基于振动的t型压电悬臂梁的能量收集装置设计采用有限元法

Md. Naim Uddin, M. Islam, J. Sampe, Shafii A. Wahab, S. M. Md Ali
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引用次数: 4

摘要

利用一种最有前途的机制——压电机制,可以将环境机械振动能转化为电能。在该机构中,压电材料中产生的机械应力和应变可以转化为电能,用于低功率电子器件。本文对t型压电悬臂梁进行了分析。利用SolidWorks设计悬臂梁的几何形状。在此基础上,利用COMSOL Multiphysics软件对悬臂梁进行有限元模拟。在有限元模拟中,梁保持在1g加速度的振动源下。结果表明,在谐振频率为238.75Hz时,梁自由端最大位移为2.47mm。由于压电从振动中获取能量取决于压电材料中产生的应力,因此对梁进行了应力分析。梁夹紧端附近的最大应力值为2.39×108 N/m2。研究表明,所设计和分析的t型梁可以在低频环境振动源下工作。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vibration based T-shaped piezoelectric cantilever beam design using finite element method for energy harvesting devices
Ambient mechanical vibration energy can be converted into electrical energy using one of the most promising mechanism known as piezoelectric mechanism. In the mechanism, mechanical stress and strain generation in the piezoelectric materials can be converted into electrical energy which can be used for low power electronic devices. In this work, a T-shaped piezoelectric cantilever beam was analysed. The geometry of the cantilever beam was designed using SolidWorks. After that, the cantilever beam was simulated using Finite Element Method (FEM) in COMSOL Multiphysics. In the FEM simulation, the beam was kept under a vibration sources of 1g acceleration. As a result, maximum displacement at free end of the beam was found 2.47mm at resonant frequency of 238.75Hz. As piezoelectric energy harvesting from vibration depends on stress generation in piezoelectric materials, stress was analysed for the beam. The maximum amount of stress near the clamped end of the beam was found 2.39×108 N/m2 at resonance. The investigation showed that the designed and analysed T-shaped beam can be operated in low-frequency ambient vibration sources.
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