Replicating the haptic perception capability of the human hand is an indispensable goal for intelligent robots and human?machine interactions. Multifunctional electronic skin (e-skin) sensors can be an ideal candidate to bridge the gaps among humans, robots, and the environment. Mutual interference of multistimuli and unconformable spatial distribution impedes the application of e-skin sensors. Hence, a large-area, hand-covering elastomeric e-skin sensor is proposed to imitate the human hand for multifunctional detection. Five multifunctional sensing units are designed on the fingertips, and 15 pressure-sensing units are distributed on the finger phalanxes and palm to cover the main sensory area of the hand. A multilayer architecture is designed to improve the sensing performances and reduce the coupling interference during multifunctional detection. The e-skin sensor exhibits similarity to the human hand not only in shape but also in functionality, possessing pressure sensitivity of 0.025?V?kPa?1 in 0.1?120?kPa and temperature sensitivity of 0.38%?°C?1 in 20?70?°C. The performance of the e-skin sensor can meet the requirements of daily manipulations. Experimental studies on grasping objects with different grasping modes and object properties demonstrate the potential applications of the e-skin sensor for grasping haptic perception and human?robot interactions.
CITATION STYLE
Zhu, L., Wang, Y., Mei, D., Zhang, L., Mu, C., Wang, S., … Chen, Z. (2022). Large‐Area Hand‐Covering Elastomeric Electronic Skin Sensor with Distributed Multifunctional Sensing Capability. Advanced Intelligent Systems, 4(1). https://doi.org/10.1002/aisy.202100118
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