超细纤维
生物电子学
材料科学
纳米技术
生物医学工程
电极
纤维
工程类
生物传感器
复合材料
化学
物理化学
作者
Ruijie Xie,Qianhengyuan Yu,Dong Li,Han Xu,Xiaolong Xu,Jianping Huang,Wei Yan,Xiaomeng Zhou,Xinping Deng,Qiong Tian,Qingsong Li,Hanfei Li,Hairong Zheng,Guanglin Li,Fei Han,Tiantian Xu,Zhiyuan Liu
出处
期刊:
[Cold Spring Harbor Laboratory]
日期:2023-10-03
被引量:1
标识
DOI:10.1101/2023.10.02.560392
摘要
Abstract Long-term implantable bioelectronics can efficiently evaluate the function of the nervous system. 1D fiber-shaped devices require small surgical incisions significantly benefiting long-term biocompatibility. We report a strategy of rolling to reduce the dimension of bioelectronic devices from 2D film to 1D microfiber. The soft and stretchable multifunctional microfiber accommodates more than 60-channel longitudinally-distributed electrodes for bio-electric and -mechanical monitoring. It can be sutured into muscle with tiny incision for 8-month bio-electrical monitoring in rats. Importantly, after 13-month implantation, the fibroblast encapsulation around the fiber is negligible. Moreover, it can wander inside a brain under magnetic field. This strategy not only opens up the study of multi-channel and -function soft and stretchable fiber-shaped sensors but offers a platform for minimally-invasive implantable bioelectronics. One-Sentence Summary The rolling enables stretchable electrode array along one single microfiber and multimodal long-term in-vivo monitoring.
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