碳微线圈制造的新型触觉传感器

Xiuqin Chen, Shaoming Yang, M. Hasegawa, K. Takeuchi, K. Kawabe, S. Motojima
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引用次数: 9

摘要

以含少量硫化氢的乙炔为原料,采用Ni催化热解制备了具有高弹性和卷动性的碳微线圈(CMC)。研究了材料的形态、力学性能和电学性能,特别是触觉性能。研究发现,通过控制反应条件,可以得到超弹性CMC,其拉伸和收缩可达到原线圈长度的15倍以上。CMC的延伸对外加负荷有很高的敏感性,可以检测到非常低的毫克级外加负荷。CMC的电阻率R随拉伸而增大,随收缩而减小。CMC/聚硅复合材料的电感(L)和电容(C)在挤压、拾取、拉伸等多种接触方式下,随着复合材料的拉伸和收缩而发生广泛的变化。推测这些触觉传感性能受到新型LCR复合混合共振的影响。
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Novel Tactile Sensors Manufactured by Carbon Microcoils
The carbon microcoils (CMC) with a high elasticity and coiling-chirality was prepared by the Ni catalyzed pyrolysis of acetylene containing a small amount of H2S. The morphology and their mechanical and electrical properties, especially tactile sensing properties, were examined. It was found that superelastic CMC, which could be extended and contracted to more than 15 times of the original coil length, could be obtained by controlling the reaction conditions. The extension of CMC was very high sensitive for applied load, and could be detected very low applied load of milligram orders. The electrical resistivity (R) of the CMC increased with the extension and decreased with the contraction. Inductance (L) and capacitance (C) of CMC/polysilicone composites extensively changed with the extension and contraction of the composite under various touching modes, such as pressing, picking, stretching, etc. It was supposed that these tactile sensing properties were affected by novel LCR composite hybrid resonance.
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