| Literature DB >> 29869431 |
Ying-Chih Lai1,2, Jianan Deng1, Ruiyuan Liu1, Yung-Chi Hsiao2, Steven L Zhang1, Wenbo Peng1, Hsing-Mei Wu2, Xingfu Wang1, Zhong Lin Wang1,3.
Abstract
Robots that can move, feel, and respond like organisms will bring revolutionary impact to today's technologies. Soft robots with organism-like adaptive bodies have shown great potential in vast robot-human and robot-environment applications. Developing skin-like sensory devices allows them to naturally sense and interact with environment. Also, it would be better if the capabilities to feel can be active, like real skin. However, challenges in the complicated structures, incompatible moduli, poor stretchability and sensitivity, large driving voltage, and power dissipation hinder applicability of conventional technologies. Here, various actively perceivable and responsive soft robots are enabled by self-powered active triboelectric robotic skins (tribo-skins) that simultaneously possess excellent stretchability and excellent sensitivity in the low-pressure regime. The tribo-skins can actively sense proximity, contact, and pressure to external stimuli via self-generating electricity. The driving energy comes from a natural triboelectrification effect involving the cooperation of contact electrification and electrostatic induction. The perfect integration of the tribo-skins and soft actuators enables soft robots to perform various actively sensing and interactive tasks including actively perceiving their muscle motions, working states, textile's dampness, and even subtle human physiological signals. Moreover, the self-generating signals can drive optoelectronic devices for visual communication and be processed for diverse sophisticated uses.Entities:
Keywords: active sensors; electronic skins; self-powered sensors; soft robots; triboelectric nanogenerators
Mesh:
Year: 2018 PMID: 29869431 DOI: 10.1002/adma.201801114
Source DB: PubMed Journal: Adv Mater ISSN: 0935-9648 Impact factor: 30.849