detail should be examined before the burner is sold. The following questions should be settled before the lamp is packed for shipment: Does it leak? Does it fit? Does the elevator turn easily and accurately? Is the wick tube perfect? Is the top of the wick tube level and smooth? Can the wick be trimmed nicely? Has the burner a chimney that has been made to fit? Does the screw or snap that fastens the chimney work easily and properly? Does the thread of the burner fit the thread in the socket of the lamp? This last question may seem unnecessary, but the writer has purchased incubators having burners which could not be turned into the lamp. All these little matters count and have much to do with the success or failure of the hatch. While some of the imper- fections of a lamp are visible, others can not be discovered until an attempt is made to use the lamp in heating an incubator, or to clean, trim, and fill it. Chimney. The chimneys of different makes of incubators vary greatly in form. Few are well made, whatever their shape. The base or lower circumference should be smooth and level. The spiral or bevel of conical chimneys should be so cut that the chim- ney stands plumb when on the lamp. The top circumference should be smooth and without slivers upon the edge to cut the hands or catch the cloth in cleaning. The mica front should be large enough to show the full width and height of the flame, and this mica should be fastened neatly and securely. Allowance should be made for contraction and expansion. Referring again to the forms of chimneys, the most satisfaction is derived from those of a cylindrical outline. They are preferred to those of a conical out- line, although those of the inverted-cone form are convenient to handle and, because of their wide, open tops and short canal, very easy to clean. Nearly every incubator catalogue describes its lamp in glowing terms, but a large number of the lamps sold are useless and dis- credit their manufacturers. It would cost but little more to make them better, and, if they were properly inspected and tested before shipment, it would hardly be necessary to devote so much space to this subject. Wick. Nothing has been found yet that takes the place of the plain cotton wick. Other materials have been tried in the so-called "wickless machines," but while wicks of these new materials are more durable than cotton, they need about the same attention in cleaning if not in trimming. The wick should be of medium weave and some firmness and be made to fit the burner in which it is to be used. Body of the Incubator. The body of an incubator should be mounted upon good strong legs and at a reasonable height from the floor. If too high or too low, the machine is very inconvenient to operate. The writer prefers that the top of the incubator be about 36 inches from the floor. Manufacturers of incubators should remember that these machines are moved about and are 550 DOMESTIC ANIMALS, DAIRYING, ETC. sometimes required to carry weight, and they should furnish them with legs for utility rather than for ornament. The body of an incubator should be made of nonshrinkable material and should be air-tight and have well-fitted joints. None but the very best of workmen should be allowed to work upon an incubator. More de- pends upon a good carpenter than upon a good painter, and the value of any incubator lies, not in how well does it look, but in how well it is made. The walls of the body should be three in number, making two air spaces, and each of these three walls should be well constructed and with good tight joints. If each of these walls is not tightly made, then the manufacturer should not boast of his air spaces, for an open space can not be called an air space. The outside surface of the body should be of smooth finish. Seams, flut- ing, beadwork, and unnecessary ornamentation should be avoided. It is easy to see how vermin can infest an incubator that is made of beaded matching. The top of an incubator should be smooth and unincumbered. It is useful as a work table in testing, cooling, or turning eggs, and it should be a clear, free surface. It is quite an inconvenience to have part of the regulator upon the top of the machine. A good feature of some incubators is that they have the regulator either at the end of the machine or under cover, if at the top of the table. The inside of an incubator, or the space known as the egg chamber, should be well finished. No bad joints and no slivers or other evidences of bad workmanship are allowable. The trays should be smooth, well made, and should slide easily upon the tracks. If the trays stick or hang when being drawn out or pushed in, the machine is defective and should not be accepted by the pur- chaser. Such a defect will not cause loss of time and patience merely, but it may cause the loss of a trayful of eggs. The space called the "egg chamber" should be deep enough from above downward, or, as carpenters express it, "high enough between joints," that the trays and eggs have plenty of space, and so that when necessary the hand or thermometer can be passed back over the eggs. This is impor- tant. There should be at least S 1 /^ inches space between the top of the eggs and the heating tank. Convenience and evenness of tem- perature both demand that the top of the eggs should not be too near the source of heat. Besides this point, the air around the eggs will be better because of this space. Nursery. The nursery, or chick, space below the trays should be ample. From the bottom of the tray to the floor of the nursery should be a space of nearly 4 inches. This space will give the chicks in the nursery a chance to stand erect and also allow the trays to be moved in or out without danger to the youngsters below. One of our best incubators is faulty in this respect, and, while it is a very successful hatcher, it decapitates or otherwise injures several of the chicks every time the tray is drawn out or replaced. Better no space below than a space that is too limited. The removable nursery is one of the most valuable improvements that has been made in incubator attachments for many years, and all who have POULTRY KEEPING 551 used it agree that no machine is complete without it. It gives an abundance of room for the chicks as they drop from the tray above and it permits the removal of the chicks from the nursery without disturbing any unhatched eggs that may be left in the tray. The bottom of the nursery is covered with a canvas carpet so that the chicks will not be lamed or injured by slipping. The floor of the removable nursery is usually attached to the front of the egg cham- ber at right angles and in such a way that the w r hole nursery can be drawn out as easily as one usually pulls out the drawer of his desk. Such an arrangement makes cleaning and inspection easy, besides giving one access to the chicks in cases of partial or delayed hatches. It also makes it possible to use the nursery to its greatest advantage. The first twenty-four hours are very impor- tant ones in the life of a chick, and a properly constructed remov- able nursery is the best place that has been found for its safety and welfare. The tray should be strongly made of well-dressed material well put together. It should not spring nor sag when loaded with eggs. It should be made of soft wood, and the nails and screws used should be long enough to hold the parts firmly together. A flimsy or poorly made trav is to be avoided. It means loss of time and loss of eggs by breaking. The writer once bought an incubator the trays of which were put together with carpet tacks and screws too short to hold the different parts in position. The attempt to use was accompanied by the loss of nearly a trayful of eggs, and he hopes that his readers will profit by his experience and examine all trays carefully before setting up a new incubator. Many trays are partitioned by wire into small spaces, each capable of holding five or six eggs. As a rule such trays are unsatisfactory. A simple division by three-cornered wooden strips into transverse rows or ranks is highly satisfactory, and it is preferable to any other form of tray. The edged strips of wood stiffen the tray without encum- bering it, they take up no egg room, and do not interfere with the process of turning. The tray must not be allowed to slide all the way back against tho wall of the egg chamber. A space of at least 2 Ms inches should be allowed between the tray and the back wall of the machine. A block should be fastened to the top of the trark at its farther end to prevent the operator from forcing the tray back and closing up this space. This is important, as the chicks are apt to be pinched, crippled, or killed if the tray can be pushed too far back. A similar space should be allowed between the front edge of the egg tray and the door. The chick needs this space when it drops from the tray to the nursery. Returning to our consideration of the body of the incubator, much can bo said about the arrangement of the door, or hinged window, in front. Select a machine with a double-glass door. The two layers of glass must have 1 inch of space between them so that they can be cleaned. Many manufacturers are careless about the fit of the door. It should open and close easily, but snugly. If it docs not open and close easily, one is liable to jar the eggs and dis- 552 DOMESTIC ANIMALS, DAIRYING, ETC. turb the level of the incubator. The sash of the door should be heavy enough for strength, but not so wide as to interfere with the view of the eggs or the thermometer. The glass in the door should be wide enough in the perpendicular to afford the operator a full view of the egg chamber without stooping or kneeling. It is not a view of the wooden edge of the tray that the operator wants ; it ig a view of the thermometer, the eggs, or the chicks. The glass should be located so as to permit this view, but if the glass is too narrow or not properly placed, or if the margin of the sash is too wide, the window will be of little value to the operator. This matter is worthy the attention of the manufacturer, for there is quite a prejudice against a machine the temperature of which can not be watched without the removal of the thermometer from it. Many manufacturers send machines with doors imperfectly fitted, the glass of which is covered with paint, putty, or varnish, which can not be removed, and it is impossible to read the thermometer through such doors. Once more purchasers are warned to avoid the machine that will not permit them to read the thermometer without opening the door. Manufacturers should bear in mind that the light should strike the egg tray from above instead of from below. Thermometer. It is really surprising that up to the present time so little improvement has been made in thermometers. An in- strument of this kind should be plainly legible and it should be con- venient to handle. The usual practice of glazing the back of the tube with white porcelain makes the reading of the temperature very difficult. There seems to be no good reason for this. This white background makes a grayish shade, the color of the mercurial col- umn, and unless the light is very good and strikes the figures from the right direction it is almost impossible to ascertain the tempera- ture without removing the thermometer from the machine. This is bad, as the column is likely to contract or expand while being con- veyed to the light. The column should be large enough to be seen from a distance of at least 4 feet, and the markings and figures should be few and very plain. Many of the frames in which the glass is set are cumbersome, take up too much room, obscure the view, have sharp corners or long legs to catch upon the tray or sleeve, and yet are too unstable to stand alone or stay where placed. A thermometer with a red or green background, a large mercurial column, a few plain marks and figures, and mounted upon a con- venient yet substantial frame will be a boon to poultry men. Im- provements will be made, and it is well for purchasers to ask for the latest and the best. In connection with thermometers it is well to state that the so-called "magnifying lens" is a failure and much more difficult to read than the plain round tube unless it is held in exactly a certain position with reference to the light. The thermometer tube need not be over 4 inches long, and the less metal it has attached to it the better. In regard to the accuracy of the thermometer, almost any physician will test it for you by the side of his clinical ther- mometer, which has about the same scale and range. POULTRY KEEPING 553 Regulator. Many are the methods that have been tried for auto- matically regulating the temperature of the egg chamber. So far all of them depend upon the principle of contraction and expansion. The demand is for some simple device that will allow the tempera- ture to rise so high and no higher, and that will maintain the tem- perature at that degree regardless of the weather or external influ- ences. Most regulators act upon a damper over the top of the lamp, and, by opening or closing the same, regulate the amount of heat that passes into the incubator. The expanding horseshoe-shaped bar, the elliptical spring bar, and the metallic disk are the most com- mon regulator powers of the present. Perhaps in the course of time some one will make a regulator from a coil or spiral spring that, reaching clear across the top of the egg chamber, will very accu- rately control the admission of heat. At the present time the best regulator is the double disk, whether filled with air or with liquid. Excellent results are obtained by using the single disk, but the double disk is still better. The disk, in order to be useful, should be large enough to have some force and to note the slightest variation in temperature. A disk of only 1 or 2 inches diameter has hardly power enough, nor is it delicate enough for quick and perfect action. The writer prefers the double disk and that with a diameter of 4 or 5 inches. Such disks will be very susceptible to changes in temperature and will be strong enough to act upon the damper. Of course there are machines that use the horseshoe or buggy spring expanding bar, which work fairly well; but as fast as possible the writer has these attachments removed and the disk substituted for them. Many purchasers have no patience with a regulator that will not work from the start, and, owing to the fact that first impressions are prejudicial, it is safer to ship articles that will go together readily and work from the start. There is something in the location of the regulator. The disk should be placed near the center and well toward the back of the egg chamber. It should be placed so high that it is not in the way of the eggs or the tray. Another reason for placing the disk high is that, because the chicks as they hatch will tumble around more or less before drop- ping into the nursery { one or more of them may hit the regulator, thus disturbing its adjustment and bringing disaster to the remain- der of the hatch. The regulator should be strongly fixed in its bearings, so that an accidental touch will not put it out of order. Most machines have the long bar or damper lever upon the top of the body. This is a serious fault. The top of the machine is the most convenient table for cooling, testing, or turning eggs, and it should be free and clean for that use. Besides this, the lever, when located outside and upon the top of the machine, is easily affected by a current of air and also liable to become bent or dislocated. A child, a stray fowl, a mouse, a cat, or a slight breeze will be likely to interfere with the action of the regulator if it is exposed upon the top of the incubator. Some makes of incubators have the damper lever at the end of the case ; others have it above the egg chamber, where it is covered and protected. The adjustment of the regulator should 554 DOMESTIC ANIMALS, DAIRYING, ETC. be perfect and accurate. Threads should be true and cut to fit the bur; rods should be of proper length and, if weights are used, they should be so arranged that they can be fixed in the proper position. The writer sees no use for the weight, nor does he favor a very long lever. By principle of direct action the damper is its own weight, and with the disk regulator no other weight seems necessary. In some machines the regulator is cumbersome, takes too much space in the egg chamber, and interferes with the handling of the trays; in others it is loosely set and constantly getting out of balance and dropping down upon the eggs or chicks. The disk regulator is less in the way and less liable to fall down than any other that the writer has used. Few machines are perfect in all their parts, but when one is found that suits in most details it is kept and remodeled to suit every- day requirements. Most manufacturers make a mistake in their fail- ure to test every machine as a whole before sending it out. Made of the same materials, from the same patterns, by the same machinery and the same workmen, all mechanical products are liable to vary somewhat in their action. Each incubator has an individuality, and it requires a thorough test at the factory. The purchaser can feel assured that plenty of incubators are now made by firms that test them in the shops and whose regulators can be relied upon as surely as can a watch or clock. So much has been written upon the subject of ventilation that the reader need not expect the writer to add much that is new to the literature upon this subject. One thing is sure, namely, that in nature the mother hen is compelled to allow fresh air access to her eggs. But she frequently makes her nest in places where the air is far from good, and yet she gives us a fair hatch regardless of atmospheric surroundings. It is not likely that fre- quent currents of fresh air over the eggs are necessary to successful incubation, nor does it seem certain that air in motion, even if it has been warmed, is inclined to promote hatching. If the machine is opened twice a day and the eggs taken out to be cooled or turned, they get about all the ventilation they really need. But accidents may happen ; there may be leaking of steam or smoke, or a breaking of an overlooked decomposing egg, and, for fear that such an acci- dent may happen between the hours of inspection, it is well to have a system of moderate ventilation in operation. One of the best methods is a circular hole in the bottom of the machine, this hole being about 1% inches in diameter and covered with fine wire screen- ing on the inside and provided with a slide of tin or other metal upon the bottom or outside. This slide should be open when the machine is first heated. It should work easily and be slightly open all the time, and should be altered according to the weather. One thing often overlooked is the quality of the air in the room occu- pied by the incubator. The room should be clean, free from dust and mold, moderately dry, and contain air of absolute purity. This has more to do with the condition of the air in the egg chamber than many are inclined to admit, and is, in the writer's opinion, the major part of ventilation. PAIR OF BLACK LANGSHANS. DEPT. OF AGR. PEN OF LIGHT BRAHMAS. DEPT. OF AGR. POULTRY KEEPING 557 Moisture. This is another topic that has been freely discussed in the poultry journals. A great many different plans have been advocated for keeping the air in the egg chamber properly charged with water. The simple plan of placing in the bottom of the egg chamber a saucer containing a small wet sponge is as good as any. There does not appear to be any better method than this of rendering the air around the eggs humid. The amount of moisture required is so little and varies so much under different circumstances that the ingenuity and judgment of most operators can be relied upon to provide moisture as needed. If the incubator is operated in a cellar or basement, the air will probably be damp enough without the further introduction of moisture into the egg chamber. Summary of the Defects of Incubators. Poor material, poor workmanship, and poor arrangement are all to be condemned. Ma- chines of poor construction, or constructed out of refuse material from other lines of manufacture, will no longer satisfy the up-to-date poultry man. Incubators made out of the odds and ends of other goods, or with coarse, dull tools, are no longer in demand. Ma- chines made by men who know nothing about the poultry business, or who take no interest in that business and lack experience in oper- ating incubators, are likely to prejudice the public against the use of all incubators. The inspector should be competent. If he does not know how to test every part of a machine and exercise thoroughness in his work, one can hardly expect the output of his factory to give satisfaction. Summary of the Good Points of an Incubator. Good material, good workmanship, and adaptability of parts, or such arrangement of the various parts of the machine as shall make it efficient, prac- tical, and convenient, are desirable. Two dead-air spaces, good strong legs, plenty of space in the egg chamber, good windows prop- erly placed, a good thermometer located where it can be read with- out disturbing the machine are all necessary and among the strong points of a good incubator. In addition to these, there are a good lamp one with a good burner and good chimney a good regula- tor, a good strong tray properly placed, and a good roomy removable nursery 7 tray below. All chips and shavings should be removed when the machine is inspected or before shipment. Makers of incubators must not lose sight of the fact that the construction of an incubator is a living problem. It has to do with the promotion of life and is not a mere matter of iron and wood. This business requires more skill and better workmanship than does the construction of thrashing ma- chines and fanning mills. This machine operates upon living prod- ucts and it must bring forth living creatures, else it is useless. Purchasers should be cautioned against buying an incubator of large size for experimental or farm work. The so-called 100-egg size is large enough for the beginner. One tray and one egg cham- ber are enough. How to Operate an Incubator. The agricultural papers and poultry journals are full of information upon the management of incubators, and many books have been published to furnish instruc- 558 DOMESTIC ANIMALS, DAIRYING, ETC. tion upon this subject; but a great many farmers do not see these journals or the books. Once let it be known that the operation of an incubator is easy and simple, and once the almost superstitious dread that some people have of taking up something new is overcome, there will be little trouble in teaching the uses and management of the common hatching machine. The successful operation of an incubator depends upon accuracy and exactness. Not only should the work be done properly, but it must be done "on time." The woman who fills her lamps at a cer- tain hour of the day, and the man who winds his watch or clock at the same hour every evening, need not fear the task of running an incubator. But unless one is willing to study, to read, and to prac- tice, and is willing to attend to the few wants of his machine at the right time, making a specialty of promptness and punctuality, it will be unreasonable to look for chickens from the best incubator under his management. The person who runs an incubator must be clean and careful ; he must be at home with his machine at the same hour every morn- ing and the same hour every evening ; he must learn the peculiarities of ms incubator and carefully follow instructions., For such a per- son the operation of the ordinary hatching machine will be simple and easy enough. With each shipment the manufacturer sends out a book or card of directions. Read this carefully before attempting to set up the machine. Put the parts together in exact accordance with these directions. Count the parts and inspect them carefully; then put them together ; see that the machine stands level ; that the doors open and shut easily; that the regulator is in working order. About this time comes the question, Where shall we set this ma- chine? This matter of location is very important. It has much to do with success in hatching. First, it must have some permanency. It must be placed where it will not be disturbed, away from jars and vibrations, out of all drafts or where the breeze can not strike it and where the opening and closing of doors and windows will not affect it. The room occupied must be large enough and have a level floor. One needs room to work about an incubator. It should have a clear space around it, especially in front, and at the lamp end of the ma- chine there should be plenty of room. The apartment should not be damp or dark. A clean, dry, light cellar is excellent for this purpose. Any dry, clean room will do, but, as before stated, drafts or currents of air over or around the machine are very detrimental. There should be no stove or other source of artificial heat in the room occupied by an incubator. The entire room should be clean and free from dust. Some of these items have been mentioned in the preceding lines, but their importance warrants a repetition here. Common sense and circumstances will dictate the location of the machine, but the above suggestions will be found worth considering. One ^thing is certain, if the incubator is not afforded proper quar- ters it can hardly be expected to give good results. The room de- cided upon, the machine set up, its parts adjusted, and its level taken, it is now in order to clean, trim, and fill the lamp. The wick POULTRY KEEPING 559 should be dry-trimmed with a pair of sharp shears before it is inserted in the burner. Then after being passed up and down the tube a few times it should be trimmed again and its corners slightly nicked or rounded. Now is the time to prove whether the burner is in perfect order and that the wick works freely and easily. The wiok should now be moistened in kerosene and drawn back to its proper position for lighting. All dust and moisture should be wiped from the burner. Especially important is it that the start be made with a clean tube and sieve. The lamp should be filled within one-fourth of an inch of the top, arid then after the burner is at- tached to the lamp the whole should be cleaned with a dry, clean cloth. The chimney also should be carefully cleaned with a dry cloth. It should be free from dirt, dust, or grease. If the chimney is not kept perfectly clean the lamp will smoke, and a smoky lamp means a poor hatch. Dry cleaning cloths should be set apart for this purpose. All these details looked after, the lamp can be lighted and placed in position if the machine is a hot-air machine ; but if it is a hot-water machine the lamp must not be lighted until the tank is filled with water in accordance with the instructions that accom- pany the machine. Study the structure of your lamp and exercise great care in putting it together as well as cleaning and filling it the first time. Familiarity gained and habits formed will be of value to the operator in the future management. Accuracy and thoroughness are important. Use nothing but the best grade of oil. No incubator will do good work with poor kerosene. The best will cost less in the end. It will give more heat, less smoke, and make less dirt and less work. If oil is bought by the barrel do not accept it in an old barrel. It may be short in measure or it may contain water and rubbish in the bottom of the barrel. With the incubator in its place, all parts adjusted, the tank, if any, filled with water, and the lamp lighted and wick turned up so as to give a clear, white flame just high enough, but not too high we are ready to balance the machine or to establish the ratio between the thermometer, the regulator, and the lamp. Adjusting the Incubator. The incubator should be run with the trays empty for at least twenty-four hours before the eggs are placed in the egg chamber. This gives it a chance to get well warmed throughout, and it also gives the operator time and practice in adjust- ing the regulator so that it will keep the egg chamber at the proper temperature. This temperature should be exactly 100 F. for several hours before the eggs are put into the egg chamber. All this time the lamp should be kept in order and made to burn with a clear, white flame, so that it does not smolce and so that it can be turned a little either up or down without smoking. This is essential. The blaze must be good from the start and the regulator balanced to a good flame, and this must be done before the eggs go into the egg chamber. It is easier and safer to experiment with the lamp and the regulator when the egg chamber is empty than when the machine is full of eggs. A few hours spent in adjustment will be time saved 560 DOMESTIC ANIMALS, DAIRYING, ETC. later on. Nearly every machine is accompanied by a card of direc- tions for operating it, which should be studied and followed. It is not the province of this article to explain the individual peculiarities of the regulators of different makes, but rather to show what results are to be sought. The damper over the top of the chim- ney should be kept free from the chimney, say about one-eighth of an inch of space being left between or around the margin of the damper. If you are using a hot-water machine, allowance must be made accordingly and leakage looked for before setting the eggs. The general principle, so far as the regulator and the lamp are con- cerned, is the same in all machines. At the end of the experimental twenty-four hours, again fill the lamp and trim the wick, and with the machine running steadily at 100 F. the egg tray, loaded accord- ing to directions given below, can be placed in the egg chamber. The eggs should be clean and dry and should have been prepared and balanced as suggested in the early part of this article. Filling the Trays. When filling the trays put in eggs enough to fill completely every space, with every egg lying upon it side. Do not stand the eggs upon end nor pile them one upon another. The filled tray being now placed in the egg chamber, close the door, being careful not to slam it and so disturb the regulator or the lamp. The machine can now be left by itself an hour. At the end of that time visit it, and if the thermometer still stands at 100 leave it again for another hour. At the third visit it may be necessary to turn the regulator thumbscrew, or the wick may need raising or low- ering a little. It will be a matter of judgment at first whether you change the wick or the regulator. In most cases, if the blaze is about right, it is best to leave it so and to more completely balance the ma- chine by a slight manipulation of the regulator, for if this is nicely done upon the start the temperature can be controlled during the entire period of incubation by slightly turning the wick. Note the repetition : Have your flame to suit you at the outset, leave it so ; -and adjust the regulator accordingly. It takes twenty-four hours properly to test the lamp and adjust the regulator. During this time the eggs are gradually warming up, and the operator is supposed to be watching the machine and study- ing his instruction book. If a hot-water machine is used, some allow- ance must be made for the time occupied in warming the tank, unless it is filled with water already warmed. Let the operator bear in mind that each incubator has its own peculiarities and must be learned and managed accordingly. Another thing to note is that the manufacturer of an incubator is likely to understand its manage- ment and the operator is quite safe in following the printed direc- tions for setting up and starting the machine ; but, while the manu- facturer understands the mechanical details of the construction and adjustment of his goods, his notions about the future management of his or any other machine may not be at all like, nor at all superior to, those of some other manufacturer. This is illustrated in natural incubation. One farmer sets all his hens in straw nests, another sets them all in chaff nests, another sets them all upon the ground and in POULTRY KEEPING 561 earth nests, but the results are about the same. Methods may seem to differ and yet results may be very much alike. The hatch can now be said to be begun. The incubator has been set up, adjusted, and tested under heat for twenty-four hours. It has been found capable of maintaining an even temperature, and the eggs are already warm in the egg chamber. The thermometer has been placed at a level with the top of an egg near the center of the tray. At first the w r ork will require a few visits at intervals of not more than one hour apart, but after the third of these, if everything seems all right, the machine can be left alone for three or four hours, but the operator should be sure to visit it just before he retires for the night. Temperature of Incubator. On the morning of the second day the temperature should have risen to 102 F. It must not be forgot- ten that from now on the eggs will manifest a little heat of their own and this must be considered, as it will influence the action of the regulator. Or, in other words, if the egg is fertile the germ will begin to waken into life and possess and give off heat. This lessens the work of the lamp and should make the operator cautious in his manipulations of the regulator. The temperature from now on should be kept at 103 F. If the machine is balanced right, a very slight turn of the regulator button or the wick elevator is all that will be required. The operator must not become over-anxious now; he should resist all temptation to tamper unnecessarily. It is better to change the adjustment but a mere trifle and then wait a little to observe the result than to make great and abrupt changes. It is very easy to cook the eggs and quite as easy to chill them. All changes should be gradual, and the machine always be under the control of the operator. Once in good working order, the less an incubator is disturbed the better. From now on it should be visited at regular intervals, three times a day morning, noon, and night. At the same hour every morning the wick should be trimmed, the chimney cleaned, and the lamp refilled. The visit at noon is simply one of inspection and observation. At this visit the operator should look first at the thermometer and then at the lamp. If the tempera- ture is right and the lamp is burning well, there is nothing more to do. Returning to the work of the morning after, the lamp is cared for and started again, the operator should watch it carefully for a brief period. Then, if the thermometer shows the proper tempera- ture, it is in order to turn the eggs. During turning the tray should be removed from the egg chamber and the door closed. Some of the details of turning have been given. The hand should be clean and the eggs gently rolled around. It should not require much time to turn the eggs, three or four minutes being sufficient. As a rule no other cooling is necessary, but this subject will be referred to later on. Many devices have been invented for turning the eggs, but the simple method of turning by hand is sufficient. Gently brush or roll them around or change them from one side of the tray to the other. The necessity for turning depends upon the fact that unless the egg 562 DOMESTIC ANIMALS, DAIRYING, ETC. is turned, its substance will gravitate, the egg will become too dry upon one side, and the chick will become attached to this dry side. Such an event will result in a dead or deformed chick. The whole process of turning is so simple that further explanation seems unnec- essary. As to how frequently they should be turned, once a day is sufficient, though many practice turning twice a day. This turning should be continued from the third until the nineteenth day. After the usual signs of hatching can be heard the eggs must not be moved or disturbed. After the nineteeth day the rule "do not turn them," is imperative. The chick, ready to break its way out, has found its proper position, and to move the egg may so place the chick that it can not work to advantage or that it will drown or smother. Cooling. Many successful poultry men pay little attention to cooling the eggs further than to take plenty of time in turning. Much depends upon the machine, and more upon the condition of the atmosphere. If not exposed to draft or sunlight, the eggs can be left outside the machine for fifteen or twenty minutes and be none the worse for the exposure, but, as a rule, an exposure of five minutes is sufficient. That some cooling is necessary seems borne out in natural incubation by the practice of the hen, which leaves her nest from ten to sixty minutes every morning. Of course, the hen may do this for her own accommodation, but it seems to be part of the programme in natural hatching, and better results are obtained when the eggs are cooled somewhat every day. This practice of cooling should be continued to the eighteenth day. Right here it may be well to advise the inexperienced operator to keep the egg chamber closed after the evening of the eighteenth day and until the close of the hatch. Moisture. This subject is one upon which opinions differ vastly. In the opinion of the writer much depends upon the incu- bator, its location, and the external atmosphere. All agree that a certain amount of moisture is needed. In natural incubation the hen leaves her nest early in the morning, while the dew is yet upon the grass, and if caught upon her return to the nest her feathers will be found to be wet. Yet some of the most successful hatches have been made by hens that were not allowed to leave the hatching pen. Hence the argument is not settled. But, from the fact that the early morning atmosphere is damp and the eggs are exposed to this moist atmosphere while the hen is off the nest, it is safe to infer that a limited amount of moisture is essential. If the incubator stands in a damp cellar, a very good hatch can be made without the introduction of any moisture into the egg chamber ; while upon the other hand, if the machine is located in a dry room and the weather is dry, a poor hatch can be expected if no moisture is supplied. Many different methods of supplying moisture have been suggested, but most ex- perienced operators incline to the simplest methods. A small sponge saturated with pure water can be placed in the egg chamber and al- lowed to remain there over night, or a saucer containing a, little water can be placed in the bottom of the egg chamber and left from time to time, or the hand of the operator can be dipped in warm wa- POULTRY KEEPING 563 ter and brushed lightly over the eggs just before they are returned to the machine in the morning. The last seems to be a natural method and does not overcharge the egg chamber with moisture. Too much moisture will ruin the hatch, and it is better to err upon the side of too little than too much. A good rule is to note the baro- meter and in damp weather supply very little moisture. As to what is meant by much or little moisture, the writer thinks that a tea- spoonful of water is plenty for 100 eggs in wet weather, while in dry weather an ounce is none too much, this being for a period of twenty- four hours. Or, again, if the machine stands in a cellar, a teaspoon- ful of water will last 100 eggs three days, while in a dry, well-venti- lated room a tablespoonful of water every twenty-four hours will do no harm. The water supplied must be clean and pure and should be warm when it is introduced. Surely with these few hints the opera- tor ought to be able to settle the moisture question for himself. Testing. The egg will show signs of hatching within thirty hours of its first exposure to heat. Along about the twenty-eighth hour a point denoting the head and another denoting the heart will appear. About the forty-fifth hour the expert can detect a slight mo- tion of the heart. In about seventy hours the membrane known as the allantois is visible. This envelope is the temporary breathing apparatus of the chick. On the fifth day the streaks denoting the limbs can be seen. On the sixth day the liver can be located, and a slight voluntary motion is observable. By the seventh day the lungs, stomach, and brain show development ; the eyes can be found by the tenth day ; and on the twelfth day feathers begin to form. The bill opens and shuts by the fifteenth day, and the cry of the chick is heard about the eighteenth day. Soon after, or early on the nine- teenth day, the chick bursts the air cell at the end of the egg and begins to use its lungs in breathing. From this time it grows rapidly and soon becomes strong enough to break through the shell. While the process of hatching is very interesting, the practical operator need not concern himself with minute details. The eggs should be tested at least three times during the period of incubation. First, as a matter of economy. Eggs not fertile will not spoil for a few days, and they will be as good for the table or feed after a few days in the incubator as after as many days in the nest. Again, eggs that are doubtful can be cooked for food for young chicks or cooped fowls. Another reason why nonfertile eggs should be discovered and removed is that they absorb some heat from the air of the egg chamber and generate none of their own. Again, if nonfertile eggs happen to be old when placed in the tray they are liable to decompose, and, by giving off poisonous gases, foul the air of the egg chamber and poison the chicks in the good eggs. However, it is not wise to disturb the eggs too frequently. Testing upon the seventh, the tenth, and the fourteenth days is quite sufficient. All nonfertile and all doubtful eggs should be removed from the machine as soon as their condition is detected. The process of testing is simple enough after a little experience is acquired. It depends upon the appearance of the egg when it is 564 DOMESTIC ANIMALS, DAIRYING, ETC. held between the eye and a light. In order that the view may be most advantageous, it must be contrasted with a dark border. Many different egg testers have been devised, but they all depend upon the above principle. The simplest in construction is a plain tube about 1^ inches in diameter and made of tin, wood, or cardboard. The egg is placed snugly against the opening in this tube, and it is so held that the egg is between the tube and the light and the tube is be- tween the egg and the eye. With the eye close to the uncovered end of the tube, a picture of the egg can be seen through the transparent shell. If the test is made in a dark room, a much better view can be obtained. A very fair test can be made in a dark room by hold- ing the egg before a small aperture in a window shade, provided the sun is shinning against the window. In cloudy weather, when the sun can not be depended upon, some kind of an egg tester is required. All manufacturers furnish some kind of egg tester with every ma- chine sent out, and the most of them work upon the same principle and are operated in the same way. Evening is the best time for making the test. Have ready a low table and an empty tray, also a basin or a basket. The operator can work best if seated at the table with the lamp in front of him ; upon his left is the tray of eggs to be tested, with the empty tray and basin upon his right. Every detail should be arranged before the eggs are removed from the egg cham- 'ber, as a prolonged exposure is to be avoided. One by one the eggs are taken from the tray, tested as above suggested, me appearance observed, and the egg, if fertile, placed in the empty tray, or, if in- fertile, placed in the basket. As soon as all are tested the tray con- taining the fertile eggs is replaced in the incubator, the door of which is then closed and the machine left as before. Experience soon teaches one the appearance of the nonfertile and the spoiled egg, as contrasted with that of the fertile egg which has already begun to hatch. The fertile, or hatching, egg will show a spiderlike forma- tion, a center with long crooked threads, or rays, leading outward, and this formation will float as the egg is turned, seeming to have an inherent power of motion. Such eggs are good and the germ is alive and hatching. But if this formation is a black stationary spot and the red lines come together in a circle, the egg is one that has been fertile, but the germ of which is now dead. Such an egg should be removed from the tray at once. The egg that remains clear except for a small dark cloud is infertile and may possibly be used in cook- ing. In case an egg is doubtful it can be marked and returned to the tray