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Highly Sensitive Piezoelectric E‐Skin Design Based on Electromechanical Coupling Concept

Stretchable electronic skin (e‐skin) paves the way for applications that exceed the scope of intrinsic rigid devices and hard‐to‐stretch sensors. The broad application range of flexible e‐skins benefits from device architectures that can simultaneously provide mechanical flexibility and superior sen...

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Published in:Advanced electronic materials 2023-05, Vol.9 (5), p.n/a
Main Authors: Yang, Xiaopeng, Zhang, Menglun, Xie, Mengying, Sun, Mingchao, Luo, Hexu, Li, Quanning, Chen, Xuejiao, Pang, Wei
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cited_by cdi_FETCH-LOGICAL-c4239-ebab97e0877d6258d1d5cfb5369dfdcf783436e41b47aec5859d7d94f77deeaa3
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description Stretchable electronic skin (e‐skin) paves the way for applications that exceed the scope of intrinsic rigid devices and hard‐to‐stretch sensors. The broad application range of flexible e‐skins benefits from device architectures that can simultaneously provide mechanical flexibility and superior sensitivity. Classic fractal design provides a simple architecture to achieve the desired flexibility through structural design for improved wear comfort, but at the expense of sensor sensitivity. In this study, the proposed method addresses the trade‐off between stretchability and sensitivity in fractal design. A high‐sensitivity e‐skin is obtained by eliminating the effect of negative charge on the output by applying the concept of electromechanical coupling. This concept for designing e‐skins with high sensitivity is validated through the delicate patterning of hard‐to‐stretch functional materials. Further, human speech signals are acquired through the integration of e‐skin with signal processing circuits, and speech pattern recognition is realized using machine learning. The stretchable e‐skin with an enhanced gauge factor illustrates the wider application of this concept for improving the sensitivity of stretchable electronic functional materials. This study proposes a highly sensitive fractal piezoelectric electronic skin(e‐skin) enabled by a novel electromechanical coupling concept. Through investigation of the electromechanical coupling concept, a novel fractal‐based e‐skin in stretchable electronics is designed to monitor subtle motion, addressing the trade‐off between comfortability and sensitivity. The e‐skin can reliably monitor muscle movement caused by speech.
doi_str_mv 10.1002/aelm.202201339
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subjects Coupling
Design
Electric fields
Electrodes
electromechanical coupling concept
e‐skin
Flexibility
Fractals
Functional materials
highly sensitive
Machine learning
Pattern recognition
Patterning
Physiology
piezoelectric
Piezoelectricity
Sensors
Signal processing
Speech recognition
Stretchability
Structural design
title Highly Sensitive Piezoelectric E‐Skin Design Based on Electromechanical Coupling Concept
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