key: cord-0069870-4q17q0ro authors: Lu, Xifeng; Hao, Junyi; Shan, Biaoan; Gu, Anwei title: Determinants of the Intention to Use Smart Healthcare Devices: A Framework and Public Policy Implications date: 2021-11-05 journal: J Healthc Eng DOI: 10.1155/2021/4345604 sha: b59e14ee475d0903beab37c6251067b10121e38a doc_id: 69870 cord_uid: 4q17q0ro Healthcare industry is strongly influenced by new digital technologies. In this context, this study creates a framework and explores determinants of the intention to use smart healthcare devices. Several factors were identified, including usefulness, convenience, novelty, price, technological complexity, and perceived privacy risks of smart devices. Based on the samples from China, we find that usefulness, convenience, and novelty have positive influences on the intention to use smart healthcare devices. However, technological complexity is negatively related to the intention to use smart devices. The results further extend previous researches in the area of the healthcare industry. In the past few years, digital technologies have developed quickly and are widely applied in many industries. ese new emerging technologies, including cloud computing, big data analytics, Internet of ings, artificial intelligence, mobile communications, virtual reality, and machine learning, significantly influence our daily life and the global economy [1, 2] . Many novel products or services have been created and have strongly enhanced our life. ere is no doubt that we have entered the era of digital economy. More and more industries will be impacted and changed by the promotion of emerging digital technologies [3, 4] . In the healthcare industry, the application of emerging digital technologies has dramatically changed the service modes; for example, telemedicine has improved the convenience of healthcare services [5] . Under the support of the Internet of ings, big data and mobile communications, smart medical service and management systems are developing fast. Various forms of smart healthcare devices for monitoring health and well-being across all ages begin to prevail in the healthcare industry [6] . e smart devices based on digital technologies can collect and analyze users' data and have effectively improved users' health management [7] . erefore, this area is focused by a large number of entrepreneurs, investors, and healthcare professionals. Because of its important value in the application of healthcare, smart devices based on new technologies have been concerned by existing researchers [8] [9] [10] . Literatures on this area mainly focus on three aspects. First, one major stream of existing studies explores the impact of various digital technologies on smart devices, for example, exploring the roles of Internet of ings and blockchain technology in the design of smart devices [7, 8] . Second, it examines the effect of smart healthcare devices on individuals' care and smart cities [11, 12] . ird, a few studies investigate the challenges faced by smart healthcare [13] . ese researches have enriched the understanding of smart healthcare devices. However, smart devices are relatively novel to users and customers. It is an important topic to reveal the factors to improve the intention to use smart devices. Only few studies focus on this issue. We still know little about the determinants of the intention to use them. Based on the above, this study attempts to address this gap. A framework is established in this paper to reveal the determinants of the intention to use smart healthcare devices. We conduct surveys in many cities in China and investigate the factors influencing the acceptance of smart devices. By doing so, we contribute to the research area of smart healthcare and further improve the understanding of users' intention to accept smart healthcare devices. Also, the findings are beneficial for government to provide relative policies to support the development of smart healthcare devices industry. is study is structured as follows: theory background and hypotheses are provided in Section 2; Section 3 introduces the methods used in this article; the results are shown in Section 4; theoretical and management implications are shown in Section 5; in Section 6, we draw conclusions of this article. 2.1. Smart Devices. Internet of ings, machine learning, blockchain, and other emerging digital technologies create a lot of new business opportunities for individuals and organizations [1, 4, 14, 15] . In this context, various smart devices used to collect data and monitor users' health conditions are emerging in the healthcare industry [8] [9] [10] . Different from the ways of traditional healthcare, services based on these new devices are more convenient, smart, and functional. Considering the innovativeness of these smart devices, researches in this area are still in the early stage. In conclusion, literatures on this topic mainly focus on the following aspects. First, one important stream studies the impact of various digital technologies on smart devices. ey explore the roles of Internet of ings and blockchain technology in the design of smart devices [3, 8] . Second, many scholars explore the effect of smart healthcare devices on individuals' care and smart cities [11, 12] . Finally, a few studies investigate the challenges faced by smart healthcare and discuss future directions [13] . Besides these, some researchers have analyzed the acceptance of smart devices. Because of the novelty of digital technologies, it is a crucial issue to improve the level of users' acceptance of smart devices. How to facilitate technology acceptance is not a new topic. Previous studies have concerned about it widely, such as the areas of information systems, technology management, and marketing management [12, 14] . e most discussed is the attribute of technologies, including technological complexity, novelty, and relationality [15] . However, only few studies have discussed the acceptance of smart devices. For example, Magni et al. [14] identified four antecedents of the intention to use wearable smarts, including organizational trust, hedonic motivations, privacy, and perceived usefulness. Yang