and left there a few days to be tested again. All eggs that cool too quickly should be marked for special examination, and remem- ber that the egg that does not contain life will be cooler than the live egg. Cracked eggs can be saved by the use of court plaster, but un- less it be from a rare or valuable fowl the attempt to hatch a broken egg will hardly be worth the trouble. At the second testing, about the tenth day, the eggs that are hatching w r ell will be nearly half darkened, while the others will look more or less as they did in the first test. On the seventeenth day the chick will be seen to fill all the egg but the air space, unless it has died in the shell since the previous POULTRY KEEPING 565 testing. The final testing should be carefully made and with the shortest possible exposure. The Air Cell. Books upon incubation devote much space to this subject. If the air cell is too large the egg is too dry, while if not large enough the egg is too moist, and the moisture supply can be governed accordingly. Experience will teach the operator much more about the air space than will written pages, and until he is ex- perienced he need not attach very great importance to it unless it be unusually large or small. By the end of the sixteenth day this occupies about one-fifth of the space in the egg, and the chick ought to occupy the remainder of this space. The air cell gradually in- creases until the eighteenth day. Upon the eighteenth day, or the nineteenth day at most, the eggs are turned and cooled for the last time. After this do not disturb the eggs. If necessary, partly close the ventilator slide. Leave the door closed. Of course, the thermo- meter must be watched and the lamp filled and trimmed more care- fully than ever. Do not be alarmed if the thermometer shows a tem- perature of 104 at this time. No harm will be done if the eggs are kept at that temperature a few hours. The operator is again cautioned to let the eggs alone during the last two days of incubation. If the door must be opened to rear- range the thermometer or to supply moisture, it should be for a brief period only, and great care should be exercised not to jar nor change the positions of the eggs. But the lamp should be kept in good order and the regulator and thermometer watched closely. Some of this has been stated before, but it will bear repeating, for many a good hatching prospect has been blighted by over-anxiety or curiosity. At the end of the twenty-first day open the door and pull the tray partly forward. Then remove the shells and, if any chick is found with the shell dried upon it or in any way attached to it, carefully liberate the chick and place it in the nursery below. Then carefully close the door and let the machine alone for another six hours unless the eggs are all hatched sooner. The eggs about all hatched, now is the time to clean and set up the brooder, which should be heated a few hours before the chicks are removed from the nursery. After the hatch is completed and the chicks are removed from the nursery, the machine should be taken apart, carefully cleaned, and set right for future use. The brooder should be started at about 98 F. and gradually lowered at the rate of 1 a week, according to the weather and the experience and judgment of the poultry man. The chicks should not be fed until they are thoroughly dried and have been out of the incubator at least twenty-four hours. The first feed should be fine sharp grit or sand, upon which is sprinkled a very little hard-boiled egg chopped fine. After this they should be fed every three hours a little broken grain or, better yet, some of the excellent prepared dry chick foods upon the market. Clean, fresh water should be supplied from the start. Wet, sloppy food should bo avoided. If none of the manufactured chick foods are at hand, a substitute can be made by cracking a mixture of wheat, corn, and 566 DOMESTIC ANIMALS, DAIRYING, ETC. egg shells. Any good poultry journal will give valuable hints upon the subject of raising chickens in brooders. Summary. Study your incubator; acquaint yourself with all its parts ; read the manufacturers' directions for setting it up ; set it up carefully and according to instructions ; never try to run an incu- bator in a drafty place, nor near a stove, nor where the sun shines upon it; set fertile eggs only; waste no effort upon those that are doubtful ; learn how to trim and clean a lamp ; keep the lamps full and the wick and tube clean; avoid smoke; see that the eggs are clean and dry before setting them ; balance all eggs, large end up, a few hours before placing them in the tray; do not overfill the tray ; turn every egg the third day ; cool the eggs every morning ; be sure your hands are clean when handling eggs ; test all eggs by the seventh day; test again by the eleventh day; test again by the fif- teenth day ; if the air space is too large, supply moisture ; if too small, put a saucer of dry lime in the room and run without moisture a day or two ; do not expect to learn all about the air cell the first hatch you will learn that later; do not disturb the eggs after the evening of the 'eighteenth day; have a regular hour for incubator work; do not tinker too much with the regulator; get the adjustment right and keep it so; heat your machine and make your adjustment before placing the eggs in the egg chamber. General Remarks. The average farmer, his wife, his son, or his daughter, should not expect to learn all about the management of an incubator from the perusal of written pages. Experience comes from the work itself. This work is easy, interesting, and fascinating. It occupies the mind and leads to investigation. More than that, it leads to success and profit. But great results can not be expected in the beginning. The poultry business is a trade and must be learned. Many a person is idle today and looking for some sphere of usefulness who could learn how to operate an incubator to both mental and financial advantage. But the work, slight as it is, must be done properly and at the right time. The poultry business is hon- orable and profitable, but it requires study and experience. We serve a long and faithful apprenticeship to learn other more 'laborious and less remunerative trades, when the same amount of application would in less time make us experts with an incubator and give us a trade in a line not affected by strikes or lockouts, or liable to be over- crowded. (Agr. Dep. F. B. 236.) (Publications quoted from and consulted on incubation: Mich. B. 245; Agr. Dep. F. B. 236; Kansas B. 150; West Va. B. 98; Minn. B. 91; Agr. Dep. F. B. 357; Ark. B. 99; Pa. B. 87: Utah B. 92, 102; S. C. B. 81; Ont. Agr. Cal. B. 163.) BROODING. Natural Brooding. If the chicks are to be raised with hens a supply of small coops will be needed. The common inverted V- shaped coop is quite satisfactory in warm weather, or even in cold weather, if it is placed in a sheltered location, or in a shed. The sides forming the roof of this coop should be two feet in length at the peak and three feet long from the peak to the ground on the slope POULTRY KEEPING 567 and the angle where the two meet should be about 75. The back should be boarded up tight. The front should be boarded down about one-third of the way from the top and the remainder slatted. This is probably the most common coop in use in this country. Another very good coop for hens with chicks in cool weather, consists of a house three feet six inches by four feet two inches. It should be three feet high in front and two feet six inches in the rear. Hinge the front side on as a door which should have a light in it; then board the remainder tight and cover with building paper. The hen may be confined in a crate within and the floor covered with fine litter. This will prevent the hen covering the chicks with chaff when scratching. As soon as the chicks are a week old the crate can be removed as the chicks will then be active enough to keep out of the way. Early chicks can often be kept in an unused stable or building that is well lighted. A fairly constant temperature aids growth and thus gives more satisfactory results. Later in the season, after the cold winds and rains are over, place the hen and chicks in a small coop out of doors. The coops may be used without floors un- less rats are troublesome, in which case they will need perfectly solid floors. The coop should be moved every day or two to prevent kill- ing the grass under it, and secure clean premises. If hawks and crowa are troublesome, a run can be made in front of each coop, using inch mesh wire netting when the danger is great. If the danger of loss from this source is not serious use a two-inch mesh netting to allow the chicks to go through and forage outside. The runs should be moved to fresh ground every few days. A barrel may be converted into a coop for housing a hen and her chicks. Dig a hole in the ground large enough to admit one-third of the barrel. Then place the barrel on its side in the hole and put the earth in it, even with or slightly above that outside. The head should be left intact in one end. Remove the other end and drive stakes in the ground before the opening two inches apart, thus con- fining the hen and allowing the chicks to pass through. Packing boxes may be used in various ways if covered with building paper, but in general it will be found more satisfactory to build good, sub- stantial coops which can be used for several years. (Mich. B. 245.) Brooders. For those who wish to raise large numbers of early chickens, or who keep only non-sitting breeds, the brooder is a neces- sity. In buying a brooder the chief points to be observed are: a good lamp, a heating device giving off the heat from a central drum, and an arrangement which facilitates easy cleaning. The brooder should be large, having not less than nine square feet of floor space. The work demanded of a brooder is not as exacting as with an in- cubator. The heat and circulation of air may vary a little without damage, but they must not fail altogether. The greatest trouble with brooders in operation is the uncertainty of the lamp. The brooder- lamp should have sufficient oil capacity and a large wick. Brooder- lamps are often exposed to the wind, and, if cheaply constructed or 568 DOMESTIC ANIMALS, DAIRYING, ETC. poorly enclosed, the result will be a chilled brood of chicks, or per- haps a fire. The chief thing sought in the internal arrangements of a brooder is a provision to keep the chicks from piling up and smother- ing each other as they crowd toward the source of heat. This can be accomplished by having the warmest part of the brooder in the cen- ter rather than at the side or corner. If the heat come from above and a considerable portion of the brooder be heated to the same temperature, no crowding will take place. The temperatures given for running brooders vary with the machine and the position of the thermometer. The one reliable guide for temperature is the action of the chicks. If they are cold they will crowd toward the source of heat; if too warm they will wander uneasily about; but if the temperature is right, each chick will sleep stretched out on the floor. The cold chicken does not sleep at all, but puts in its time fighting its way toward the source of heat. In an improperly constructed or improperly run brooder the chicks go through a varying process of chilling, sweating and struggling when they should be sleeping, and the result is puny chicks that dwindle and die. The arrangement of the brooder for the sleeping accommoda- tions of the chicks is important, but this is not the only thing to be considered in a brooder. The brooder used in the early season, and especially the outdoor brooder, must have ample space provided for the daytime accommodation of the chick. This part of the brooder must be well lighted and somewhat cooler than the hover. (Kan. B. 150.) Temperature. In brooding chicks either in individual brood- ers or in brooder houses the main thing which must be watched is the temperature, for if the temperature is either too high or too low, the results will be totally unsatisfactory even though all of the other con- ditions governing the health of the chicks are ideal. Chicks three or four days old are fairly hardy little creatures and can endure a con- siderable degree of cold provided that as soon as they become too cold they can quickly get warm again. But if they are forced to re- main where the temperature is too low they catch cold very quickly, the lungs soon become inflamed, little nodules of light colored cheesy matter form in them and death results. The temperature of the brooder or brooder house when the chicks are first transferred from the incubator should be practically as high as the temperature of the incubator from which the chicks have just been removed, or from 95 degrees to 100 degrees F. This temperature should be maintained for the first week, never allowing it to fall below 95 degrees. The second week the temperature should not be allowed to drop lower than 90 degrees. These temperatures refer to the air temperature taken on a level with the chicks. After the second week the temperature should be reduced gradually until the chicks are old enough to do without artificial heat. (West Va. B. 98.) POULTRY KEEPING 569 Rearing Chicks With Brooders. Many people prefer the arti- ficial method of raising chicks, but want something cheap. It is not always \vise, however, to use the cheapest. A packing case brooder which will accommodate fifty chicks can 'be built for about a dollar. This brooder has given excellent results, but must be used in a shed or colony house. The brooder proper is made of four ten-inch boards, three feet long, on which is nailed a tin or galvanized-iron cover. Above this, around the sides, are strips one inch thick, and on these strips sits the floor of the brooder. There should be a couple of one inch holes in each strip to admit air. The floor should be made of matched lumber. In the center an eight inch hole should be cut, and over this an old tin pan, about ten inches across at the top (which is now to become the bottom) and four inches deep, should be placed. The sides of this tin should be punched full of holes. For a hover a table two feet six inches square, with legs about four and one-half inches long, may be used. Cheap felt may be tacked on for a curtain, care being taken that it is cut from top to bottom every five or six inches. For an outside wall four four-inch strips, three feet long, nailed together and set on the brooder, will be satis- factory. When the chicks are ten days old, one side may be taken away, and a bridge used so that they may run from under the hover direct to the floor of the room. Any good lamp may be used in this brooder. The burner can be bought for twenty-five cents, and the bowl may be made of a two-quart tin basin covered with a small pie plate turned bottom side up. This plate should have a hole punched in it and should be fastened to the collar of the burner with a drop of solder. It is also advisable to fasten the plate to the basin in the same way. (Conn. B. 3'6.) A temperature of 100 degrees is essential to successful brooding of chickens in either large or small flocks. The larger the flock the more important it is that a high temperature be maintained, because the greater is the danger of crowding. When the chickens become cold they like to go quickly to a warmer temperature than they could occupy with comfort or safety if compelled to remain there. Chick- ens will crowd when they become cold if sufficient heat is not sup- plied. It is but natural that they should. A chicken's body tempera- ture is normally about 105 to 106. Therefore, a cold chicken can not be blamed for rubbing up against another chicken 105 degrees warm instead of standing alone in a temperature of 80 to 85 degrees. The more the chickens crowd the hotter the pile becomes and, there- fore, the more attractive is the source of heat to the chickens on the outside. If a temperature of 100 degrees is maintained, the chickens will spread out of their own accord. They can be trusted to remain in the temperature which is most comfortable to them, which also will be the temperature best suited to their needs. The first sense to be developed in a young chick, seems to be the sense of touch, as manifested by the sensation of warmth, which to the chick means comfort and comfort to the chick means home. The first instinct, therefore, to be awakened in the chick appears to be that of location. 570 DOMESTIC ANIMALS, DAIRYING, ETC. When once it feels and sees the source of heat and comfort, it will almost invariably return to it. The importance of a high temperature in a brooder cannot be overestimated. It is vitally important. Heat brought the young chick into the world and lack of heat will take it out of the world. Without warmth chickens do not sleep well. They huddle, i. e., they are compelled to stand up to avoid being trampeled to death. A chicken cannot sleep standing. Without sleep a chicken does not rest. Without rest a chicken cannot grow. Sleep and rest are as important to a chicken as to a baby. A large part of the slow growth and mortality with young chickens is caused by lack of sleep, due to lack of heat. (Cornell B. 246.) Care of Chicks. Where the chicks are to be raised on a large scale the brooder house heated by hot water pipes is the most eco- nomical, for in this case there is only one fire to attend, and the work of feeding and watering the chicks can be done much easier than when the chicks are scattered about in individual brooders. In fact outside brooders are not very satisfactory. Unless an enormous amount of care and attention be given to them the temperature is sure to vary so much that the chicks do not thrive. In addition the work has to be done out of doors in aill sorts of weather, making it disagreeable and costly to perform. Feeding. Next in importance to the temperature at which the little chicks are kept is the food which they receive. In the case of a chick nature provides for its sustenance until it is able to run about and obtain food partly by its own efforts. The food material thus provided consists of the contents of the yolk sack which is slipped into the abdominal cavity a few hours before the chick is hatched. The yolk sack is connected with the intestine toy a duct through which the semi-fluid mass passes into the digestive system where it is absorbed. It is due to this provision that it is not wise to feed chicks until they are two or three days old. If fed too soon or too much there seems to be a tendency for the material which is present in the yolk sack to remain unabsorbed. When this occurs putrefactive changes soon begin to take place, some of the products thus formed pass into the circulatory system of the chick, bowel trouble results, and the chick dies. Not only may the non-absorption of the con- tents of the yolk sack be caused by feeding too soon or too much, but it is quite probable that this trouble may also be caused by the breeding stock being too fat or otherwise out of condition, or by too variable a temperature or by a lack of sufficient ventilation dur- ing the incubation of the eggs. During the first two or three days after the chicks are hatched they require warmth and the opportunity to gain strength rather than to receive food. They should be supplied with water, however, and it will do no harm if they have a little fine chick grit at which to peck. After the second day they are usually fed as follows: The infertile eggs are boiled and run through a food chopper, shell and all. The ground egg is then thoroughly mixed with five or six times its bulk of rolled oats. This mixture constitutes the first and POULTRY KEEPING 571 last meals of the day for the first two weeks, and is fed on shallow troughs or on plates. At the morning meal care should be taken that the chicks do not eat too much. They should be left somewhat hun- gry at this meal so that they will exercise during the middle of the day by scratching for the hard grain which is scattered in the litter. At the evening meal they may be fed more liberally on the egg and rolled oats mixture. The hard grain consists of a mixture of cracked corn, cracked wheat, oatmeal, millet seed, broken rice, etc. For small chicks the grains should be cracked fine, the pieces of corn not being larger than one-half of a kernel of wheat. At times the prepared chick foods for scratching material have been found most satisfac- tory. The fine cracked grains should be scattered in the litter as often as convenient so that the chicks may be kept busily engaged all day long hunting for the grain, and care should be exercised that they do not find it too easily. After two or three weeks cracked wheat and cracked corn are gradually substituted for the prepared chick food, and a mash com- posed of corn meal, wheat bran, wheat middlings and 'beef scrap is substituted for the egg and rolled oats. Excellent results have been secured in feeding little chicks according to the method advocated by the Maine Experiment Station. Briefly this method is as follows: A mixture of three parts of corn meal, one part wheat bran, and one part wheat middlings or flour is used from which to make bread. This is mixed very stiff with skim milk or water and salted as usual for bread. It is baked in a slow oven, and when done the loaves are split open and returned to the oven where it remains until the bread is thoroughly dry. The crusts are then pounded until they are pulverized. The infertile eggs are hard boiled and ground shell and all in a sausage mill. One part ground egg and four parts bread crumbs are then mixed together and the mixture run through the sausage mill or food chopper. The chicks are fed in the morning and at night on the bread and egg mixture, and during the middle of the day they scratch in the litter for the dry cracked grain or chick food which is pro- vided for them. The egg mixture is used for about two weeks, and although it is expensive when infertile eggs are not available yet it makes the chicks thrive wonderfully well. Grit and charcoal must be freely provided and after the chicks are a few days old green food in some form becomes a practical necessity. (W. Va. B. 98.) Frequency of Feeding. Young chicks should be fed a little at a time and often. They should be fed early in the morning and just before going to bed at night, and not less than three times in the intervening period. For the first two weeks they may be fed three meals of soft feed and two of hard, and after that ago two of soft and three of hard, feeding loss soft food as they grow older. No more moistened soft feed should be given at one time than they will eat up clean. If any is left it should be removed, for nothing causes more bowel looseness and dysentery among young chicks than sour feed. The finely cracked grains may be safely used from the start, 572 DOMESTIC ANIMALS, DAIRYING, ETC. but the chicks do not as a rule grow as rapidly as when a part of the feed is ground. When the chicks are from four to six weeks old, the frequency of feeding may be decreased to four times a day. Green Feed. Green feed must be supplied in some form. If the chicks are cooped on young grass they will help themselves, but if confined in small yards green feed should be given them. To be easily assimilated, some tender and easily broken green stuff should be furnished, such as finely cut grass from the lawns, lettuce leaves, onion tops, chopped fine, or boiled vegetables. Animal Food. When chicks have a free range they pick up insects and worms. These are most abundant during the spring and summer and it is at this time that the chickens thrive. When they can not get these abundantly animal feed must be furnished in some other form. Beef scraps, animal meal, green cut bone may be fed. Milk. Young chickens are fond of milk. It is highly nutri- tious and promotes growth, and may take the place of other animal feed to some extent. Skim milk is excellent ; if whole milk is fed it is well to dilute it with one-third to one-half of water. Grit. Grit is another necessity. A dish of chick size grit should be always before them, that they may help themselves. Water. Fresh, cool water should be constantly accessible, so that a drink can be taken whenever wanted. Many cases of cramps are caused by letting the chicks become thirsty and then fill up on water. Charcoal. Many successful poultrymen keep it before the chicks, while others never use it. If chicks are not thrifty it is one of the simple things to supply before changing the feed or beginning to give medicine. (Agr. Dep. F. B. 287.) After the chicks become old enough and hardy enough to do without artificial heat they are removed from the brooder house and placed in colony houses. These should have a door and window in front and be provided with perches. When the chicks are placed in these houses temporary runs are made by means of poultry wire. The chicks are thus confined for a week or two until they become waywised to their new home. Then the wire is removed and the chicks are allowed unrestricted range for the rest of the season. If the colony houses are too near together the chicks sometimes get in the habit of crowding into certain houses at night instead of remaining uniformly distributed among the different houses. This can be prevented, quite largely, by closing all openings so as to ex- clude animals prowling about at night, for the entrance of a skunk or weasel into a house will cause the chicks to shun that particular house when they go to roost on the following night. Also the chicks are enabled to find their own homes more promptly when the houses are painted different colors. A Chick Feed-Hopper. The hopper-feeding of finely cracked grain to young chicks calls for a device with a large available feeding surface, handy to fill, easy to clean and which will prevent the chick- ens from scratching out the grain. Such a device is made by cutting ________ A GOOD TYPE OF TAMWORTH BOAR. DEPT. OF AGR. HOG SICK OF HOG CHOLERA. (CHRONIC TYPE.) F. BUL. 379. POULTRY KEEPING 575 a galvanized iron feed-trough in suitable lengths and soldering a strip of three-quarter-inch mesh galvanized chicken-wire over the top. The surface of the wire should be about an inch below the edges of the trough to prevent the throwing out of grain. The ordinary wooden V-shaped trough can be similarly adapted; care being taken to cut the wire so that there will be no long points of wire to injure the chickens. (Cornell B. 248.) (Publications quoted from and consulted: Agr. Dep. F. B. 357; Colo. B. 164; Ind. B. 146; Ark. B. 99; Pa. B. 87; West Va. B. 98; Cornell B. 246; Me. B. 193; Conn. B. 36; Kansas B. 150.) FEEDING AND CARE. The problem of feeding is one of great importance, and should be carefully considered, for on it depends to a large extent not only the general health of the birds, but also the economy which pro- motes success. It is a subject, however, which should be studied with a large amount of common sense, for there are no hard and fast rules which can be laid down as applying to every case. The price of feeds and the general environment should be considered in deter- mining the right rations. For the largest profit a good proportion of the eggs should be secured during the winter. If two extra eggs per week can be ob- tained from each hen a good profit will be made, while if the prod- uct is increased by only one egg per week in winter, this one egg will pay for all the feed the hen eats. To obtain this greater produc- tion, not only should the fowls be young and of a good laying breed, but the feeder should have a full knowledge of the proper feed and its preparation. The nutriment in the feed of laying hens serves a twofold pur- pose to repair waste and furnish heat to the body and to supply the egg-making materials. As only the surplus over what is needed for the body is available for egg production, the proper feeds should be fed in sufficient quantities to induce this production. In supplying feed to fowls there are three kinds of constituents which should be present in certain fairly well fixed proportions if the desired results are to be obtained most economically. These constituents are mineral, nitrogenous, and carbonaceous, all of which are contained in corn, wheat, oats, and barley, but not in the right proportions to give the greatest egg yield. In addition some animal feed and green feed should be supplied. In feeding poultry a valuable lesson may be learned from na- ture. In the spring the production of eggs on the farm is an easy matter. Fowls which are at liberty to roam find an abundance of green and animal feed on their range, which with grain furnishes a perfect ration for laying hens. In addition to this they get plenty of exercise and fresh air. So far as lies within his power, then, the feeder should aim to make the winter conditions springlike. Systems of Feeding. There are two systems in use for the feeding of fowls, in one of which all the feed is given dry and in the other of which one or more of the daily feeds consists of a moistened mash. For convenience they may be termed the "dry-feed" and the 576 DOMESTIC ANIMALS, DAIRYING, ETC. "mash" systems, although in the dry-feed system a dry mash is often fed. Dry feeding is used by many where it is not convenient to make and feed a moistened mash. The greatest advantages to be de- rived from the dry system are the saving of labor and the lessened danger of bowel trouble resulting from sloppy or soured mashes. Dry Feeding. In the dry-feed system for laying hens, as suc- cessfully practiced on a New York poultry farm, the whole grains fed are as follows, in the proportions indicated : 200 pounds cracked corn ; 360 pounds wheat ; 130 pounds oats. This mixture is scattered in the litter early in the morning and again at about 11.30 a. m., and this inducas abundant exercise. A hopper containing a dry mash is hung against the wall. The mash is made up of the following ingredients, in the proportions indicated (by measure) : 32 parts corn meal; 30 parts meat (animal) meal; 30 parts ground alfalfa; 2 parts oyster shell; 1 part grit; 1 part char- coal. The hopper containing this mash is opened about an hour after the noon feed of grain, or about 12.30 p. m., and the fowls have access to it for the remainder of the day. Of all grain feeds that are usually supplied to farm poultry, corn has been and still is the most popular, which is probably due to its abundance and relative cheap- ness, and because it is the most relished of all the grains. Corn is heating and fattening, and when fed to closely confined fowls in large quantities fat rather than eggs is the usual result, and it should be balanced with meat, bone, linseed, gluten, and such feeds as are rich in nitrogenous matter, for corn is deficient in this constituent. When corn is fed to laying hens that have opportunity to take plenty of exercise and to secure insects and green feed, much more satis- factory results are likely to be obtained than when it is fed to the same fowls closely confined. It may be fed quite largely in the cold climates during winter, but should be fed sparingly during summer. Wheat is generally considered the safest grain to be fed alone. It is not quite so fattening as corn, still is too fattening when fed alone. This grain should be supplemented by some meat feed or skimmed milk to increase the proportion of protein. Wheat con- tains more protein than corn, about the same amount of carbo- hydrates, but less fat, and on the whole is considered not so valuable for fattening, but better for growth. Wheat screenings, if they are of a good grade, can frequently be purchased and fed to advantage. Of course there is always the danger of introducing weed seed on the farm. "Burnt wheat" can seldom be fed advantageously, the differ- ence in price between this and good wheat being usually too slight to warrant one in feeding it. Oats are often fed for variety, but are not well liked unless (hulled, the hulls being tough and rather indigestible. Hulled oats, on the other hand, are relished by poultry and are excellent for pro- ducing eggs. When they can be obtained at a reasonable price in comparison with other grains they may be fed quite largely. Barley does not seem to be greatly relished by hens, but may be used to POULTRY KEEPING 577 give variety to the grain ration. It has a little more protein than corn and a little less than oats. Buckwheat is quite well liked by fowls, but is not very widely fed. It may be fed to vary the ration. Buckwheat middlings are rich in protein and make a good mixture with corn meal. Rye is not fed largely, and does not seem to be much relished by poultry. It is supposed to cause bowel trouble when fed freely. Mash Feeding. It is the practice of a large percentage of the most successful poultrymen to feed a part of the daily grain ration ground. Most of them feed the ground grain moistened with either milk or water, although some feed it dry. A fowl's gizzard is capable of grinding all kinds of grain, but it is generally considered to be more economical to have a part of the grinding done by steam or water power. The soft-feed idea, however, must not be overworked. A beginner often reasons that it is cheaper for the miller than for the fowl to grind the grain ; but the powerful muscles of the gizzard are there to be used, and experience has shown that the balance of power of functions in the fowl's economy makes the vigorous exer- cise of the gizzard beneficial. When feeding moistened ground feed have it a comparatively dry, crumbly mash, and not a thin slop. Give what they will eat readily in 15 to 20 minutes. Poultrymen do not agree as to the time of day when the soft feed should be fed. Some assert that it should be fed in the morn- ing, others at noon, and still others at night. The greater proportion give the ground feed in the morning, a large number at night, and a few at noon. The number who feed at noon, however, is becoming larger. Those who give the soft feed in the morning reason that the fowls which have been on the perches during the night have largely digested the feed consumed the day before, and consequently have comparatively empty crops and digestive organs, and in order that the morning meal may be easilv and quickly digested the fowls should be fed only ground and moistened feed. Other careful feeders state that if a moistened mash i? fed in the morning the hen is likely to become gorged with feed early in the morning and take to the roost for the remainder of the day. It is probably more import- ant that a part of the grain should be ground than that it should be fed at any particular time of day. In an experiment in West Vir- ginia the egg production was practically the same whether mash was fed in the morning or at night. The following are given as sample mashes : 100 pounds corn meal. 100 pounds wheat bran. 150 pounds ground oats. 100 pounds corn meal. 150 pounds wheat bran. 75 pounds wheat middlings. 30 pounds linseed meal. 75 pounds cut clover or al- 30 pounds beef scraps. falfa. 100 pounds corn meal . 100 pounds wheat bran. 100 pounds ground oats. 100 pounds ground corn. 100 pounds wheat bran. 100 pounds ground oaK 100 pounds ground barley. 578 DOMESTIC ANIMALS, DAIRYING, ETC. Miscellaneous Feeds. Chickens eat a large amount of animal matter in the form of insects, worms, and other low forms of animal life when allowed to range at will. If the poultry keeper is to get the best results from his fowls in winter he must furnish a substitute for this class of feed. For this purpose green cut bone, meat scraps, and animal meal may be used. Green cut bone is usually fed by itself, while the scraps and meal may be readily mixed with the mash. Cut bone consists of green or fresh bone sliced or shaved into thin pieces by a bone cutter. Bones fresh from the butcher have more or less meat adhering, and the more of such meat the better, for the combination of bone and meat is excellent for producing eggs. Where a good supply of fresh bone can be obtained regularly it is very use- ful but it can not be kept sweet for as long a period as the beef scraps and animal meal. Green cut bone should be fed carefully and in a sweet condition, otherwise bowel trouble may result. One pound a day is sufficient for 20 hens, but not over one-half pound should be fed to that number when first beginning to feed it. From one-half to three-fourths pound of animal meal or meat scraps may be fed to 12 or 15 hens. Any form of meat is likely to loosen the bowels of the hen when first fed, and the hens should be watched carefully and not fed too much. After the fowls have become accustomed to the animal meal or meat scraps it may be kept constantly before them. Green Feed. If the best results are to be obtained with poultry they must be furnished with a plentiful supply of green feed. Where fowls have unlimited range on a farm they will secure green feed during the spring, but during the winter it must be supplied for them. The question of how to supply the best feed at the least cost is one that each poultry keeper must decide largely for himself. It will probably make but little difference what kind of green feed is supplied provided it is relished by the fowls. Cabbages, turnips, beets, potatoes, etc., are suitable for this purpose. The larger roots and the cabbages may be suspended by means of a wire or string, or they may be placed on the floor, in which case it would be well to split the turnips or beets lengthwise with a large knife. Potatoes and turnips should be fed cooked. The mangel is an excellent root for feeding raw. Cut clover soaked in boiling water fed alone or with the mash is good. Clover meal and ground alfalfa make very good feeds for this purpose. Where the fowls are yarded and not enough green feed is furnished by the yards, a small patch of clover, alfalfa, or rape may be sown. Any one of these, if frequently mowed, will furnish a great quantity of green feed in a form which is relished by the fowls. ^ Canada field peas may also be sown for this purpose, and when fed in a tender, crisp condition are eaten readily. Rye is a good crop for late fall and early spring, for it will germinate and grow in^very cold weather and will live through the winter. As a general thing, fowls should have once a day about all the green feed they will eat. Hay. Clover Hay may be fed economically to laying hens and may be prepared as follows: Cut into as short lengths as possible (one-fourth to one-half inch) and place in a bucket. Then pour POULTRY KEEPING 579 boiling water over it and allow to stand for two or three hours or over night. When ready to feed, drain off the water and mix the hay with the mash. The hay may constitute about one-half the bulk of the feed, although the exact proportion is immaterial. Clover hay is best, but any kind is valuable. The feeder must be careful not to give too much bulky feed, for the hen, having a small crop, can not make use of as large an amount of it as the cow and other rumi- nants can. Water. Plenty of fresh water should always be accessible to the hens. If supplied irregularly they are likely to drink too much at a time. It should not be exposed to the sun's rays in summer or be allowed to freeze in winter if this can be avoided. In very frosty weather it is often worth while to give them slightly warmed water two or three times a day rather than permit them to drink water at the freezing point. A flock of 50 hens in good laying condition will require 4 to 6 quarts of water a day. Milk. When properly fed, milk makes an excellent feed for poultry. In feeding sour milk or buttermilk, however, the feeder must exercise care not to give too much or bowel trouble will very likely result. Skimmed milk is an economical feed. In skimming, the most valuable food constituents the nitrogenous substances are left in the skimmed milk. Not only does this skimmed milk contain much nutritive material, but it contains it in a form which, as a rule is easily digested. Skimmed milk may often be advantageously sub- stituted in part for meat. Milk may be used in mixing the soft feed, or it may be given the fowls to drink in addition to water. Grit and other Substances. Grit is essential to the health of fowls and to economy in feeding. Grit takes the place of teeth in preparing the feed for further digestion and is required for the proper preparation of feed in the gizzard. When the feed is not properly taken care of in this organ an undue strain is thrown on the fowl's system, often resulting in disease, and also allowing much of the nutriment to pass through the bird's body without being absorbed. In every pen or yard a box of grit should be kept. Recent investi- gators have asserted that grit is a part of the necessary feed, giving the fowls strong bones and a bright plumage. Lime. Ordinarily, the hen does not consume enough lime to form the shells of eggs if she is laying abundantly unless something besides the ordinary grain feeds is accessible to her. Oyster shells are very good for this purpose. A box of crushed shells may be placed before the fowls, allowing them to eat at will. Old mortar and fine gravel are also useful in supplying lime. Charcoal. This has a great absorptive power for gases, impuri- ties, and acids, and thus acts as a corrective when the stomach is sour and digestion has been impaired. Methods of Feeding. Fowls should have empty crops in the morning, and the crops should never be quite full until it is time to go to roost at night. For the first feed, grain scattered in the litter early in the morning is preferred, the sooner the better after the birds leave the roosts. This induces them to exercise, which is especially 580 DOMESTIC ANIMALS, DAIRYING, ETC. important on cold winter mornings. In the middle of the day a warm moistened mash should be given, about what they will eat within fifteen or twenty minutes, and at night, about an hour before they go to roost, a liberal feed of grain should be scattered in the litter. , Frequency of Feeding. Some poultrymen feed their flocks twice a day, while others feed them three times a day. The best plan is to feed fowls in confinement three times a day and those having free range in summer twice a day. When there is a very long interval between feeds it is difficult to keep fowls busy which are kept in con- finement. Idle fowls often contract bad habits, such as feather pull- ing and egg eating, besides going out of condition from lack of exer- cise. In case it is not convenient to feed three times a day, the moistened mash may be fed in the morning, and at the same time the noon feed of grain may be scattered in the litter, which will keep the fowls busy a great part of the day. For those who can not con- veniently feed their fowls early in the morning a good plan is to scatter grain plentifully in the litter after the birds have gone to roost. This grain will furnish feed for the early morning. Some poultry keepers can look after their fowls only once a day. If this is in the morning, moistened mash may be fed, followed by throwing grain in the litter to furnish feed for the remainder of the day. If it is in the evening, before dark, a moistened mash may be given, and either after the fowls go to roost or in the morning, before day- light, grain may be scattered in the litter for eating during the day. Amount of Feed. It is impossible to state any exact quantity of feed that should be given to each fowl per day, as the appetites of the birds vary according to the conditions under which they are kept, the season of the year, and the kind of fowl, some being much greater eaters than others. The general rule is to keep the birds slightly hungry during the day, not giving all they will eat until just before roosting time. The birds should be handled now and then when they ore on the perch, and if they are either too fleshy or too poor their rations should be modified. Importance of a Varied Ration. In feeding grain the aim of the feeder should be to give a variety. No one kind of grain alone is best. Variety may be secured by mixing the grains or by feeding the different kinds of grain on different days. This variety is in accord- ance with nature. When on free range the fowls obtain a little of several different kinds of feed. Grain should not be made the sole feed, for then fat and not eggs is the usual result. Effect of Feed on Character of Egg. In extreme cases the flavor and the odor of the feed have been imparted to the egg. Onions have been fed in sufficient quantity to bring about this effect. Feeds of high and objectionable flavor should not be fed by those who desire to produce a first-class article. In no case should