辅助
灵敏度(控制系统)
触觉传感器
霍尔效应传感器
材料科学
适应性
声学
有限元法
机械工程
计算机科学
机器人
生物系统
纳米技术
结构工程
人工智能
电子工程
物理
复合材料
工程类
生态学
生物
磁铁
作者
Youngheon Yun,Dongchan Lee,So-Yeon Lee,Salvador Pané,Josep Puigmartí‐Luis,Sungwoo Chun,Bumjin Jang
标识
DOI:10.1002/aisy.202400337
摘要
The research addresses the limitations inherent in conventional Hall effect‐based tactile sensors, particularly their restricted sensitivity by introducing an innovative metastructure. Through meticulous finite element analysis optimization, the Hall effect‐based auxetic tactile sensor (HEATS), featuring a rotating square plate configuration as the most effective auxetic pattern to enhance sensitivity, is developed. Experimental validation demonstrates significant sensitivity enhancements across a wide sensing range. HEATS exhibits a remarkable 20‐fold and 10‐fold improvement at tensile rates of 0.9% and 30%, respectively, compared to non‐auxetic sensors. Furthermore, comprehensive testing demonstrates HEATS’ exceptional precision in detecting various tactile stimuli, including muscle movements and joint angles. With its unparalleled accuracy and adaptability, HEATS offers vast potential applications in human–machine and human–robot interaction, where subtle tactile communication is a prerequisite.
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