Piezoelectric metamaterial with self-tuning resonant shunt circuits

Yu Jian, Yincheng Shen, Lihua Tang, Guobiao Hu, K. Aw
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Abstract

The bandgap generated in piezoelectric metamaterials with resonant shunt circuits unveils a great potential for vibration control. This paper presents a piezoelectric metamaterial with the capability of broadband vibration attenuation by adaptive bandgap tuning. Unlike the widely used synthetic impedance circuit, a self-tuning resonant shunt circuit by integrating a microcontroller-driven digital potentiometer into the synthetic inductor circuit is developed to achieve the bandgap adjustment of the piezoelectric metamaterial. Specifically, the excitation frequency is detected by the microcontroller, and the synthetic inductance in the resonant shunt circuit is adjusted in real-time based on a given criterion. An experimental study is conducted to demonstrate the dynamic behavior and vibration suppression performance of the developed piezoelectric metamaterial. The results confirm that the self-tuning resonant shunt circuit can rapidly respond to frequency-varying vibration sources and endow the piezoelectric metamaterial with an extremely wide vibration attenuation region.
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具有自调谐谐振分流电路的压电超材料
利用谐振分流电路在压电超材料中产生的带隙显示出巨大的振动控制潜力。本文提出了一种具有自适应带隙调谐宽带振动衰减能力的压电超材料。与目前广泛使用的合成阻抗电路不同,本文通过在合成电感电路中集成微控制器驱动的数字电位器,设计了一种自调谐谐振分流电路,实现了压电超材料的带隙调节。具体来说,单片机检测励磁频率,并根据给定的判据实时调整谐振分流电路中的合成电感。实验研究了所研制的压电超材料的动力特性和抑振性能。结果表明,自调谐谐振分流电路能够快速响应频率变化的振动源,并赋予压电超材料极宽的振动衰减区域。
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