tainted feed be allowed to enter into the ration. Feed also has an influence on the color of the yolk. Corn fed exclusively will give a deep yellow or highly colored yolk, while wheat fed alone will produce a much lighter-colored yolk, A fairly high-colored yolk is usually preferred POULTRY KEEPING 581 and can generally be obtained by feeding the moderate amount of corn. Plenty of green feed also enriches the color of the yolk. The Droppings as an Indication of Health The condition of the droppings furnish a good indication of the hen's health. They should be of sufficient consistency to hold their shape, but should not be too solid. In color they should be dark, tapering off into grayish white. If the droppings are soft or pasty and of a yellowish or brownish color, it indicates too much carbohydrates or a lack of meat. If, on the other hand, the droppings are watery and dark with red splashes diarrhea usually indicates unsanitary conditions, either in the sur- roundings, the feed, or the water. Molting. Where a specialty is made of producing winter eggs it is important that the hens shed their feathers early, so that the new plumage will be grown before cold weather begins. Henry Van Dreser has proposed a way by which it is possible to cause a flock of fowls to pass through the molting period early and uniformly. This method consists in withholding part of the feed for about two weeks, which stops egg production and reduces the weight of the fowls, and then feeding heavily on a ration suitable for the formation of the feathers and the general building up of the system. This method was tried at the West Virginia Experiment Station with good results. The hens molted more rapidly and with more uniformity, entering winter in better condition than similar fowls fed continually during the molting period on an egg-producing ration. Whether this method is employed or not, the fowls should receive a more nitroge- nous ration than the one ordinarily fed. The addition of a little lin- seed meal during the molting period will aid in the production of a new coat of feathers. An increase in the amount of animal feed will also be beneficial. Exercise. During the spring season fowls having free range get abundant exercise. Close confinement without exercise is not conducive to the best results, although the feed provided may be the best, for idle hens soon grow too fat to lay. It is almost impossible to give laying hens which are confined too much exercise. The fowls may be encouraged to exercise in various ways, such as feeding corn on the cob, suspending cabbage heads, beets ; etc., so that the birds have to jump for them, and scattering grain in the litter. The litter should be from 4 to 8 inches deep, and may consist of straw (either cut or whole), hay, leaves, buckwheat hulls, shredded corn fodder, or any convenient material of this nature. The hens should be kept hungry enough so that they will work diligently all day for the grain scattered in this litter, which should be removed whenever it becomes damp or soiled. Age of Birds for Profitable Egg Production. There are people who have the right variety of fowls, who house and feed them prop- erly, and yet who can not obtain eggs early in the winter because their fowls are too old. It is seldom that it pays to keep hens for laying after they are two and a half years old ; not that they will not give a profit, but that younger fowls will give a greater profit. A great many poultrymen who make a specialty of winter-egg produc- 582 DOMESTIC ANIMALS, DAIRYING, ETC. tion keep nothing but pullets, disposing of the 1-year-old hens before it is time to put them in the winter quarters. Early hatched pullets, if properly grown, ought to begin laying in October or early Novem- ber and continue to lay through the winter. Yearling hens seldom begin laying much before the 1st of January and older hens not until later. It is the November and December eggs that bring the high prices. The laying breeds should begin laying when about 5 months old; general-purpose breeds at 6 months, and the meat breeds at 7 or 8 months. (Dep. Agr. F. B. 287.) Broilers. The rearing of broilers may be regarded as one of the specialties of the poultry business and does not appeal particularly to the farmer, but it can often be made a paying occupation in con- nection with an egg farm or as a winter employment for those whose regular occupation gives them plenty of leisure at that season. Great skill is required to bring this work to its highest perfection, and any- one contemplating the production of broilers on an extensive scale should not depend on written directions for his guidance, but should make a careful study of the market demands and should visit one of the successful broiler producers, for the practical experience of such men is the safest guide. Broilers are young, plump chickens, weighing, when dressed, from three-quarters of a pound to 2 pounds, and are usually killed when from six to twelve weeks old. The name is derived from the fact that they are usually split down the middle and the halves broiled. The market demand today is for broilers of three sizes squab broilers, small broilers, and large broilers. Squab broilers wnen dressed weigh from three-quarters of a pound to 1 pound each ; small broilers, the size most in demand the greater part of the year, weigh from 1 to 1% pounds each, and large broilers from 1% to 2 pounds each. In most American markets a yellow-skinned and yellow-legged bird is preferred, but this is not of as much importance as good quality of meat. The raising of broiler chickens until the finishing period is reached is practically the same as the raising of chickens for other purposes. The main point is to keep them grow- ing rapidly. To Finish Broilers for Market. A fat broiler is quite a rarity ; the best that can be done, in general, is to have it plump, for the natural tendency of the chick is to use all nutriment for growth and development. When the birds are nearly large enough for the market they should be given all the fattening feed they will eat, and for this purpose corn in various forms should be fed freely. They will digest more feed if fed ground than if whole or cracked. A moistened mash consisting of about two-thirds corn meal and one- third bran by bulk is good. Cooked potatoes are good, and milk, with a little sugar added, will hasten fattening. Broilers may be sold alive or dressed according to the discretion of the grower. If dressed this should be done according to the demands of the market to which they are to be shipped. Roasters. For roasting, a young fowl about full grown, but still soft meated, is used, and to roast satisfactorily it must be moderately POULTRY KEEPING 583 fat. Roasters are roughly classed as "small roasters" and "largo roasters." The greatest demand is for small roasters weighing 4 or 5 pounds each, though the demand for large roasters weighing 8 or 9 pounds each is steadily increasing. Yellow skin and yellow legs are more generally demanded than a white skin and dark legs. If the chickens have been properly grown and are in good healthy condition, about ten or twelve days' confinement in a pen and small yard, with fattening feed, will put them in as good condi- tion as is desirable. They should then be dressed and packed accord- ing to market demands. The growing and marketing of roasters is an important business in some parts of the country, especially in the vicinity of large cities. Near Boston, in what is known as the "South Shore" district, the production of roasters engages the attention of many people, several of whom make it an exclusive business. A poultryman living near a good market or having good shipping facilities which bring a good market near him can often dispose of his surplus cockerels as roasters to good advantage. (F. B. 287.) MISCELLANEOUS NOTES ON EGG PRODUCTION. Flocks that laid best during the first two periods also laid best in the last period. In other words the flocks that laid poorly in the early winter, when they did begin to lay did not surpass those that had been laying at least fairly well all the time. It is also shown that it was the flocks that laid best in December and January from which the greatest profit was secured. (Cornell B. 204.) Leghorn pullets hatched in April gave better results than those hatched in late May. The profit was about one and a half times greater from the April hatched than from the May hatched. (Utah B. 51.) The egg pro- duction of pullets was notably in excess of that of hens particularly in the earlier periods when the price of eggs was highest . (Cornell B. 212.) Forced pullets produced more eggs of a larger size, at less cost per dozen than retarded pullets. (Cornell B. 249.) There is nothing in the results that leads to the conclusion that it is necessary or advisable to crack the corn fed to hens kept for laying eggs. (Me. B. 114.) The average food cost of one dozen eggs for the year was 9.2 cents. (Cornell B. 211.) The average cost of feeding a hen for the year was 99.6 cents. For laying hens the rations containing animal food proved superior to others in which all the organic matter was derived from vegetable sources. The vegetable food ration supple- mented by bone ash proved equally efficient for limited periods. (N. Y. State B. (Geneva).) The result of two year's experiment with floored and unfloored houses shows that fowls remain in as healthy condition, and lay as many or more eggs when kept in un- floored houses, as they do when kept in houses provided with floors. (West Va. B. 60.) Hopper-fed dry mash gave better results in gain of weight, production of eggs, gain in weight of eggs, hatching power of eggs, days lost in molting, mortality, health and profit per hen, than wet mash. (Cornell B. 249.) Mature hens, which are fed very sparingly for about two weeks and then receive a rich nitroge- nous ration, molt more rapidly and with more uniformity, and enter the cold weather of winter in better condition than similar 584 DOMESTIC ANIMALS, DAIRYING, ETC. fowls fed continually during the molting period on an egg produc- ing ration. (West Va. B. 83.) (Publications on feeds and feeding quoted from and consulted: Utah B. 51; Cornell B. 204; West Va. B. 115, 60; Ind. B. 71; R. I. B. 84, 127 ; Cornell B. 249 ; West Va, B. 83 ; Cornell B. 211, 212 ; N. Y. State (Geneva) ; Agr. Dep. F. B. 287; Me. B. 193). FATTENING POULTRY. Four methods of fattening poultry are practiced in this country, viz.: Pen fattening, crate fattening, machine cramming, and hand cramming. The first two are probably the most common to-day, while the third is gaining rapidly as its results are becoming better known, and the fourth is used only where but few birds are fattened. Pen Fattening. This is practiced by a great many people who do not have the time and inclination to use other methods. The es- sentials of pen fattening are quiet, darkness, except at feeding time, and plenty of soft feed given at regular intervals, usually three times a day. Birds may 'be kept in flocks of 15 or 20, but the sexes should be separated. Crate Fattening. In crate fattening a few fowls are confined in crates and fed from a trough. A crate 6 feet long, 18 inches high, and 18 or 20 inches wide is suitable and is large enough for a dozen birds. Sometimes such a crate is divided into two or three compart- ments, 4 to 6 birds being placed in each compartment. But little room for the 'birds to move about is desirable, for the less exercise a bird obtains the more readily does it fatten. The top, back, and ends of the crates should be solid if they are to be placed outdoors, but if they are to be in a building they may be built of lath or slats. These slats should be 2 inches apart in front, so as to permit the birds to eat from the troughs which are hung just outside of the coop. The slats of the bottom of the coop should be about 1 inch apart to permit the droppings to fall through. In indoor feeding the crates should be placed in a dark room, and just before feeding enough light should be admitted to allow the birds to see to eat. They are usually fed three times a day, and are permitted to eat for half an hour at a time, when the room is again darkened and the uneaten feed removed. Machine Cramming. For the best results a machine is essen- tial, especially for the last ten days, for otherwise the birds will not eat nearly so much as they can digest and assimilate. The machine is thus described: A reservoir under which is placed a small force pump operated by means of a lever worked 'by the foot is placed on a tripod. A tube is fixed to one end of the pump, through which the feed passes when the lever rod is lowered. This tube is of rubber or metal. If rubber, it may have a metal point. Metal tubes are more easily kept clean. The feed is placed in the reservoir, and is made into the consistency of thick cream. There are several ways of holding the bird, but the following will be found simple and effective: Fold the wings and grip the bird firmly either between the right elbow and side of the body, or between the left elbow and the body, whichever is the more conve- POULTRY KEEPING 585 nient. The head is grasped in the left hand, the first finger being placed in the mouth to keep it open. The tube is placed in the mouth and the bird is gently drawn on until the end of the tube reaches the crop, the neck being elongated as much as possible. The lever bar is gently lowered 'by the foot and the food is thus forced into the crop. One hand is kept on the crop and as soon as it is suffi- ciently full the foot is removed from the lever and the bird is gently removed. The operator soon learns to know when the crop is full. No stated amount that should be fed to an individual can be given, for the quantity varies with the size of the crop. Great care should be taken in preparing the feed to see that there are no lumps, for the tube is small and easily becomes blocked. Hand Cramming. This is a good system where but few fowls are being fattened, but would be found rather laborious where many are fattened. The feed is made into boluses, or balls, which should be about 2 inches long and one-half inch in diameter. A large num- ber of these are prepared before commencing to feed. The operator sits on a stool or box, firmly grips the fowl Between his knees, and elongates the neck, holding the head in a similar manner to that described in using the cramming machine. He then dips a bolus in skim milk or water and forces it into the bird's mouth, pressing it down the throat with his finger. The neck above the bolus is then gripped with the thumb and first finger, which are run downward along the neck, forcing the bolus into the crop. It will probably take from 14 to 18 of these boluses to fill the crop, depending on its capacity. Some feeders practice this method in connection with crate fattening. The attendant, after feeding in the crates, feels the crop of each bird, and any not having a sufficiently filled crop are crammed in the manner described. Feed for Fattening. Fattening birds should always receive soft feed. As they have no exercise they require a feed that can be quickly and easily digested. The following mixture is fed at the New York establishment referred to under the description of the cramming machine : 100 pounds finely ground barley, 100 pounds finely ground corn, 100 pounds finely ground oats (with hulls sifted out), to which mixture is added 10 per cent of beef scraps. Butter- milk or skim milk is used for mixing, the former being preferred. A little salt is sometimes added. The birds are fed twice a day at intervals of twelve hours, and are crammed for about three weeks. It is important that the intervals between the feedings should be as nearly equal as possible. Another ration may be made as follows: 100 pounds ground oats, 100 pounds ground corn, 50 pounds flour, 4 pounds tallow. (Dep. Agr. F. B. 287.) HOUSES. A poultry house should be warm, dry, light, and well ventilated without draughts. A neglect of any of these requirements is enough to destroy the usefulness of the house, in part at least. There are many theories advanced, for building poultry houses that will not bear a practical test. Great care should 'be used to have all buildings 586 DOMESTIC ANIMALS, DAIRYING, ETC. and fixtures connected with the house as simple as possible thus reducing to the lowest point, the labor in caring for the fowls. Location. One of the first and most important questions to decide in starting a poultry plant is the location. The factors deter- mining the location are; the markets, soil, and climate. It is be- lieved these are here named in the order of their importance. It is of little use to produce a good article if one is out of reach of markets that are willing to pay reasonable prices for poultry produce. People living near cities and large towns will therefore have an advantage over those living in remote regions. While this should be considered carefully in starting it should not discourage people from keeping poultry because they do not live near a large city. Many large and successful poultry farms ship their produce from one to three hun- dred miles. By making contracts ahead they are enabled to realize a good profit on the investment. Soil. The soil should be a sandy loam and high enough so that all surface water may drain away. When such a location is not at hand and it is necessary to build upon low or level land, a foundation for the house should be built of brick about two feet high and the inside filled in with earth (preferably gravel or sand) to the top of the foundation and graded up to the same level outside. The ground should be sloping away from the building on all sides. This will materially aid in keeping the house dry. Do not locate a house in a bank as it is almost sure to be damp. Dampness must be guarded against in all dealings with poultry or disease and failure are apt to follow. Climate. While it is true that poultry will live and thrive in nearly every clime, about 40 North latitude is best adapted to their requirements. A colder climate than this rather than warmer for several reasons would be preferred. The hot summers in the South furnish ideal conditions for the rapid multiplication of all kinds of vermin which prey upon the birds. Disease germs are more numer- ous and seem to develop much faster than in a colder climate. A very hot climate has a depressing influence on laying hens and will greatly retard the growth of chicks, if it does not ruin them entirely. Eggs laid when the weather is moderately cool are of better quality ; that is they have what is called "more body" than those laid in hot weather unless the latter are kept in refrigerators until used. Size and Dimensions of House. The size of the building re- quired will depend largely on the number of fowls to be kept and on the size of the flocks. From 40 to 50 seems to be about as many as is safe and economical to keep together. With flocks of this size about 5 square feet of floor space should be allotted to each bird, which will suffice in most cases where careful attention is given to cleanliness and ventilation. If the fowls are kept in smaller flocks more floor space per bird will be needed. Where the climate is so mild that it is unnecessary to keep the fowls confined, except for a few days at a time, less space per bird will be sufficient. The smaller breeds, being more active and restless, require about as much room as the larger breeds. POULTRY KEEPING 587 For the greatest amount of floor space for the least cost, a build- ing should be square, for, other things being equal, the nearer square a house is the less lumber it will take. It is, however, out of the question to have a large house built square. The building should not be so wide that the sun can not reach the back of the house, otherwise it will be damp. Fourteen feet is a convenient width if there are no alleyways. The house should be built as low as possible without danger of the attendants bumping their heads against the ceiling. A low house is more easily warmed than a high one. The two most common plans of building are what are known as the scratching shed plan and the continuous long house. The scratching shed plan is to build a small roosting and laying room and connected with it, a room somewhat larger with an open front facing the south. The floor of this room is covered with straw for the hens to exercise in during the day time. The open front is cov- ered with wire netting to confine the birds. It is also fitted with cloth covered frames hinged at the top to be closed during stormy weather. The object of this plan is to furnish the fowls with fresh air and exer- cise in a natural way, with a warm place in which to sleep at night. The continuous closed front house with a shed roof sloping to the rear, and fitted with windows enough in front to furnish sufficient light for the fowls is a common style. (Minn. B. 91.) Foundation Walls. When permanent houses are to be built it is usually most economical to erect them on foundations made of brick, stone, or concrete. These should be built deep enough to pre- vent heaving by frost and high enough to prevent surface water from entering. Where large stones or bricks are not readily avail- able good walls may be made from small stones. In case none of these foundation materials is available the building may be erected on posts. The Hoof. There are three general styles of roofs the single pitch, the gable roof, or double pitch with equal sides, and the com- bination, with one long and one short pitch. The single-pitch roof is the easiest to build. It gives the highest vertical front exposed to the sun's rays and throws all the rain water to the rear; but in order to have the back wall of sufficient height to allow a pei-son to work conveniently in the rear portion of the house it is necessary to have the front wall very high unless a very slight pitch is used which requires much more lumber for the front side than in the case of the other two styles. The gable roof provides for a garret space, which may be filled with straw, thus helping to make the house warm and dry. Most roofs can be one-fourth pitch. Shingle roofs, however, should generally be one-third pitch. In any case the steeper the pitch the greater will be the cost of roofing and the longer the roof will last. There are several prepared roofing materials which are good, or the roof may consist of matched lumber or shingles. Style of Roof. The most suitable style of roof depends entirely upon the type of house. The commonest form used is the shed roof, 588 DOMESTIC ANIMALS, DAIRYING, ETC. sloping one way, best adapted to the narrow house facing the south. A roof of this kind with the high side to the south sends all the water to the rear, is simple to construct and will not absorb as much heat as the combination or gable roof, upon a portion of which the sun's rays strike more directly. The shed roof should not be used on houses over fourteen feet wide as the length of span will permit sagging and in order to secure a sufficient pitch to the roof the front would need to be excessively high thus causing greater cost of con- struction. Another type of roof frequently used is the gable form which does away with the long span, thus being adapted for use on wider buildings. In addition it affords a greater pitch which is desirable in the use of shingles. The objections to its use are that it is necessary to have the back side of the house as high as the front, thus causing a waste of material upon the back, ends and partitions. The combination roof is in reality a roof combining the features of the shed and gable roof having unequal spans, the shorter usually being about one-third the length of the longer. This roof has the advantage of both types in that it can be used on a house wider than the shed roof type, affording a steeper pitch with less cost for siding. In addition the back side of the building is no higher than with the shed roof thus making it much more economical to construct than the gable roof. It should be remembered that as long as the pitch of the roof remains unchanged the material used for all three styles of roofs is exactly the same and the saving in material occurs in the sides, ends and partitions. Bearing this in mind an examination of the figure herein will show the desirable features of this type of roof as compared to the shed or gable when used on a house sixteen feet wide and having one foot rise to every three feet horizontal run. The dotted line shows the average angle of the sun's rays for Dec. 21 at the latitude of about 44 which indicates the necessity of placing the windows 6 feet 6 inches high in order for the sunlight to reach the far side of the house within. The front of the house is 7 feet high to permit this arrangement of windows, while the back of the house is only high enough to work in conveniently. The shed roof would be 9 feet 8 inches high to the top of the plate, or 2 feet 8 inches higher than the combination roof. The gable roof in the back would be 7 feet high, while 4 feet 8 inches is as high as necessary, causing a waste of material in the back of the house. It is apparent that for these specific conditions the combination roof has the advantage over the other two types commonly used in poultry houses. Ventilation. The most important essential in a poultry house is an efficient system of ventilation, affording an abundance of fresh air without drafts. Fresh air insures dryness in the poultry houses. A damp cold atmosphere is much more disastrous than a dry ex- tremely low temperature. Ventilation may be secured by patent ventilators, straw lofts, muslin curtains, and open fronts. Patent ventilators are seldom used on account of the cost of construction and the unsatisfactory manner in which they operate in the low types of building. POULTRY KEEPING 589 The straw loft is made by leaving spaces of one-inch or more between the ceiling boards which are covered with a foot or so of loose straw. Both ends of the loft should have openings, the one on the windward side being kept closed during cold weather while the other should remain open. This method of ventilation has a double advantage in that it not only affords an abundance of fresh air, but the straw takes up the moisture readily, thus rendering the house dry and producing a satisfactory system of ventilation. In addition the house with a straw loft is very desirable during hot weather, the temperature being influenced less by the heat from the sun. Muslin is being used, in part, in place of glass windows to secure fresh air and is exceedingly popular because of its economical features. Houses with one square foot of muslin and one square foot of glass to every eighteen square feet of floor space are common, the amount varying from one foot of muslin to twenty feet of floor space in a house ten feet wide to one foot of muslin to ten square feet of floor space, in a house twenty feet wide. Some poultrymen are build- ing houses with all the windows covered with muslin and where this is done double the amount of muslin previously mentioned should be used. A combination of glass and muslin is preferred and is satis- factory if properly used. The house should be aired out each day more than the muslin permits, for as soon as the cloth becomes damp it will not allow the air to pass back and forth thus rendering the ventilation imperfect. Should the walls and ceiling become damp insufficient ventilation is being used or the house is not suffi- ciently aired out during the day. Any odors in the house indi- cate deficient ventilation and more fresh air should be admitted. Fresh air is essential to insure a healthy flock, but in supplying it one must not overlook the danger of drafts. Drafts can be avoided to some extent by placing all openings on the side of the house opposite that of the prevailing winds. Frames can be hinged at the top or side or made to slide up and down as part of the window, in any con- venient manner to suit the individual requirements. A moderate sized frame also permits more efficient control of ventilation as one often finds that with large curtains the air is too close, if kept closed, but if kept open the quarters are uncomfortable. In building any poultry house its summer use should also be considered and provision be made for openings in the back so as to afford a free air circulation. Fresh Air House. This style has recently come into promi- nence. It is built with the low side, not over 4 feet high, to the south, and the high side to the north, the south side being covered with a wire screen. The open front works most advantageously on a house 16x20 feet wide although it can be used on a narrower house, pro- viding the amount of open space is reduced. About 1 square foot of open front is used to every 6 to 10 square feet of floor space. As the south side is low it is necessary to insert extra windows which are usually placed in the west end. These can be removed during the summer thus affording free movement of air and counter- acting some of the objectionable features of the extra amount of heat resulting from having the long slope of the roof to the south instend 590 DOMESTIC ANIMALS, DAIRYING, ETC. of to the north as is usually the case. The house is self-regulating so far as ventilation is concerned, adapting itself to temperature changes without necessitating the constant attention of an attendant. The roosts being located on the 'backside are out of the drafts and the snow and storms do not drive in to any great extent. For breeding stock it is exceedingly popular and in some localities it is strongly ad- vocated for egg production. From the standpoint of healthy flocks this type of house is not to be excelled and as a colony house it is being used to a considerable extent. (Mich. B. 266.) Floors. The floor may be of earth, wood, or cement. It is im- portant that the floor be dry, otherwise it will be impossible to keep litter on the floor fit for use. Straw and similar material gathers moisture, and when the litter becomes damp enough to be limp it is practically useless for fowls to scratch in for their grain feed. Earth floors are excellent, provided they are kept dry. Except in very dry climates, however, they are apt to be damp. Where an earth floor is used it should be 3 or 4 inches above the level of the ground outside. An objection to earth floors is the difficulty of cleaning them, for it is usually necessary to remove 2 or 3 inches of the top and to replace this with fresh soil, and even then one cannot be certain that all of the droppings have been removed. Board floors are usually short-lived unless air is allowed to cir- culate under them. This may be provided for by means of openings in the foundation walls, which should be closed during the winter months. A hoard floor covered with one-fourth inch of fine sand, with scratching material on this, makes a good floor. The litter and sand can be readily removed when desired and fresh materials pro- vided. If the wooden floors are constructed within 2 or 3 inches of the ground it is essential that the foundation walls be constructed in such a way that rats can not gain access beneath the floor. A good cement floor is the best, for it is easily cleaned and very durable. It should be covered with one-fourth or one-half inch of fine soil or sand and plenty of litter. In constructing this floor the ground should be excavated to the depth of 3 or 4 inches and then filled in with small stones or coarse gravel to make a good foundation. Cover with about 2 inches of mortar, made by mixing thoroughly, while dry, one part of good cement to three or four parts of sand, and then wetting with water and mixing thoroughly. (Agr. Dep. F. B. 287.) Walls of the Poultry House. They must keep out rain, snow and cold winds. They should also give strength and rigidity to the house, and must be made in such a way that they can be readily disinfected and cleaned. They must also be reasonably durable and not too expensive. To fulfill the first requirement the walls are usu- ally made wind tight. Cement blocks have been used in some locali- ties and are giving good service. Solid cement walls should never be used in the poultry house as they become damp and frost covered and can never be said to be satisfactory. Sometimes drain tiles are used in ordinary cement walls making air spaces which help keep out dampness. This method, however, is not used very extensively. SHEEP BARN. EWES IK FOREGROUND. ONE OF THE LATEST TYPES OF BROODER HOUSE. NOTE THE CLOTH WINDOW IN UPPER PART OF DOOR; ALSO CHICK EXIT WHICH is PROVIDED BY OPENING SIDE WINDOW. POULTRY KEEPING 593 Metal covered walls are becoming more common and give fair service. They must be kept constantly painted in order to be dura- ble. Most poultry houses are built with wooden walls. It is usual to use 2x4's about two feet apart for studding and either matched lumber or rough lumber with roofing paper or battens to make the wall windproof. Matched lumber, such as drop siding, is usually placed on horizontally and is used quite extensively as a house pre- sents a good appearance and can be built rapidly. Where siding of this kind is used it should always be painted before being placed on the house, care being taken to have the tongues, grooves, and edges carefully painted. The boards should be placed on the house before the paint becomes too dry. Matched siding of any kind should be dry, well driven together and well nailed so as to be wind proof. Care should be taken that all matched lumber used in this way is of good grade and free from loose knots or other such defects. To add warmth, tar building paper or one-ply roofing paper are often placed between the siding and studding, thus insuring a wind-proof wall. Many old poultry houses are built with rough boards running up and down and the cracks covered with battens. As a rule, this method of construction is not satisfactory as the battens become loose leaving cracks which are very undesirable. Rough boarding, either perpendicular or horizontal, is also being used quite extensively. When using roofing paper to cover rough boards it is advisable to cement the joints thoroughly and then batten with thin strips, at least every two feet, and then paint the entire outer surface with two coats of good paint. Other walls are constructed by nailing rough boarding to the outside of the studding, covering with tar building paper, and then with ordinary siding such as is usually used on houses. Just which form of wall is best to use will depend very largely upon the locality. With any of these, or with their modifica- tions, which are many, a tight wall can be constructed so that which is advisable depends to a large extent upon the necessity of presenting a good appearance or the necessity of keeping the construction at a low figure. Where the boarding runs up and down, less studding are used and in this way this type of construction becomes advantageous. In the poultry house, however, this requires more cutting and more labor to build. Where the boarding runs horizontally it is hard to construct a wall which will always be wind proof. (Wis. B. 215.) Perches. They should be all on the same level in the warmest part of the pen away from drafts, and should be readily removable. If the perches are not all on the same level the fowls will fight for the highest perches, and may be injured by falling from the perch. The perches should be in the warmest part of the pen as they need the most protection from the cold during the night when the fowls are inactive. At this time the house is also usually colder than dur- ing the day. The perches should be easily removable to facilitate cleaning, disinfecting, and fighting mites. They should be so con- structed that a disinfectant can be readily applied to all parts. They should be as simple as possible and made in such a way as to have 594 DOMESTIC ANIMALS, DAIRYING, ETC. the smallest number of cracks and crevices which offer hiding places for mites and other vermin. As a general rule small hens should have about six inches of perch space while the larger hens should be allowed eight inches. In the winter they huddle closer together, but in the summer there should be plenty of room to allow them to spread out. Perches should be twelve inches apart and not closer than fifteen inches to the wall or ceiling. Show birds, especially Leghorns, or similar types should be kept at a greater distance from walls and ceilings. Many good birds are spoiled by "brooming" their tails against the walls. There are several methods of making movable perches. One of the most common is by hinging them to the wall at the back. (Wis. B. 215.) Partitions. Although drafts are prevented to a considerable extent by having all the openings on one side of the house, yet in long houses drafts can be created by the wind driving in one window and out another. In order to avoid this solid partitions of boards or a combination of wire screen and canvas can be installed at intervals of about 50 feet. Occasionally these solid partitions extend out only the width of the roosting chamber, but all partitions should be solid for two or three feet from the floor to break drafts and pre- vent fighting through the wire netting. Nests. Convenience in handling and usefulness are the main requirements for satisfactory nests. Portable nests greatly facilitate cleaning while darkened nests not only afford a feeling of security on the part of the hen but also tend to reduce the amount of egg eating. Nests may be placed under the droppings boards and still maintain these requirements. After the droppings boards have been made, the nests are constructed and placed under- neath, merely resting upon cleats at each end, so that they can be removed and cleaned without interfering with the rest of the struc- ture. The nest portion is made with a board one foot wide as a base on the front and back of which is nailed four-inch strips. The parti- tions at intervals of one foot, are 1 by 12 by 13 inch pieces, while aJong the top on each side of these are nailed two-inch strips. Be- tween the strips on the front a door is hinged at the bottom, thus permitting the sections of nests to be opened for the removal of eggs. Back of the nests, on the cleats, is placed a four-inch board for the birds to walk along until they reach their particular nest. The sec- tion can be built any desired length and placed any convenient dis- tance from the floor. If the nests are placed high enough to permit the free use of the scratching floor, the roosts are apt to be too high, but this interferes only with certain breeds and is offset by its econom- ical and efficient features. In order to prevent the nests from interfering with the ar- rangement of the droppings boards a type adapted to this purpose possessing the desirable features of the nest heretofore described but requiring more time and material for its construction should be used. Being hung on the wall it can be placed at any desired dis- POULTRY KEEPING 595 tance from the floor depending entirely upon the breed kept. (Mich. B. 266.) Dust Boxes. Chickens never wash, as many other birds do, but cleanse themselves of insects by wallowing in soil. Where board or cement floors are used, some means for dusting should be provided during the winter months. For a flock of 50 to 60 fowls a dust box 3 by 5 feet or 4 by 4 feet will be found large enough in most in- stances, and should be placed where it can be reached by sunlight during as much of the day as passible. Fine, light, dry dust is the best, but sandy loam is good. Road dust is recommended by many, but it is apt to be filthy. Coal or wood ashes may be mixed with the soil if desired. Watering Devices. A convenient place should be provided for water. It is best to construct a small stand about 1 foot above the floor and place the water dish on this. This stand can be constructed in the partition so that the hens in two pens drink from one dish. It is, however, usually better to give each pen a separate drinking dish. The water stand should be placed where it is light, and also where it is convenient to empty the dish and re-fill it. As a rule the water dish will keep cleaner if near the south side of the building, as the hens scratch the litter toward the north much more than to- ward the front of the house. A hen faces the light usually when dig- fing in the straw for her feed and the result is that the litter works ack. There are numerous drinking devices on the market, many of which are valuable. A large number of farmers, however, use either a small pail or pan. A low pail makes a very convenient water dish as the bail enables it to be readily handled with one hand. A pan also makes a convenient watering dish. Care should be taken not to use watering devices of any kind which have parts that cannot be readily cleaned. A dirty drinking dish is frequently a source of disease and should never be permitted in any poultry house. (Publications Consulted. Wis. B. 215 ; F. B. 287 ; Mich. B. 266 ; Ark. B. 99; Minn. B. 91; F. B. 357; N. Y. Cornell B. 248; Mont. Circular 9; Colo. B. 164; Md. B. 146; Oreg. B. 96; Utah B. 51; Pa. B. 87.) Yarding. As perfect sanitation is one of the prime requisites to success, the larger the yards are the more easy it will be to main- tain healthful conditions among the flocks. If the yard areas must be small more care will have to be exercised. While there is no fixed rule relative to the amount of yard space required, if whole- some conditions are maintained one hundred and forty square feet per chicken will suffice. Yard fences are not invariably used. There may be exceptional surroundings and special lines of production rendering them unnec- essary. Single, double, and triple yard systems are in use. The single yards or those extending out from one side of the house the width of the individual pen are unsatisfactory, being too narrow, thus rendering it difficult to use horses and implements with which 596 DOMESTIC ANIMALS, DAIRYING, ETC, to cultivate and reseed. Green forage cannot be started in these yards without confining the chickens or vacating the house. Double yards, with one located on each side of the pen, are more satisfactory. They can be used alternately during the season with chickens foraging on one yard while a fresh crop is being started in the other, thus using the pen continuously, or the yard may be used alternate years. Occasion may permit the combination of two adjacent pens thus allowing yards of double width as in the case of the commercial house with individual pens 18 feet in width and the adjoining yards 36 feet. This arrangement reduces the cost of fencing considerably and greatly facilitates the working of the soil, and in addition affords the chickens a greater amount of rang- ing area. By this plan all cross-fences can be eliminated should spe- cial conditions permit. For long continuous houses double yards are most satisfactory. (Mich. B. 266.) TURKEYS. No other kind of domestic poultry has come into such general use throughout the entire world for Thanksgiving and holiday feasts as has the turkey. Records show that in England, in 1541, it was enumerated among the dainties, while in 1573 it had become the customary fare of the farmer. It is well known that the Ameri- can Bronze turkey originated from the union of the wild turkey of North America with the domestic turkey of this country. North American Wild Turkey. This is the original species of the Eastern United States, known as Meleagris americana, whose colors are black, beautifully shaded with a rich bronze, the breast plumage being dark bronze, illuminated with a lustrous finish of coppery gold. This finish of bronze and gold emblazons the entire plumage throughout as if burnished into brightness. In the rays of the sun it shows a most beautiful combination of bronze, black, copper, and gold. Mexican Turkey. The wild turkey of the southern, or Mexi- can, country, called by some naturalists Meleagris mexicana, is somewhat shorter in shank than the northern species, in body color metallic-black shaded with bronze, its tail and other feathers being tipped with white. This appears to be the species that was first taken to Spain and other European countries. It is also thought that the white markings of the plumage of this fowl show its in- fluence on the variety of domestic turkeys known as the Narragan- sett. Ocellated Turkey. The wild species known as the Honduras turkey scientifically as Meleagris ocellata was originally a native of Honduras and other parts of Central America. Some describe it as most beautiful in coloring, equal to the Impeyan pheasant, if not richer. The head and neck of this wild variety are naked and no breast tuft is present. This is a beautiful brilliantly colored bird, but cannot be successfully bred in domestication in the northern climate. Domestication. There is apparently no contention regarding the original transportation of the turkeys from America to Spain POULTRY KEEPING 597 between the years 1518 and 1526. It also seems to be admitted that they were introduced into England in 1524. Among the earliest recorded varieties of domestic turkeys we find the Black Norfolk and the large Cambridge turkey. Undoubtedly the turkey had been domesticated in this country prior to the recording of these varieties in England. Present Condition of the Industry. The growing of turkeys seems to have improved within the last few years as a result of a de- termined effort on the part of producers of what is termed standard- bred, or exhibition, stock to demonstrate that it is more profitable to use purebred breeding stock than the smaller 'and less vigorous stock of days gone by. Their efforts to introduce throughout the country the several standard varieties of turkeys has greatly benefited the turkey-growing industry of this country. This effort has sup- plied rich, new, vigorous blood throughout the whole country, add- ing strength and vigor to innumerable flocks, and thereby, to some <'.