用于人体健康监测的可穿戴式天线可穿戴技术及移动平台

V. Varadan, P. Rai, Sechang Oh, P. Kumar, Mouli Ramasamy, R. Harbaugh
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引用次数: 0

摘要

健康和长期护理是可穿戴健康监测系统的一个增长领域。可穿戴诊断和治疗系统有助于慢性病患者及时获得护理,特别是慢性神经系统疾病、心血管疾病和中风,这些都是世界范围内导致死亡的主要原因。及时为POC患者提供诊断和治疗可以挽救数千人的生命。然而,缺乏侵入性最小的监测系统使得及时诊断变得困难,有时甚至不可能。由于传统的银-氯化银-凝胶电极无法进行长期监测,不可重复使用,缺乏可扩展的标准化无线通信平台,以及用户友好的设计,现有的门诊记录设备无法进行连续远程患者监测(RPM)。纳米织物生物传感器和移动平台的最新进展导致了神经和心血管疾病的新型可穿戴健康监测系统。本章讨论了基于纳米结构纺织品的干电极,它更适合于心电图(ECG)、脑电图(EEG)、眼电图(EOG)、肌电图(EMG)和生物阻抗的长期测量,具有非常低的基线噪声,提高了灵敏度,并且无缝集成到日常使用的服装中。它讨论了生物电信号和纳米传感器功能的起源和传播的生物电磁原理,为开发利用其潜力的新型可穿戴系统提供了独特的视角。结合最先进的嵌入式无线网络设备和可打印的分形天线,可与智能手机、笔记本电脑或通过移动网络(GSM、4G-LTE、GPRS)直接与远程服务器通信,可作为使用更直观的可穿戴无线健康诊断系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wearable technology and mobile platform for wearable antennas for human health monitoring
Health and long-term care is a growth area for wearable heath monitoring systems. Wearable diagnostic and therapeutic systems can contribute to timely point-of-care (POC) for patients with chronic health conditions, especially chronic neurological disorders, cardiovascular diseases and strokes that are leading causes of mortality worldwide. Diagnostics and therapeutics for patients under timely POC can save thousands of lives. However, lack of access to minimally intrusive monitoring systems makes timely diagnosis difficult and sometimes impossible. Existing ambulatory recording equipment is incapable of performing continuous remote patient monitoring (RPM) because of the inability for conventional silver-silver-chloride-gel-electrodes to perform long-term monitoring, non-reusability, lack of scalable-standardized wireless communication platforms, and user-friendly design. Recent progress in nanotextile biosensors and mobile platforms has resulted in novel wearable health monitoring systems for neurological and cardiovascular disorders. This chapter discusses nanostructured-textile-based dry electrodes that are better suited for long-term measurement of electrocardiography (ECG), electroencephalography (EEG), electrooculography (EOG), electromyography (EMG), and bioimpedance with very low baseline noise, improved sensitivity, and seamless integration into garments of daily use. It discusses bioelectromagnetic principles of origination and propagation of bioelectric signals and nanosensor functioning, which provide a unique perspective on the development of novel wearable systems that harness their potential. Combined with state-of-the-art embedded wireless network devices and printable fractal antenna to communicate with smartphone, laptop, or directly to remote server through mobile network (GSM, 4G-LTE, GPRS), they can function as wearable wireless health diagnostic systems that are more intuitive to use.
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