具有轴向应变放大效应的增强型高灵敏度微谐振温度计

First Q. Shen, Se-Jung Yang, Third J. B. Xie, Fourth S. Ren, Fifth W. Z. Yuan
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引用次数: 1

摘要

提出了一种具有轴向染色放大结构的增强型高灵敏度微谐振温度传感器。随着外部温度的变化,由于微谐振器和封装材料的热膨胀系数不同,会产生放大的微谐振器振动梁轴向应变。这将导致器件随温度变化产生较大的谐振频移。在温度灵敏度达到309Hz/K的情况下,阐述了频率变化的原理和分析。实验测试表明,温度变化20K时,实际频率变化约为252Hz/K。仿真结果与测量结果吻合较好,可以在制造成本较高的温度传感器之前优化设计高灵敏度温度传感器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Enhanced High-Sensitivity Micro Resonant Thermometer with Axial Strain Amplification Effect
This paper presents an enhanced high-sensitivity micro resonant temperature sensor with axial stain amplification structure. With the external temperature variation, an amplificated axial strain of micro-resonator vibration beam will be produced because of the materials with different thermal expansion coefficients of the micro resonator and package. This will result in a larger resonant frequency shift of the device with temperature change. The theory and analysis of frequency variation is illustrated with temperature sensitivity achieving 309Hz/K. Experimental test shows that actual frequency variation with temperature change of 20K is about 252Hz/K. Simulation match with measurement moderately and can be utilized to optimally design high-sensitivity temperature sensor before the costly fabrication.
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