\k'iit, building up the stock that had become deteriorated through the carelessness and inattention of the producers themselves. Deterioration Through Inbreeding. The fact that one fecunda- tion is sufficient to render fertile all the eggs of one laying has made possible the undermining of the health and vigor of the present- day domestic turkey. Being advised of this, hundreds of people de- pend upon their neighbors' flocks for the services of a male and! pay no attention to the matter of breeding stock except to keep one or two turkey hens. This has reduced many of the turkeys through- out the country almost to a condition of imbecility. The lack of vigor in a large portion of the breeding stock throughout the coun- try has jeopardized to a certain extent the production of a sufficient number of market turkeys to supply the demand. In fact, not fully realizing that their failure was largely due to undermining the vitality of their breeding stock through inbreeding, people have be- come so disheartened in some localities with the meager results of their efforts to grow turkeys for the market that they have desisted from the attempt. Throughout the country the attention of turkey growers has been called to the successful production of market turkeys in the State of Rhode Island. Unquestionably some of the best market turkeys produced in the world have been sent out of Rhode Island. But even there the art was in danger of being lost through careless handling of breeding stock. Weights for Market. Turkeys that are hatched early in the spring should grow to weigh from 14 to 20 pounds by Thanksgiving week. These weights are often exceeded by the best growers, but as they are the most popular and most readily produced, they are sug- gested as the mast advisable. The average yield of turkey hens is from 18 to 30 eggs, each of which can usually be counted on to pro- duce a living poult. The question of profit from keeping turkeys simply resolves itself into the ability of the grower to bring them to a marketable size. This can readily be done if care and attention be given to all the requirements for success, 598 DOMESTIC ANIMALS, DAIRYING, ETC. Standard Varieties of Domestic Turkeys. The Spaniards have the credit of taking the turkey from Mexico to Europe. From the Mexican variety the turkeys of England were bred, and what is known in England as the Norfolk variety we call the Black turkey. Quite likely this variety came from England to us, and was used as the foundation for the cross with our wild turkeys to establish or create the Bronze turkey. The influence of the light markings of the Mexican turkey is shown in the plumage of some our our domestic varieties. Six Standard Varieties. Six standard varieties of turkeys are more or less grown in this country, viz, Bronze, Narragansett, Buff, Slate, White, and Black. The main differences are in size and color of plumage. The Bronze and the Narragansett are the largest, the Buff and Slate are the medium, and the Black and White the small- est. Of late so much improvement in size has been made in the Whites that they have moved up to contend for third position, some of them having passed the 30-pound mark. The same statement may soon be made of the Blacks, as they have greatly improved during the last few years. In addition to the foregoing there is a nonstandard variety known as the Bourbon Reds. They might well claim the position now held by the Buff turkeys, being quite like them and more largely grown for market than are the Buffs. There is scarcely enough preference shown in the open market for any one of these varieties for table use to cause it to be favored in production of tur- keys for the market. There is, however, a strong preference at all times for the best grown and best finished specimens of all varieties. In Rhode Island, where the highest quality is produced, there does not seem to be much preference for any particular variety. The Bronze Turkey. This variety holds the post of honor. ! As already stated, it probably originated from a cross between the wild and the tame turkey. Its beautiful rich plumage and its size have come from its wild progenitor. To maintain these desirable qualities, crosses are continually made. In this way the mammoth size has been gained. Their standard weight ranges from 16 to 36 pounds, according to age and sex. Probably more of this variety are grown each year than of all others. They have been pushed on all sides almost to the exclusion of the others until within a year or two. If possible the Bronze turkey has been developed too much in the direction of size. While size, within reasonable limits, is to be desired and encouraged, when it is confined to length of thigh and shank, it is a gain of weight with but little additional value. Coloring. The coloring of this variety is a ground of black blazoned or shaded with bronze. This shading is rich and glowing, and, when the sun's rays are reflected from these colors, they shine like polished steel. The female is not as rich in color as the male, but both have the same color and shadings. Much of this richness of color is lost through inbreeding, as it is improved by each cross with the wild specimens, POULTRY KEEPING 599 Selection of Breeding Stock. Naturally the Bronze turkey should be the largest in size, the most vigorous in constitution, and the most profitable to grow. This would be the status of the variety at present were it not that too little attention has been given to the selection of the females for breeding stock. It should be fully under- stood that size and constitutional vigor come largely through the female, and, to have this influence to the fullest extent, well-pro- portioned, vigorous females in their second or third year shjould be selected as 'breeders. Do not select the very large specimens for this purpose; those of a medium size are usually the best. Discard the undersized females at all times, as they are of but little value as producers. The Narragansett Turkey. The turkeys of this variety are next in size to the Bronze. They are of black ground color, each feather ending with a band of steel gray, edged with black. This imparts a grayish cast to the entire surface plumage. Mixed with this is the finish of metallic black and 'bronze luster. They are beautiful in form and feather and breed true to shape and color. The female has a lighter shade of gray in her markings than the male. Her entire color throughout is of lighter shading. Size. The standard weights of this variety are, for males, from 20 to 30 pounds, according to age; for females, 12 to 18 pounds. Some old males of both this and the Bronze variety weigh over 40 pounds. These weights are excessive and practically no advantage in breeding. None of the several varieties of turkeys is more de- sirable than this for all purposes, and it should be more generally cul- tivated throughout the country for market. Turkeys of this variety are fine in form of breast and body, not so long in the leg as the Bronze, and of a rather more contented nature. They do not average so large in size as the Bronze, but where grown they are highly val- ued. Some declare that the Narragansetts will reach market size and condition in less time than the Bronze turkeys. The Buff Turkey. This variety is not generally grown throughout the country. In many localities it is almost unknown. The standard calls for a pure buff color throughout, but this shade of coloring is seldom seen. As bred for market, these turkeys are of a reddish buff or light chestnut color mixed with white and some dark shadings. They are highly valued in some localities for their quick growth and for their attractiveness when dressed. Their aver- age weight is several pounds less than that of the Narragansett. They show evidence of having been crossed with other varieties, perhaps to increase size. Some who raise this variety have paid special atten- tion to its individuality and have maintained the true type and color, adding greatly to its beauty of appearance. Some of the Rhode Island turkey growers are now paying attention to this variety to determine its value for that state. The Slate Turkey. This might be called a Blue turkey. These turkeys about average in size with the Buffs and Blacks as we general- ly find them. They range from 10 to 30 pounds according to age and sex. The standard weights range from 12 pounds for a pullet or 600 DOMESTIC ANIMALS, DAIRYING, ETC. young hen to 27 pounds for an old torn, and in color they are slaty or ashy blue throughout, usually spotted with black. The black color ranges from small spots to larger markings, but the less of this the better for exhibition purposes. The female is usually of a lighter shade than the male. It might be surmised that the Slate turkey originated from a cross of White and Black turkeys. These, like the Buff turkeys, are not largely bred, though some value them highly ; in fact, scarcely enough of them are grown to fairly determine their merit as market turkeys. It might be of advantage to all if more attention were given to the cultivation of these two neglected varieties. White Turkey. In America the white variety is called the White Holland turkey, because they were thought to have originated in Holland, but this is doubtful although they were probably brought to this country from Holland. White turkeys were formerly quite delicate and rather small, but now are more generally developed. This change is attributed to an infusion of the blood of White sports from either the Bronze or Narragansett varieties, which has improved both size and vigor, but detracted from the color of shanks and plumage. In some instances the shanks are not quite so true a pinkish white as is demanded, and the plumage is clouded; but this in no way detracts from their value for market purposes. Size and Color. The standard of weight is less for the Whites than for other varieties. They range from 10 pounds for young hens to 26 pounds for old toms. Recently some toms have been seen that weighed 35 pounds in show condition, but this weight is quite un- usual. In color of plumage they should be white throughout (ex- cept that each has a black beard on the breast), with shanks and toes pinkish white. Those that have the dark or slate-colored shanks show undoubtedly that they have resulted from a cross with some other variety. Comparative Value. In some localities White turkeys are largely grown. They show a vitality equal to that of other varieties, and are no more difficult to rear. In one section visited the writer found by careful investigation that as large a percentage of Whites was grown during the very bad season of 1903 as of the other kinds. With some the Whites did the best. When the vigor is perfect and the mating birds nonrelated, the young of White turkeys are quite as easy to grow as any young turkeys. One can not select a better variety for all uses than the White Holland. They grow to the most profitable sizes, dress beautifully for market, their light, pinkish white shanks add to their appear- ance, and with them, as with all white poultry, the pin feathers show less than in darker varieties. The very largest turkeys are not the most profitable either to grow or to sell. The medium sizes from 9 to 18 pounds dressed are most desirable for family use. It is said that they are particularly adapted to restricted ranges and do as well as any breed when confined. The Black Turkey. This variety was for a time almost forgot- ten and quite neglected, but of late more attention has been given it, greatly to its advantage and improvement along the lines of valu- POULTRY KEEPING 01 able market qualities. The Black turkey of to-day is almost as large as the Bronze and fully its equal in many ways. This is due to crosses made with Bronze turkeys, and to proper selection thereafter. This variety is much the same as the English Norfolk turkey. No turkeys are more desirable for table purposes. When dressed they present the yellow color of skin and meat and the plumpness and finish that are desirable. The Blacks round up nicely at an early age, are quite hardy, and mature in time for early markets. Black turkeys, like the White, do not have so great a tendency to roam as the Bronze. The young are quite hardy. Rules for Selecting Stock. A few plain rules which may be observed to advantage are as follows: First, always use as breeders turkey hens over one year old. Be sure they are strong, healthy, and vigorous, and of good medium size. In no instance select the smaller ones. Do not strive to have them unnaturally large. Second, the male may be a yearling or older. Do not imagine that the large overgrown males are the best. Strength, health, and vigor, with well-proportioned medium size are the main points of excellence. Third, avoid close breeding. New blood is of vital importance to turkeys. Better send a thousand miles for a new male than to risk the chances of inbreeding. Secure one in the fall so as to be assured of his health and vigor prior to the breeding season. Suggestions in Regard to Breeding Stock. No matter what variety of turkeys may be selected for keeping, they should, above all things, be strong, vigorous, healthy, and well matured. Better secure the females from one locality and the male from another to insure their nonrelationship, rather than run the risk of inbreeding. In all fowls it is well to remember that size is influenced largely by the female and the color and finish by the male. Securing overlarge males to pair with small weakly hens is not wise policy. A medium-sized male with good fair-sized females of good con- stitutional vigor and mature age will do far better than the largest with the smallest females. Kind of Males to Select. When we stop to consider that the male turkey is one-half of the entire flock in the matter of breeding we may be led to greater care in his selection. None can be too good for the- purpose; constitutional vigor is of first importance; without this he can not have any value whatever for the purpose intended. Plenty of bone, a full, round breast, and long body are important. No matter of what stock or breeding the hen may be the male should be selected from some standard variety. Number of Females to One Male. The best rule for mating is to have four or five females to one male; some say twelve, and the writer has heard of a fine hatch and vigorous poults from a two-year- old torn with twenty hens; but this is unusual. When they are yarded and from eight to ten females are kept, it is better to have two toms and keep one shut up while the other is with the hens, changing them at least twice a week. When they run at large on a farm they will naturally divide into flocks; under such conditions one male to not more than six females is best. 602 DOMESTIC ANIMALS, DAIRYING, ETC. Pairing. A feature of vital importance is assured fertility of the eggs. As soon as the hen turkey has paired with the male she pays but little attention to him for the time, being fully intent on locating a quiet nesting place where she can lay her eggs. If perchance the pairing with the male has not been complete, her whole clutch of eggs will be infertile and her time and labor a total loss. The importance of vigor in the male is manifest at this most critical time. There is danger in having extra males that may disturb each other at the time of pairing. Therefore, never allow but one male turkey at a time to run with a group of breeding hens. Danger from Insect Parasites. -Whether the eggs are hatched by turkey hens or chicken hens, equal caution should be used to prevent the possibility of insect parasites of any kind being in or about the nest or upon the body of the hen. A dirt foundation cov- ered with some slaked lime is a good beginning in the construction of a nest. Upon this should be placed a fresh nest of soft straw or hay. No other enemy is so destructive to young poults as lice, which are very apt to infest them as soon as they are hatched, if a determined fight is not made to prevent it. After the poults have begun to grow, they must be watched continually to guard against the presence of the lice. Period of Incubation. It takes twenty-seven to twenty-nine days for turkey eggs to hatch. Those that are perfectly fresh will hatch a few hours sooner than those that have been kept a week or longer before placing them under the hens. The Use of Incubators. The eggs of turkeys can be hatched in incubators quite as well as the eggs of other fowls. It is preferable, however, to have them hatched by the hens that are to brood them ; in fact, this is the prevailing custom. There is a feeling of confi- dence when the eggs are in the care of a broody hen which does not exist when artificial methods are employed which depend for suc- cess on the care of an attendant. Use of Brooders. The growing of poults in brooders has been tried to some extent. The difficulties in the way are as follows : The poults do not seem to realize that they should look down to the floor for food ; they run about with their head up, peeping continually for food, until many die from exhaustion. To overcome this, the food is taken between the fingers and held close to their beaks to induce them to eat. Copying Nature. It should never be forgotten that in the wild state their food was the bugs, worms, seeds, etc., which they could find for themselves, and which were hunted for and scrambled after continually. There was then no overfeeding upon rich unnatural foods that impaired health and produced bowel troubles or other ail- ments that naturally follow unwholesome food. They subsisted by their own efforts in the wild state, while now they are quite too often forced to eat unnatural foods that are furnished in hope of forcing them to an unnatural growth. If the grower wishes to copy nature as nearly as possible, the young poults may be given for their first meal very fine oatmeal or finely cracked wheat or corn, with a little POULTRY KEEPING 603 fine grit of some kind and a very little granulated meat scrap. Some of the commercial brands of poultry food are also good. They should have clean water convenient where they can help themselves at will. Advantage of the Early Market. Keep them growing from start to finish, and have them ready for the Thanksgiving market, when prices are usually the best. This may be accomplished quite easily with all the early broods, provided they are properly and liberally fed as the fall weather begins to remove their natural food supply of worms, bugs, seeds, and herbs of all kinds. What and When to Feed. As a general rule do not feed them wet food or slops. Poults are seed-eating chicks, not slop eaters. Old corn is better than new for heavy feeding, as the latter is apt to cause looseness of the bowels. If necessary to use new corn, it should be introduced into the ration gradually. If the poults have gained a strong, well developed physique by early fall, they will be in fine condition for heavy feeding. As soon as they have become accus- tomed to grain feeding, they may be fed once or even twice a day on ground oats and corn meal mixed with milk. Dry-picking. Dry-picking is always to be preferred when pre- paring the fowls for market. When in fine condition, nicely picked, and sent to market without having been packed in ice, a turkey is at its best, and consequently commands the highest price. As soon as the fowl is stuck' and the blood is still flowing, pluck the feathers dry from its body, taking care in doing this not to break the skin or tear the flesh. Nothing detracts so much from dressed poultry as torn places upon the carcass or shank ; picking must be clean and nicely done. (Dep. Agr. F. B. 200; Washington B. 96; R. I. B. 123.) DUCKS. Standard Varieties of Ducks. There are twelve standard varie- ties of ducks raised in this country, as follows: The White Pekin, White Aylesbury, Colored Rouen, Black Cayuga, Colored Muscovy, White Muscovy, Indian Runner, Gray Call, White Call, Black East India, Crested White, and Blue Swedish. Of these varieties, the first seven are considered profitable to raise. White Pekin Ducks. Of all ducks for farm and practical pur- poses none stands higher in popular esteem than the White Pekin. It is valuable for raising on a large scale and is the most easily raised of all. It is a very timid bird and must be handled quite carefully. It was imported from China in the early seventies, and has steadily grown in popularity since its introduction into this country. Description. The Pekin duck has a distinct type of its own and differs from all others in the shape and carriage of its body. By some it is credited with having a shape much like an Indian canoe, owing to the full growth of feathers under the rump and the singular turned-tip carriage of the tail. The legs are set far back, which causes the bird to walk in an upright position. In size these ducks are very- large, some reaching as high as 20 pounds to the pair. Their flesh is very delicate and free from grossness, and they are considered among the best of table fowls. They are excellent layers, averaging from 100 to 150 eggs each in a season. They are nonsitters, hardy, 604 DOMESTIC ANIMALS, DAIRYING, ETC. easily raised, and mature early. The standard weight of the adult drake is 8 pounds; adult duck, 7 pounds; young drake, 7 pounds, and young duck, 6 pounds. White Aylesbury Ducks. They are second] to the popular Pekins for market purposes, and are bred in large numbers in Eng- land and Europe. In this country they are not so extensively bred as the Pekin, neither have they been found so good as the latter. These ducks receive their name from Aylesbury, the county town of Buckinghamshire, England. They are of large size, pairs occasion- ally reaching the weight of 18 pounds, the male birds weighing 9 or 10 pounds and the females 7 or 8. Birds weighing 15 to 16 pounds to the pair are the average. Description. The head of the Aylesbury duck is long and neatly formed ; the eyes of a deep leaden color ; the long wide bill is of a pale flesh color or pinkish hue, and should be free from dark spots, bill of drake marred with black being a disqualification ; the neck is slender, long, and gracefully curved; the body is long and deep ; the breast is full and round. For farm purposes the Aylesbury is to be recommended, second only to the Pekin ; it possesses the many good qualities of the Pekin, and can be bred with almost the same success. The advantages claimed for the Aylesbury are the ease with which it is acclimated, thriving in every country and climate ; its early maturity ; its great hardiness; its large size; its great prolificacy, and the real beauty which it possesses. Raisers recommend for raising exhibition birds one drake to two ducks, or two drakes to five ducks, all being allowed to run together. Duck raisers who raise large numbers for market breed them as they do Pekins, using from four to eight females to one male, according to the season of the year. Fresh blood is introduced every year to keep up the size, and breeding stock is sel- dom kept longer than the second or third year. The standard weight of the adult drake is 9 pounds ; adult duck, 8 pounds ; young drake, 8 pounds ; and young duck, 7 pounds. Colored Rouen Ducks. This duck is deservedly popular throughout this country, and is considered one of the most profitable varieties to keep. These ducks are said to have come originally from the city of Rouen, in Normandy. It is known that large quantities of poultry are raised in Normandy, and while there may be no posi- tive proof that these ducks came originally from that city, large num- bers of birds closely resembling them are to be found in the market places there. Some writers contend that the name should be Roan, owing to their color, but the color itself does not support this conten- tion. The correct name is Rouen, and Roan is undoubtedly a corruption. Description. The Rouen duck is a fine market bird, but does not mature as early as does the Pekin or the Aylesbury. The flesh is considered very delicate, and the breed is acknowledged to be ex* celient for table purposes, being easily fattened. The Rouen will be found a profitable bird to raise on the farm, being hardy, prolific. POULTRY KEEPING 605 quiet in disposition, and of beautiful plumage. Their eggs are not as large as those of the Pekin, and are diverse in color. Both the Rouen drake and duck, clothed in plumage attractive and pleasing to the eye, are as much fanciers' fowls as any of the varieties of chickens, yet they are of much value as market birds. The only objection to them, aside from their slow maturing quali- ties, is that of the dark pinfeathers. This should not stand against them any more than it does against the many valuable varieties of chickens that have dark plumage and dark pinfeathers. To the farmer who intends raising ducks for market purposes they are to be recommended. The standard weight of the adult drake is 9 pounds ; adult duck, 8 pounds; young drake, 8 pounds, and young duck, 7 pounds. Black Cayuga Ducks. This is distinctly an American duck, having been bred so long in this country that all trace of its origin is lost. It is said that it was first found in the central part of New York, on Cayuga Lake. It was sometimes called the Big Black duck, and again the Lake duck, but is now known only as the Black Cayuga duck. By some it is supposed to have originally come from the wild Black duck, and another story has it that it was first found in Dutch- ess County, in the State of New York, where a miller was raising a flock of thirty, which he said were bred from a pair he had cap- tured several years previous in a mill pond. They were kept in the poultry yard, easily tamed, and built their nests on the edges of the pond and raised large broods. For many years the Cayuga has been raised in this country and has been considered by those who have bred it to be a profitable duck to keep. Description. By some raisers the Cayuga is considered to be as good as the Pekin for early markets, and the claim is made that it can be grown as cheaply. This assertion is not verified by any prac- tical demonstration, as these ducks are rarely, if ever, seen on any farm where ducks are raised exclusively. Though raisers generally speak of their merits as making them profitable, and place them next to the Pekin for early markets, they prefer the latter for exclusive duck raising where early maturity and plump carcasses are wanted. Their black plumage is against them also, and many assign this as the reason why they are not more extensively bred. The standard weight of the adult drake is 8 pounds; adult duck, 7 pounds; young drake, 7 pounds, and young duck, 6 pounds. Colored and White Muscovy Ducks. These form a distinct genus, having several peculiarities or characteristics which make them different from others. They are sometimes called the Mn.-k duck, owing to the odor of musk which pervades the skin, but which is not noticeable when cooked. These ducks are found wild in the warmer regions of South America. Description. They are very unsatisfactory birds to keep on the farm with other poultry, owing to their quarrelsome and pugnacious natures. In the wild state, before pairing, the males fight desper- ately, doing great harm to each other; and this fighting, quarrel- some disposition is inherited by the domestic duck. The temper of 606 DOMESTIC ANIMALS, DAIRYING, ETC. the drake is spoken of as abominable ; his persecution of other poul- try is never ceasing. The standard weight of the adult drake is 10 pounds; adult duck, 7 pounds; young drake, 8 pounds, and young duck, 6 pounds. Indian Runner Ducks. These ducks came originally from In- dia; hence the name Indian. The term Runner comes from the fact that they literally run instead of waddling like most ducks. The Indian Runner is a breed of small, utility duck noted for its egg production, and is often termed the Leghorn of the duck family. These ducks have been credited with records of more than 200 eggs each in flocks of ten, and of 192 eggs each in flocks of one hundred. The Runners are active in their habits, are good foragers, and on an extensive run are able to find a large proportion of their food. They are nonsitters, are hardy and easily reared, but do not stand confinement well. Their flesh is of a deep yellow color and is of fine quality, but their small size is rather against them for market purposes, except for broilers. The standard weight of the drake is 4% pounds and of the duck 4 pounds. Gray and White Call Ducks. They are bred more for the fancy than for the profit there is in them for market, and are bantams. There are two kinds of Call ducks, the Gray Call and the White Call, and it is only a choice of plumage as to which is the better of the two. They are both of one character as to size, shape, and habits, and differ only as regards color. The Gray Call is very similar in color of plumage to the Rouen, and is indeed called by many the Bantam Rouen, and the White is generally called the Bantam Pekin. Their uses are only for the showroom, or as decoy ducks for wild- duck shooting. For the latter purposes they are sometimes crossed with the common "puddle duck" or with the wild Mallard. This latter cross is considered excellent, the progeny being distinguished for tameness and domesticity. Description. When breeding Call ducks, smallness of size is the first consideration; the smaller they are bred the better. The arts of skillful breeding for the showroom are being used in keeping down the size. Management of Ducks. Duck raising has been developed within the last thirty years into a flourishing industry. Prior to that time the duck was not considered a profitable fowl to raise; its flesh was never prized very highly by the masses. Ducks were raised without constraint in waterways, feeding mostly on fish and water insects. This food gave the flesh a strong fishy flavor; hence it was not par- ticularly sought after, save by the few who were partial to that class of diet. The duck centers of Long Island and New England were then producing a limited number each season, and it was with diffi- culty that these were sold with any profit. In fact, one of the most prominent duck raisers may be quoted as saying that he was obliged to visit the city markets personally and tease the dealers to purchase his birds, in order to secure anything like satisfactory prices. Artificial incubation and brooding, combined with judicious feeding, have been instrumental in the development of the industry. POULTRY KEEPING 607 Machinery has enabled the duck raiser to accomplish his ambition of having his stock in the markets when prices are the best, and also of raising large numbers of birds in a limited space of time. The season for raising ducks is about six months from February to July, inclusive. Duck raising is to be recommended to farmers as a profitable source of revenue; and by careful attention to the work, as knowl- edge increases, the scope of the industry may be extended. There are numbers of farms in this country to-day that are devoted ex- clusively to raising ducks, averaging from 5,000 to 30,000 ducks as an annual output. An idea of the proportions of the business may be had from the fact that as high as three tons of feed are used daily by a single raiser during the busy season. The profits are the very best, and good incomes may be made when once the business is thor- oughly mastered. But the reader should not jump imprudently to the conclusion that these results can be easily obtained. Duck rais- ing is an arduous task ; one that requires an apprenticeship and abso- lute knowledge of the business before/ success is reached. Those who have been successful in raising ducks/have learned the business much as one does any other vocation. The beginner should start modestly, and increase his plant as his knowledge of the work increases. The average farmer has all the facilities for raising a goodly number of ducks, and may with a little oujtlay add considerably to his income. It is not at all necessary tha^ducks should have access to water to be raised successfully, for they grow and thrive as readily without. There are successful plants where thousands of ducks are raised that have no water, save that which is given them as drink. It has been a matter of much dispute which is the better way. Some duck raisers tise water and allow their breeders the freedom of it; some allow their growing stock intended for market free access to water until they are eight weeks old, when they are penned and fattened for market. On the other hand, there are raisers who have no water on their farms, excepting wells, who are just as successful and raise as many birds as those who have the water. The only noticeable dif- ference between "upland" and "water" ducks is that the latter are of prettier and cleaner plumage than the former. Buildings for Breeding Ducks. Houses for ducks are simple affairs. They are built plain and comfortable, and have no furnish- ings whatever. A duck is differently constituted from a hen, and must be cared for under different conditions. The hen needs warmer houses and drier surroundings than does the duck. A duck does not mind the cold if she can keep her feet warm. Cold feet will affect a duck as a frozen comb does a hen, retarding laying and inducing ailments. The feathers of a duck are almost impenetrable and will -withstand almost any degree of cold. Again, a duck can not stand the amount of confinement in a house that a hen can ; she is more restless in disposition and is given to exercise in a greater degree than is a hen. Indigestion is not so prevalent with ducks as with chickens ; the duck's ceaseless motion aids the digestive organs and keeps her generally in good health. 608 DOMESTIC ANIMALS, DAIRYING, ETC. How Much to Feed. The amount of food needed each day for young duck varies as much as does their growth. Their growth aver- ages a half pound a week ; and to make this increase of weight each week requires an additional quantity of food over the preceding one. The rule is, feed each meal what they will eat up clean with a relish, and do not allow them to linger over the feed trough. It is better they should have not enough than too much, as they will be in a much better condition to relish the next meal. One thing is con- sidered to be of as much importance as the feed, and that is removing the feed left over and thoroughly cleaning the troughs after each meal. This is scrupulously attended to by successful duck raisers. One raiser gives, as a generous allowance for one day's ration for one hundred laying ducks, the following : For the morning meal, 35 quarts of the mash, and for the evening meal 40 quarts, making a total of 75 quarts for the day's portion, or three-fourths of a quart to each duck a day. Another raiser allows 400 quarts, fed in halves, twice a day, to six hundred breeding or laying ducks, averaging two- thirds of a quart to each duck a day. It cost from 6 to 12 cents a pound to raise a duck for market at ten weeks of age. It costs from $1.75 to $2.50 each to keep breed- ing ducks a year. The three different methods of feeding ducks are as follows: (1) Feeding ducks for market (ten weeks old); (2) feeding young ducks to be kept as breeders; (3) feeding old ducks. The first method, for the sake of convenience and to explain more fully the composition of the rations, is subdivided into four parts, as follows: (1) From time of hatching to five days old provide the follow- ing mixture : Cracker or bread crumbs and corn meal, equal parts by measure ; hard boiled eggs, 15 per cent of the total bulk of crack- ers and meal ; sand, 5 per cent of the total of crackers and meal. Mix with water or milk, and feed four times a day. (2) From five to twenty days old, the following mixture : Wheat bran, two parts by measure; corn meal, one part; rolled oats, 50 per cent of this bulk; beef scraps, 5 per cent; sand, 5 per cent; green food, 10 per cent. Mix with water to a dry crumbly state and feed four times a day. (3) From twenty to forty-two days old, the following mixture: Wheat bran, two parts by measure ; corn meal, one part ; beef scraps, 5 per cent of this bulk; sand, 5 per cent; green food, 10 per cent. Mix with water to a dry crumbly state and feed four times a day. (4) From forty-two to seventy days old, the following mixture : Corn meal, two parts by measure; wheat bran, one part; beef scraps, 10 per cent of this bulk ; coarse sand or grit, 5 per cent ; green food, 10 per cent. Mix with water to a dry crumbly state and feed fouu times a day. The hours for feeding are 6 a. m., 10 a. m., 2 p. m., and 6 p. m. When ducks are raised for breeders they are fed differently from those intended for market. They are not forced so much as are the latter, and less fattening food is given them. The corn meal and beef scraps are reduced to one-half the quantity used in the above GREAT HORNED OWL. POULTRY KEEPING 611 rations. The following is an excellent ration: Equal parts corn meal, wheat bran, green food, 5 per cent of beef scraps, and 5 per cent coarse sand or grit. A ration for breeding (laying) ducks is recommended as follows : Fifty per cent by measure, corn meal ; 15 per cent wheat bran ; 15 per cent green foods (cooked vegetables, such as potatoes, turnips, etc.) ; 12 per cent beef scraps, and 8 per cent coarse sand or grit. Mix with water to a dry crumbly state and feed twice a day, morning and night. After the breeding season is over and the ducks have stopped laying they are changed from this to the equal-parts ration, as given above for ducklings from seven to fifty-six days old. Oyster Shells and Grit. Grit in some form is essential to ducks, and should be kept before them at all times. Many overlook this fact, and do not seem to understand that it is of as much value to them as it is to chickens. Incubation. Of the natural method we shall treat first: Hens of medium size of the American class, barred Plymouth Rocks and Wyandottes, are considered the best for sitting. Nine duck eggs are about the right number to place under a hen in early spring weather, but when the season is far advanced as many as thirteen are used. The hens should be provided with large, roomy nests, and slatted fronts that can be removed and replaced easily when the hens are fed and watered. The nesting material should be of hay or straw, and the nest should be slightly concaved ; in the bottom place a little finely cut hay. Before the hen is put on the eggs she should be thoroughly dusted with insecticides; the nest also should have a good dusting of the game. Both hen and nest should undergo a thorough dusting sev- eral times during the process of hatching as a safeguard against lice. When the ducklings are hatched they should also have their share of the insecticides before they are given to the hen. For artificial incubation, have a room with a temperature as nearly uniform as possible. Balance the heat in the machines, or, in other words, see that the heat is uniform at both ends, and, in fact, all over them. See that each is running steadily before placing the eggs in it, as there is a great deal in starting right. The machines should be run at a temperature of 102 for the first three weeks, and 103 the last week. The eggs should be turned twice each day at regular periods. Introduce a pan of water from the fifteenth to the twenty-second day, no matter what the location of the machine, whether in a damp cellar or in a dry room overhead, in a moist at- mosphere near the seashore or in a dry one at an altitude in the country. The temperature may go as high as 104 just previous to and while hatching without injury. Considerable weight has been put upon the ventilation question in incubators by manufacturers and operators, but it has been found that when the egg chamber is roomy, and the eggs are taken out and cooled twice each day, it is not of so much consequence. There is no doubt but that there must be some ventilation in the egg chamber, but from the experience and observation of the writer the value of the 612 DOMESTIC ANIMALS, DAIRYING, ETC. subject has been overestimated by many. Some machines have top ventilation, some bottom, and others both top and bottom, and there is seemingly no marked difference in the hatching. When the ducklings are hatching, the broken egg shells should be removed once in every six or eight hours, so that they will not slip over the pipped eggs, as it would be sure death to the imprisoned ones. Occasionally a little bird is unable to free itself from the shell and needs help ; the expert can readily detect when this is necessary. The one point to note in this connection is this : The egg just be- fore hatching radiates a great deal of heat, while the duckling, when first out, being not unlike a little sponge, absorbs it, or, in other words, the rapid evaporation which takes place generates cold; so that when the ducklings are out the machine should be gauged one degree higher. When the ducklings are all out and dried off, the machine will run at least two degrees lower than when they were in the egg. Plenty of ventilation is needed in the machines while hatching. Keep the ducklings in the machine at least twenty-four hours after hatching, when they will be strong enough to be removed to the brooder. The heat in the brooder should be started twenty-four hours previous to use, so that it will be perfectly heated and ready for the ducklings when they are taken away from the machine. (Dep. AST. F. B. 64; N. Y. B. 259.) GEESE. There are seven standard varieties of geese, as follows: Gray Toulouse, White Embden, Gray African, Brown Chinese, White Chi- nese, Gray Wild, and Colored Egyptian. Gray Toulouse Geese. They are named for the city in France of that name, where they are extensively bred. In this country they are bred in large numbers by farmers and are fairly well thought of for market purposes. Their flesh is a trifle too coarse and flabby, when compared with some other geese, to be prized very highly for table purposes. They are termed a Christmas goose, as, being later in maturing than the others, they are just about right at the holiday time. They are fairly good layers, averaging about 40 eggs a season. Description. Toulouse geese are more compact in shape than other geese, and are preferred by many for this reason. The body of the Toulouse goose is moderate in length, broad, and very deep and compact, the more compact the better; and in birds in good condi- tion the belly almost touches the ground. In color of plumage they are a dull gray. The head is gray and the neck dark blue-gray, which shades to a lighter gray as it approaches the back ; the back is of dark gray, while the breast is light gray. The body plumage is light gray, which grows lighter and becomes white on the belly; the white extends back to and around the tail, covering the fluffy parts. The standard weight of the adult gander is 20 pounds; adult goose, 18 pounds ; young gander, 18 pounds ; and young goose, 15 pounds. White Embden Geese. They are considered very practical birds for farmers, and pay well for their keeping. They are nice looking, of large size, tall and erect carriage, and snow-white plumage. They POULTRY KEEPING 613 originally came from Embden, in Westphalia, and have been bred in this country for many years. Description. The Embdens are not so prolific as the Brown Chi- nese or Toulouse, 20 eggs in a season being