材料科学
拉伤
无线
袖口
电池(电)
电气工程
计算机科学
功率(物理)
医学
工程类
电信
外科
解剖
物理
量子力学
作者
Seunghwan Kim,Yong Suk Oh,Kwanghyoung Lee,Seongchan Kim,Woo‐Youl Maeng,Kyung Su Kim,Ga‐Been Kim,Seokjoo Cho,Hyeonseok Han,Hyunwoo Park,Mengqiu Wang,Raudel Avila,Zhaoqian Xie,Kabseok Ko,Jungrak Choi,Minkyu Je,Hyojin Lee,Sungho Lee,Jahyun Koo,Inkyu Park
出处
期刊:Small
[Wiley]
日期:2023-04-17
卷期号:19 (32): e2206839-e2206839
被引量:27
标识
DOI:10.1002/smll.202206839
摘要
Abstract Peripheral nerve injuries cause various disabilities related to loss of motor and sensory functions. The treatment of these injuries typically requires surgical operations for improving functional recovery of the nerve. However, capabilities for continuous nerve monitoring remain a challenge. Herein, a battery‐free, wireless, cuff‐type, implantable, multimodal physical sensing platform for continuous in vivo monitoring of temperature and strain from the injured nerve is introduced. The thin, soft temperature, and strain sensors wrapped around the nerve exhibit good sensitivity, excellent stability, high linearity, and minimum hysteresis in relevant ranges. In particular, the strain sensor integrated with circuits for temperature compensation provides reliable, accurate strain monitoring with negligible temperature dependence. The system enables power harvesting and data communication to wireless, multiple implanted devices wrapped around the nerve. Experimental evaluations, verified by numerical simulations, with animal tests, demonstrate the feasibility and stability of the sensor system, which has great potential for continuous in vivo nerve monitoring from an early stage to complete regeneration.
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