可穿戴计算机
计算机科学
智能手表
微流控
可穿戴技术
纳米技术
嵌入式系统
人机交互
材料科学
作者
Yichao Zhao,Bo Wang,Hannaneh Hojaiji,Zhaoqing Wang,Shuyu Lin,Christopher Yeung,Haisong Lin,Peterson Nguyen,Kaili Chiu,Kamyar Salahi,Xuanbing Cheng,Jiawei Tan,Betto Alcitlali Cerrillos,Sam Emaminejad
出处
期刊:Science Advances
[American Association for the Advancement of Science]
日期:2020-03-20
卷期号:6 (12): eaaz0007-eaaz0007
被引量:133
标识
DOI:10.1126/sciadv.aaz0007
摘要
To render high-fidelity wearable biomarker data, understanding and engineering the information delivery pathway from epidermally retrieved biofluid to a readout unit are critical. By examining the biomarker information delivery pathway and recognizing near-zero strained regions within a microfluidic device, a strain-isolated pathway to preserve biomarker data fidelity is engineered. Accordingly, a generalizable and disposable freestanding electrochemical sensing system (FESS) is devised, which simultaneously facilitates sensing and out-of-plane signal interconnection with the aid of double-sided adhesion. The FESS serves as a foundation to realize a system-level design strategy, addressing the challenges of wearable biosensing, in the presence of motion, and integration with consumer electronics. To this end, a FESS-enabled smartwatch was developed, featuring sweat sampling, electrochemical sensing, and data display/transmission, all within a self-contained wearable platform. The FESS-enabled smartwatch was used to monitor the sweat metabolite profiles of individuals in sedentary and high-intensity exercise settings.
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