Research of Parameters of Plastic Piezoelectric Harvester for Practical Model Implementation

M. Cepenas, Bingzhong Peng, C. Ravikumar, V. Markevičius, N. Dubauskienė, A. Valinevicius, D. Navikas, M. Zilys, A. Merfeldas, D. Andriukaitis, N. Hinov
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Abstract

Piezoelectric energy harvesters have been extensively researched for use with wireless sensors or low power consumption electronic devices. Most of piezoelectric energy harvesters cannot generate enough power for potential applications. In this study, we explore parameters, including gap and proof mass, that can affect the damping of cantilever to optimize the design of energy harvester. A finite analysis is conducted using COMSOL Multiphysics software. In this type of simulation, loss factor is commonly used, but it produces a model that does not fit experimental data well. In order to build a true model, Rayleigh damping coefficients are measured to use in simulation. This resulted in a closer fit of modeling and experimental data, and a 5 times better output voltage from the optimized energy harvester comparing with using the smallest gap and mass.
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面向实际模型实现的塑料压电采集器参数研究
压电能量收集器已被广泛研究用于无线传感器或低功耗电子设备。大多数压电能量收集器不能产生足够的能量来实现潜在的应用。在本研究中,我们探索了影响悬臂梁阻尼的参数,包括间隙和证明质量,以优化能量采集器的设计。利用COMSOL Multiphysics软件进行了有限元分析。在这种类型的模拟中,通常使用损耗因子,但它产生的模型不能很好地拟合实验数据。为了建立一个真实的模型,测量了瑞利阻尼系数用于仿真。这使得模型和实验数据更接近,并且与使用最小的间隙和质量相比,优化的能量收集器的输出电压提高了5倍。
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