et al. [16] revealed three important factors affecting the utilization of smart home services, including mobility, privacy risk, and trust in the product or service provider. Kim and Shin [17] identified several psychological determinants, such as affective quality, relative advantage, mobility, and availability. Little literature discusses the characteristics of customers. Park [18] discussed five factors, including satisfaction, flow state, enjoyment, usefulness, and cost. Obviously, existing studies do not consider the impacts of attributes of technologies and products, and individual characteristics on the acceptance in one framework. In order to understand the acceptance of smart healthcare devices and reveal how to improve the intention to use the smart devices, we try to integrate the individual characteristics, technological characteristics, and the attributes of the products or services provided by smart devices. Specifically, we consider the usefulness, convenience, novelty, price of smart devices (attributes of products or services), technological complexity (technological characteristic), and perceived privacy risk (individual characteristic) in this study (see Figure 1 ). We will discuss them in the following parts. Devices. According to the view of Magni et al. [14] , usefulness is one of the antecedents for individuals to accept new technologies. Usefulness refers to users' perceived benefits of adopting technologies or devices. Formal scholars revealed that the usefulness and perceived benefits have a positive influence on adoption intentions [19] . For example, Kim, Mirusmonov and Lee [20] found that usefulness positively impacts on the intention to use mobile payment. Kuo and Yen [21] pointed out that usefulness has a positive effect on the intention to use 3G mobile services. Smart healthcare devices show important benefits on physical condition monitoring and health management [3] . Based on the above, we propose that usefulness is positively related to the intention to use smart healthcare devices. Hypothesis 1: usefulness is positively related to the intention to use smart healthcare devices. Like usefulness, convenience is also an important attribute impacting the acceptance of new devices. Convenience is a combination of time and place utilities [20] . Only when technology or smart devices are easy to operate and make people's life convenient can users accept them. According to Berry et al. [22] , time and effort will be saved if smart devices are convenient. Perceived convenience could be seen as an advantage. For smart healthcare devices with convenience, they are easier to operate. Just like Hsu and Chang [23] pointed out that convenience positively affects users' acceptance and use of IT, so this study proposes that convenience exerts a positive impact on the intention to use smart devices. Hypothesis 2: convenience is positively related to the intention to use smart healthcare devices. Novelty is one salient attribute of smart devices. It refers to the degree of newness in the market. High novel smart devices show significant innovativeness and big difference in the market [24] . is type of smart device is always related to radical innovation [25] . From the firm perspective, radical innovations will positively influence the outcome of organizations because it is beneficial to satisfy customer needs [26] . From the individual perspective, novel smart healthcare devices with new services contribute to attracting customers. Novel functions and services will facilitate grasping customer needs. erefore, novelty strongly improves the intention to use smart healthcare devices. Hypothesis 3: novelty is positively related to the intention to use smart healthcare devices. Price is a sensitive factor, which determines the intention to use smart devices. Smart band is one type of typical healthcare device. It could monitor users' information such as electrocardiograms. is device is very popular among young users because of the low price. However, the price of some professional smart devices is often high, which are generally purchased and utilized by special medical institutions. Obviously, high prices create a threshold for users and will negatively impact the acceptance of these devices. erefore, this study proposes the following hypothesis. Hypothesis 4: price is negatively related to the intention to use smart healthcare devices. Healthcare Devices. Technological complexity refers to complex knowledge and skills for users. Sharma and Yetton [27] revealed that users are always more likely to reject to utilize the products or services with complex technology because technological complexity creates more obstacles to use. In this context, users always need assistant or technical support to operate complex technologies. Complexity is considered as a type of physical characteristic [28] . e high complex technology results in new products or services which are difficult to train, although it may improve new functions and more advanced skills are required for users. Antoniadis, Edum-Fotwe, and orpe [29] pointed out that complexity may increase the error rate of the system, such as causing delay. erefore, technological complexity is strongly related to uncertainty to users [30] . Customers must frequently face and cope with the problem that may occur. Based on the above, we propose the following. Hypothesis 5: technological complexity is negatively related to the intention to use smart healthcare devices. Healthcare Devices. Existing researches have revealed that privacy risk is an important issue under the development of new digital technologies [31, 32] . In the research of Hiranandani [33] , privacy is considered as a crucial dimension that cannot be ignored in the digital age. How to protect privacy has become a topic that must be coped with in the process of new technology development. e services of smart healthcare devices are based on users' information. erefore, perceived privacy risk always negatively influences the intention to use these smart devices. Magni et al. [14] find that privacy is a significant risk in the adoption of smart devices. eir study indicated that