a good average for them. Their eggs are very large, white, and have a very thick, rough shell. In carriage they are very tall and erect, and have fine square bodies. Weight. The standard weight of the adult gander is 20 pounds; adult goose, 18 pounds; young gander, 18 pounds; and young goose, 16 pounds. Gray African Geese. They are by many raisers considered the most profitable of all geese to keep. They grow the heaviest in the shortest space of time, and are ready for market in ten weeks, weigh- ing at that age between 8 and 10 pounds. They are very much like the Pekin duck in this respect, and as compared with other geese give the most satisfactory returns for the least labor and time spent in growing them. They are, according to standard weights, as heavy as the Toulouse and Embden, but specimens are not uncom- mon that exceed these weights by several pounds. They are first- class layers and average about 40 eggs in a season. For table pur- poses they are esteemed very highly, their flesh being fine and nicely flavored. Description. These geese have a large head, with a large knob, and a heavy dewlap under the throat. These and the Chinese geese are different from the others in the head, and are the only two breeds that have the knob on the head. The standard weight of the adult gander is 20 pounds ; adult goose, 18 pounds ; young gan- der, 16 pounds, and young goose, 14 pounds. Brown and White Chinese Geese. They average in weight from 6 to 7 pounds lighter than those previously named. Appar- ently their want of size has prevented them from becoming favorites with those who raise large numbers annually, but with those who keep a limited number they are found to be very practical. What they lack in size they gain in egg production, being the most prolific of all breeds of geese, averaging from 50 to 60 eggs a year. In size, aptitude to fatten, and ease of management they appear in no re- spect inferior to other geese, while the quality of flesh is decidedly superior. Description. They are exceedingly graceful in appearance, quite hardy, and the young mature early. There are two varieties of Chinese geese the Brown and the White. They have, medium- sized heads, with large knob at base of a medium-length bill, and long, gracefully arched necks. The color of the head of the Brown Chinese geese is brown ; knob dark brown or black ; neck light brown or grayish brown, with a dull yellowish-brown stripe on the back of the neck from the head down to the body. The back is dark brown. The standard weight of the adult gander is 12 pounds; adult goose, 10 pounds; young gander, 10 pounds, and young goose, 8 pounds. Management of Geese. Goose raising is not so extensively en- gaged in as duck raising, the conditions under which they can be successfully raised being almost entirely different from those neces- 614 DOMESTIC ANIMALS, DAIRYING, ETC. sary for successful duck raising. The duck, being smaller, can be raised in a more limited space than can the goose, the latter needing free range and water, while the former has been proved to do equally well without water. While the goose can not profitably be raised in as large numbers as the duck, still it can not justly be termed unprofitable. There are many places on a farm that are worthless for cultivation that could be utilized with excellent results for goose raising. Fields that have streams, branches, or unused springs on them could be turned to good advantage by making them into goose pastures. Many farmers are profiting by this and adding to their incomes an- nually. The care and attention necessary for raising geese are very small when compared with the returns, and the cost of food is also proportionately small in comparison with the cost of food used for other birds bred for market, A goose on range will gather the largest portion of its food, consisting of grasses, insects, and other animal and vegetable matter to be found in the fields and brooks. The simplest kinds of houses are used for shelter ; these should be built after the plans of those given for ducks, but should be pro- portionately of larger size to accommodate comfortably the num- ber of birds to be kept. Geese are long-lived birds, some having been known to attain the age of 40 years, while birds 15 and 20 years of age are not uncommon. They retain their laying and hatching qualities through life. Ganders should not be kept for breeding after 3 years of age; young ganders are more active and insure greater fertility of the eggs than old ones do; besides, gan- ders become more quarrelsome as age advances. The feathers of geese are an important source of revenue and find a ready sale in the markets. A goose will average about 1 pound of feathers a year. The feathers should be plucked when there is no blood in the ends of the quills; this can be readily ascertained, as they will then leave the flesh without hard pulling. Almost all breeds of geese are good sitters and attentive mothers, and if left to themselves will make their nests, much as when wild, and hatch a large percentage of their eggs. But hens are now more frequently used for hatching goose eggs; as by taking the eggs from the goose when laid and giving them to hens to hatch, the goose will lay a greater number of eggs than if she were permitted to sit. All breeds of geese, except perhaps the Egyptian, are to be recommended to farmers who keep a limited number in addition to other poultry and allow them the freedom of the farm; but when goose raising is to be more extensively engaged in, the African goose is to be especially recommended. It is the quickest to mature, most prolific, and the easiest to handle of all the varieties. (F. B. 64.) Mating and Setting. In breeding African geese mate two geese to one gander, and it will be still better if pairs are used to secure better fertility of the eggs. Those who contemplate raising geese should secure their stock in the fall, so that the birds may be- come accustomed to the place before the breeding season begins. POULTRY KEEPING 615 The breeding stock should foe at least two years old, and fully ma- tured birds. When stock is purchased in the fall, they should be turned out in a pasture, and no other food than what they gather themselves will be needed until the grass goes down. Their rations should then consist of equal parts, by measure, of bran, middlings, and corn meal, with 5 per cent of this bulk of beef scraps. They should be given a light feed of this ration in the morning and at night they should be fed cracked corn. Ten per cent of the bulk of the daily ration should be green foods, steamed clover, and cooked vegetables. The breeding season begins about February 1, though some geese will begin laying as early as December, then stop, and begin again the first of February. They make their own nests from the straw and litter on the floor of their houses, and will lay from 12 to 20 eggs before becoming broody. As soon as the goose shows an inclination to sit, remove her and place her in a dark box or small coop, and keep her there for two or three days with water for drink, but no food. Then she may be placed back in the yards and she will begin another laying of eggs. The first and second layings of eggs should be set under hens. After the goose lays the second laying she should be confined again, when she will lay a third lay- ing. When she has laid the third laying, she should be permitted to sit on them instead of giving them to hens. A goose will lay from 10 to 15 eggs in each of the second and third layings. It is recommended that after the eggs have been sat upon for tw r enty-five days they be taken from the nest and placed for about one minute in water heated to a temperature of 104. Thirty days are required for incubation. After the eggs have hatched leave the hen and goslings in the nest for twenty-four hours ; after the young have become thoroughly dry remove hen and brood and pen them in a large, roomy coop for four or five days. When the goslings have reached this age four or five days they are perfectly able to take care of themselves. The hen should then be taken from the goslings, which should be allowed freedom to roam at will, but they should always be cooped up at night Feeding and Dressing for Market. The first feed for goslings is grass, fed on sod; a small allowance of corn meal, slightly mois- tened, is also given them. Sand and charcoal are sometimes mixed with the corn meal. They are fed on the above food three times a day for a couple of days, when they are given a ration composed of equal parts, by measure, of bran, middlings, and steamed cut clover or cooked vegetables. This feed is given them morning, noon, and night until they are 8 weeks old, when they are penned to be fat- tened for market at 10 weeks old. To fatten young geese, place them in a pen, not too large, so that they will not exercise too much, and feed three times a day all they will eat up clean of the following : Corn meal mixed to a dry, crumbly state, and beef scraps amounting to 20 per cent of the bulk of the corn meal. While fattening young geosc they should be kept as quiet as possible; no excitement whatever should disturb tlit-ni. 616 DOMESTIC ANIMALS, DAIRYING, ETC. When feeding approach them quietly, and do not irritate them in the least or they will not fatten, but will "throw out" or grow an- other crop of feathers. At 10 weeks of age, or when the tips of the wings reach the tail, they are ready for market and should weigh between 8 and 10 pounds. When young goslings are to be dressed for market, they are killed by cutting them in the roof of the mouth, severing the artery, or by stunning them by hitting them a sharp, quick blow on the head. The picker uses a box in front of him about the height of the knees, holding the bird with the left hand and clasping the feet and wings together; he places the head of the bird against the box and holds it in place with the knee. Pick the feathers from the body of the bird, then dampen the right hand and brush the body to re- move the down. Leave about two inches of feathers on the neck, and also leave feathers on the wings at the first joint. Lay the wings against the body of the birds and tie a string around to hold in position. Place the birds, when picked, in cold water for an hour or so to plump them ; if they are in the water too long they are liable to bleach and become water-soaked. They are then iced up in barrels ready to ship to market. Young geese should be marketed in October. It is best to market all possible before cold weather seta in. It is much harder to dress a gosling in cold weather. The feathers set tighter, and in picking them! the flesh is torn. (Dep. Agr. F. B. 64.) GUINEA FOWL. The guinea fowl, sometimes called guinea keets, as the name implies, are probably natives of the west coast of Africa. They were raised as table produce by the ancient Greeks and Romans. They are also well known as game produce in England, where large flocks are kept in game preserves. In the United States few breed- ers raise them in large numbers, although a few are raised on each of many farms where poultry is kept. Some people object to them on account of their rather harsh cry, which sometimes may be an- noying, and also to their wandering and somewhat quarrelsome hab- its. Their pugnacious disposition sometimes leads them into trouble with other poultry, but also causes them to resist attacks of hawks and other natural enemies. The guinea fowl is % inclined to stray and to steal their nests in out of the way places, and in this respect perhaps show their wild instincts more than do other breeds of fowls. Varieties. Few varieties of the guinea fowl are raised ; the so- called "pearl" variety is by far the most common. They have a steel, purplish-gray plumage, regularly dotted over or "pearled" with white. The sexes resemble each other very closely ; the males, however, may generally be distinguished 'by their comb and wattles. The cries of the two sexes differ ; that of the male is simply a shriek, while the female has a peculiar call often thought to resemble "buckwheat." Habits. These domesticated fowls retain many of their wild traits. If permitted, they wander over long distances and flv almost POULTRY KEEPING 617 as well as wild birds. They prefer roosting high in trees. They make their ne^ts on the ground, which often consists of little more than a slight depression. As a rule the nests are secluded and usually are some distance from dwellings. The breeding season be- gins about the same as that of wild birds, that is in April or May. Breeders usually expect upwards of 50 or 60 eggs a year from each hen, and sometimes secure even more than a hundred. Guinea hens make poor sitters, as they are restless and are inclined to range when they should be on the nests ; when they do set, however, they are likely to leave the nests as soon as a few chicks are hatched, and they go off with them and frequently leave many eggs that would hatch in a few more hours of incubation. Guinea chicks are hardly more than half as large as chickens. They grow rapidly, however, but like young turkeys are sensitive to cold and dampness. Feeding. Wheat, corn, oats and buckwheat are recommended as suitable grains for guineas, in fact, as with other classes of poul- try, a mixture proves more satisfactory than any single grain. Little guinea chicks need feeding almost immediately after hatching. Marketing. In Europe guinea fowls are considered very de- licious table birds and they are also prized in some parts of the United States, especially in the South, and are much relished by those who have discriminating tastes. The demand for them in the markets is increasing considerably. In support of that statement may be said that a fashionable hotel in New York uses about a thou- sand a month during the late winter and spring months. When well cooked the birds are attractive in appearance and the flesh, par- ticularly of young birds, is tender and of especially fine flavor. (Agr. Dep. F. B. 234.) SQUAB RAISING. In selecting the site for the home of pigeons as much care and judgment should be exercised as in choosing the location for one's own home. An unhealthy location for man would most likely prove unhealthy for the birds. The spot selected should be well drained, should face the south or east, if possible, should be free from ob- structions which shut out the rays of the morning sun and be shel- tered either by trees or buildings from the north and west winds. Such a place with a shallow stream of pure running water will make an ideal site and will require a minimum of expense and work in caring for the stock. Size and Capacity of House. Some successful breeders prefer single houses holding not more than 50 pairs of birds, but five of these houses will cost considerably more to build than one house of five sections accommodating the same number of birds in each sec- tion. So the larger house will be found the most economical both as to construction and care, providing a large number of birds are to be maintained. A building 12 feet square and 9 feet high to the peak of the roof will be found ample for 50 pairs of pigeons. It is not thought advisable to keep more than 50 pairs in one house or in one section. The house for rearing squabs should be well lighted. One of sufficient size to accommodate 50 pairs should have ait least 618 DOMESTIC ANIMALS, DAIRYING, ETC. two 6-light sashes on both the south and north sides of the building. These windows should be made to slide so that they may be opened to any extent desired. Of course, they should be covered with wire netting to prevent the escape of the birds. Materials and Construction. The building should be placed on walls of cement, of masonry, or on piers. It is thought best to have the floor made of wood rather than of cement. Matched floors should be used. The side walls and roof should be made weather- proof and so constructed that the building will be practically free from draft. Nest Boxes. Nesting places are made of one inch boards 12 inches wide so constructed that they form tiers of large pigeon holes on the side walls; each pigeon hole being about 12 inches deep, 12 inches wide and 9 or 10 inches high. Each of these will supply a nesting place for each pair of birds. Of course, there should be a number more nesting places than there are pairs of birds to occupy them. The Fly. Connected with the house there should be a covered fly or loft where the birds may take proper exercise on the wing in the open air and sun-light. This is constructed of wire netting and so arranged that the birds may exercise whenever they desire to do so. For the accommodation of 50 pairs a fly or loft 30 feet long and 12 feet wide and 8 feet high will be found quite sufficient. This can easily be made by the use of long posts, narrow hemlock boards and wire netting. If the netting has a sufficient fine mesh to exclude the English sparrow considerable annoyance will be avoided. Narrow hemlock boards should be used to connect the posts at the top as well as at the bottom ; so that the netting when once put in place will remain taut and comparatively free from sagging. _ Varieties of Pigeons. The best variety of pigeon to keep for squab raising is the "straight" Homer. They are fine, large, healthy birds, good workers, are the best of feeders and have a quiet dis- position and when properly mated their eggs are seldom infertile. The Dragoon is much esteemed by some, particularly to cross with the Homer. "Straight" Dragoon squabs are usually five weeks in growing to a sufficient size for the market, while "straight" Homer squabs are ready for the market in four weeks and sometimes less. The Runt is a giant among pigeons and is highly spoken of by some breeders because the squabs are so large. Breeding. In the selection of breeding stock the beginner should consult some one having experience and critical knowledge and, if possible, secure his active assistance. Feeds and Feeding. While it is true that some breeders have had fair success for a while by feeding only cracked corn and wheat, under continued use of these two grains alone they fail to produce as good squabs as could be secured with a greater variety of grain. In their free state pigeons select a variety of grains, hence it be- comes important that the breeder exercise good judgment in select- ing the kinds he sets before them. The six principal feeds though POULTRY KEEPING 619 are cracked corn, Canadian peas, wheat, German millet, Kafir corn and hemp. Cost of Feeding. The cost of feeding should not exceed from one-eighth to one-fifth of a cent a day for each bird or about .52 cents a year. Water. A generous supply of fresh pure water for drinking purposes should be given every day. In addition a pigeon should have a supply of water in which to bathe. Shallow pans about three inches deep and 20 feet or 30 feet square make suitable bath- tubs. Killing and Dressing. The details of killing and dressing and marketing are quite similar to those of broilers, green ducks, and other fancy 138865 of young fowls. (Agr. Dep. F. B. 177.) OSTRICH FARMING. This industry in the United States is only in its infancy, as it has only been thirty years since the first American ostrich farm, was started. The pioneer breeders in this country were obliged to get most of their knowledge from their own experience. The larger part of the ostriches now in the United States are the progeny of a single pair owned in Arizona in 1891. AY here alfalfa pasture has been available the birds bred in America have grown larger than those first imported. A full grown, fat ostrich would weigh from 375 to 450 pounds; he will stand 8 feet high, but can easily reach to a height of 10 or 11 feet. Ostriches thrive best in a warm dry climate, but can be grown in many of the Southern States and Territories of this country. Salt River Valley of Arizona is thought by many to be the best location in the United States for ostrich farming. Eggs and Incubation. Ostriches come to maturity when about four years of age. The female matures from six months to a year before the male; she will, however, seldom lay fertile eggs until three and a half years old. After she commences to lay, in about thirty days she will have laid from twelve to sixteen eggs and will be ready to commence incubation in about thirty days. Both nat- ural and artificial methods of incubation have proven satisfactory. The period of incubation is about forty-two days. Care and Feeding of Chicks. A chick should never be allowed to become damp or cold and should not be fed for the first three or four days, but may be allowed to pick up sand and gravel. Dry feed is preferable for the first week. Cracked wheat and moistened bran arc excellent. Sour feed, however, should never be given. After they are a week old, fine cut green alfalfa may be given. Plucking. The ostrich is first plucked when six months old, and should be plucked about every eight months thereafter during its life-time. The only feathers removed are those of the wing and the tail. The process of plucking consists in cutting the tail feath- ers and one row r of the largest quill feathers in the wing with prun- ing shears, and drawing by hand the remaining two or three rows in the wing. The value of American feathers depends on the Lon- don market, although they bring about 15 per cent more than Lon- 620 DOMESTIC ANIMALS, DAIRYING, ETC. don prices. The prime feathers sell from $100 to $200 per pound ; it takes about 90 of these feathers to weigh a pound. Handling and Feeding Ostriches. The lands used for ostrich farms in Arizona are worth from $40 to $125 per acre. The land value depends largely on the location and water rights. The cost of bringing the water used for irrigation to the land is an important factor. Fencing. The usual way to fence an ostrich farm is to use a woven wire for the outside fences about 5% feet high, with meshes small enough to keep out wolves and dogs. Flesh and Eggs as Food. The value of the ostrich depends on its production of feathers for ordinary purposes; the flesh, how- ever, is said to be much relished by those who have eaten it. The eggs are fine for making omelets ; one egg will make as much ome- let as two and a half dozen hen eggs. One ostrich has been known to produce over 300 pounds of egg food in a year. Value of Ostriches. The value of the ostrich has only begun to be appreciated. American ostrich farmers seldom care to part with their birds, as does the growers of other domestic animals. Chicks six months old are often estimated to be worth $100 each. Birds three years of age are worth from $300 to $350; while birds four years old, the age at which they pair, are worth $800 or over per pair. Profits of Ostrich Farming. The question, "Does ostrich farm- ing pay?" is often asked. When an acre of alfalfa will furnish a home for four birds, with food enough to maintain them, and when an ostrich will yield annually one and one-half pounds of feathers with an average value of $20 per pound, and from 36 to 90 eggs averaging 3% pounds to the egg, it may be left for each reader to decide for himself as to the profit of the industry. (Y. B. 1905.) CAPONS AND CAPONIZING. Much the larger part of this industry is confined to that por- tion of the United States east of Philadelphia, though increasing numbers of capons are being raised in the North Central States. During the winter months capon is regularly quoted in the markets of the larger eastern cities. Massachusetts and New Jersey are the great centers for the growing of capons, while Boston, New York, and Philadelphia are the important markets. What Is a Capon ? A capon is an altered or castrated male chicken, bearing the same relation to a cockerel that a steer does to a bull, a barrow to a boar, or a wether to a ram. As with other male animals so altered, the disposition of the capon differs materially from that of the cockerel. He no longer shows any disposition to fight, is much more quiet and sluggish, and is more docile and easy to keep within bounds. The true capon never crows. Along with this change in disposition there is a change in appearance. The comb and wattles cease growing, which causes the head to appear small. The hackle and saddle feathers develop beautifully. In- deed, these feathers and the undeveloped comb and wattles serve to POULTRY KEEPING 621 identify the capon and in consequence should never be removed when the bird is dressed for the market. As a result of the more peaceful disposition of the capon he con- tinues to grow and his body develops more uniformly and to a some- what greater size than is the case with a cockerel of the same age. There are two reasons, then, why it is better to caponize surplus cockerels than to raise them for market as such: (1) There is an increase in weight, and (2) the price per pound is materially in- creased. Selection of Breeds. In selecting the breed best suited for caponizing, several factors must be taken into consideration. Large capons bring the best prices. Consequently the breed should be large. It does not pay to caponize small fowls. Yellow legs and skin, as in other classes of poultry, are most popular. The Plym- outh Rocks, Light Brahmas, Cochins, Indian Games, Langshans, and \Vyandottes are all recommended by different producers, as are also various crosses of these. The Brahmas and Cochins possess good size. By some the Brahmas are claimed to be difficult to oper- ate upon ; by others this is denied. The Plymouth Rocks and Wy- andottes are somewhat smaller, but sell readily and possess the ad- vantage of yellow skin and eggs. The Langshan is large and is easily operated upon. The Indian Game is probably most useful as a cross upon some one of the other breeds, thereby improving the breast meat without materially reducing the size of the fowl. Time to Caponize. In so far as the effects of the operation and the rapidity and ease of healing are concerned, the time of year when the operation is performed is of little importance. The capons seem to recover and do well at any time. Certain other considera- tions, however, do influence the time. The age and size of the cock- erel are very important. As soon as the cockerels weigh 2 to 3 pounds, or when 2 to 4 months old, they should be operated upon. The lower age and weight limits apply particularly to the American breeds, while the higher apply to the Asiatics. If smaller than this, their bodies do not give room enough to work handily. On the other hand, they should never be over 6 months old, as by this time the testicles have developed to a considerable extent, the spermatic arteries carry greater amounts of blood, and the danger of pricking these arteries and causing the fowl to bleed to death is greatly in- creased. (Agr. Dep. F. B. 452.) Caponizing Instruments. The manufacturers of caponizing instruments place them on the market in the complete sets that meet the requirements of the beginner. They also furnish with these sets of instruments brief directions for operating. Marketing Poultry and Poultry Products. A large part of the profit in poultry keeping often depends on the marketing of the products, and the producer should study the market demands as to how, where, and when to dispose of the products to the best advan- tage. An attractive appearance is of prime importance, and the producer should study the details of killing, dressing, and packing in order to arrange the products in the best possible manner. The 622 DOMESTIC ANIMALS, DAIRYING, ETC. requirements for dressing and packing vary somewhat in different markets, and the producer should learn any special requirements of the market to which he intends shipping. Killing, Dressing, and Packing Poultry. The birds should be kept without feed from eighteen to twenty-four hours before kill- ing, unless they are to be drawn, in which case they should have no feed for at least ten hours before killing. In either case they should have no water to drink for at least eight hours before killing. When ready to kill, suspend the fowl by the legs and, using a knife, cut the vein at the back of the throat through the mouth. As soon as this vein is cut run the point of the knife through the roof of the mouth into the brain, which causes the bird to lose all sense of feel- ing. Instead of piercing the brain the fowl can be paralyzed by a blow on the head. Dry Picking. In most markets dry-picked birds are preferred. Immediately after killing, while the bird is still bleeding, the picker should remove the feathers, being careful not to tear the skin. If the picker waits until the bird is partially cold, the feathers will be removed with difficulty. As soon as picked the fowls should be hung in a cool place until thoroughly cold. If the weather is warm and fowls are to be packed in ice, they should be placed in a tank of ice water and left until all the animal heat has left the body. Scalding. When birds are scalded before removing the feath- ers they are immersed in hot water, which should be a little below the boiling point, as soon as they are through bleeding. The birds should be immersed three or four times and then picked clean, care being taken not to break the skin. The fowl should next be "plumped" by dipping it in nearly boiling hot water for eight or ten seconds and then placing it in cold water, where it should re- main for fifteen or twenty minutes. Be careful not to overscald, as this will cause the outer surface of the skin to rub off. If the fowls are to be shipped dry they should be hung up until the skin be- comes thoroughly dry. If they are to be packed in ice they 'may be left in the cold water for several hours or until they are to be packed. Drawing. When the poultry is to be drawn this should be done before the bird is cooled. A slit should be made from near the end of the keel bone toward the vent, large enough to admit the fingers. Then cut carefully around the vent and pull out the intes- tines, leaving in everything else unless the market requirements are otherwise. Packing. When the birds have been thoroughly cooled they are ready for packing. Packages for dressed poultry vary greatly, but they should be neat and clean and small enough to be easily handled. The inside of the box or barrel should be lined with clean, unprinted paper. Pack the birds solidly so that they will not shift in the package, but be careful not to bruise them. For delivery to retail customers pasteboard boxes of sufficient size to hold one or two birds are very satisfactory. When poultry is to be packed in ice, POULTRY KEEPING 623 barrels are generally used, packing them with alternate layers of birds and ice, the latter forming the top and bottom layers. Shipping Live Poultry. Poultry of all kinds can be shipped alive, and will often net the shipper as much as when dressed. Good live fowls will usually bring more than the same fowls poorly dressed. For shipping live poultry to market well constructed slatted crates are desirable, as these crates provide for ventilation. This is im- portant, for in crowded express cars the crates are frequently piled on top of one another. Over-crowding is to be avoided, and if large coops are used they should bo equipped with partitions to prevent the birds being thrown together at one end when the crate is tipped in handling. If possible place only one variety in a coop or in one division of a coop. (Dep. Agr. F. B. 287.) Bad Habits, Egg Eating. This habit sometimes becomes a seri- ous vice, fowls becoming very fond of eggs when they have learned to eat them, and it often spreads from fowl to fowl. It usually begins through accident by eggs being broken or frozen. Be careful to see that this does not happen. See that the nests are properly supplied with straw or other nesting material and have them darkened, so that if an egg is accidentally broken the fowls wilt not be likely to dis- cover it. Supply plenty of lime in the form of oyster shells, bone, or similar substances to insure a firm shell. As soon as it is discovered that a fowl has formed the habit the fowl should be removed, in order to prevent the spread of the vice. Once formed, it is difficult to eradi- cate, and the safest remedy is the death penalty. Feather Eating. Fowls sometimes pluck feathers from them- selves and from each other, which is often caused by too close confine- ment, by the presence of insect pests, or by improper feeding. When some of the lowls of a flock have formed the habit slightly, a wide range with a change of diet, including a plentiful supply of animal feed, and freedom from insect pests, will usually correct the evil. Above all see that the fowls have plenty of inducement to exercise. If the habit becomes well formed it is very troublesome and may necessitate the killing of some of the fowls in order to stop it. (Agr. Dep. F. B. 287.) Classes of Deteriorated Eggs. Heated eggs occur most com- monly during the summer months. Whenever a fertile egg is sub- jected to proper conditions of heat, whether it be under a hen or in the hot sun on a railroad station platform, the embryo development proceeds. Light floats are those in which there is only a slight de- velopment. Heavy floats show a greater development usually suffi- cient to be noticed on breaking. Blood rings are shown by the ap- pearance of a ring of blood next to the shell membrane. Held or Shrunken Eggs. The contents of a fresh-laid egg com- pletely fill it, but as the egg cools the contents shrink slightly, caus- ing a small bubble or air cell to appear at the large end. As the egg grows older the water is continually evaporating from the white through the shell membrane and the shell, and this causes the air cell in the large end of the egg to increase in size. Such an egg is characterized as held, or shrunken. Shrunken eggs are most com- 624 DOMESTIC ANIMALS, DAIRYING, ETC. mon during the fall and early winter when the price of eggs is rising. At this time both the farmer and the storekeeper are often guilty of holding eggs in the hope that the price will have advanced by the time they are ready to sell. Needless to say, they largely defeat themselves, for buyers have learned to anticipate this condition, and consequently depress the price below what it would otherwise be. Rots. A number of different kinds of rots are recognized by the trade, but the two most common classes are those known as black or mixed rots and as spot rots or spots. The black rot is often caused by bacterial growth. These eggs appear dark or black before the candle and are characterized on breaking by a most offensive odor. In the case of spot rots, the bacterial growth has remained localized and shows as a spot or patch next the shell and usually attached to it. These are easily detected on candling. Spots are also often caused by the development of molds. Dirty Eggs. Many eggs are soiled and dirty. These are caused by dirty nests, thus allowing the eggs to be soiled by droppings, by dirt from the feet of the fowls, particularly during rainy weather, and by smearing with the contents of broken or cracked eggs. Broken Eggs. Many eggs are cracked or broken before reach- ing the packing house. Those cracked only slightly, so that the egg contents do not leak out, are known as "checks." Those in which the egg contents are leaking or have partially leaked away are known as "leakers." Broken or "checked" eggs depreciate rapidly and must, therefore, be separated out and sold for immediate consumption at a reduced price or they must be dried or broken out in cans and frozen. Other Deteriorated Eggs. As eggs are very prone to take on the taste and odor of their surroundings, a considerable number de- teriorate in this respect. If stored in damp cellars, they are likely to develop a musty flavor which is practically impossible to detect with- out tasting. Other flavors caused by storing with vegetables, such as onions, are common. Requisites for the Production of Good Eggs. As requisites for the production of good eggs and marketing them in good condition the following may be mentioned: 1. Hens that produce not only a goodly number of eggs but eggs of moderately large size (weighing 2 ounces each on an average) . Plymouth Rocks, Wyandottes, Rhode Island Reds, Orpingtons, and Leghorns or Minorcas that are used on egg farms are varieties that may be expected to do this. 2. Good housing, regular feeding and watering, and, above all, clean, dry nests. 3. Daily gathering of eggs, and, when the temperature is above 80, gathering twice a day. 4. The confining of all broody hens as soon as discovered. 5. The rejection as doubtful of all eggs found in a nest that was not visited the previous day. Such eggs should be used at home, where each may be broken separately. 6. The placing of all summer eggs, as soon as gathered, in the coolest place available. 7. The prevention at all times of moisture in any form coming in contact with the eggshells. 8. The disposal of young cockerels before they begin to annoy the hens. Also the selling or confining of old male birds from the time hatching is over until cool POULTRY KEEPING 625 weather in fall. 9. The using of cracked and dirty as well as small eggs at home. Such eggs, if consumed when fresh, are perfectly wholesome, but when marketed are discriminated against and are likely to become an entire loss. 10. The marketing of all eggs at least once a week, and oftener when convenience allows. 11. Keep- ing eggs as cool and dry as possible while on the way to town and while in country stores. 12. Keeping eggs away from musty cellars or bad odors. 13. The use of strong, clean cases and good fillers. 14. The shipping of eggs to the final market at least once a week and as much oftener as possible. General Summary. The loss in this country due to the actual spoiling of eggs constitutes an enormous waste, which could in a large measure be saved were eggs given reasonable care from the time of laying until they reach the consumer. There are two main reasons why such care is not being given : (1) Lack of realization of the importance of the egg crop and ignor- ance of the correct method of caring for the product; (2) because with our present system the individual farmer, and in the West the individual storekeeper as well, are not financially rewarded for their greater pains nor held accountable for gross carelessness, which may amount to actual dishonesty. The ideal condition of the egg trade is to bring the intelligent dealer who wants quality and will pay for it into close touch with the producer. Every factor in the egg trade that prevents this is detrimental to the progress of this important branch of intensive agriculture. The greatest handicap to the egg trade is the general store, with its custom of bartering merchandi.se for eggs. The storekeeper reckons his profits on goods as more than his loss on eggs. He does not try to enforce improvement upon his patrons by buying on a quality basis, and by the advantage his peculiar position gives him he keeps other egg buyers from doing so. The cure for this evil consists in teaching the farmer and the merchant that the present method of trading is upon a false basis, which is of no real advantage to either, but is in reality a great disadvantage to both in that it causes an actual loss of wealth which must be borne by the commu- nity. When such an understanding is established the community is ready for some plan of buying eggs that will pay the producer in accordance with the actual worth of the product. This done, and a market found where the improved goods will bo recognized and paid for, the future of the egg and poultry industry in that community is simply a matter of patience and perseverance. (Dep. Agr. Bu. An. Ind. Cir. 140.) Selection and Care of the Eggs to be Preserved. Keep the whole flock as near a perfect state of health as possible. Give enough shell-forming food to the hens so that the shells will be strong and uniform in thickness. Make proper nesting places and keep them clean, so that the egg? may not be infected while in the nests. Gather the eggs each day. Keep the gathered eggs in a dry cool room or cellar where the sun's rays do not fall directly upon them. Use only 626 DOMESTIC ANIMALS, DAIRYING, ETC. the clean eggs and place them in the preservative within twenty-four hours after the time they are laid. Preserve only April, May, and early June eggs. The Use of Water Glass. Of the liquid preservatives, water glass (sodium silicate) has been very generally and very successfully used. It is reliable, comparatively cheap, and is easily prepared. The water glass can be bought at most drug stores for one dollar to one dollar and a quarter a gallon. This is comparatively cheap, for a gallon of water glass will make ten gallons of preserving fluid. Preserving and Storing of Eggs. A cellar is a good place to keep the eggs though any darkened room where the temperature does not go over 60 F. will do. A stone jar is preferable to other recepta- cles for it can be sealed and cleaned more thoroughly than most receptacles. Those using barrels which have previously contained other liquids run a great risk in using these for the preservation of eggs. Use Boiled Water. A five-gallon receptacle will hold about 15 dozen eggs. The preserving fluid itself should be made from clean water that has been boiled and allowed to cool. To every nine quarts of water add one quart of water glass, stirring thoroughly to insure a proper mixture of the two. A great deal of care should be taken in mixing the water glass and the water, and the more thoroughly this is done the better the chance of preserving the eggs. Some have found that an egg beater was very useful in aiding the mixing. If properly mixed the water glass seals the egg and with the temperature comparatively low the egg is preserved. When the eggs are to be preserved in several receptacles, the water and water glass should be mixed in each receptacle separately, for if they are mixed in one receptacle and poured into several, there is the liability of getting different percentages of water glass in each receptacle, with the result that some eggs are likely to spoil. Do not try to preserve cracked eggs. Into this fluid place the eggs, examining each egg to see that it is clean and is not cracked. A good method is to tap two eggs together gently before putting them into the water glass. If they are not cracked they will give a true ring, while if one of them is cracked the sound will be entirely differ- ent and the cracked egg can be discarded. Almost every one has noticed the difference in the sound of the cracked and the uncracked egg. Keep the eggs well covered with the solution by adding a small quantity of boiled water when necessary. If several receptacles are used in which to preserve the eggs, it is a good plan to mark the receptacle bearing the April eggs and those containing the May and June eggs. These receptacles should be covered to prevent the evaporation of the water from the solution. Where the receptacles are not covered the solution turns milky or changes to a thick, white pasty mass making it more difficult to take out the eggs. This does not however, necessarily detract any from the preservative qualities. Do not allow the sun]s rays to fall directly on the receptacles and keep all eggs submerged in the solution. The preservation should never be stirred after the eggs are once placed POULTRY KEEPING 629 therein. It is advantageous to begin to use the water glass eggs for cooking purposes soon after the price of eggs has reached the original price plus the price of preserving, usually not more than two or three cents, and to use them the remainder of the year until the eggs reach that price the following spring. In this way the maximum saving will be made although it will necessitate preserving more eggs. Too many people wait until eggs get to be thirty-five cents a dozen before they use the water glass eggs. In this way they save only a part of what might have been saved had they preserved more eggs and begun using them earlier. The shrink- age should be less than one per cent if the eggs are good and properly handled. The preservative should not be used for more than one year, PART VI OTHER ANIMALS. BIRDS IN THEIR RELATION TO AGRICULTURE. BIRDS play an important part in relation to agriculture. This has long been known. There seems to be a tendency to dwell on the harm they do rather than the good. Whether the bird is injurious or beneficial depends almost entirely upon what it eats. Because the harm that a bird does is often more evident than the good it does, it is frequently classed by farmers among the injurious birds to agriculture, when really it is decidedly beneficial. As in- sects constitute a large part of the diet of our common birds