研究高质量系数氮化铝 MEMS 悬臂谐振器

Shuai Shi, Qingrui Yang, Yi Yuan, Haolin Li, Pengfei Niu, Wenlan Guo, Chen Sun, Wei Pang
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摘要

本文介绍了具有新型叠层结构的悬臂式谐振器的设计、制造和特性分析。结构层和压电层均采用氮化铝作为材料,从而简化了制造工艺并提高了谐振器的品质因数。研究了平面内和平面外的挠曲模式。此外,还研究了结构尺寸和电极图案对谐振器性能的影响。有限元模拟和实验检验了锚定损耗和热弹性阻尼,这是影响这些谐振器品质因数的主要损耗机制。文中介绍了悬臂型谐振器的最佳结构尺寸和电极模式。平面内和平面外挠曲模式谐振器的品质因数分别达到了 7922 和 8851,前者的运动阻抗为 88.52 kΩ,后者的运动阻抗为 67.03 kΩ。所提出的谐振器设计将有助于加速计、陀螺仪和压力传感器等高性能器件的开发。
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Investigation of high-quality-factor aluminum nitride MEMS cantilever resonators
This paper presents the design, fabrication, and characterization of cantilever-type resonators with a novel stacked structure. Aluminum nitride is adopted as the material for both the structural layer and the piezoelectric layer; this simplifies the fabrication process and improves the quality factor of the resonator. Both in-plane and out-of-plane flexural modes were investigated. The effect of the structural dimensions and electrode patterns on the resonator’s performance were also studied. Finite-element simulations and experiments examining anchor loss and thermoelastic damping, which are the main loss mechanisms affecting the quality factor of these resonators, were carried out. The optimal structural dimensions and electrode patterns of the cantilever-type resonators are presented. A quality factor of 7922 with a motional impedance of 88.52 kΩ and a quality factor of 8851 with a motional impedance of 67.03 kΩ were achieved for the in-plane and out-of-plane flexural-mode resonators, respectively. The proposed resonator design will contribute to the development of high-performance devices such as accelerometers, gyroscopes, and pressure sensors.
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