压力传感器
材料科学
灵敏度(控制系统)
纳米技术
可穿戴计算机
数码产品
电容
假电容
电极
耐久性
光电子学
计算机科学
机械工程
电气工程
电子工程
嵌入式系统
复合材料
超级电容器
工程类
物理化学
化学
作者
Libo Gao,Meng Wang,Weidong Wang,Hongcheng Xu,Yuejiao Wang,Haitao Zhao,Ke Cao,Dandan Xu,Lei Li
标识
DOI:10.1007/s40820-021-00664-w
摘要
The iontronic pressure sensor achieved an ultrahigh sensitivity (Smin > 200 kPa-1, Smax > 45,000 kPa-1). The iontronic pressure sensor exhibited a broad sensing range of over 1.4 MPa. Pseudocapacitive iontronic pressure sensor using MXene was proposed. Flexible pressure sensors are unprecedentedly studied on monitoring human physical activities and robotics. Simultaneously, improving the response sensitivity and sensing range of flexible pressure sensors is a great challenge, which hinders the devices' practical application. Targeting this obstacle, we developed a Ti3C2Tx-derived iontronic pressure sensor (TIPS) by taking the advantages of the high intercalation pseudocapacitance under high pressure and rationally designed structural configuration. TIPS achieved an ultrahigh sensitivity (Smin > 200 kPa-1, Smax > 45,000 kPa-1) in a broad sensing range of over 1.4 MPa and low limit of detection of 20 Pa as well as stable long-term working durability for 10,000 cycles. The practical application of TIPS in physical activity monitoring and flexible robot manifested its versatile potential. This study provides a demonstration for exploring pseudocapacitive materials for building flexible iontronic sensors with ultrahigh sensitivity and sensing range to advance the development of high-performance wearable electronics.
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