Modeling of Multiple Cantilevers System for Broadband Vibration Energy Harvester

L. Thong, Swee Leong Kok, R. Ramlan
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引用次数: 1

Abstract

Piezoelectric energy harvester has the capability in powering small scale semiconductor devices particularly in the low power sensors applications in Internet of Things (IoT) environment. It is known that the bandwidth and power of these energy harvesters can be improved by increasing the number of cantilevers in the system. This research presents the electromechanical model of multimode piezoelectric energy harvesters with different polarity connections between the cantilever beams to improve the broadband performance of frequency response in the system. The theoretical model and experimental results of the proposed multi-mode system exhibited a significant escalation of output voltage at the gap between two resonance frequencies when the polarity configuration in the cantilever connection is reversed accordingly. The outcomes designate that by interchanging the polarity of the electrical connection between the cantilever beams, the output voltage between the resonance frequency of the multi-mode system can be increase significantly in comparison with the conventional series interconnection.
宽带振动能量采集器多悬臂梁系统建模
压电能量采集器具有为小型半导体器件供电的能力,特别是在物联网(IoT)环境中的低功耗传感器应用中。众所周知,这些能量收集器的带宽和功率可以通过增加系统中悬臂的数量来提高。为了提高系统的宽带频响性能,提出了悬臂梁之间采用不同极性连接的多模态压电能量采集器的机电模型。该多模系统的理论模型和实验结果表明,当悬臂连接中的极性配置相反时,在两个谐振频率之间的间隙处输出电压显着上升。结果表明,通过交换悬臂梁之间电连接的极性,与传统的串联互连相比,多模系统谐振频率之间的输出电压可以显着增加。
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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