压电能量采集器的非线性多尺度动力学建模

P. Montegiglio, C. Maruccio, G. Acciani, G. Rizzello, S. Seelecke
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引用次数: 2

摘要

滞回效应在压电材料器件的性能中起着至关重要的作用。大多数研究都集中在这些效应的建模上,以控制压电驱动器的动态响应。很少有研究讨论迟滞如何影响基于这种活性材料的能量采集器的发电和性能。本文采用最近建立的基于物理的PZT晶体模型来评估材料细观变量对SDOF系统的压电能量采集器宏观响应的影响。采用多尺度方法,其中,在中尺度,晶体域切换-迟滞行为的来源-被考虑通过概率热力学方法。通过仿真研究了滞回非线性对所考虑器件采集性能的影响。报告还比较了两种模型的预测结果——有和没有迟滞。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Nonlinear Multi-Scale Dynamics Modeling of a Piezoelectric Energy Harvester
Hysteretic effects play a crucial role in the behavior of devices based on piezoelectric materials. Most of the research focuses on modeling these effects for controlling the dynamic response of piezoelectric actuators. Few studies discuss how hysteresis influences power generation and performances of energy harvesters based on such active materials. In this paper, a recently developed physics-based model of a PZT crystal is employed to assess the effects of material mesoscopic variables on the macroscopic response of a piezoelectric energy harvester modeled as a SDOF system. A multi-scale approach is adopted where, at the mesoscale, crystal domain switching - the source of hysteretic behavior - is taken into account through a probabilistic thermodynamic approach. Effects of hysteretic nonlinearities on harvesting performances of the considered device are investigated by means of simulations. A comparison between predictions of two models - with and without hysteresis - is also reported.
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