氧化锌压电MEMS能量采集器性能分析

Umi Milhana Jamain, Nur Hidayah Ibrahim, R. A. Rahim
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引用次数: 23

摘要

本文介绍了MEMS压电能量采集器的设计与分析。氧化锌(ZnO) MEMS压电能量采集器已被用作压电主动悬臂梁,用于机械到电转导。采用COMSOL多物理场模型对ZnO压电能量采集器的频率、应力和电压输出进行了精确的分析。研究了矩形悬臂梁、三角形悬臂梁、带证明质量的矩形悬臂梁和不同类型压电材料的设计参数。研究了器件几何尺寸的变化对实验结果的影响。仿真结果表明,长度为150 μm、宽度为50 μm、厚度为4 μm的ZnO压电能量采集器在谐振频率为0.71 MHz、施加1 μN/m2的机械力时,产生9.9184 V的电势。
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Performance analysis of zinc oxide piezoelectric MEMS energy harvester
This paper presents the design and analysis of MEMS piezoelectric energy harvester. Zinc oxide (ZnO) MEMS piezoelectric energy harvester has been utilized as piezoelectrically active cantilever for mechanical to electrical transduction. A COMSOL Multiphysics model was used which provide accurate information on the frequency, stress and voltage output of a ZnO piezoelectric energy harvester. Few design parameters have been studied which are rectangular cantilever, triangular cantilever, rectangular cantilever with proof mass and using different types of piezoelectric materials. The effects of varying geometrical dimensions of the device were also investigated. From simulation results, it was found out that ZnO piezoelectric energy harvester with the length of 150 μm, width 50 μm and thickness of 4 μm generates 9.9184 V electric potential under the resonance frequency of 0.71 MHz and 1 μN/m2 mechanical force applied.
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