触觉技术
感官替代
计算机科学
执行机构
人机交互
感知
虚拟现实
感觉系统
接口(物质)
计算机视觉
运动(物理)
对象(语法)
触觉知觉
人工智能
模拟
心理学
神经科学
气泡
最大气泡压力法
并行计算
作者
Kyoungho Ha,Jae‐Young Yoo,Shupeng Li,Yuxuan Mao,S. Xu,Hongyuan Qi,Hanbing Wu,Chengye Fan,H. M. Yuan,Jin‐Tae Kim,Matthew T. Flavin,Seonggwang Yoo,Pratyush Shahir,Sangjun Kim,Hak-Young Ahn,J. Edward Colgate,Yonggang Huang,John A. Rogers
出处
期刊:Science
[American Association for the Advancement of Science]
日期:2025-03-27
卷期号:387 (6741): 1383-1390
标识
DOI:10.1126/science.adt2481
摘要
The sense of touch conveys critical environmental information, facilitating object recognition, manipulation, and social interaction, and can be engineered through haptic actuators that stimulate cutaneous receptors. An unfulfilled challenge lies in haptic interface technologies that can engage all the various mechanoreceptors in a programmable, spatiotemporal fashion across large areas of the body. Here, we introduce a small-scale actuator technology that can impart omnidirectional, superimposable, dynamic forces to the surface of skin, as the basis for stimulating individual classes of mechanoreceptors or selected combinations of them. High-bit haptic information transfer and realistic virtual tactile sensations are possible, as illustrated through human subject perception studies in extended reality applications that include advanced hand navigation, realistic texture reproduction, and sensory substitution for music perception.
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