神经形态工程学
软机器人
机器人学
数码产品
计算机科学
人机交互
电子皮肤
触觉传感器
关系(数据库)
机器人
人工智能
适应性
工程类
纳米技术
人工神经网络
电气工程
材料科学
数据库
生物
生态学
作者
Ravinder Dahiya,Nivasan Yogeswaran,Fengyuan Liu,Libu Manjakkal,Etienne Burdet,Vincent Hayward,Henrik Jörntell
出处
期刊:Proceedings of the IEEE
[Institute of Electrical and Electronics Engineers]
日期:2019-10-01
卷期号:107 (10): 2016-2033
被引量:251
标识
DOI:10.1109/jproc.2019.2941366
摘要
Sensory feedback from touch is critical for many tasks carried out by robots and humans, such as grasping objects or identifying materials. Electronic skin (e-skin) is a crucial technology for these purposes. Artificial tactile skin that can play the roles of human skin remains a distant possibility because of hard issues in resilience, manufacturing, mechanics, sensorics, electronics, energetics, information processing, and transport. Taken together, these issues make it difficult to bestow robots, or prosthetic devices, with effective tactile skins. Nonetheless, progress over the past few years in relation with the above issues has been encouraging, and we have achieved close to providing some of the abilities of biological skin with the advent of deformable sensors and flexible electronics. The naive imitation of skin morphology and sensing an impoverished set of mechanical and thermal quantities are not sufficient. There is a need to find more efficient ways to extract tactile information from mechanical contact than those previously available. Renewed interest in neuromorphic tactile skin is expected to bring some fresh ideas in this field. This article reviews these new developments, particularly related to the handling of tactile data, energy autonomy, and large-area manufacturing. The challenges in relation with these advances for tactile sensing and haptics in robotics and prosthetics are discussed along with potential solutions.
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