e.g. mhealth
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- 65 JMIR mHealth and uHealth
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The vision is that patients will connect personal wearables to a monitoring system and provide low-threshold data for monitoring. This approach is expected to improve adherence and economic outcomes in the future and enable rapid adaptation to technical innovations in wearables.
For this purpose, a new RPM system—bw Health App—was created with e PROs and connected commercial wrist and in-ear wearables.
JMIR Cancer 2025;11:e64184
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Suitably large datasets are readily produced by wearables, as well as through video, audio, and natural language recording, and can now be processed much more efficiently than via traditional approaches such as manual coding. Together, such technology may enable efficient measurement with relatively low burden to participants and high ecological validity.
JMIR Res Protoc 2025;14:e71145
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Consumer health wearables are being rapidly adopted by the general population. Surveys have shown that up to 60% of the population own and use wearable devices [1-3]. Physical activity information is the most common measurement provided by current wearable devices. In addition, wearable-reported physical activity data have been studied and validated in various settings to ensure accuracy [4,5].
JMIR Mhealth Uhealth 2025;13:e71213
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Reference 12: Monitoring of dynamic plantar foot temperatures in diabetes with personalised 3D-printed wearables Reference 13: Artificial intelligence, wearables and remote monitoring for heart failure: current andwearablesApps, Mobile, Wearables for Diabetes
JMIR Mhealth Uhealth 2025;13:e73187
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The commercialization of wearable computing devices (ie, wearables) has allowed for an affordable and unobtrusive mechanism to procure longitudinal physiological data [9]. Smartphone apps offer a convenient apparatus to conduct ecological momentary assessments (EMAs) that instantly capture snapshots of users’ behaviors and experiences via personal devices [10].
JMIR Form Res 2025;9:e67822
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Smartphone Apps and Wearables for Health Parameters in Young Adulthood: Cross-Sectional Study
Table 3 ranks and details the most used mobile apps and wearables by brand and further divides them into specific spheres of interest (ie, PA, diet, and mental health).
Ranking by brand of the most used mobile apps and wearables (n=376).
JMIR Hum Factors 2025;12:e64629
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While mobile health (m Health) applications show potential, such as exergaming platforms to enhance physical activity [7] or wearables for mobility monitoring [8], most fail to accommodate the unique requirements of older adult users. Common shortcomings include cognitively demanding interfaces, lack of multilingual support, and fragmented features that neglect the synergistic relationship between physical, nutritional, and psychological health [9].
JMIR Form Res 2025;9:e68937
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Specifically, the maximum battery life for most research-grade wearables is up to ~4 weeks, which limits longer-term phenotyping. By comparison, smartphone sensors (ie, mobile accelerometry) are already integrated into participants’ lives and therefore provide a naturalistic, unobtrusive, and scalable way to monitor daily sleep health (ie, onset and duration) in real-time over longer time periods without requiring participants to integrate an extra apparatus, such as a wearable.
JMIR Form Res 2025;9:e67455
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