they often become destroyers of noxious insects, which is too often not appreciated. As objects of human care and interest birds occupy a place filled by no other living things, and the various movements to pro- tect and foster them would be fully justified were there no returns other than esthetic. Only the thoughtless and the ignorant still hold that the graceful forms and beautiful plumage of these masterpieces of nature serve their highest purpose when worn on a hat for a brief season, to be then cast aside and forgotten, the plumage dimmed and faded, the beautiful songs quenched forever. While by no means insensible to the higher value of birds, the farmer who is asked to aid in measures for their protection is entitled to inquire as to the practical purpose they subserve and how far they may be expected to return his outlay of time, trouble, and expense. Since most birds eat insects and since many eat practically nothing else, it is their insect-eating habits that chiefly invite in- quiry, for so active and persistent are birds in the pursuit of insects tnat they constitute their most important enemies. When birds are permitted to labor undisturbed they thoroughly police both earth and air. The thrushes, sparrows, larks, and wrens search the surface of the earth for insects and their Iarva3 or hunt among the leaves and peer under logs and refuse for them. The war- blers, vireos, creepers, and nuthatches with their microscopic eyes scan every part of the tree or shrub trunk, branches, and leaves and few hidden creatures escape them. The woodpeckers, not con- tent with carefully scrutinizing the bark and limbs of trees, dig into decayed and worm-eaten wood and drag forth the burrowing Iarva3, which in their hidden retreats are safe from other enemies. The flycatchers, aided by the warblers, are ever on the alert to snap up insects when flying among trees and branches; while th^ swallows and nighthawks skim over the pastures and patrol the air high above 630 OTHER ANIMALS 631 the tree tops for such of the enemy as have escaped pursuit below. Thus each family plays its part in the never-ending warfare, and the number of insects annually consumed by the combined hoste is simply incalculable. It is well that this is so, for so vast is the num- ber of insects and so great is the quantity of vegetation required for their subsistence that the existence of every green thing would be threatened were it not for birds and other agents specially designed to keep them in check. While birds are not numerous in the sense that insects are, they exist in fair numbers everywhere or would were it not for the inter- ference of man and so rapid is the digestion of birds and so perfect their assimilative powers that, to satisfy the appetite of even a small bird, great numbers of insects are needed. Much of this food is hidden and must be searched for; much of it is active and must be vigorously pursued. Hence only by the expenditure of much time and labor do birds procure their daily food. With birds the struggle for existence is peculiarly a struggle for subsistence; shelter is ob- tained with comparative ease, and if climatic conditions are not to their liking they migrate to other regions. When by reason of favorable conditions insects have multiplied and become unusually abundant, birds eat much more than at ordi- nary times ; hence the importance of their services during insect in- vasions. It is not, however, at such periods that their services are most valuable. It is their persistent activity in destroying insects every day, at all seasons, and in every stage of growth the long, steady pull rather than the spasmodic effort that tends to prevent insect irruptions and to keep the balance true. Few birds are wholly beneficial, and there are very few among the harmful ones that have no redeeming traits that do not, Occa- sionally at least, do good. Most birds most of the time are beneficial; a few birds most of the time are injurious. Certain species may be beneficial in one region and harmful in others, or perform useful services at one season and be injurious at another. Instead, there- fore, of being simple, as at first sight they may appear, the relations of birds to man are complex. INSECTIVOROUS BIRDS AND THEIR FOOD HABITS. Hawks and Owls. The strong beaks and sharp talons of the hawks and owls at first sight might be thought designed for more serious work than the destruction of insects, and yet many of the birds of prey make insects an important part of their food. The little sparrow hawk lives largely upon grasshoppers and crickets, and some, even of the larger species, as the Swainson hawk of the West- ern States, in summer time live almost exclusively upon them. It is very fortunate that so many birds the hawks among them are fond of grasshoppers, since these insects multiply so fast and aro so very destructive to vegetation that but for the check on their in- crease by birds the cost to the farmer of fighting them would be much greater than it is. Important as is the work of some of the hawks in destroying noxious insects, this is by no means the chief service the group ren- 632 DOMESTIC ANIMALS, DAIRYING, ETC. ders man. Within our boundaries are some 50 species of hawks and 35 species of owls. With the exception of perhaps half a dozen hawks, which subsist mainly upon birds, and the great horned owl, hawks and owls are to be classed as beneficial. It is not to be denied that occasionally the larger species carry off a chicken and kill some game, but such acts are exceptions to the general rule. Mice and other small rodents constitute the chief food of such of the species as are not largely insectivorous, and it is by the destruction of these pests of the farmer that hawks and owls earn protection. Of late years the acreage under cultivation in the United States has increased rapidly and the value of the crops raised has augmented by leaps and bounds. With increased acreage under cultivation the number of rodents has multiplied correspondingly, because of the abundance of nutritious food and also because their natural foes have been destroyed by man. The services of hawks and owls were never so much needed as now, and these faithful helpers of man are likely to be needed still more in the future; yet thousands of hawks and owls are yearly slaughtered because the part they play in nature's scheme is misunderstood or ignored. Unquestionably individual hawks that have learned the way to the poultry yard should be sum- marily dealt with, but because occasional individuals of two or three species destroy chickens it is manifestly unfair to take vengeance on the whole tribe. The very name "hen hawk" is a misnomer so far as the birds to which it is chiefly applied are concerned. Moreover, it is made the excuse by the farmer's boy and the sportsman for killing every hawk, large and small, that flies. Thousands of these useful birds are killed annually by the thoughtless for no better reason than that, when sitting motionless, they offer an easy target for the small- bore rifle, or, flying, present a tempting mark for the shotgun. So far has popular misapprehension in regard to these birds gone that again and again States and counties have offered bounties for their heads, thus depleting treasuries, and inviting heavy losses to the farmer through the increased numbers of insects and rodents, which it is the function of these birds to hold in check. Wood Warblers. America is peculiarly fortunate in possessing this beautiful group, in some respects unlike the birds of any other land, and excelled by none in grace of form, sprightly motions, and beauty of plumage. The family is large and numbers of the species included in it visit every part of our domain at some season or other. While some live on or near the ground and share with the thrushes the task of hunting for ground-frequenting insects, the great ma- jority haunt the trees and shrubbery, and spend their time gleaning an insect harvest from foliage and twigs. Eggs, larvae, and adult insects alike are welcome, and when flying insects are dislodged from their hiding places the warblers successfully essay the role of fly- catchers and snap them up on the wing. No insects are too minute to escape their prying eyes, and they are particularly successful in discovering and devouring plant lice, immense numbers of which infest our fruit and shade trees. Finally, it may be said of the war- OTHER ANIMALS 633 biers that they are truly insectivorous, as they eat very little vege- table food, and the little they do eat has no special economic value. Thrushes. The thrushes and their near allies, the bluebirds, are two groups of insectivorous birds, all the members of which are fond of fruit. All sorts of wild berries are highly esteemed by them, and no one will deny that they are quite within their rights in appro- priating them. Unfortunately, however, the most prominent mem- ber of the group and in some respects the most highly esteemed has developed an uncontrollable appetite for cherries, strawberries, and other cultivated fruits which often renders him a nuisance to the grower of small fruits. The fruit grower can hardly be expected to accept the confiding habits and the sweet song of the robin as full payment for a crop of cherries upon which depends a considerable part of his own livelihood and that of his family. In connection with the depredations of the robin, it is confidently believed that mulberry, wild cherry, and other fruit-bearing trees of little or no commercial value can be planted near orchards so as to protect the valuable cherry crop and so save the robin from the orchardist's just resentment. The smaller members of the thrush family, the wood thrush, hermit thrush, and others, are highly insectivorous, and are to be credited with nothing but good. Moreover their melody raises them to the highest rank among American songsters. Titmice. The titmice, like the warblers, are tree frequenters, and the insects they pursue are of the same general character as those eaten by their more nervous and sprightly cousins. Instead of hurrying from tree to tree, and from one branch to another like the warblers, the titmice conduct a comparatively slow and painstaking search and go over their sylvan hunting grounds much more care- fully. Another and a far more important fact to their credit is that, like the nuthatches, they are practically non-migratory, and instead of scurrying off to the sunny Tropics on the first hint of cold weather, as do most of the warblers, they usually winter where they summer. Thus the farmer enjoys the benefit of their services the year round, and hence has twice the incentive to protect them that he has in the case of the migratory species. Swallows. The swallows are among the most insectivorous of birds, and it is difficult to overestimate the extent of their services to agriculture. They are flycatchers pre-eminently, and Nature has been at the utmost pains to qualify them for the delicate task she has set for them the capture of small insects moving with rapid and uncer- tain flight through the air. Endowed with the power of swift and enduring flight, swallows cleave the air without apparent effort, turning this way and that, now falling, now rising, following the movements of their prey. The list of species is not lengthy, six only in the States east of the Mississippi and but one more west of that river, but not one of the number could be spared without loss to the farmer. Valuable at all times and at all places favored by their presence, swallows have a peculiar value to the southern cotton planter, for they prey upon the cotton boll weevil as it flies over the 634 DOMESTIC ANIMALS, DAIRYING, ETC. fields on its errand of destruction. The more that swallows can be in- duced to nest in the cotton States, and the more they can be increased in the North, so as to add to the number that migrate through the South, the better will it be for the cotton planter, and incidentally for the whole country. Especially important is it that swallows be pro- tected from the assaults of the English sparrow, which covete their nesting sites. Not only do these pests drive away swallows from their nests, but they even throw out their eggs and kill the helpless young. VEGETARIAN BIRDS AND THEIR FOOD HABITS. It is not possible strictly to divide small birds by their diet into vegetarian and insectivorous kinds, for while many birds live largely upon vegetable substances some almost exclusively there are very few that do not, at least occasionally, eat insects (all of them feed their young upon insects) ; and, it may be added, there are not many insect-eating birds that ao not, at least occasionally, vary their diet by berries or other vegetable substances. Pigeons perhaps are more exclusively vegetarian than other birds, the common turtle dove, for instance, apparently never eating insects except when they happen to be contained in seeds or other vegetable food in the form of eggs or larvae. For present purposes, however, those birds may be considered vegetarian which live chiefly and most of the year upon vegetable food. It is among this group naturally that we look for enemies of the farmer, for cultivated grains and fruits are often so much more ac- cessible than the wild varieties that it would be strange indeed if birds had not discovered their good qualities and promptly availed themselves of their opportunities. The Mourning Dove. The mourning dove is found throughout the United States, though not abundantly in New England. The food of the dove consists largely of the seeds of weeds together with that of some grain. The principal and almost constant diet is that of the seeds of weeds, which are eaten at all seasons of the year. The dove does not eat insect or animal food so far as is known. The Cuckoo. There are two quite distinct species in the United States, yet they differ greatly in food habits. Their food consists al- most wholly of insects, quite largely in the larval form. From the examination of a large number of stomachs of these birds practically no beneficial insects have been found. It is therefore safe to say that these birds are beneficial to agriculture in its various branches. The Woodpecker. Practically without exception the food of woodpeckers consists of injurious insects. They feed largely on, wood-boring larvae, and on this account become great friends of the .orchardists and nurserymen. An examination of many stomachs of woodpeckers showed that the contents consisted almost wholly of noxious insects. Some of the large woodpeckers, like the flicker and redheaded woodpecker, sometimes feed on grasshoppers and crickets. The Nighthawk. The nighthawk, or bull-bat, is wholly an in- sect-eating bird; their food, which consists of insects taken on the wing, consists largely of flying ante, grasshoppers, chinch bugs, va- OTHER ANIMALS 635 rious kinds of moths, mosquitoes, etc. From the food habits of the nighthawk it is evident that it is one of the most useful birols. The Kingbird. The kingbird is essentially a lover of the or- chard. Its antipathy for hawks and crows is well known, and for this reason it often becomes a protector of the poultry yard. Song birds that nest near the kingbird are protected in a similar manner. The food habits of this bird are largely insectivorous ; it is a true fly- catcher and takes a large part of its food on the wing. The chief complaint against this bird is that it preys upon honey-bees, although the examination of many stomachs of these birds did not ehow that honey-bees made up any considerable part of its diet. About 90 per cent of the food consists of injurious species of insects. The Phoebe. This bird subsists almost exclusively upon in- sects, most of which are caught upon the wing. In their season grass- hoppers are eaten to a considerable extent, while wasps of various species, many species of flies that annoy cattle are eaten regularly. There is hardly a more useful species about the farm than the phoebe. It should receive every encouragement. The Crow. There are few birds so well known as the common crow. Unlike most other species it does not seem to decrease in number as the country becomes more densely populated. The crow is commonly regarded as a thief. It is well known that he pulls up sprouting corn, destroys chickens, robs nests of small birds and also feeds on frogs, toads and some smaJl snakes that do good by eating insects. Notwithstanding all of these charges against this bird, the examination of a large number of stomachs shows that the insects which he consumes makes amends for the injury which he does. The insect diet of this bird is nearly all of a noxious character. The crow is no exception to the rule that most birds subsist to a large extent upon grasshoppers in the month of August. Crows eat fruit to some extent, but the damage which they do to cultivated fruits is not se- rious. In the more thickly settled parts of the country the crow probably does more good than harm. In some States this bird is pro- tected by law. The Meadowlark. The meadowlark is a common and well known bird, occurring from the Atlantic Coast to the Great Plains. While it is a bird of the plains, yet it is found in considerable num- bers in the meadow and mowing lands of the Eastern States. As this is distinctly a ground bird, its food consists largely of insects. Grasshoppers, beetles and various kinds of caterpillars make up a large part of this food. The dreaded cut-worm is readily eaten by this bird. Briefly stated, it may be said that more than half of the meadowlark's food consists of harmful insects. Its vegetable food consists almost wholly of noxious weeds or waste grain. The Catbird. The catbird is a lover of thick foliage and usually makes its home in some tangle of bushes, vines or trees. It is found throughout the United States east of the Rocky Mountains. A large part of the food of these birds consists of in.-i cts. Ants, beetles, cater- pillars and grasshoppers constitute a considerable part of this diet. Although the catbird sometimes does considerable harm by destroy- 636 DOMESTIC ANIMALS, DAIRYING, ETC. ing fruit, it is not considered injurious, but on the contrary in most parts of the country does far more good than harm. The Robin. The robin is found throughout the United States, although the robin of the far West is slightly different from that of the Mississippi Valley and farther East. The food habits of the robin sometimes causes apprehension to the fruit grower, for it is fond of cherries and other small fruits. A large part of the food of this bird consists of animal matter, principally insects. Grass- hoppers, caterpillars, snails and earthworms form a considerable part of its diet. Without doubt the robin is a valuable friend of the agri- culturists, although he sometimes makes annoying inroads on some choice fruits. (Dep. Agr. F. B. 54.) Blackbirds. Blackbirds also, of which there are several species, at times and in certain districts destroy grain. On the other hand, blackbirds consume insects in a wholesale way, and so incline the balance strongly in their favor. Orioles. Orioles eat insects to a much greater extent than vege- table food and are noted for their fondness for caterpillars. That the good done by orioles far outweighs the harm can not be doubted, especially since it has been ascertained that in the cotton fields orioles are persistent and successful enemies of the cotton boll weevil, and eagerly search the bolls for them, thus invading the very heart of the enemy's citadel. Bobolink. The bobolink, though in summer a deserved favor- ite at the North and there chiefly insectivorous, in autumn is respon- sible for damages to the southern rice patches that annually aggre- gate many thousands of dollars. The bobolink is thus almost in a class by itself, earning deserved protection in summer at the North by reason of its beautiful song and its insect-eating habits, while in- curring the severest penalties at the South in the fall for serious depredations on the rice crop. No fair-minded critic can condemn the southern planter who protects his own by means of powder and shot. The extermination of the bobolink is not possible nor is it desirable, at least from the standpoint of those who cherish the bird in its northern home, but a material reduction of its numbers would probably effect a cure and satisfy the rice planters by making the bird practically harmless. Blue Jay. The blue jay is another of our pronounced vege- tarians whose fare, taking the whole year round, is largely composed of insects ; and were judgment to be pronounced merely as between the good it does by destroying insects and the harm it inflicts by eat- ing corn and fruit, the verdict would be in favor of the bird. A fact, however, recently brought to light seems to indicate that the blue jay is essaying a new role. As is well known, the brown-tail moth was introduced in this country a few years ago, and in the New England States has already inflicted serious injury. It will be for- tunate for the country at large if the ravages of the insect can be limited to the States already infested. Contrary to the habits of our native moths the eggs of this foreign intruder hatch in the fall, and the young safely winter in their nests in the trees, to issue in the OTHER ANIMALS 637 spring and begin their devastations on the opening foliage. Recent- ly it has been learned that hundreds and thousands of these nests are torn open in winter and the young eaten, and the blue jay has ac- tually been seen doing this. The blue jay will earn the title of bene- factor indeed should he be able to contribute materially toward a reduction of this pest, which not only threatens destruction alike to village shade trees and country forest, but seriously afflicts humanity by poisoning the flesh with its barbed hairs, which are scattered broadcast by the wind. Grouse and Quail. Grouse and quail are largely vegetarian, though the several species have enviable records as successful hunters of insects. The habit of eating the buds of fruit trees in spring is sometimes cited against our ruffed grouse as a serious fault, but usually trees are not harmed by the process. The value of all the members of the grouse family, as of water- fowl and waders, for food is great and is constantly increasing as the birds diminish in numbers. Quail have always been favorite objects of pursuit by sportsmen, and by preserving the quail on a large farm, or on a number of adjoining farms, and asking a fair fee from sports- men for the privilege of snooting, a considerable revenue may be derived, and it is not unlikely that the game on a large tract of, say, several hundred acres may be made to yield a revenue as large as that from a good-sized poultry yard, or even larger. However, perhaps the most valuable service to the farmer rendered by bobwhite is the destruction of the seeds of weeds, although the total number of in- sects eaten in a year by a covey on the farm is enormous, and it is questionable if the value of game birds to the farmer, especially the quail, as weed and insect destroyers be not greater than their value as a source of revenue from sportsmen or as food. It is pretty safe to assert that, except where grouse and quail are so numerous that a cer- tain percentage of the increase can be spared, the farmer can not af- ford to sacrifice them to sport or to the market. Sparrow Family. The finch, or sparrow, family is very im- portant to the agriculturist. The group is large, and in North Amer- ica comprises more than a seventh of all the birds. Most of them are small and plainly colored; some are gregarious, and most are mi- gratory, leaving the United States in winter. Their chief value to the farmer lies in the fact that the majority of them are indefatigable in their search for seeds of w r eeds, which indeed constitute a large part of their fare the year round. Practically all of the food of at least one of them the tree sparrow consists of seed. If we es- timate that a single tree sparrow eats a quarter of an ounce of weed seed daily and stomach examinations by Professor Beal show that, this is a fair estimate this species in a State the size of Iowa con- sumes more than 800 tons of seed annually. And there are many other sparrows whose appetite for weed seed falls little short of that of the tree sparrow. As every farmer knows, the cost of farming is largely aug- mented by the expense of fighting weeds, the seeds of many of which, especially of certain noxious kinds are very numerous and are ca~ 638 DOMESTIC ANIMALS, DAIRYING, ETC. Eable of germinating after being long buried in the soil. As weeds ave been estimated annually to damage crop land on the average about a dollar per acre, and as the lands under crop in the United States in 1899 were 290,000,000 acres, the good work accomplished by the sparrows is of very great value to the farmer. Without their aid the cost of fighting weeds would be vastly increased, and no doubt in places profitable agriculture would be almost impossible. Some of the sparrow tribe, as the purple finch and grosbeak, are fond of buds, and in spring may be frequently seen in apple, cherry, peach, and other trees, greedily eating the buds or the stamens of the blossoms. No doubt a certain percentage of fruit is lost through the agency of these birds, but budding by birds in iteelf, if not carried too far, is by no means objectionable ; and neither of the birds men- tioned, nor any native bird that shares the habit, is numerous enough (except in California) or sufficiently confirmed in the habit to seriously reduce the fruit crop. Indeed budding by hand to pre- vent overbearing and to improve the size and quality of fruit is a common practice, and it is probable that, as stated above, in most cases no actual loss of profit follows budding by our native birds. Whether so or not, the purple finch destroys many insects, cater- pillars among them, and hence earns favor in the eyes of the farmer; while a still stronger case may be made out for the rose-breasted grosbeak, which is a most determined foe of the Colorado beetle, and probably destroys more of these dreaded insects than does any other bird possibly than do all other birds combined. The insects eaten by the old birds, however, are but a tithe of the number they feed to their young, for nestlings thrive best and grow faster on a diet com- posed almost exclusively of insects. Until the English sparrow was introduced it would have been safe to say that all the sparrows were friends of the farmer and de- served protection at his hands. Unlike our native species, however, this bird has bad habits far outweighing any possible good that it does, even if the most liberal estimate be made of the comparatively small number of insects that it destroys or the weed seed it eats. It is a conspicuous member of the seed-eating group, as its structure abun- dantly proves, and this well-known fact should have prevented its introduction into the United States to perform the service of an insect eater. By preference the bird is a scavenger of the city streets. Out- side the city the bird's fondness for seeds does not stop with weed seed. The smaller grains are liable to attack at all stages of growth, from sowing time to harvest, and the total damage to the grain crop of the country inflicted by this pest at the present time amounts to many thousands of dollars annually. This sparrow, like some of our native species, is fond^of the buds of fruit trees. Where it exists in small numbers the injury it does in this way, like that of our own sparrows, is too small to count much against it ; but the bird is very prolific and in many suburban towns its colonies are so large that the resulting damage it inflicts upon fruit trees in spring is very great. It is fond also of all the small OTHER ANIMALS 639 fruits, and in some regions the damage to fruit as the result of its attacks is considerable. There is yet another field for the exercise of this pest's pernicious activity. Its aggressive and meddlesome disposition and its habit of acting in concert enables it to overpower and drive away many of our native birds, which before its advent were as numerous about dwell- ings as they were welcome. The house wren, the bluebird, the phcebe, and certain swallows are the chief sufferers from the aggressive warfare waged by the sparrow. Even that excellent fighter, the purple martin, is unable to long resist the persistent attacks of a united colony of sparrows, since, when unable to overcome the martin in open warfare, the sparrows enter the nests during the absence of the owners, kill the helpless young, and pitch put the eggs. The result is that not only are the above-named species and other small birds driven away from the localities they used to inhabit, but their numbers have steadily dimin- ished and must continue to do so because of their inability to find other suitable breeding places. Thus the sparrow has usurped the places about our homes by right belonging to our own birds, and its increase has been at the expense of native American species, with the result that a number of highly important useful species have been re- placed over large areas by a single destructive one. Not only should all aid and comfort be withheld from this foreign invader, but a con- certed effort should be made to reduce its numbers and to exter- minate it wherever and whenever possible. Cranes and Herons. Some of our birds are neither insect eaters nor vegetable eaters. Some of the hawks, and owls, as is well known, live chiefly upon flesh, while the cranes, herons, storks, and king- fishers live largely upon fish, crustaceans, and frogs. By eating small fish which are the fry of valuable kinds or serve as their food, these birds do more or less harm, as the fish breeder, whose ponds are in- vaded, knows well enough. So also their habit of eating frogs is in- jurious. But while thus injurious to some extent in certain localities where their pernicious activity may necessitate reprisals, cranes and herons do good service in the destruction of small rodents, especially meadow mice and pocket gophers. As in other cases the relation of these birds to the community varies according to circumstances, and they are to be dealt with accordingly, bearing in mind, so far as pos- sible, the good to the community as a whole and not solely individual interests. IMPORTANCE OP BIRDS AS DESTROYERS OP INSECTS. Prom the foregoing it will be seen that the benefits the farmer derives from birds far outweigh the occasional damage they do. Not- withstanding this, the public, as a rule, is much more alive to the depredations of birds than to the benefits that accrue from them. Nor is this surprising, since the disastrous effect* of a raid on sprout- ing corn by crows, or upon ripening cherries by robin.s and cedar birds, are too apparent to be overlooked, and the resulting loss can bo estimated in dollars and cents. Not so the benefits. Occasionally, 640 DOMESTIC ANIMALS, DAIRYING, ETC. it is true, the effects of a combined attack of birds upon caterpillars, cankerworms, or other insects which are present in unusual numbers or have played havoc with the foliage, are too evident wholly to es- cape attention; but more often birds work unnoticed, and the good they do is not at once obvious to the busy farmer. There are few visible tokens of the process by which the crop of hay or green feed has been saved from the cutworms by crows, or the potato crop res- cued from the Colorado beetle by the grosbeaks. The birds have done their work quietly but none the less effectively. They have saved, or greatly assisted in saving, the farmer's crop, and nobody is the wiser, save the few who make it the business of their lives to study the habits of birds. The time has long passed when the practical fanner can afford to ignore the relation of birds to agriculture. Larger and larger areas are being devoted to tillage every year, and the amount of capital in- vested in agricultural pursuits in the United States is constantly in- creasing. Irrigation, until recently almost unpracticed in the United States, is fast assuming national importance. The whole world is being laid under contribution for new fruits, forage plants, and crops for the benefit of the American farmer, in order that by his superior energy and foresight he may not only feed our own people but create a surplus of American products for consumption in less favored lands. Along with these new introductions and as a necessary result of international commerce, new pests have been introduced. Here, un- der a favorable climate and new conditions, they multiply till they inflict great damage. The Hessian fly, 'San Jose scale, and codling moth are examples in point. Such pests usually go unnoticed until the damage they do forces them on the attention of a community, when usually they are so numerous and widespread that their extermination is impossible. Once introduced into the country they are here to stay, and the vast sums already spent in efforts to stay the ravages of such pests em- phasize the importance of utilizing to the utmost all the allies nature places at our disposal. As a means of checking these introduced insect pests, as well as native ones, birds are of vast importance. Yet it must be remem- bered that, when once the productive powers of insects have had full play and an invasion occurs, the farmer can not suddenly augment the number of birds and summon the winged hosts to his aid. Birds reproduce but slowly, and in the natural course of events often suffer immense losses during their migrations, by climatic extremes and through the assaults of birds of prey and predaceous mammals. Hence a marked increase in the number of birds, either as a class or in the case of a given species, must come slowly and as a result of favoring conditions extending over a term of years. Moreover, as stated above, birds alone are inadequate to cope with sudden insect irruptions. It is their province rather by incessant watchfulness and constant warfare to prevent over-production of insect life rather than to reduce excess, although in the latter regard their aid is important. OTHER ANIMALS 641 It is the part of prudence, therefore, to protect useful birds at all times, and so to augment their numbers that they may constantly play their respective parts in the police system ordained by nature and be ready, when emergency arises, to wage active and aggressive warfare against sudden invasions of insect enemies. PROTECTION OF BIRDS FROM MAN. Most of our States have laws which, if fully enforced, would go far to secure adequate protection for birds. The wholesale destruc- tion of our songsters and insectivorous birds for millinery purposes has been largely stopped, although even now in some States the statutes are frequently violated by unprincipled bird hunters for the sake of gain. But laws, while wholesome and necessary, are not so effective for the protection of birds as is an enlightened public senti- ment. In a country like our own, where education is general, a knowledge of the part birds play in the economy of nature is more effective for their protection than are any laws, however well ad- ministered. Instruction of this kind should be given to every school child in the land, and it is gratifying to note that the importance of this practical side of nature study is fast being recognized by educa- tors. When the value of birds is universally known and they are everywhere cherished as friends, protective laws will be compara- tively unimportant. In this connection brief allusion may be made to a class of im- migrants to our shores who are ignorant 'both of our laws and of the need for enforcing them, and who look upon birds, large and small, only as food. Cheap guns and ammunition in the hands of thr.-o newcomers furnish means for the indiscriminate slaughter of birds for the pot, and public sentiment is either not recognized or is ig- nored. Nothing but strict laws, rigidly and impartially enforced, can save our birds from these pot hunters. MEANS OF ATTRACTING BIRDS TO THE FARM. There are many ways of attracting birds to the farm and about the farmhouse. A convenient drinking and bathing place near the house is one of the most effective lures for birds known, as well as one of the cheapest. For wrens, swallows, bluebirds, chickadees, and! other kinds, which build in cavities of trees, boxes may be put up, care being taken to protect them as far as passible from the aggressive English sparrow. Above all should the fanner pay attention to the cats on his farm. It is only recently that the extent of the depreda- tions of the house cat on wild life, especially on birds, has been recog- nized. Many who have studied the matter believe that taking the year round cats are responsible for the death of more birds, especially young ones, than all wild animals put together. This may or may not prove to be an exaggeration, but unquestionably cats every- where, especially on the farm, destroy vast numbers of birds. Even the well-fed and well-housed pet is responsible for many valuable lives, but the greater number are destroyed by strays which mistaken kindness has turned adrift, when not wanted in the house, to live as best they may. An adequate remedy against the bird-catching cat is neither easy to suggest nor to apply, but at lca.-t the farmer, who 642 DOMESTIC ANIMALS, DAIRYING, ETC. rightfully counts the birds of his farm as his friends, should be ex- pected to destroy the stray cats that infest the country in summer, and, so far as possible, to see to it that the natural instincts of his own house pets are suppressed by ample feeding and reasonable restraint. MEANS OF PROTECTING CROPS FROM BIRDS. There are various devices by means of which the farmer may protect his crops from the attacks of birds, reserving the use of the gun as a last resort when all other methods have failed. Scarecrows, a dead crow hung on a pole, a white cord stretched around a field, the drilling of seed, and the tarring of seed corn are some of the old and approved methods of preventing losses by crows and blackbirds. To be effective, no one of these should be employed exclusively or too long at a time in the same locality, since long contact with man has taught the crow a number of things. Fruit trees when few in num- bers may be protected by netting. The planting of wild fruit trees, or those possessed of little commercial value, for the protection of orchards has not received the attention in this country that it de- serves. Even when such protective devices fail the farmer is not driven to the wholesale destruction of birds. For it is being more and more recognized that there is much individuality among birds, and that generally the aggressors in a certain locality are a comparatively few individuals. If the lives of a few destructive hawks, crows, or robins are taken, after other means have been tried and failed, it is often enough to protect the poultry yard or the crop. FARMERS' GAIN FROM PROTECTING BIRDS. The brief survey of the subject possible here only imperfectly sets forth the nature and importance of the service of birds to agri- culture. Nevertheless it must appear that to the question "Does it pay the farmer to protect birds?" only one answer is possible. Even from the point of view of an investment for profit the time and ex- pense necessary for their care and protection are richly repaid. There is the added consideration that without the music and companionship of birds the world would be the poorer. Anything that adds to the attractiveness of the farm and increases the interest of farm life is worthy of cultivation, even if no actual return is received in dollars and cents. Happily the farmer who protects birds secures a double return increased profit from his crops and increased pleasure of living. (Dep. Agr. Year Book 1907.) PHEASANT RAISING IN THE STATES AND CANADA. Within recent years a new industry, the raising of pheasants, has begun to engage attention in the United States, and propagating ventures, ranging from the single pen with one or two pairs of birds to the pheasantry of many acres and thousands of birds, are scattered throughout the country. Some of these experiments have been con- ducted by the States through their game officials ; others by associa- tions and individuals. Species of Pheasants. A few words as to different kinds of pheasants are essential to a proper understanding of the subject of OTHER ANIMALS 643 pheasant propagation. The ringneck pheasant (Phasianus torqua- tus), usually imported from China, its natural home, has a broad white ring about the neck. It is variously called ringneck pheasant, Chinese pheasant, China pheasant, China torquatus pheasant, Chi- nese ringneck, Mongolian pheasant, Denny pheasant, and Oregon pheasant. The English pheasant (Phasianus colchicus) has no ring about the neck. It is imported from Europe, but in comparatively fcmall numbers, and is known as the English pheasant, dark-necked pheasant, and Hungarian pheasant. The English ringneck pheasant (Phasianus colchicus X torquatus), a hybrid between the English and ringneck pheasants, has been brought from Europe in large numbers. It is generally correctly named, but is sometimes desig- nated as English pheasant, ringneck pheasant, and even Mongolian pheasant. It often has more or less of the blood of the versicolor pheasant of Japan (Phasianus yersicolor) . In England both the English pheasant and the English ringneck are referred to as the common pheasant. The Mongolian pheasant (Phasianus Mongoli- cus), which has a more or less complete white ring about the neck, but in other respects resembles the English pheasant more than it does the ringneck, is the rarest of the four kinds in American pre- serves and aviaries. It is a native of the region about Lake Balkash, Central Asia. The silver pheasant (Gennaeus nycthemerus) is often seen in parks and aviaries, but the numerous other members of the genus, usually called kaleeges (or kalijes), are not often imported into this country. The home of the genus is the Indo-Chinese coun- tries and the lower ranges of the Himalayas. The eared pheasants (Crossoptilon), large, dull-colored birds of the higher ranges of central and eastern Asia, are known in American aviaries mainly through the Manchurian pheasant. Two of the best known and most commonly imported pheasants are the golden and Lady Amherst, both of the genus Chrysolophus, originally from the mountains of eastern Thibet and western and southern China. Both are favorite aviary birds, and the golden pheasant has been liberated in various game covers in America and Europe, but with indifferent success. United States. Effort* to acclimatize pheasants in the United States are of comparatively recent origin, though earlier than is popularly supposed. More than a hundred years ago, Richard Bache, an Englishman who married the only daughter of Benjamin Franklin, imported from England both pheasants and partridges, which he liberated on his estate in New Jersey, on the Delaware River near where the town of Beverly now stands. But although ho provided both shelter and food for them, the birds had all disap- peared by the following spring. A second attempt was made early in the nineteenth century by the owner of a New Jersey estate situated between the Hackensack meadows and the Passaic River, opposite Belleville. A park was fenced and stocked with deer and English pheasants, but despite feeding and careful protection these birds like- wise disappeared during the winter. These initial importations were followed by similar attempts to stock private preserves, but met with 644 DOMESTIC ANIMALS, DAIRYING, ETC. like failure. About thirty years ago, however, a successful effort was made to introduce the ringneck pheasant into Oregon, and since then acclimatization experiments have followed broader lines and have assumed greater importance. It will be convenient to consider these later ventures by states. Pheasants in Fields and Covert. The failure of many efforts to add pheasants to our fauna is largely due to insufficient knowledge of their habits and the character of their normal environment. It is useless to undertake to acclimatize a bird in a region differing widely in climatic and other physical conditions from those to which it has been accustomed. Thus, an attempt to introduce into one of the prairie States the common blood pheasant (Ithaginis cruentus), which inhabits the Himalayas at from 10,000 to 14,000 feet eleva- tion, would result in failure. It must be remembered, also, that introduced birds have to adapt themselves to a new flora and fauna, and that this is often a slow process and frequently