privacy is negatively related to the intention to use wearable devices. Obviously, perceived privacy risk of users negatively impacts the acceptance of smart healthcare devices. erefore, we propose the following hypothesis. Hypothesis 6: perceived privacy risk is negatively related to the intention to use smart healthcare devices. In order to text the hypotheses, a survey was considered and conducted during August and September, 2021. is survey was executed online. e formal survey was conducted in China. We collected samples from several cities, including Shanghai, Tianjin, Changchun, Zhengzhou, Wenzhou, and Shangqiu. ese cities come from different areas of China, such as northeast area, central area, and eastern coastal area. In addition, the economy of some cities has developed well (e.g., Shanghai and Tianjin), while others have developed slowly (e.g., Changchun and Shangqiu). erefore, the data collected from these cities indicate high representativeness. Finally, a total of 202 questionnaires were collected online. e characteristics of this sample are as follows (see Table 1 ). is study utilizes Likert 5-point scale to measure the core variables. e items of core variables are shown as follows. e dependent variable is the intention to use smart healthcare devices. Based on the view of Magni et al. [14] , three items are used to measure this variable (IU1-IU3). Two examples are "I really want to use these smart devices" and "I will buy these smart devices in the future." e factor loading of items for the variable is more than 0.7. e Cronbach's alpha coefficient is 0.911. e independent variables of this study contain attributes of the products or services provided by smart devices and individuals' characteristics. e attributes include usefulness, convenience, novelty, price, and technological complexity. Drawing on the research of Alsabawy et al. [34] , we ask subjects the usefulness provided by smart devices such as smart manometer and sphygmomanometer. Based on this study, the usefulness is measured by four items (US1-US4) . Two examples are "using these smart devices allows me to know my physical condition more quickly" and "using these smart devices is beneficial for me to keep body healthy." All the factor loadings of items for the variable are more than 0.7. e Cronbach's alpha coefficient is 0.925. One item is used to measure the variable of convenience (CS: using these smart devices makes me feel very convenient). According to Nieto and SantamarĂ­a [35] , three items are developed to measure the novelty of products or services (NS1-NS3). Two examples are "these smart devices are special in the market" and "the services provided by these smart devices are relatively novel." All the factor loadings of items for the variable are more than 0.7. e Cronbach's alpha coefficient is 0.905. We also use three items to measure the price (ES1-ES3). Two examples are "the price of these intelligent medical devices is always unacceptable" and "these smart devices are less economical." All the factor loadings of items for the variable are more than 0.7. e Cronbach's alpha coefficient is 0.952. Based on the study of Sharma and Yetton [27] , we utilize three items to measure technological complexity (TC1-TC3). Two examples are "these smart devices are difficult to operate" and "these smart devices involve many different technologies." All the factor loadings of items for the variable are more than 0.7. e Cronbach's alpha coefficient is 0.917. Perceived privacy risk is used to reflect individual characteristics. According to Magni et al. [14] , this study utilizes four items (PR1-PR4). Two examples are "using these smart devices makes me feel controlled" and "using these smart devices makes personal information risky." All the factor loadings of items for the variable are more than 0.7. e Cronbach's alpha coefficient is 0.878. We set several control variables. First, we controlled the age of subjects (1, 30 years or below; 2, 30-40 years; 3, 40-50 years; 4, 50-60 years; 5, above 60 years). Second, work experience was controlled based on the years individuals have worked (1, 3 years or below; 2, 3-5 years; 3, 5-10 years; 4, above 10 years). ird, the family annual income was also set as a control variable (1, 30 000 RMB or below; 2, 30 000-60 000 RMB; 3, 60 000-100 000 RMB; 4, 100 000-150 000 RMB; 5, above 150 000 RMB). Fourth, we controlled individuals' educational background (1, high school or below; 2, junior college; 3, bachelor's degree; 4, master or Ph.D. degree). We first analyze the descriptive statistics. From Table 2 , we can see the results. e mean and standard deviation are reasonable. e coefficients of Pearson correlation among core variables are also shown in the table. e results show that there are significant correlations among core variables. And then, multiple linear regression analysis (MLR) is utilized to examine the hypotheses of this study. In order to test all the hypotheses, we established two models (see Table 3 ). Model 1 verified the influences of control variables on the intention to use smart healthcare devices while model 2 tests the effects of independent variables on the intention to use smart healthcare devices. e results show that the impacts of control variables on the intention to use smart devices are not significant. From the results of model 2, the coefficient of usefulness is 0.371 (p < 0.0001). erefore, Hypothesis 1, usefulness is positively related to the intention to use smart healthcare devices, is tested by samples. e coefficient of convenience is 0.319 (p < 0.0001). Hypothesis 2, convenience is positively related to the intention to use smart healthcare devices, is also supported by data. e coefficient of novelty is 0.143 (p < 0.0001). is result shows that the effect of novelty on the intention to use smart devices is also positive. So, Hypothesis 3, novelty is positively related to the intention to use smart healthcare devices, is also supported. However, the coefficient of convenience is 0.218 (p < 0.01). is means that price is not negatively related to the intention. us, Hypothesis 4, price is negatively related to the intention to use smart healthcare devices, is