Lab on skin™: 3D monolithically integrated zero-energy micro/nanofludics and FD SOI ion sensitive FETs for wearable multi-sensing sweat applications

F. Bellando, E. Garcia-Cordero, F. Wildhaber, J. Longo, H. Guérin, Adrian M. Ionescu
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引用次数: 2

Abstract

This paper reports a novel fully integrated low power multi-sensing smart system, which, by wafer-level 3D heterogeneous integration of Ion Sensitive Fully Depleted (FD) FETs and SU-8 micro/nanofludics, achieves the first of its kind wearable multi-sensing system, called Lab on SkinTM, capable to detect biomarkers in human sweat. In the reported configuration, the multi-sensing system exploits arrays of functionalized sensors capable to simultaneously detect pH, Na+ and K+ concentrations in sweat in real time. We present a detailed electrical DC and dynamic characterization, showing excellent sensitivities (52mV/dec for pH and −37mV/dec for Na+ sensors) with ultra-low power consumption (less than 50 nWatts/sensor). We report ion cross-sensitivities and a differential measurement approach that allows calibrated measurements. Overall, the paper reports significant advances in the design and fabrication of micro/nanofludics channels, inlets compatible with human skin pore size and density, and outlet passive pumps with flow rates of tens of pl/s; all capable of exploiting capillary forces in order to provide a zero energy pumping of sweat into sensing channels. Moreover, we report the first integration of a miniaturized Ag/AgCl Quasi-Reference Electrodes (QRE) into the sensing system, with long term stability, paving the way for fully wearable electronic chips in flexible patches or as plug-in modules in wrist based devices.
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皮肤实验室™:用于可穿戴多传感汗液应用的3D单片集成零能量微/纳米流体和FD SOI离子敏感场效应管
本文报道了一种全新的全集成低功耗多传感智能系统,该系统通过离子敏感全耗尽(FD)场效应管和SU-8微/纳米流体的晶圆级3D异构集成,实现了第一个可穿戴多传感系统,称为Lab on skinm,能够检测人体汗液中的生物标志物。在报告的配置中,多传感系统利用功能化传感器阵列,能够同时实时检测汗液中的pH、Na+和K+浓度。我们展示了详细的直流和动态特性,显示出优异的灵敏度(pH传感器52mV/dec, Na+传感器- 37mV/dec)和超低功耗(小于50 nWatts/传感器)。我们报告离子交叉灵敏度和差分测量方法,允许校准测量。总体而言,本文报道了微/纳米流体通道的设计和制造方面的重大进展,与人体皮肤孔径和密度兼容的入口,以及流量为数十pl/s的出口被动泵;所有这些都能够利用毛细力来提供零能量的汗水泵入传感通道。此外,我们报告了首次将小型化Ag/AgCl准参考电极(QRE)集成到传感系统中,具有长期稳定性,为柔性贴片中的完全可穿戴电子芯片或腕式设备中的插件模块铺平了道路。
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