基于SOIMUMPs的微机电系统氨气体检测静电谐振器的设计与仿真

Saeed S. Ba Hashwan, M. H. M. Md Khir, Y. Al-Douri, A. Yousif, H. Ramza, S. Arjo
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引用次数: 0

摘要

本文介绍了用于氨气检测的微机械MEMS谐振器的解析建模、设计和仿真。MEMS谐振器被设计为使用交叉梳状指进行静电振动。所演示的装置能够携带微环谐振器,并在平面内横向振动,以提高气体检测的灵敏度。该MEMS谐振器的工作原理是基于氨气引入的有效折射率变化导致输出信号波长的变化。理论计算了驱动器的谐振频率和拉入电压,分别为11.15 kHz和79.7 V。利用CoventorWare软件对微机械谐振器进行了设计和仿真。利用有限元分析软件对数学建模结果进行了验证,结果表明,模型频率与仿真频率吻合良好,误差在1.06%以内,其中模型频率与仿真频率分别为11.15 kHz和11.27 kHz。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Simulation of MEMS Electrostatic Resonator for Ammonia Gas Detection Based on SOIMUMPs
The analytical modeling, design, and simulation of micromachined MEMS resonator for ammonia gas detection is presented in this paper. The MEMS resonator is designed to be vibrated electrostatically using interdigitated comb fingers. The demonstrated device is designed to be capable to carry micro-ring resonator and vibrated in-plane laterally to enhance the sensitivity of the gas detection. This MEMS resonator working principle is based on the changes in the output signal wavelength due to the change in the effective refractive index introduced by the ammonia gas. The resonant frequency of the actuator and the pull-in voltage have been calculated theoretically and found to be 11.15 kHz and 79.7 V respectively. The design and simulation of the micromachined micro-resonator has been carried out using CoventorWare software. Furthermore, the mathematically modeled results were verified using the finite element analysis software and the result shows a good agreement within 1.06% error between the modeled and simulated frequencies where the modeled and the simulated frequencies are found to be 11.15 kHz and 11.27 kHz respectively.
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