Performance of a dual piezoceramic cantilever for low frequency energy harvesting applications: modeling and experiment verification

M. Yessari, Najoua Fangachi, I. Salhi, M. Rguiti, A. Hajjaji
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Abstract

Vibration-based energy harvesting is a growing field for generating low-power electricity to use in wireless electronic devices. These applications are usually in an environment of abundant low frequency vibration, which can be collected through an appropriate energy conversion structure. However, traditional energy conversion architectures such as cantilever-cantilever type or spring-mass type have the problem of high working frequency and narrow bandwidth (limiting its use and far from the frequency found in the surrounding environment). To overcome these challenges, this work proposes a study of a piezoelectric vibration energy harvester based on a dual cantilever structure. The energy harvesting system is designed, analyzed and verified with the finite element analysis method and an experimental study. The results show that the bandwidth is enlarged of 30 Hz and a power is generated and equals to the sum of the power generated by each cantilever (190 nW) with an output voltage supplying a resistive load of 110 KΏ.
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用于低频能量收集的双压电悬臂梁的性能:建模和实验验证
基于振动的能量收集是一个不断发展的领域,用于产生用于无线电子设备的低功耗电力。这些应用通常是在低频振动丰富的环境中,可以通过适当的能量转换结构来收集低频振动。然而,传统的能量转换架构,如悬臂-悬臂式或弹簧-质量式,存在工作频率高、带宽窄的问题(限制了它的使用,远离周围环境的频率)。为了克服这些挑战,本工作提出了一种基于双悬臂结构的压电振动能量采集器的研究。利用有限元分析方法和实验研究对能量收集系统进行了设计、分析和验证。结果表明,带宽增加了30 Hz,产生的功率等于每个悬臂梁产生的功率之和(190 nW),输出电压为110 KΏ提供电阻性负载。
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