3D-Ordered Multilevel Microstructures-Based Flexible Pressure Sensor with Ultra-High Sensitivity Utilizing Laser Scribing

Rui Chen, Qian Wan, Tao Luo, Chen Zhang, Xuyang Chu, Wei Zhou
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Abstract

This paper describes a piezoresistive flexible pressure sensor based on multilevel microstructure, fabricated through infrared picosecond laser technology. Our systematic study of the impact of laser processing parameters on microstructure morphology led to the creation of single-level, double-level, and triple-level 3D-ordered microstructure-based sensors. Experimental results demonstrate that the triple-level microstructure sensor exhibits an ultra-high sensitivity of 138.6 kP$\mathrm{a}^{-1}$ and a wide linear range of 400 kPa, surpassing the sensitivity of the single-level sensor of 10.5 kP$\mathrm{a}^{-1}$ by 1300%. Moreover, it also surpasses single-level and double-level microstructure-based sensors in terms of measurement range and linearity. Finite element analysis confirms that the sensor based on the triple-level microstructure is more sensitive than sensors based on single-level and double-level microstructures. The proposed method for tailoring microstructure morphology has significant potential for developing pressure sensors with high sensitivity and wide linear range.
基于三维有序多级微结构的超高灵敏度柔性激光刻划压力传感器
本文介绍了一种利用红外皮秒激光技术制备的多级微结构压阻式柔性压力传感器。我们对激光加工参数对微结构形貌影响的系统研究导致了单级,双级和三级3d有序微结构传感器的创建。实验结果表明,三电平微结构传感器具有138.6 kP$\mathrm{a}^{-1}$的超高灵敏度和400 kPa的宽线性范围,比单电平传感器10.5 kP$\mathrm{a}^{-1}$的灵敏度高出1300%。此外,在测量范围和线性度方面也优于单级和双级微结构传感器。有限元分析证实,基于三级微结构的传感器比基于单层和双层微结构的传感器灵敏度更高。该方法具有开发高灵敏度、宽线性范围压力传感器的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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