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柔性触觉传感电子皮肤研究进展

Bin ChengJiaxiang ChenLingyun CaoJiangfeng HePeng YuFang Yi

2024Chinese Science Bulletin (Chinese Version)Engineering被引 2开放获取

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摘要

<p indent="0mm">Skin is the largest organ of the human body, and it is a multi-functional sensor with high sensitivity to human perception of the external environment, which is of great significance to human survival and development. Electronic skin is a device that simulates natural skin functions and mechanical properties. Flexible tactile sensing electronic skin sensors have tactile sensing functions and flexible properties that mimic human skin, and can be attached to surfaces such as human skin or robots to perceive various stimuli, such as pressure and temperature. The fields of intelligent control system and intelligent robotics have shown huge application prospects. The electronic skin is generally composed of electrodes, dielectric materials, active functional layers, and flexible substrates. When certain external conditions stimulate the electronic skin, the active functional layer converts signals such as strain and temperature into electrical signals that can be detected. Then, the electrode layer accepts and transmits these electrical signals to the data processing module and the display terminal. In practical applications, pressure sensing plays an important role because it can detect a variety of physical movements such as gentle touch, wrist pulse, heart rate and breathing rate. In the past decade, a large number of flexible pressure tactile sensing electronic skins have been developed, most of which are based on piezoresistive, capacitive, piezoelectric, and triboelectric sensing principles. In addition to the flexible tactile electronic skin for pressure sensing, the flexible tactile electronic skin for temperature sensing is also crucial. This is because it can measure the temperature information of the contact object or monitor the temperature change of the surrounding environment, etc. Its principle can be roughly divided into thermoresistive, capacitive and thermoelectric. Electronic skin has gradually realized characteristics such as multifunc

引用本文(GB/T 7714)

Bin Cheng, Jiaxiang Chen, Lingyun Cao, 等. 柔性触觉传感电子皮肤研究进展[J]. Chinese Science Bulletin (Chinese Version), 2024.

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DOI:https://doi.org/10.1360/tb-2023-1189

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