ZnO压电薄膜结构中表面声波谐振器机电耦合系数分析

Aliza Aini Binti Md. Ralib Raghib, A. Nordin
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引用次数: 6

摘要

本文分析了互补金属氧化物半导体(CMOS)表面声波(SAW)器件的机电耦合系数。这种SAW谐振器使用氧化锌(ZnO)作为其压电薄膜。谐振器的交叉电极设计使其产生1 GHz的谐振频率。利用COMSOL multiphysics™对CMOS SAW谐振器进行了有限元仿真。进行了特征频域分析、频域分析和时域分析。ZnO的厚度变化范围为2 ~ 5.5 μm,步长为0.5 μm。仿真结果表明,当归一化厚度为0.63 <时,机电耦合系数最大;(hzno /λ)<;0.78. 对所制备的CMOS SAW谐振器进行了实验测量,并与仿真结果进行了比较。
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Analysis of electromechanical coupling coefficient of surface acoustic wave resonator in ZnO piezoelectric thin film structure
An analysis of the electromechanical coupling coefficient for surface acoustic wave (SAW) devices developed in complementary metal oxide semiconductor (CMOS) is presented in this work. This SAW resonator uses zinc oxide (ZnO) as its piezoelectric thin film. The resonator's interdigitated electrodes were designed such that it produces 1 GHz resonance frequency. Finite element simulation of the CMOS SAW resonator was conducted using COMSOL Mutliphysics™. Three different analyses namely eigenfrequency, frequency domain and time domain analyses were conducted. The thicknesses of ZnO were varied from 2 μm to 5.5 μm with step size of 0.5 μm. Simulation results indicate maximum electromechanical coupling coefficient is achieved when normalized thickness is in the range of 0.63 <; (hzno/λ) <; 0.78. Experimental measurements were conducted on the fabricated CMOS SAW resonator and compared with the simulation results.
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