材料科学
天然橡胶
线性
电阻式触摸屏
磁滞
拉伤
复合材料
极限抗拉强度
纤维
拉伸应变
碳纳米管
电气工程
凝聚态物理
工程类
内科学
物理
医学
作者
Run Wang,Nan Jiang,Jian Su,Qu Yin,Yue Zhang,Zhongsheng Liu,Haibao Lin,F. A. B. F. de Moura,Ningyi Yuan,Siegmar Roth,Richard S. Rome,Raquel Ovalle‐Robles,Kanzan Inoue,Shougen Yin,Shaoli Fang,Weichao Wang,Jianning Ding,Linqi Shi,Ray H. Baughman,Zunfeng Liu
标识
DOI:10.1002/adfm.201702134
摘要
Current research about resistive sensors is rarely focusing on improving the strain range and linearity of resistance–strain dependence. In this paper, a bi‐sheath buckled structure is designed containing buckled carbon nanotube sheets and buckled rubber on rubber fiber. Strain decrease results in increasing buckle contact by the rubber interlayer and a large decrease in resistance. The resulting strain sensor can be reversibly stretched to 600%, undergoing a linear resistance increase as large as 102% for 0–200% strain and 160% for 200–600% strain. This strain sensor shows high linearity, fast response time, high resolution, excellent stability, and almost no hysteresis.
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