Feasibility study of a pressure sensor based on double-ended tuning fork quartz resonator

Rongjun Cheng, Yulong Zhao, Cun Li
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引用次数: 3

Abstract

This paper aims to examine the feasibility of a novel resonant pressure sensor, which is realized by introducing a double-ended tuning fork (DETF) quartz resonator into a silicon substrate. Theoretical model and finite element simulation results are given to provide support for the scheme. Sensor prototypes are fabricated based on micromachining technologies. Experimental setup for testing is established to detect the resonant frequency, in which an excitation circuit is designed to drive the quartz resonator into vibration. Preliminary experiment results demonstrate that the non-linearity of the sensor is 0.036%FS while the sensitivity is approximately 452Hz/kPa. The results indicate that this resonant pressure sensor features excellent performances. Therefore, the feasibility of this scheme is basically verified, which provides a solution for low pressure measurement.
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基于双端音叉石英谐振器的压力传感器可行性研究
本文旨在研究一种新型谐振压力传感器的可行性,该传感器通过在硅衬底中引入双端音叉(DETF)石英谐振器来实现。给出了理论模型和有限元仿真结果,为该方案提供了支持。基于微加工技术制作传感器原型。建立了检测谐振频率的实验装置,设计了激励电路,使石英谐振器产生振动。初步实验结果表明,该传感器的非线性为0.036%FS,灵敏度约为452Hz/kPa。结果表明,该谐振式压力传感器具有优良的性能。因此,基本验证了该方案的可行性,为低压测量提供了一种解决方案。
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