not supported. e coefficient of technological complexity is -0.157 (p < 0.05). Obviously, Hypothesis 5, technological complexity is negatively related to the intention to use smart healthcare devices, is supported by data. However, the coefficient of perceived privacy risk is -0.085 (ns). erefore, Hypothesis 6, perceived privacy risk is negatively related to the intention to use smart healthcare devices, is not supported by samples. e results show that Hypothesis 4 and Hypothesis 6 are not supported. e possible reason is that the data collected from China are limited. Although we collected samples from several cities, the number of questionnaires is still not large. More questionnaires should be required to test the hypotheses in future. Extending previous researches, this paper establishes a framework and identifies the factors affecting the acceptance is study contributes to the area of the smart healthcare industry as follows. First, this study proposes a framework and identifies several factors that determine the intention to use smart healthcare devices. Previous studies mainly focus on the impact of various digital technologies on smart devices and the effect of smart healthcare devices on individuals' care and smart cities [8, 11, 12] . Few scholars study the acceptance of smart healthcare devices and the factors that influence the intention to use them. Considering that attributes of products, technological characteristics, and individual characteristics are studied independently, this study discuss them in a framework. is study identifies six factors, including the attributes of products or services (usefulness, convenience, novelty, and price of smart devices), technological complexity, and perceived privacy risk. By doing so, we address the theoretical gap of the acceptance of smart healthcare devices. Second, this study examines the effects of different factors on the intention to use smart healthcare devices. Based on the samples from several cities in China, we find that usefulness, convenience, and novelty of smart devices are positively related to the intention to use these devices. In addition, technological complexity is negatively related to the intention. By doing so, this study explores different impacts of the attributes of products or services and technological complexity on the acceptance of smart healthcare devices. e findings further extend the understanding of the impacts of different factors on the intention to use the smart healthcare devices. ere are also several public policy implications. First, governments should encourage the development of smart healthcare devices. Smart devices exploit different digital technologies such as machine learning and Internet of ings and provide intelligent services for users. is has greatly changed the traditional healthcare industry. Customers could utilize more convenient healthcare services at home. Everyone's health could be monitored at any time. is creates a smarter healthcare industry based on new technologies. However, smart healthcare devices are still in its infant stage. More resources and policies should be provided to develop this industry. For example, governments could reduce taxes and provide financial support for developing the new industry. Second, governments should encourage the utilization of smart devices in multiple ways. Although it is important for individuals to use smart devices to monitor health conditions, the acceptance of smart devices is still not high. Government could publicize the usefulness of smart devices and let more people know the convenience of them. Especially for the smart healthcare devices that detect common diseases, their usefulness, convenience, and novelty should be widely reported. It is beneficial for users to recognize the smart devices. ird, governments should reduce privacy risk through ways of established new institutions or laws. Perceived privacy risk is becoming an important obstacle for users. Unlike traditional healthcare, smart devices will collect users' information and data on health status [32] . Privacy information security is strongly concerned by users. How to avoid information disclosure and how to reduce privacy risk need to be addressed. is is a social problem and requires the intervention of governments. It is necessary to implement laws and regulations to prohibit the disclosure of personal privacy. Finally, the health service system should strengthen the compatibility between smart healthcare devices and hospital services. ere is a significant difference between the services provided by smart devices and the services provided by hospitals. e former emphasizes monitoring and prevention, which helps individuals manage physical health. It is beneficial to reduce the pressure of hospitals and increase the quality of hospital services. Obviously, it is valuable to improve the compatibility between smart healthcare devices and hospital services and strongly optimize the allocation of medical resources. e healthcare industry is strongly influenced by new digital technologies. In this context, this study creates a framework and explores determinants of the intention to use smart healthcare devices. Firstly, several factors that influence the intention to use smart devices were identified, including usefulness, convenience, novelty, price of smart devices, technological complexity, and perceived privacy risk. Secondly, a framework was established to examine the effect of these factors on the intention to use smart healthcare devices. e results show that there are different effects. e usefulness, convenience, novelty, and price have positive impacts on the intention to use smart devices. While the technological complexity variable shows negative influence on the intention. ird, theoretical implications and public policy implications were revealed on the basis of the findings. e results further extend previous researches in the area of healthcare industry. e data used to support the findings of this study are available from the corresponding author upon request. e authors declare that they have no conflicts of interest. 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