fails. If liberated in the wilds, they must be provided with reserve food and shelter until able to care for them- selves, which may take several years. In Oregon the ringnecks put out came at first regularly to farmyards to feed with the domestic fowls; and English ringnecks liberated on Grand Island, Michigan, were driven back by severe weather to the pens from which they had been allowed to escape a few months before. If pheasants are imported for stocking preserves, suitable coverts should be prepared for them. In their native country pheasants frequerrt, the margins of woods, coming into open tracts in search of food and retreating into thick undergrowth when alarmed. An ideal pheasant country is one containing small groves with underbrush and high grass between the trees, thorny hedges, berry-growing shrubs, water overgrown with reeds, and occasional pastures, mea- dows, and cultivated grainfields. Bleak mountains, dry sandy wastes, and thick woods are not frequented by pheasants normally; nor do they seek pines, except for protection. A small grove of mixed ever- green and deciduous trees on the southern slope of a hill furnishes favorable shelter. On the preserve additional shelter should be provided in winter. Rude huts or even stacks of straw will serve. Suitable food should be planted such as buckwheat, millet, corn, cabbages, and turnips. Stacks of unthreshed grain or of beans may be placed about the preserve. When shooting is permitted, it is not wise to shoot only the cocks. If all the hens are spared, they will increase out of proper proportion, to the detriment of both quantity and quality of the prog- eny. Very old cocks and hens should be destroyed. Old cocks are inferior for breeding purposes, and old hens will frequently beat off 2- and 3-year-old hens and prevent their mating. METHODS OF PROPAGATION. Obtaining Stock. A pheasantry may be started with mature birds or with eggs, the latter to be hatched by barnyard fowls. Many are tempted to begin with eggs because of smaller cost, but the uncer- OTHER ANIMALS 647 tainties attendant on hatching the eggs and raising the young are such that it is probably cheaper to secure full-grown birds at the out- set. If eggs are to be tried, they should be ordered in January or February, to be delivered in April or May. They should be placed under the hen as soon as possible. Pheasants may be obtained from reputable dealers, of which there are a score or more in the United States and Canada, or they may be imported from Europe or Asia. If stock be imported, trouble may be saved by securing it through experienced and reliable bird importers, who are familiar with the business. A pen should be pro- vided and supplied with food and water. On the arrival of the birds the crate should be placed in the pen, an opening should be made in the crate (preferably in the evening) sufficient to allow the birds to escape one at a time, and the attendant should withdraw, leaving the birds to find their way out alone. For the first few days they should be disturbed as little as possible. Prices. The prices of pheasants vary with the season. They are lowest at the close of the breeding season and increase gradually until the next. They vary also according to the dealer; but so many things are to be considered, such as purity of stock, freedom from disease, care in shipment, and other details, that the lowest prices do not always mean the cheapest birds. English ringneck pheasants are least expensive about $5 a pair. English pheasants and ringnecks (the pure-blooded birds) cost a little more; Reeves and versicolor pheasants, about $18 a pair; and Mongolian, $40. Of the more common aviary birds golden and silver pheasants are the cheapest, at about $12 per pair; next in price are the Lady Amherst and Reeves, which retail at about $18 or $20 a pair, while others range from this price up to $150 or $200 a pair. These prices are only ap- proximate, and serve merely to give an idea of the relative values of the birds mentioned. Pens. Any well-drained ground is suitable for pheasant pens, but a gentle slope of sandy loam, comparatively cool in midsummer, furnishes ideal conditions. Clay is the poorest soil for the purpose, as it is likely to foster diseases. The pens should be provided with plenty of both sunshine and shade. They should be constructed of chicken wire, like ordinary poultry runs. Each pen should cover at least 100 square feet, more if possible; contracted quarters induce disease and afford their timid occupants too little protection from alarms. The pen should be from 6 to 8 feet high, and should be inclosed above with wire. If the pheasants are likely to be disturbed much, cord netting should be stretched 6 inches or more below the top wire, to prevent the birds from injuring themselves by flying violently against the top, as they are apt to do when frightened. The pens and sheds should be kept scrupulously clean. There is no more fruitful source of disease among pheasants than unclean- liness. As has been aptly said, the pheasant pen should be ko]>t as neat and clean as the front dooryard. Nevertheless chips and twigs may be scattered about to attract insects, and boughs for shelter should not be omitted. Each pen should be thoroughly spaded and 648 DOMESTIC ANIMALS, DAIRYING, ETC. limed every two or three years. Cover should be provided for the birds. The pens may be sown with clover, timothy, and other grass early enough to furnish ample cover by the time the birds are turned in. Small evergreens may be grown inside with decided advantage or cut branches of evergreen or deciduous trees may be placed within. If growing grass or clover can not be conveniently provided in the pen, a piece of sod should be placed there occasionally. The birds enjoy tearing sod to pieces for the seeds, insects, and grass it contains. Food. Pheasants are small feeders, and there is greater danger of overfeeding than underfeeding. Overfeeding is productive of dis- ease. In order to guard against it, the attendant should at first sprinkle a little food on the ground, wait for that to be eaten, and then repeat until the birds lose their eagerness, when feeding should be discontinued. The proper quantity of food for each pen may thus soon be ascertained. Pheasants are omnivorous, and as variety is advantageous, almost any edible substance may be fed grain of all kinds, finely chopped meat, cooked cereals, table scraps, boiled potatoes, boiled rice, apples, turnips, rose hips, the tubers of Jeru- salem artichokes, and finely chopped green food, as lettuce, grass, cabbage, onion tops, garlic, and chickweed. Green food is important and should be constantly supplied, even if it must be raised under glass. All green food must be chopped fine, as otherwise the birds are likely to become crop bound. Ground bone is excellent. Seeds of various weeds, when obtainable, may be furnished ; hay seed also is good. Care in Winter. Many species of pheasants are able to with- stand cold. Even when the mercury is below zero, they generally prefer to roost in the open runs, and they seem to be little discom- moded by snow. Nevertheless, it is well to afford them some shelter from severe storms and from excessive dampness ; and some species normally inhabiting warm regions require housing in cold weather. Scrupulous cleanliness must be maintained throughout the winter, as at other seasons, and dust baths must be provided at all times. It is necessary to remember also that grit or fine gravel is essential to the proper digestion of food by pheasants. In winter it is not usually necessary to separate the cocks from each other or from the hens. (Agr. Dep. F. B. 390.) HONEY BEES. Bee keeping for pleasure and profit is carried on by many thousands of people in all parts of the United States. As a rule it is not the sole occupation. There are, however, many places where an experienced bee keeper can gain a good livelihood by devoting his entire time and attention to this work. Generally it is unwise to undertake extensive bee keeping without considerable previous ex- perience on a small scale, since there are many minor details that should be thoroughly understood before one could really > expect to be successful in the work. Bee keeping is extremely fascinatmg^to some people as a pastime, furnishing outdoor exercise as well as in- timacy with an insect whose life habits have formed an absorbing study from earliest times. It is only fair, however, to say that when OTHER ANIMALS 649 we consider a new industry we frequently learn only of the bright side of the work, and consequently we should make as thorough a study as possible of the trials and discouragements as well as the pleasures and successes. Where financial profit is derived, bee keeping requires careful and persistent work. Few lines of outdoor work require more study to insure success. In years when the available nectar is limited sur- plus honey is secured only by judicious management, and oftentimes it is somewhat difficult for the bee keeper to so manage that his entire apiary may be preserved. Above all it should be emphasized that the only way to make bee keeping a profitable business is to produce as largely as possible a first class article. While the bee keeper can- not control what the bees bring to the hive to any great extent, by proper manipulations he can cause them to produce fancy combed honey, or if extracted honey is produced, he can prepare it for the fancy trade. Location of Apiary. In choosing the location in which to keep bees on an extensive scale, it is essential that the resources of the country be known. It will not be found advantageous to keep bees in localities where plants do not yield nectar in large quantities. The location of the hives is a matter of considerable importance ; as a rule it is better that they be so placed that they will not face the prevailing wind. In the northern states a southern slope is desir- able. It is also advisable that hives be so placed that the early morn- ing sun will shine directly on them so that the bees become active early in the day, and thus gain an advantage by getting the first supply of nectar. They should also be so placed that the bees will not prove a nuisance to passers-by or disturb live stock. It is quite essential that the grass be kept closely cut and be kept free from weeds, especially about the entrance to the hives. Size of Apiary. As a rule it is not considered best to keep more than one hundred colonies in one apiary. Large apiaries should be at least three miles apart. It is difficult to learn how many colonies any given locality will sustain without actual trial. However, the judgment of an experienced person would be a fairly safe guide, after the study of the honey producing plants had been made. Generally it is best to have each hive on a separate stand. The entrance should be lower than any other part of the hive. The stands may be made of wood, brick, tile or concrete, or for that mat- ter, of any other convenient material that will answer the purpose. It is not necessary to raise the hive more than a few inches from the ground. Habits of Bees. The successful manipulation of bees depends entirely on a knowledge of their habits. The amateur bee keeper therefore should familiarize himself with the habits of bees as this knowledge will greatly add to the pleasure of bee keeping as well as to increase the profits. A colony of bees normally consists of one queen, the mother of the colony, and thousands of sexually unde- veloped animals called workers that normally build the comb, gather the storage, keep the hive clean, and in fact do all the work. During 650 DOMESTIC ANIMALS, DAIRYING, ETC. part of the year there are also some hundreds of males called drones. These are often removed or greatly restricted in numbers by the bee keeper. These three types are easily recognized by a novice. Handling Bees. Bees should be handled so that they will be little disturbed in their work; as much as possible stings should be avoided during manipulation. This is true not so much because they are painful to the receiver, but because the odor or poison which gets in makes them more irritable and difficult to manage. Superfluous quick movements tend to irritate the bees and the hives should never be jarred or disturbed any more than is necessary. The best time to handle bees is during the middle of warm days, particularly dur- ing the time of honey flow. Do not handle them at night or on cold, wet days, unless absolutely necessary. In handling bees for the ex- amination of the comb, inspection of the brood cells, etc., it is usually best to be provided with a smoker by means of which a few puffs of smoke may be directed into the hive at the pleasure of the attendant. This causes the bees to fill themselves with honey and makes han- dling much easier. The art of handling bees is easily learned and can hardly fail to become a source of pleasure to those who have con- veniences for keeping bees and can devote some time to their manage- ment. On many farms the production of honey for the home table is the primary object, although it often happens that more is pro- duced than is required at home which may be sold to good advantage. The Production of Honey. The obtaining of honey from bees is generally the primary object of their culture. Bees gather nectar to make into honey for their own use as food, but generally store more than they need, and this surplus the bee keeper takes away. By managing colonies early in the spring as previously described the sur- plus may be considerably increased. The secret of maximum crops is to "Keep all colonies strong." Honey is gathered in the form of nectar secreted by various flowers, is transformed by the bees, and stored in the comb. Bees also often gather a sweet liquid called "honeydew," produced by various scale insects and plant-lice, but the honeydew honey made from it is quite unlike floral honey in flavor and composition and should not be sold for honey. It is usually unpalatable and should never be used as winter food for bees, since it usually causes dysen- tery. When nectar or honeydew has been thickened by evapo- ration and otherwise changed, the honey is sealed in the cells with cappings of beeswax. It is not profitable to cultivate any plant solely for the nectar which it will produce, but various plants, such as clovers, alfalfa, and buckwheat, are valuable for other purposes and are at the same time excellent honey plants ; their cultivation is therefore a benefit to the bee keeper. It is often profitable to sow some plant on waste land ; sweet clovers are often used in this way. The majority of honey-pro- ducing plants are wild, and the bee keeper must largely accept the locality as he finds it and manage his apiary so as to get the largest possible amount of the available nectar. Since bees often fly as far OTHER ANIMALS 651 as 2 or 3 miles to obtain nectar, it is obvious that the bee keeper can rarely influence the nectar supply appreciably. Before deciding what kind of honey to produce the bee keeper should have a clear- knowledge of the honey resources of his locality and of the demands of the market in which he will sell his crop. Extracted Honey. This is honey which has been removed from the combs where the bees stored it. While it is possible to adulterate extracted honey by the addition of cheap syrups, this is rarely done. If the main honey flow is slow or the honey dark it will probably be best to extract the honey from the comb if it is to be sold. Comb Honey. A honey for the fancy trade. It must be made rapidly and in districts where white clover abound or there is an abundance of basswood trees (Filia americana). (Dep. Agr. F. B. 447.) Honey Vinegar. When a barrel of honey vinegar is to be made for family use or by the small producer the following formula may be useful : Strained honey 40 to 45 Ibs. Water 30 gallons. Ammonium chloride 4 oz. Potassium bicarbonate 2 oz. Sodium phosphate 2 oz. One-quarter cake of dry yeast softened in lukewarm water. The chemicals for making thirty gallons will cost about 25 cents in a small way, but on a large scale not more than 10 cents. Somewhat larger amounts of potassium bicarbonate and sodium phos- phate, would give better results, but the amounts are here cut to the minimum to bring the cast low enough to make it profitable. In from three to four weeks all visible fermentation will have ceased and the yeast settled out. Now rack off the wine, add ten gal- lons of good vinegar, and let stand undisturbed in a place having as nearly as possible an even temperature of from 7o to 80 degrees Fahrenheit. The acetic fermentation may be started by floating mother or the scum from an older cask on the surface of the mix- ture by moans of thin cork shavings. Carried out in this way and at a suitable temperature (temperatures over 85 degrees Fahren- heit will retard the process and cause loss of both alcohol and acid) a good honey vinegar can be produced in from four to six months. (Arizona B.) THE AMERICAN TOAD. It is well known that insects of one kind or another destroy, more or less, nearly all kinds of agricultural crops. While man has learned how to combat many of these pests by administering vari- ous poisons and rcpellanis, yet nature's remedy is still relied upon, in a large degree, to maintain a somewhat even or stable balance. That is, one class of animal or insect life to feed upon another. As insect destroyers, birds, small predaceous animals and toads play an important part. The common toad, nocturnal and quiet of habit, renders valuable service to gardeners and farmers through- 652 DOMESTIC ANIMALS, DAIRYING, ETC. out the growing season or during the period of destructive insect life. It seems probable that the toad does not breed until the fourth year. As the breeding season approaches they migrate to ponds where the eggs are laid, usually in March, April, or May, according to latitude. Mating is commenced as soon as the water is reached or even before. The tiny black eggs with their gelatinous covering are laid in ropes; this covering swells and forms a large mass. In two weeks or sooner the eggs hatch and the tadpoles grow rapidly until June or July, when legs appear and the tail is absorbed. As many as 7,000 to 12,000 eggs have been removed from a single female. The toad has a strong home instinct and lives year after year in the same locality. The toad is not poisonous, but sometimes when attacked emits through the skin an acrid fluid that is poison- ous or disagreeable to some animals, notably to dogs. Toads are voracious feeders and consume large numbers of insects. Earth- worms, snails, sowbugs, thousand-legged worms, spiders, grasshop- pers, crickets, ants, beetles, cutworms, tent caterpillars, etc., mostly injurious insects, form their chief food. (Dep. Agr. F. B. 196.) BATS. Bats are common almost everywhere in the United States, except possibly in the very dryest regions, within reach of water. Owing to the nocturnal flight of bats their habits are not well understood, but it is safe to say that all species are not only harm- less but highly beneficial. They feed entirely on insects caught on the wing. Bats shot in the evening after they have been flying for twenty minutes will usually be found so gorged that it does not seem possible that their stomachs can hold more. If their diges- tion is as rapid as that of other insectivorous mammals, the number of insects consumed in a night by a single bat must be enormous. The great deposits of bat guano found in caves and under roosting places represent in some cases hundreds of tons of insect remains. (Dep. Agr. F. B. 335.) SILK CULTURE. Attempts at silk culture were made in Pennsylvania and New Jersey as early as 1771. Many other attempts have been made, but none of them have proven financially successful. Government aid has been given by way of distributing mulberry trees and the dis- tribution of silk worm eggs, but even this assistance was not suffi- cient to place the enterprise on a paying basis. From experiments tried in the United States, the cost of labor has been quite out of proportion with the returns from the sale of cocoons or reeled silk. While this country imports millions of dollars' worth of silk an- nually, largely from Japan, yet chiefly on account of the high price of labor, silk culture in this country has not been made profitable. (Y. B. 1903.) VIRGINIA DEER (ODOCOILEUS VIRGINIANUS) . The Virginia or whitetail deer is the common deer of the United States. It is distributed over most of the country and is- THE COMMON TOAD, A PRACTICAL " BUG CATCHER " AND THEREFORE A USEFUL FRIEND. ENCOURAGE His PRESENCE IN YOUR GARDEN. OTHER ANIMALS 653 adapted to widely varying conditions. It has not been bred in inclosures for commercial purposes to any great extent, although breeders are beginning to realize that they may be made profitable under proper management. The deer are polygamous like elk, breeding in November; period of gestation about seven months. The first coat of the fawn is spotted. In the wild state they are chiefly browsing, in captivity they eat almost all kinds of forage and vegetables. A good supply of running water should be pro- vided. The animals should also have access to rock salt. The remarks about castrating elk apply equally as well to deer. A number of vigorous bucks however must be kept with any con- siderable herd of does. Frequent changes of blood, by introducing new bucks, should be practiced to avoid too much in-breeding. (Dep. Agr. F. B. 330.) SILVER FOX (VTJLPES FULVUS). The name silver fox is commonly applied to the dark phases of the ordinary red fox. Variously called silver, silver-gray, silver- black. It should not be confused with the gray fox or the tree fox of the southern part of the United States. The prices usually paid for fox skins vary greatly. The red fox selling for a few dollars each, and those of the silver fox for bringing from ten to fifty times as much. Foxes have been maintained in zoological gardens for many years, but not until recent years has silver fox farming been attempted. Some attempts have proven failures, while others have attained quite marked success. The natural habitat of the red and silver foxes includes the greater part of North America. The most successful fox farms consist of quite restricted areas inclosed with high woven wire fences, quite near dwellings where close personal attention can be given. Foxes breed only once a year, the mating season includes the months of February and March. The period of gestation is about 51 days. The number born in a litter varies from two to eight, the average number born to adults being five. The sexes are usually kept separate, except during the breeding season. The young are separated when weaned. Fox raisers estimate the cost for food when everything is pur- chased at about one cent per day per fox. So far as known, fatal diseases are unknown among foxes. It seems probable that under proper management fox raising will be developed into a profitable industry. (Agr. Dept. F. B. 328.) WAPITI OR ROCKY MOUNTAIN ELK (CERVUS CANADENSIS). The Wapiti include two related species and are generally known as the Elk ; and is next to the moose the largest of our deer. It was once abundant over the greater part of the United States. At present their range is very limited. Only comparatively small herds exist outside of the Yellowstone National Park. Wapiti are found, however, in Colorado, Montana, Idaho, Oregon, Northern California, Washington and in Canada. The Elk is a browsing and grazing animal; sometimes it will subsist wholly on pasture. It is extremely polygamous. The bulls 654 DOMESTIC ANIMALS, DAIRYING, ETC. shed their antlers in March, or April, new ones attain full size in about three months. The female does not usually 'breed until the third year. Period of gestation about 8% months. Only one calf produced at a time. While the Elk is not prolific, yet it i.s very hardy. The flesh of Elk is superior in flavor to most venison, though somewhat coarse in texture. In well appointed deer parks, elk increase fully as rapidly as cattle. Fully 90% of the females produce healthy young. An adult male weighs from 700 to 1,000 pounds, females from 600 to 800 pounds. Management of Elk in Inclosures. In choosing a range for Elk, the natural food supply is important. Rough lands covered with grasses, bushes and trees, well watered with clear streams, and having some forested area, are adapted to their needs. Elk will browse and pasture when snows are not deep. Hay and corn fod- der make excellent forage. Oats and corn make a good grain feed. Elk are not so nervous as other deer, hence a low fence will keep them; ordinarily a five foot fence is sufficient. Elk may be obtained for stocking preserves at a reasonable price; from $20 to $75 apiece will usually purchase satisfac- tory animals. In inclosures the males sometimes become vicious; when this occurs they should be castrated and thus be saved to produce the finest venison. (Dep. Agr. F. B. 330.) MOSQUITOES. For many centuries humanity has endured the annoyance of mosquitoes without making any intelligent effort to prevent it ex- cept in the use of smudges, preparations applied to the skin, and in removal from localities of abundance. And it is only within comparatively recent years that widespread community work against mosquitoes has been undertaken, this having resulted al- most directly from the discoveries concerning the carriage of dis- ease by these insects. As obvious a procedure as it might seem to be, the abolition of mosquito-breeding places is a comparatively new idea. The treat- ment of breeding places with oil to destroy the larval forms is, however, by no means recent. As early as 1812 the writer of a work published in London entitled "Omniana or Horse Otiosiores" suggested that by pouring oil upon water the number of mosqui- toes may be diminished. It is stated that in the middle of the nineteenth century kerosene was used in France in this way, while in the French quarter in New Orleans oil was placed in water tanks before the civil war, the idea having possibly come from France to New Orleans or vice versa. Practically beginning with 1901, there has been a rather rapid increase in antimosquito work by individuals and communities, but this work has not progressed with anything like the rapidity de- manded by the distressing conditions of many localities and in fact of great areas. Yet it is probably accurate to state that more effective work of this kind has been done in the United States than in any other country. This is probably due to the greater prevalence of mosquitoes in the United States than in any other OTHER ANIMALS 655 highly civilized country, but the well-known practical character of the American people is also an element. The Breeding Place of Mosquitoes. The post^embryonic de- velopment of the mosquito, that is, the interval between the egg state and the adult winged form, occurs entirely beneath the sur- face of water. The young during this portion of their life-cycle are true aquatic insects with one exception, they do not breathe the air dissolved in the water as do fish, but by a special structure, a respiratory siphon, breathe the free air above the surface of the water; deprived of this they perish. By nature of their structure the young of mosquitoes can develop only in water and then only under certain conditions. As a rule mosquitoes breed in small col- lections of standing fresh water. Specimens are sometimes found in streams and some species are known to breed in salt or brackish water. For all economic purposes the statement is correct that mosquitoes breed only in water, usually stagnant fresh water. Do u.iraij with tliese places and it becomes impossible for mosquitoes to breed. Life History of Mosquitoes. The determination of methods for destroying an injurious insect implies a careful study of its life-history in order to find the vulnerable point in the life-cycle of the pest. All insects undergo during their developmental period remarkable changes in form, structure and habits. One can cer- tainly detect no resemblance between the wriggling larva of the mosquito in the water and the adult winged insect in the air. In the higher animals there are no distinct periods or stages of devel- opment. The young on hatching from the egg or at birth resem- ble the parent with the exception that they are smaller in size and undeveloped, but as growth continues they gradually acquire the size and characteristics of the adult. The life history of insects, on the other hand, is, generally speaking, divided into three distinct ,-tages after hatching from the egg; the young or larva, the grow- ing stage in the life of the insect; the pupa, a period of development during which a wonderful change or transformation in the form, structure and habits occurs; and the adult or winged insect, the form we usually recognize. The eggs of the common mosquito, Culex, are deposited on the surface of standing water. Under the right conditions of tem- perature they hatch in about twenty-four hours. The larvae de- velop to their full size in the course of eight to fourteen days dur- ing which time they moult or cast off their outer covering several times to provide for increase in size. The development of the larvae depends on the temperature of the water and the food sup- ply. Their food consists of the plant and animal matter, often microscopical in size, common to standing water. The pupa of the mosquito is also aquatic, normally resting inactive at the surface. This is the period during which the mosquito transforms from an aquatic insect to one of the air. The young or growing slauo, has passed. The pupa takes no food and moves only when dis- turbed as a matter of protection. The pupal stage is much shorter 656 DOMESTIC ANIMALS, DAIRYING, ETC. than the larval. In two or three days the pupa transforms to the adult mosquito and becomes the notorious household pest, the entire life-cycle being a matter of eleven to eighteen days. The only remedy for adult mosquitoes is protection by screen- ing, or the burning of insect powder. These remedies bring only temporary relief and do not remove the source of the nuisance. The importance, then, of not allowing mosquitoes to develop be- yond the pupal or final aquatic stage is evident. No practical method of destroying adult mosquitoes is known. The length of the life of adult mosquitoes varies. It is diffi- cult to get insects to repeat correctly in confinement what their life- history and habits would be under natural conditions; therefore the length of the life of the adult cannot be determined by experi- ment. As a rule the males of insects do not live any great length of time after maturity, and the females die soon after depositing their eggs. In a tropical country, like Hawaii, where no difficulty is encountered by the gravid female in securing favorable breeding places throughout the year, the length of the adult life is probably at the most only a matter of several weeks. In cold countries the male mosquitoes are known to die in the early winter and the females hibernate during the cold season, a period of several months, until suitable conditions for egg-laying prevail. Migrations of Mosquitoes. The adult mosquito is a very feeble flyer and is usually found in the vicinity of its breeding place. Instances are on record where mosquitoes have been car- ried in large numbers for long distances by the wind, but invasions from one locality to another are exceptional. It is well known that on windy days mosquitoes are less in evidence. It is evident from the structure of their organs of flight that mosquitoes cannot long endure in a high wind. In an infested locality, mosquitoes are al- ways in evidence immediately after a wind subsides, especially in places where the vegetation is abundant, in the foliage of which they seek shelter from the wind. Smith says that the habits of mosquitoes in regard to their flying any distance varies with the different species. He discusses a salt-water species, Culex sollicitans, which is apparently a true migratory form. It can be stated with- out qualifications that the source of mosquitoes is generally the im- mediate vicinity of the infested places. Invariably the source of mosquitoes infesting any district has been found to be near by nat- ural and artificial collections of water, usually artificial collections in the immediate vicinity. (Sp. Bui. T, N. J. E. S.) The Food of Adult Mosquitoes. Their food consists of the blood of animals and the juices of plants and fruits. Mosquitoes are normally plant-feeding insects and only the female is a blood- feeding insect when that is obtainable. The male satisfies his appe- tite on the juices of fruits or other liquids since the proboscis is not constructed, as is that of the female, for piercing anything with any degree of resistance, as the skin of animals or the epidermis of plants. Howard says, speaking of female mosquitoes: It is safe OTHER ANIMALS 657 to say that only an infinitesimal proportion of them ever taste the blood of a warm-blooded animal. Mosquitoes and Disease. The greatest impetus to the warfare against mosquitoes was given by the recent positive demonstrations that certain species are the camera of disease, that is, the agents (germs) responsible for the disease are parasitic to certain mos- quitoes during an intermediate stage in their developmental cycle. In fact it has been proved in the case of yellow fever and malaria that without certain species of mosquitoes as hosts, the life-cycle of the organisms responsible for the disease is interrupted. This has changed the mosquito problem from one of discomfort alone to one of health also. The most complete work in preventive medi- cine is the result of experiments along these lines. That yellow fever and malaria are conveyed from diseased persons to healthy people by bites of certain species of mosquitoes is an acknowledged fact in recent medical literature. Aside from yellow fever and malaria, mosquitoes are credited with the dissemination of ele- phantiasis, filariasis, and possibly the dengue fever and leprosy. The relation of certain insects to diseases, both plant and animal, is a study which in the future will do much to prevent their present serious work. The A bundant Mosquito, Culex Pipiens. The members of the genus Culex are distributed generally over the world and seem to be limited by neither altitude nor climate. The species so abundant, Culex pipiens, is the common species of the genus and the mos- quito whose life-history and habits are most generally known. This mosquito is reported from all parts of the United States and is recorded by Theobald as occurring generally in Europe. Breeding Places. The places chosen by the female of this species for depositing her eggs are many and varied. There is, however, a decided preference for certain places. Where there ia a choice between water containing a supply of decomposing vege- table or animal matter and uncontaminated water, the insect will invariably choose the water containing the organic matter, serving as it does as food for the young. The places mentioned by differ- ent writers as the breeding places of this species of mosquito are water-tanks, tubs and buckets under water-taps, wells, cisterns, bar- rels, open sewers, cess-pools, swamps, small pools, wayside ditches, empty oil tins, biscuit tins, sardine and tomato cans, gourds, flower pots, vases, cuspidors, broken and unbroken bottles, crockery, pot- tery and tins on rubbish heaps, hollow stumps, post-holes ana other excavations left unfilled, fire-buckets, gutters and eaves which are imperfect or which have become clogged, water-taps in sinks and closets, wateringotrottghfl for stock, neglected lily ponds and foun- tains, and catch basins from leaders. Life-History of Culex Pipicn*. The eggs of the night mos- quito are easily observed in the places where they occur. They appear a raft-like mass floating on the surface of the wator and resemble a small piece of charcoal about one-fourth of an inch in length. This manner of depositing the eggs is characteristic of the 658 DOMESTIC ANIMALS, DAIRYING, ETC. members of the genus Culex. The egg-mass or raft is the product of one female and, according to Theobald, is laid soon after sunri.se, and also at dusk if the weather is warm and still. Examination under a hand-lens shows a distinct structure to the mass, it being made up of individual eggs, standing close together in an upright position, the bottom of the egg being larger than the top, thus mak- ing the raft boat-shaped. Each raft is estimated to contain from two to three hundred eggs, the individual egg being hardly visible to one unaccustomed to looking at objects so small. The lightness of the mass insures its floating on the surface. Howard says that if the eggs are kept completely immersed the larvae will never de- velop, this being because of the inability of the developing em- bryos to obtain the necessary air supply. The peculiar structure of the bottom of the eggs prevents the water from actually wetting them. When the eggs hatch they open downward letting the larvae into the water. This occurs from twenty-four hours, under favor- able conditions, to two or three days, after the eggs are deposited. Naturally the young on hatching are very small but develop in a few days into fair sized wrigglers. These are the common natural history objects of the rain-water barrel which, as youngsters, we all believed were rained down. The larva of this species is found normally at the surface of the water with its head in a downward position. The explanation of this peculiar position is this: the larvae of this and all species of mosquitoes, though aquatic as regards living in and obtaining their food from the water, are true air-breathers and must necessarily come to the surface to obtain the air. The larva while breathing at the surface continues to feed beneath; hence the position of the head downward. It moves away when disturbed and can fre- quently be seen foraging about in the water for food but coming regularly to the surface to breathe. Its food consists of the decay- ing organic matter and the microscopical organisms common to standing water. Only one comment in favor of the generally con- demned mosquito can be found and that is in regard to the larvae. Comstock says: The larvae of mosquitoes are doubtless beneficial insects, for they feed on the decaying matter in water, and thus act as scavengers, and then he adds, but the annoyance caused by the bites of the adult female more than balances this good. The length of the larval life was found to vary under different conditions from seven to fifteen days. At the last larval moult, the pupal stage begins. The pupa is an ungainly looking creature resting quietly at the surface, tail-end downwards and further distinguished from the larva by its big head. This head is really the head and thorax of the insect fused together. The pupa has also two breathing-tubes, instead of one, rising, not from the tail-end of the body but from the upper side from that portion known as the thorax. The end of the abdomen is supplied with two broad flaps used for swimming, with which by vigorous motions of the body the insect drives itself down into OTHER ANIMALS 659 the water when disturbed. The manner in which the pupa rises to the surface without effort demonstrates that its weight is less than that of the water. The length of the pupal stage is a matter of about two days. The Yellow-Fever Mosquito, Stegomyia Fasciata. This mos- quito is the notorious yellow-fever species of Cuba. Just how or when it comes to these Islands is unknown. Dr. Howard under date of January 27, 1903, writes: The two species of Stegomyia occur throughout the East Indies. Prof. V. L. Kellogg of Stanford University, in writing of his trip to the Samoan Islands a year ago says: I am interested to learn that your day mosquito is the yel- low-fever chap, Stegomyia fasciata. That is just what I found the Samoan mosquito to be. * * * This is the abundant Samoan mosquito and the one which presumably disseminates elephantiasis. The dissemination of yellow-fever by the mosquito is not a new idea. Dr. Carlos Finlay of Havana, Cuba, was of the opinion, as early, as 1881, that this disease was conveyed by this pest. This theory was proved a fact by a commission oif surgeons of the United States Army by demonstrations made in Cuba in 1901. They proved beyond all doubt that this species, Stegomyia fasciata, was a conveyor and perhaps the only conveyor of this dreaded disease. The propagation of the disease depends upon the introduction of an infected individual to a locality where this mosquito is found, at a season of the year when it is active. Owing to the short period of incubation (five days or less), the brief duration of the disease, and especially of the period during which the infectious agent (germ) is found in the blood (three days), it is evident that ships sailing from infected ports, upon which cases of yellow-fever de- velop, are not likely to introduce the disease to distant sea-ports. The continuance of an epidemic on shipboard as on land, must depend upon the presence of infected mosquitoes and of non- immune individuals. Under these conditions we can readily un- derstand why the cHsease should not be carried from the West Indies or from South America to the Mediterranean, to the east coast of Africa, or to Asiatic seaport cities. On the other hand, if the disease could be transmitted by infected clothing, bedding, etc., there seems no good reason why it should not have been carried to these distant localities long ago. The yellow-fever mosquito is well named a towri species. It breeds almost exclusively about dwellings, and authorities state that it is seldom found far outside city limits unless in the vicinity of dwellings. The female will invariably choose small collections of clear water for depositing her eggs. The eggs are laid singly on or near the water and if not on the water may remain dormant for a long time until washed into the water or, as in the case of a rain- barrel, until a shower brings the water to their level. Attention to the artificial collections of water about dwellings will be the prin- cipal factor in reducing the numbers of this species. The Forest Mosquito, Stegomyia Scutellaris. This species and the yellow-fever mosquito are known locally as the day mosquitoes. 