This review systematically elaborates the key enabling technologies of wearable patches, covering functional materials, miniaturization and fabrication, self‐powered systems, and multimodal sensing architectures, and the role of artificial intelligence and digital integration technology in intelligent data analysis and personalized health modeling.
Abstract
The development of digital healthcare has raised demands for proactive, long‐term, and high‐precision health monitoring, which greatly promotes the innovation of intelligent wearable medical devices. Wearable sensor patches feature superior flexibility, lightweight structure, and skin conformability, enabling continuous in vivo physiological signal acquisition and showing enormous potential in personalized health monitoring and precise disease intervention. However, several critical technical bottlenecks severely restrict their clinical translation, including unsatisfactory biocompatibility, inefficient multimodal signal fusion, unstable sustainable energy supply, and vulnerable data security and privacy protection. Focusing on the latest advances in wearable sensor patches oriented to health monitoring and disease diagnosis and treatment, this review systematically elaborates the key enabling technologies of wearable patches, covering functional materials, miniaturization and fabrication, self‐powered systems, and multimodal sensing architectures. Furthermore, we summarize the practical applications of wearable patches in multimodal physiological signal monitoring, chronic disease management, neuropsychiatric disorder evaluation, and rehabilitation medicine. This review also discusses the role of artificial intelligence and digital integration technology in intelligent data analysis and personalized health modeling. Importantly, we highlight current challenges and future research directions, aiming to provide insights and reliable references for the further optimization and clinical implementation of wearable sensor patches in next‐generation intelligent healthcare systems.
Traditional clinical health monitoring relies on offline, intermittent detection modes, which are discontinuous and can only acquire discrete physiological and biochemical data, failing to satisfy the rising demands driven by chronic diseases and population aging. Featuring excellent flexibility and portability, wearab...
Fei-Fei Yin, Can Lu, K. Kang et al.· Electronics· 0 citations
Wearable sensors have emerged as important platforms for noninvasive, real‐time, and continuous monitoring of physiological information, with growing applications in personalized healthcare, human‐machine interfaces (HMIs), and robotic empowerment. Recent advances in flexible and stretchable materials, device integra...
Tian-Qi Yang, Han-Kun Zhu, Zhi-Hui Pan et al.· Rare Metals· 0 citations
Enabled by chronic disease management, aging trends, and digital health, medical monitoring is evolving from intermittent testing to continuous personalized monitoring. In this context, embedded medical devices integrate physiological data acquisition with edge computing technologies. This review examines the developme...
Ye-Ming Lu· Theoretical and Natural Scie...· 0 citations
A skin-conformal, wearable electrochemical biosensing platform capable of real time monitoring of liver health by continuously analyzing liver-related metabolic biomarkers in sweat is developed, contributing to the advancement of next-generation personalized healthcare technologies.
Hao Zhao, Xie-Li Zhang, A. Zameer et al.· Advances in Materials· 0 citations
Wearable technologies are increasingly used to support cardiovascular care by enabling continuous physiological monitoring beyond conventional clinical environments. Advances in consumer and medical-grade devices have expanded cardiovascular surveillance from intermittent assessments to longitudinal monitoring of heart...
A. Tariq, Wonbum Sohn, Yoon Jae Lee et al.· Arteriosclerosis, Thrombosis...· 0 citations
Clinical translation remains limited by data security and privacy risks, insufficient standardization and regulatory alignment, long-term stability and biocompatibility concerns, and uneven validation maturity across technologies.
Ji-Rui Wen, Jiang Wu, Yi Yang et al.· Chinese Medical Journal· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.