基于压电致动器电极结构的智能悬臂梁横向振动模态控制

Chi-Ying Lin, Wei-Ting Chen, Yu-Hsi Huang
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引用次数: 1

摘要

单个压电谐振器在弯曲振型下的激励效率优于其他振型,但压电致动器固有的工作原理限制了其在弯曲振型抑制中的实际应用。为了实现单压电致动器有效的非弯曲模态振动衰减,提出了一种基于电极结构理论的主动振动控制方法。通过有限元模态分析,确定了合适的电极结构和相应的谐振模态,实现了振动抑制控制。本研究采用结构的第一侧向模态进行试验研究。采用正位置反馈控制和比例导数控制两种振动控制算法,分析了包含电极结构的振动控制性能。实验表明,采用合理的电极结构嵌入的主动振动控制能有效抑制侧向模态激励下的振动。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Lateral vibration modal control of a smart cantilever beam by electrode configuration of piezoelectric actuator
A single piezoelectric resonator shows better excitation efficiency at bending modes than other vibration modes and the inherent operating principle of piezoelectric actuators has limited its practical use to suppressing bending mode vibrations. To achieve effective non-bending modal vibration attenuation using only one piezoelectric actuator, this paper presents an active vibration control method according to the theory of electrode configuration. Finite element based modal analysis was performed to determine proper electrode configuration and its corresponding resonant mode for vibration suppression control. In this study the first lateral mode of the structure was adopted for experimental investigation. Two vibration control algorithms, positive-position-feedback control and proportional-derivational control, were applied to analyze the vibration control performance with inclusion of electrode configuration. Experiments demonstrate that the proposed active vibration control embedded with prudent electrode configuration can effectively suppress vibrations subject to lateral modal excitation.
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