Brasier Noé, Wang Joseph, Gao Wei, Sempionatto Juliane R, Dincer Can, Ates H Ceren, Güder Firat, Olenik Selin, Schauwecker Ivo, Schaffarczyk Dietmar, Vayena Effy, Ritz Nicole, Weisser Maja, Mtenga Sally, Ghaffari Roozbeh, Rogers John A, Goldhahn Jörg
Collegium Helveticum, Zurich, Switzerland.
Institute of Translational Medicine, ETH Zurich, Zurich, Switzerland.
Nature. 2024 Dec;636(8041):57-68. doi: 10.1038/s41586-024-08249-4. Epub 2024 Dec 4.
Wearable sensors are a recent paradigm in healthcare, enabling continuous, decentralized, and non- or minimally invasive monitoring of health and disease. Continuous measurements yield information-rich time series of physiological data that are holistic and clinically meaningful. Although most wearable sensors were initially restricted to biophysical measurements, the next generation of wearable devices is now emerging that enable biochemical monitoring of both small and large molecules in a variety of body fluids, such as sweat, breath, saliva, tears and interstitial fluid. Rapidly evolving data analysis and decision-making technologies through artificial intelligence has accelerated the application of wearables around the world. Although recent pilot trials have demonstrated the clinical applicability of these wearable devices, their widespread adoption will require large-scale validation across various conditions, ethical consideration and sociocultural acceptance. Successful translation of wearable devices from laboratory prototypes into clinical tools will further require a comprehensive transitional environment involving all stakeholders. The wearable device platforms must gain acceptance among different user groups, add clinical value for various medical indications, be eligible for reimbursements and contribute to public health initiatives. In this Perspective, we review state-of-the-art wearable devices for body-fluid analysis and their translation into clinical applications, and provide insight into their clinical purpose.
可穿戴传感器是医疗保健领域的一种新兴模式,能够对健康和疾病进行连续、分散且无创或微创的监测。连续测量可产生生理数据丰富的时间序列,这些数据具有整体性且在临床上具有意义。尽管大多数可穿戴传感器最初仅限于生物物理测量,但如今新一代的可穿戴设备正在涌现,它们能够对多种体液(如汗液、呼吸、唾液、眼泪和间质液)中的小分子和大分子进行生化监测。通过人工智能快速发展的数据分析和决策技术加速了可穿戴设备在全球的应用。尽管最近的试点试验已经证明了这些可穿戴设备的临床适用性,但它们的广泛应用需要在各种条件下进行大规模验证、伦理考量和社会文化接受度评估。要将可穿戴设备从实验室原型成功转化为临床工具,还需要一个涉及所有利益相关者的全面过渡环境。可穿戴设备平台必须获得不同用户群体的认可,为各种医学适应症增加临床价值,符合报销条件并为公共卫生举措做出贡献。在这篇观点文章中,我们回顾了用于体液分析的前沿可穿戴设备及其向临床应用的转化,并深入探讨了它们的临床用途。