060 DOMESTIC ANIMALS, DAIRYING, ETC. While Stegomyia Scutellaris breeds in such places as mentioned in connection with the yellow-fever species, it differs from the latter in that it is not restricted to such collections of water. It has often been found breeding in small bodies of water in the forest. These places have been sometimes far removed from habitations and on several occasions have been discovered where not more than one person would visit, on the average, in a year's time. These natural breeding places are such small amounts of water as may be con- tained in a hollow stump of a tree or limb, a depression in a stone in the bed of a mountain stream, or the leaves of plants. Natural Enemies and Diseases of Mosquitoes. The dragon- flies or mosquito-hawks are the most effectual enemies of the mos- quitoes that we have here. The dragon-flies, Odenata, are for the most part members of the single genus Agrion. In searching the swampy places for the larvae of the mosquito it was not unusual to dip up with the same dipperful of water from the net, the larvae of mosquitoes and the nymphs or young of dragon-flies, while the adult dragon-flies could be seen flying in myriads over these places. This is significant when it is known that the dragon-fly is preda- ceous in both the young and the adult forms ; the young dragon-fly, an aquatic insect, feeding on the larvae of the mosquito in the water and the adult preying on the winged insect in the air. This highly beneficial, strong flying and beautiful insect is met at all elevations. A single gold-fish in an aquarium ate over one hundred and fifty larvas in twenty-four hours' time. Other specimens placed in pools containing mosquito larvae were afterwards dissected and the stomach contents were found to consist almost entirely of the re- mains of the bodies of larvae. From these experiments, gold-fish were placed in watering-troughs, tanks and pools, with the result that the young of mosquitoes did not develop in these places. Search was made for larvae in lily-ponds and fountains where gold- fish occurred and conditions verified the above experiments. (Hawaii E. S. B. 6.) Abolition of Breeding Places. In considering this general question just as in considering so many questions relating to mos- quitoes, a complication arises from the enormous mass of facts concerning the life histories of the different species of mosquitoes; facts discovered, for the most part, in the past three or four years. There is much diversity in the breeding places of different species. Those of the two commonest household mosquitoes, namely, Culex pipiens in the North and C. quinquefasciatus and Aedes (Stegom- yia) calopus in the South, correspond well to generalizations for- merly named, breeding as these specias do in every chance recep- tacle of water about residences, and their destruction means the abolition of all such receptacles. Where the rain-water barrel or the rain-water tank are necessary they should be screened. In New Orleans and other southern cities the boards of health are now enforcing such screening. This should be done with extreme care, a fine mesh wire being used and the fitting being made very perfect. OTHER ANIMALS 661 About a given house the waste places in the immediate vicinity should be carefully searched for tin cans, bottles, and wooden or tin boxes in which water can accumulate, and all such receptacles should be destroyed or carted away. The roof gutters of the build- ing should be carefully examined to make sure that they are not clogged so as to allow water to accumulate. The chicken pans in the poultry yard, the water troughs for domestic animals, the water cup of the grindstone, are all places in which mosquitoes will breed and in them water should not be allowed to stand for more than a day or so at a time. In the South the water accumulating under water tanks should be treated or drained away. The urns in the cemeteries at New Orleans have been found to breed mosquitoes abundantly. The holy water fonts in Roman Catholic churches, especially in the South, have commonly been found to breed mos- quitoes; in some places sponges have been substituted for standing water, and other churches have adopted a closed font, which allows the holy water to issue through a small spigot. In still other churches salt has been put in the water to prevent the breeding of mosquitoes. In slightly marshy ground a favorite breeding place is in the footprints of cattle and horses. In one country village, which contained many small vegetable gardens in a clay soil, dur- ing the rainy season mosquitoes were found breeding abundantly in the water accumulating in the furrows in the gardens. Even in the house mosquitoes breed in many places where they may be overlooked. Where the water in flower vases is not fre- quently changed mosquitoes will breed. They will breed in water pitchers in unused guest rooms. They will breed in the tanks in water-closets when the?e are not frequently in use. They will breed in pipes and under stationary washstands where these are not fre- quently in use, and they will issue from the sewer traps in back yards in city houses during dry spells in the summer time when sewers have not recently been flushed by heavy rains. In ware- houses and on docks they breed abundantly in tne fire buckets and water barrels. In country houses in the South where ants are troublesome and where it is the custom to insulate the legs of the tables with small cups of water, mosquitoes will breed in these cups unless a small quantity of kerosene is poured in. "Where broken bottles are placed upon a stone wall to form a cheval-de-frise, water accumu- lates in the bottle fragments after rains and mosquitoes will breed there. Old disused wells in gardens are frequent sources of mos- quito supply, even where apparently carefully covered, and hero the nuisance is easily abated by the occasional application of kero- sene. The same thing may be said of cesspools. Cesspools are frequently covered with stone and cement, but the slightest break in the cement, the slightest crack, will allow the entrance of theso minute insects and unlimited breeding often goes on in these pools without a suspicion of the cause of the abundance of mosquitoes in the neighborhood. 662 DOMESTIC ANIMALS, DAIRYING, ETC. Fountains and ornamental ponds are frequent breeding places, and here the introduction of fish, as indicated in another place, is usually all-sufficient. It frequently happens, however, that the. grass is allowed to grow down into the edges of ornamental ponds and mosquito Iarva3 find refuge among the vegetation and so escape the fish. Broad-leaved water plants are also often grown in such, ponds, and where these broad leaves lie flat upon the surface of the water, as they frequently do, one portion of a given leaf may be submerged so that mosquito larvao may breed freely in the water over the submerged portion of the leaf, protected from fish by the leaf itself, the fish rising from below. It is necessary, therefore, to keep the edges of such ornamental ponds free from vegetation and to choose aquatic plants whose growth will not permit of mosquito- larvae protection. In many small country towns, even where there is a water supply, tanks are to be found under the roofs to supply bathrooms. Such tanks should be screened, since mosquitoes gain entrance to the tank-room either through dormer windows or by flying up through the house from below in search of ovipositing places. About a large old house there are so many of these chance- breeding places that only the most careful and long-continued search will find them all. Frequent change of water or the use of kerosene will render them all harmless. In community work in cities all of the points mentioned must be borne in mind, and in the portions of the community where the residences are for the most part detached villas, in the absence of swampy suburbs the householders are in the main responsible for their own mosquitoes. There are, however, breeding places for which the municipality may be said to be responsible and these entirely aside from public fountains, reservoirs, or marshes. It seems unlikely that in any general sewage system mosquitoes may breed in the sewers proper. That they do breed in the catch-basins is well known. The purpose of the catch-basin is to catch and retain by sedimentation sand and refuse which would otherwise enter the sewer and deposit in it. It is intended to be watertight and to hold a considerable body of water which stands in it up to the level of the outlet pipe. Such catch-basins are very commonly used in back yards and at the crossings of streets. The water is removed only by rain or when street or yard surfaces are washed. In dry seasons the period of stagnation may last several weeks, certainly long enough for mosquito breeding. As a matter of fact, mosquitoes in midsummer do breed in such basin traps or catch-basins by mil- lions. PROTECTION FROM BITES. Protective Liquids. A number of different substances have been in use to rub upon the skin or to put near the bed as a pro- tection from mosquitoes. Spirits of camphor rubbed upon the face and hands, or a few drops on the pillow at night, will keep away mosquitoes for a time, and this is also a well-known property of oil of pennyroyal. Oil of peppermint, lemon juice, and vinegar have all been recommended for use as protectors against mosquitoes, I o 3 i OTHER ANIMALS 665 while oil of tar has been used in bad mosquito localities. A mix- ture recommended by E. H. Gane, of New York, is the following: Castor oil ounce. . 1 Alcohol do 1 Oil of lavender do .... 1 Fishermen and hunters in the north woods will find that a good mixture against mosquitoes and black flies can be made as follows: Take 2V 2 pounds of mutton tallow and strain it. While still hot add one-half pound black tar (Canadian tar), stir thor- oughly, and pour into the receptacle in which it is to be contained. When nearly cool stir in 3 ounces of oil of citronella and 1M> ounces of pennyroyal. Oscar Samostz, of Austin, Tex., recommends the following formula: Oil of citronella ounce. . 1 Liquid vaseline ounces. . 4 Apply freely to exposed parts. Doctor Durham, of the 'English Yellow Fever Commission, Rio de Janeiro, said that he and the late Doctor Myers found that a 5 per cent solution of sulphate of potash prevented mosquitoes from biting, and that they were obliged to use this mixture while at work in their laboratory in Brazil to prevent themselves from being badly bitten. Remedies for Mosquito Bites. It must have been the experi- ence of most people that ordinarily little swelling and irritation result from the puncture of a mosquito where there has been no scratching or rubbing of the part. But individuals vary greatly in this respect, and it is undoubtedly true that not only do different species of mosquitoes vary in their effect, but that different indi- viduals of the same species may also vary. The application of household ammonia has been found by many to give relief, and alcohol is also said to stop the irritation. Dr. E. O. Peck, of Mor- ristown, N. J., finds glycerin a sovereign remedy. Touch the bite with glycerin and in a few minutes the pain is gone. Dr. Charles A. Nash, of New York City, marks the puncture with a lump of indigo and states that this instantly stops the irritation, no matter whether the application is made immediately or after the lapse of a day or so. The most satisfactory remedy known to the writer from his own personal experience has been moist soap. Wet the end of a piece of ordinary toilet soap and rub it gently on tho puncture and speedily the irritation will pass away. Mr. Charles Stevenson, of Montreal, writing to the Canadian Entomologist in September, 1901, stated that he found naphthaline moth balls to afford imme- diate relief from the bites of dangerous Diptera, including mosqui- toes, and that a friend of his had used it successfully on flea-liid 1 -. He advises rubbing the moth ball on the affected part for a few minutes. Naphthaline is also recommended by Professor Bnnvs. director of the national board of health at Buenos Aires. lodin is frequently recommended for this purpose, and a note in a recent number of the Journal of Tropical Medicine and Hygiene recom- mends a modification in the shape of 30 to 40 grain* of iodin to 666 DOMESTIC ANIMALS, DAIRYING, ETC. the ounce of saponated petroleum, stating, a few drops rubbed in a mosquito bite or wasp sting allays the pain instantaneously. Rev. R. W. Anderson, rector of St. Thomas and St. Dennis, wrote us from Wan do, S. C., some years ago, that he has often found that by holding his hand to a hot lamp chimney the irritation of mosquito punctures would be instantly relieved. (Agr. Dep. Bu. Ent. B. 88.) HORSE FLIES. The Black-Striped Horsefly (Tabanus Lasiophthalmus Mac- quart). This species was reared from the egg to the adult. The fly is one of the earliest of its genus to appear in the spring, adults having been taken at Columbus, Ohio, as early as May 20, and it is common during the first half of June. The eggs are placed in masses on various plants that grow in low, wet ground, but have not been observed over water. The masses are pure shining black when fully covered, rather small for members of the genus, only slightly convex, and accompanied with an unusual amount of cementing material, which nearly obscures the form and arrange- ment of the individual eggs. The mass in place suggests somewhat a drop of tar or other black substance fastened to the surface of a leaf of the common cattail reed (Typha latifolia), a sedge, or some other pant. The eggs are usually deposited after the 10th of June, and the specimens from which larvae for rearing hatched were taken in Medina County, Ohio, on a common sedge found growing near the outlet of a small spring. The Autumn Horsefly (Tabanus Sulcifrons Macquart). This is one of the common species of its family over a wide range. It is not so generally distributed as some of the other species, but where it occurs is apt to be abundant and very injurious to all kinds of stock. I have studied the species in several localities, but most of my knowledge of its habits was gained in Summit and Medina counties, Ohio, where it is a pest of the first magnitude. This coun- try, where the ground is highest, has an elevation of 1,000 to 1,200 feet, and is more or less broken by gullies crossing here and there, and through each flows a stream of clear water. The Black Horsefly (Tabanus Atratus Fabricius). The eggs of this horsefly are placed in masses of various sizes on the leaves and stems of grasses and sedges and other plants growing in marshy or wet ground, but not necessarily in the water. A single mass may contain as many as 500 eggs, but often they are smaller and they may be larger; they are white when first placed, but soon turn brownish. The mass is very convex and composed of several layers, one above the other, the bottom layer being attached to the surface of the leaf or stem and the other layers each to the one that was placed before it. A female was observed ovipositing June 23 at 11 o'clock. It has been proven that the eggs of tabanids hatch more quickly when exposed to the sun during the day, than where they are usually deposited; therefore, the time given is probably too long for eggs under natural conditions. There is no definite way, so far as observed, of telling the eggs of the black horsefly from those of other species of its genus, but being a large species the masses are OTHER ANIMALS 667 much larger than in some others, and are more convex than usual. The particular place of oviposition is in a measure characteristic. The Black and White Horsefly (Tabanus Stygius Say). This horsefly is very common in the vicinity of the Lake Laboratory, at Sandusky, Ohio, where most of my observations on the species were made. The adults appear about the 1st of July each season, and are on the wing for several weeks thereafter. The females were often observed biting cattle and horses, and are known to be impor- tant stock pasts. The males were often seen in the marshes, on grasses infested by aphides, and it is known that this sex, and occa- sionally the females also, feed on honeydew which these insects excrete. The species oviposits principally on the leaves of Sagit taria standing in shallow water, habitually placing the eggs just above the point where the petiole meets the expanded part of the leaf. The precision with which this habit is followed becomes a matter of much interest. FIELD MICE. While the food habits of the various species of short-tailed field mice are remarkably similar, their habits and breeding differ greatly. Some species prefer high and dry ground, while others live in low and moist places. Some species live in forests, others in the open prairies ; some burrow underground like moles, others make smooth paths or trails upon its surface. The nests of field mice are compact bunches of grass blades and other dry vegetable fibers, and are ad- mirably located in respect to drainage. Most surface nests are for shelter only as for the most part the young are born in underground nests. The breeding season includes most months of the year, except midwinter in cold latitudes. Some species normally produce from two to four litters a year, while others produce from four to eight. Period of gestation probably about twenty days. The common meadow mouse of the United States is one of the most prolific of our species. Estimating the normal increase at six young with four lit- ters in a season, without making allowances for any loss, a single pair would produce in five seasons nearly 1,000,000 individuals. In summer the chief food of field mice is green vegetation and unripe seeds of grain and grasses, later in the season ripe seeds be- come an important diet. In winter bulbous and other roots with stored seeds are largely eaten. During cold weather young forest trees and young apple orchards suffer from attacks of mice. Black- berries, raspberries, currants, grapes, strawberries, etc., are often badly damaged by girdling done by field mice. In fact, sometimes whole plantations are ruined. Field mice destroy bulbs, perennial plants, woody shrubs, and ornamental vines. Neglected young apple or- chards are sometimes almost completely ruined, the damage in fre- quently very considerable. Fortunately for the farmer there are several natural igencMl that tend to hold the mice in check. Long and severe cold winters with dry summers seem to be unfavorable for their production. Tim chief natural enemies of field mice are: (1) mammals both wild and 668 DOMESTIC ANIMALS, DAIRYING, ETC. domestic; (2) birds; and (3) snakes. Among the wild mammals of the United States known to feed upon field mice, are wolves, lynxes, foxes, badgers, raccoons, opossums, skunks, weasels, mink, etc. Skunks are efficient destroyers of field mice, as are the various species of weasels. Badgers devote much time to digging out field mice from their burrows. Foxes also destroy many field mice, in some instances the contents of their stomachs show that their food consists quite largely of these rodents. Of course, dogs and cats de- stroy large numbers, particularly near dwellings, but it is question- able whether the mice that cats destroy will even in a small measure compensate for the destruction of beneficial birds done by these ani- mals. Among the birds that destroy field mice may be mentioned shrikes or butcher birds, crows, herons, bitterns, gulls, hawks and owls. At the head of this list should be placed hawks and owls, as nearly all of these birds feed largely on mice, and consequently are very beneficial to the agricultural interests. Snakes undoubtedly destroy large numbers of field mice and to this extent at least they are the friends of the fanner. Mice may be destroyed by trapping, fumigating and by poisoning. The orchard- ist, however, finds it necessary to rely on protective measures for the safety of his young trees. So it is customary to put bandages of tarred building paper or of closely woven wire about the bodies of the young trees close to the ground. These are usually removed during the summer months. (Dept. Agr. Biol. Sur. B. 31.) JACK RABBITS. The great plains and deserts of the Western United States are inhabited by several species of large hares commonly known as jack rabbits. They occur almost everywhere, except in the higher moun- tains and wooded regions from the 95th Meridian west to the Pa- cific, and from the plains of the Saskatchewan and southward to the Isthmus of Tehuantepec. The resemblance of their large ears to those of the well-known pack animal of the "West has suggested the name jack rabbit. General Habits. Jack rabbits are seen throughout the day, and hence are easily recognized by the most casual observer. Living as they do on the open plain they are compelled to rely for safety on acuteness of hearing and on quickness of speed. Unlike the "cotton- tails" these hares do not live in burrows, but make their "forms" or nests under bushes or in patches of weeds where they find some pro- tection. Extremes of climate apparently do not affect them to any great extent. Some species are at home in the deserts of Arizona and California and others contrive to exist in the intense cold of the Mon- tana winter. Food. Like other rabbits they feed almost exclusively on the bark and leaves of shrubs and on herbage; hardly any land is too poor to supply this food in some form. On the great plain buffalo and grama grass and such herbs as they can find constitute their diet. If necessary they can travel long distances for food, but, as they sel- dom drink, scarcity of water causes them little inconvenience. They ara fond cf vegetables and alfalfa and when these can be obtained OTHER ANIMALS 669 they desert their usual food and establish themselves near the garden or cultivated field. They thus become particularly destructive in the fertile areas. As jack rabbits multiply rapidly they often become great pests. They have comparatively few natural enemies, and if not held in check by other agencies would doubtless over-run the country. Breeding Habits. The breeding habits of the various jack rab- bits in many respects are much like those of the Old World hares and rabbits. Compared with the domesticated rabbit, the jack rabbit does not increase very rapidly. The number of young at a birth varies from one to six ; the average probably is between three and tour. It is almost impossible to determine the exact date of birth, unless the animals are kept in captivity, but the time can be estimated approxi- mately. The period of gestation is about thirty days. It may be as- sumed that jack rabbits attain their full size in about two months. Drives or hunts organized for the extermination of rabbits should take place before the beginning of the breeding season, as just after the young are born the rabbit population in any given place may be several times what it was six weeks previous. Drives in Southern California should therefore be made in December, January and Feb- ruary ; in Colorado and Utah hunts made before the 1st of February will accomplish much more than those made in April. In Idaho they may be postponed somewhat later with equally as good results. Jack rabbits may be used for coursing, for their skins, or for food. The United States imports annually millions of rabbit skins for felt and other purposes. The skins of jack rabbits could prob- al.lv be used for many purposes for which the cheaper grades of im- ported skins are now utilized, and could be collected so cheaply as to leave a margin of profit. The consumption of jack rabbits for food in some winters has been estimated at 500,000. This game can be obtained in consider- able quantities on the plains and on the deserts of the Great Basin, and may be profitably shipped to Eastern markets to the mutual ben- efit of the fanner and the consumer. Jack rabbits usually bring from 75 cents to $3 per dozen. In extreme cases they sometimes bring $1 to $1.50 per pair. (Dep. Agr. Div. Biol. Sur. B. 8.) RABBITS. The American farmer suffers severe losses from the depredations of rodents, from insect pests and fungous diseases. Because of their wide distribution and great abundance, rabbits hold a prominent place among rodent pests. They are larger than rats and mice and almost as prolific, and under some circumstances inflict greater dam- ages to crops and trees, even greater than that caused by field mice. Distribution of Rabbits. Rabbits are so widely distribute} throughout the United States that nearly all cultivated districts con- tain one or more species. They also occur in the mountains and des- erts remote from agriculture. In all about 30 sji.-cics inhabit North America. The Common Gray Rabbit or Cottontail. This species occurs from the southern parts of Maine, New Hampshire and Vermont 670 southward to Florida and Gulf of Mexico and westward to the plains. Breeding Habits. Our American rabbits are not so prolific as the common European species. Some of them produce three or four litters of young in a season, while others seem to breed but twice. The period of gestation is about thirty days, and the breeding season is from April to September or even later. The young are produced in natural depressions under rocks, stumps, or weeds, or in shallow burrows made by other animals. When these are lacking, the female scratches a shallow hole under a bunch of grass or weeds. In the hol- low thus chosen or prepared she makes a nest of leaves or grasses and lines it with fur from her own body. Here the young, numbering from 2 to 7 (averaging in most of our species about 4), are produced. The young are fully furred and have their eyes open when born. The female, while caring for her young, remains in the vicinity of the nest. If enemies approach, she runs away for a short distance ; but when the young are attacked and cry out, she has been known to fight desperately in their defense, and even to vanquish such a for- midable foe as a cat or a snake. When attacking, she jumps and strikes the enemy with her hind feet members capable of a powerful blow, as many a boy who has captured a live rabbit can testify. Young rabbits are attended and suckled in the nest for about three weeks, after which they are left to shift for themselves. Since usually succulent food is abundant, this is not a difficult task, and, subject to the vicissitudes of climate and the attacks of natural ene- mies, they soon adapt themselves to an independent life. Apparently the mother takes no further interest in the career of her offspring. The male parent is probably never concerned in the care of the young. Food of Rabbits. Rabbits are strict vegetarians, animal food never being eaten by the adults. They eat all sorts of herbage leaves, stems, flowers, and seeds of herbaceous plants and grasses, and leaves, buds, bark, and fruit of woody plants or trees. The most suc- culent kinds, such as young shoots, tender garden vegetables, clover, alfalfa, and fallen ripe fruits, are generally preferred ; but when these fail, any green vegetable growth seems acceptable, and the bark of trees is often resorted to when deep snows cover other supplies or during long summer droughts. The common cottontail is fond of frequenting farms and plan- tations and makes its "forms" under brush heaps or in tufts of grass, bunches of weeds, briers, or bushes. It occupies this form, or nest, by day and at night moves about, feeding upon the succulent vege- tables in the farmer's garden, or the clover, turnips, or corn in his fields. In the fall it feasts upon apples, cabbages, turnips, and the like left exposed in garden and orchard, and in winter, w r hen all else is frozen hard or covered with snow, it turns its attention to twigs and bark of woody plants, often doing much damage to young trees. The other species of rabbits have similar habits, varying with the environ- ment of the animals. In the West some of the smaller kinds live largely in the abandoned burrows of prairie dogs, badgers, and other animals. OTHER ANIMALS 671 Injury to Field Crop.?. Rabbits feed upon nearly all growing crops, but the damage to small grains is usually so slight as to pass unnoticed. Wheat and rye afford abundant pasture for rabbits dur- ing open winters, and this without apparent effect upon the yield of grain Rabbits eat very little mature grain, except corn in winter, and this is but seldom damaged as long as green herbage can be ob- tained. Clover and alfalfa are favorite foods with all our rabbits, and these crops are badly damaged by them. In the West alfalfa is the principal forage crop over considerable areas, growing often amid arid surroundings. RABBITS. Injury to Gardens. Rabbits are fond of nearly all garden vegetables^ but are particularly partial to peas and cabbage, eating the plants in all stages of growth. They often invade market gardens and truck patches near towns and do much damage. Injury to Trees. Rabbits injure trees and shrubs in two ways, by ^cutting off the ends of branches and twigs within reach and by eating the bark. ^ Young nursery trees and forest seedlings, both evergreen and deciduous, are destroyed in the first way, while orchard trees and even forest trees are badly damaged and frequently killed in the second way. (U. S. Year Book, 1907.) Rabbit-Proof Fences. When rabbits are abundant and the area to be protected is not too great, a rabbit-proof fence may be profitably employed. Woven wire nettings are generally used for this purpose. In the Australian colonies such fences are erected by the Government to confine rabbits to certain districts, as well as by private owners to protect crops. As the Australian pest is a burrowing species the European rabbit (Lepus cuniculus) the requirements for a rabbit- proof fence differ from those necessary in this country. Even with our species there is some danger of their digging under fences, and this may be prevented either by the use of a barbed wire in contact with the ground or by plowing a furrow against the lower edge of the wire netting. A netting of galvanized wire with l^-inch mesh and from 2 to 3 feet high is a sufficient barrier against rabbits. Many market gardeners and nurserymen use the 2-foot width. Tree Protection. The devices that have been recommended for protecting trees from rabbits are too numerous for separate mention. The majority consist of paints, washes, or smears of various kind.*, supposed to be distasteful to the animals. Unfortunately, those that are sufficiently permanent to afford protection for an entire winter often injure or even kill the trees to which they are applied. Coal tar, pine tar, tarred paper, and various oils are likely to kill young trees. Blood and animal fats when freshly applied will protect from rabbits, but are objectionable, since thev are highly attractive to the destructive short-tailed field mice. Carbolic acid and other volatile substances afford only temporary protection, and must be renewed too often to justify their use. Bitter substances, like commercial aloes, or quassia, are useless against rabbits. Among the most promising washes that have been recommended for tree protection is the "lime- and-sulphur" wash, so effective in winter for the destruction of the 672 DOMESTIC ANIMALS, DAIRYING, ETC. San Jose scale. Several correspondents of the Biological Survey have affirmed its efficacy in protecting trees from both mice and rabbits. Mechanical contrivances for protecting young orchard trees are many. Where protection from rabbits only is required, woven wire netting is recommended. This should be made of No. 20 galvanized wire, 1-inch mesh, such as is often used for poultry netting. For cottontail rabbits rolls 18 inches wide are recommended, but as a pro- tection against jack rabbits wider material is safer. The wire is cut into 1-foot lengths, and one of these sections is rolled into shape about the trunk of each tree, the ends being brought together and fastened at several places by means of the wire ends. No other fastening is needed. The wire is not in contact with the trunk and may be left on the tree permanently. It will probably last as long as the tree requires protection, and the cost of material need not be over 1% cents for each tree. For young evergreens, material of the same kind 1 foot wide and cut in l^-foot lengths will give excellent protection. If trees are to be protected from both rabbits and mice, materials of closer mesh must be used. Wire window-screen nettings is excellent for the purpose, and the cost, when permanence of protection is con- sidered, is not great. THE BROWN EAT. The rat undoubtedly is the worst mammalian pest known to man. The losses through the destruction of property by these rodents amount to millions of dollars annually in the United States. Aside from their destruction of property the rat sometimes becomes a potent factor in the distribution of disease germs. This animal is not a native to this country, but was introduced from the Old World about the middle of the eighteenth century. It is also called the gray rat, house rat, barn rat, wharf rat, and Norway rat. It was not known on the Pacific coast until after 1851. Breeding. Climate and food supply greatly affect the multipli- cation of these rodents. It increases most rapidly in a moderately warm climate and with an abundant supply of food. The number of litters produced a year is not definitely known, but it probably varies with local conditions. Some observations show that about 71 days intervene between litters. The average number of young at one birth is between 8 and 9. The period of gestation may be said to be about 21 days. The young are blind and naked when born, but grow rapidly, and the females are capable of breeding when less than three months old. Food of Rats. The brown rat is practically omnivorous, that is, they eat readily all kinds of grains and seed, fruits and vegetables, meats, fish, and various animal products. The chief damage done by rats in the United States is through the destruction of grains, poultry, eggs, game, and other birds, although sometimes they become very destructive to fruits and vegetables. Natural Enemies. There are many natural enemies of these rodents; among the more prominent may be mentioned the various Jdncls of hawks an4 qwls, as well as skunks, weasels, minks, etc. OTHER ANIMALS 673 Domestic Animals. Among the domestic animals employed to kill rats are dogs, cats, and ferrets. The value of good dogs as ratters can hardly be appreciated by those who have had no experience with animals trained for this work. Small Irish, Scotch, and Fox terriers, when properly trained, are superior ratters. Cats become in some instances valuable as rat catchers. However, it is often ques- tionable whether the good that they accomplish in this direction is not more than offset by their destruction of song birds. Ferrets are inveterate foes of rats, and are used chiefly to drive the rodents from their burrows or retreats, in order that they may be caught when they are driven from cover. Fumigation. Rats may be destroyed in their burrows in the fields by the use of carbon bisulphide by saturating some absorbing material with this liquid, putting it in the burrow and closing the opening. This method, however, is not effective in buildings, as the vapor of carbon bisulphide is heavier than the air, and therefore could not be depended upon to follow the various retreats of these pests. (Dep. Agr. Biol. Sur. B. 33.) THE PRAIRIE DOG. The prairie dog loves sunshine and a dry atmosphere, ranging easterly from the arid plains toward the prairies of the Mississippi Valley. He is fond of rich vegetation, as is shown 'by his great destruc- tiveness to alfalfa, grains and other crops ; but the luxuriant vegeta- tion has not been sufficient to lure him from his home of the dry land and the dry air. He is pre-eminently a social animal, living in colonies which vary in extent from a few acres to thousands of square miles. While colonies many miles in length and breadth are not rare, yet most of these animals live in very much smaller colonies. Food. The principal food of the prairie dog is grass, chiefly the bunch grass of the plains. In alfalfa fields, however, he becomes so destructive that sometimes whole fields are practically destroyed. It has been estimated that 32 prairie dogs will consume as much grass as one sheep. The chief damage done by these rodents consists in the loss of grains and other crops, and the danger to stock from stumbling in the holes often amounts to a serious loss. Methods of Destruction. Numerous remedies have been tried. Most of them have met with some measure of success, and a few have proved available on a large scale. Large colonies extending over many square miles in area present serious problems as to complete extermination, while smaller colonies may be exterminated by pois- oning or fumigating. There are several poisons that have been used with fairly good success. Cyanide of Potassium. Cyanide of potassium kills quickly and is an excellent poison, but on account of its odor is somewhat difficult to administer. As the handling of this poison is dangerous to man, it must be handled with great care. Strychnine. Strychnine is probably, all things considered, the best and mast satisfactory poison known for the destruction of these pcvts. Two ounces of strychnine is sufficient to poi-on a bushel .f wheat. The strychnine sulphate should be dissolved in warm \\.itrr 674 DOMESTIC ANIMALS, DAIRYING, ETC. in which the grain should be soaked for 24 to 36 hours, or until it has all been absorbed. During this absorption the grain should be fre- quently stirred. A tablespoonful of grain is sufficient to scatter about each burrow. Allowing 50 burrows to an acre, a bushel of grain then would poison prairie dogs infesting 40 acres of land. Fumigation. Bisulphide of carbon is used almost wholly for this purpose. It is a volatile liquid which should be kept in tightly corked bottles or cans ; as it is highly inflammable, it should never be opened in the vicinity of fire. Its fumes are heavier than the atmos- phere and when introduced into the burrows sink quickly to the bot- tom. The usual dose is about one tablespoonful to the hole or burrow. This is poured on some absorbing substance and dropped into the mouth of the hole, which should then be covered. (Y. B. 1901.) GROUND SQUIRRELS. There are three or more species of ground squirrels found in the central and western United States. In many ways the ground squir- rels resemble the prairie dogs of the prairie states. While not so distinctively social, yet they live more or less in communities. The burrows are two to three inches in diameter and have from one to five openings to the exterior; these openings are usually on higher ground and have a little mound of well packed earth around the hole to exclude the water. The burrow has an average depth of from one to two feet and often extends from ten to fifty feet in length. The young are usually born in March or April. In the northern United States they bring forth but one brood a year ; the number in a litter varies from 2 to 15. They hibernate from September to March. Observers are not agreed as to whether or not food is stored for winter use. The natural enemies are chiefly hawks and owls, and the carniv- orous animals of the region inhabited by squirrels. These animals are known to do the greatest injury to grain and forage crops and interfere with irrigation. They eat the young shoots of plants as they appear above ground and also feed on the ripening grain. In irrigated lands the burrows or squirrels often cause great annoyance. The most effective methods of destroying these pests are by poisoning and by the use of carbon bisulphide, a highly inflammable and vola- tile liquid. Grain, raisins, cornmeal, etc., may be soaked in a solu- tion of strychnia sulphate and put in the holes, or small balls of cot- ton may be saturated with carbon bisulphide, put in the holes and all the exterior openings of the burrows closed. (Nevada B. 58; Wyo. B. 12.) COYOTES. From the early days until the present time ranchmen of the western states have suffered serious loss from the depredations of these animals. They are abundant in most parts of the range coun- try, except in the north and in thickly settled parts where waste lands are scarce. Coyotes breed once a year, the mating season being late in Jan- uary or early in February. The period of gestation is about 63 days. Young are brought forth in dens and number from 4 to 8 or even 10. OTHER ANIMALS 675 Dens are usually among rocks or in washed-out places, seldom far below the surface of the ground. They sometimes hunt in numbers when the game is large. Their food consists chiefly of animal matter and ranges from the larger hoofed animals to the smallest rodents, and even includes insects, reptiles, birds, fish, crustaceans, etc. Coyotes destroy many injurious mammals, and in this way are some benefit to farming interests. Considerable game is destroyed as well as poultry, and the young of the farm stock ; great ravages have been done to sheep. Bounty systems are maintained in many states for the destruc- tion of these pests. Ranchmen find dogs a protection against their ravages, particularly the large, swift-running breed, as staghounds, Russian wolfhounds, and greyhounds. Poison has probably killed the greatest number of adult animals, although some have been trapped and many have been captured in the hunt. Fencing against wild animals has proved to be the most satisfactory in some coun- tries, notably Australia and South Africa. (Agr. Dept. P. B. 226.) GOPHERS. The gophers are quite distinct from the ground squirrels, which are sometimes called gophers. Unlike squirrels, they are usually not found on high lands, very far from water or tender root vegetation. Gophers prefer loose soils, the burrows usually run within a foot or less of the surface, and sometimes extend a total distance of a hun- dred feet or more. The pocket gopher subsists chiefly upon the roots of various succulent plants, he is also fond of garden crops. The large cheek pouches are used to carry the food to the store chambers, as this animal stores up food for the winter. There are several meth- ods used to destroy these animals, and generally they are very similar to those used to destroy the ground squirrel; namely, poisoning, drowning, and fumigating. (Nevada B. 58; Wyo. B. 12.) MUSKRAT. On account of the scarcity of many of the larger and more valu- able fur bearing animals the muskrat is one of the most important fur bearing animals of this country; while mink remains popular and is a well wearing fur, yet muskrat is becoming more popular each year because of its fair wearing qualities and the great variety of uses to which it is adapted. The muskrat when full grown is about four times as large as the common brown rat. The tail is characteristic of the genus ; it is about two-thirds as long as the head and body com- bined. This animal derives its name from its musky odor. The name musquash is the Cree Indian name and has been used a long time by fur dealers. Muskrats are chiefly nocturnal, but are often active in daylight, especially when building winter houses. These houses are com- posed of rushes, grasses, nags, etc. ; this mass rests on the bottom of shallow ponds or marshes, and projects a foot or two above the sur- face. It is used as a winter home. Where burrows are available, the muskrats use them instead of building houses. Normally the animals mate in March. The first litter in April, the second in June or July, and the third in August or September. In favorable seasons a fourth 676 DOMESTIC ANIMALS, DAIRYING, ETC. or even a fifth litter may be produced ; three to six young are usually brought forth at one time. The period of gestation is about twenty- one days. The young are born blind and naked, but develop rapidly. Muskrats frequently do considerable damage to crops on low lands bordering streams. They also do considerable damage to dams, embankments, etc. The breaking of mill-dams and canal banks are often caused by the burrows of these animals. The chief value of the muskrat is for its fur. It is also valued in some localities for food, but this has not become at all general. Muskrat skins for market should be "cased," that is, not opened along the belly. Trappers begin at the heel and slit up the middle of the hind leg to the tail, around it, and then down the other hind leg to the heel; no other cut of the skin is needed ; the skin is then turned over the body, leaving the pelt with the fur side inward. The skin inside out is then drawn over a thin board or shingle of proper shape to stretch it as large as possible with- out tearing. Prime skins bring in the market from 25 to 75 cents apiece. Some examples of profitable muskrat farming may be cited. (Agr. Dept. F. B. 396.) ANTS. The species of large red and black ants which burrow into the ground and whose well known and characteristic mounds of loose earth, surrounded by husks of dried grass seed may be seen dotting the mesas of southern Arizona, may be killed comparatively easy by the use of carbon bisulphide, a liquid chemical of a peculiar, disagree- able odor. To be entirely successful, however, the habits of the ants must be taken into consideration. Immediately after a rain is the accepted time to attempt their destruction, for it is then that the ants are very active, bringing out into the sun to be dried any of their stored up food supply which may have become damp. A half tea- cupful more if the nest is a very large one of the carbon bisul- phide poured into the nest at this time will usually accomplish the result. The ground being damp and cool is also another decided ad- vantage in that it prevents the too rapid absorption or volatilization of the carbon bisulphide ; consequently a less quantity of the chem- ical is required. A word of caution in the use of the carbon bisulphide is deemed necessary. It must at all times be borne in mind that the substance is highly inflammable and under certain conditions explosive. Matches, pipes, etc., are to be left at home when this chemical is to be used. The carbon bisulphide can be procured from any druggist, and costs here in Tucson 50 cents per pound, but can be bought for much less, wholesale. It is probable that the remedy is not practi- cable upon any very large scale, owing to the cost of material, but it frequently happens that these ants select for their home, from our point of view, most undesirable places, such as public walks, or near one's door. In such cases a sure means of eradicating the pest is well worth knowing, (Ariz, Timely Hints for Farmers 39.) University of California SOUTHERN REGIONAL LIBRARY FACILITY 305 Oe Neve Drive - Parking Lot 17 Box 951388 LOS ANGELES, CALIFORNIA 90095-1388 Return this material to the library from which it was borrowed. OCT 1 6 2006 000 293 518 STATE NORMAL SCHOOL - : . - : .