高灵敏度 Ga2O3 压力传感器的数值模拟

Phuc Hong Than, Tuan Ngoc Dao, Yasushi Takaki
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摘要

本文介绍了β-氧化镓(β-Ga2O3)微机电系统(MEMS)应变/压力传感器,作为提高灵敏度的一种方法。该模型由四个压阻应变片组成,以惠斯通桥配置连接。对 MEMS 模型进行了 0 Pa 至 50 kPa 的模拟,结果输出信号范围为 -3 mV 至 16 mV,响应度为 0.38 mV/kPa。我们的模拟还表明,随着温度的升高,MEMS 中压阻材料的电阻会减小,从而导致输出信号发生变化。这种可靠的装置有效地利用了全惠斯通电桥配置来补偿与温度有关的影响。这些早期结果表明,基于 Ga2O3 的 MEMS 器件在未来的高温压力传感器应用中具有巨大潜力。本文受版权保护。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Numerical Simulation of Highly Sensitive Ga2O3 Pressure Sensor

Numerical Simulation of Highly Sensitive Ga2O3 Pressure Sensor
This paper presents beta‐gallium oxide (β‐Ga2O3) Micro Electro Mechanical Systems (MEMS) strain/pressure sensors as a way to enhance sensitivity. The model consists of four piezoresistive strain gauges connected in a Wheatstone Bridge configuration. The MEMS model was simulated from 0 Pa to 50 kPa, resulting in an output signal range of ‐3 mV to 16 mV and a responsivity of 0.38 mV/kPa. Our simulation also showed that as temperature increased, the resistance of the piezoresistive material in the MEMS decreased, leading to changes in the output signals. The reliable device effectively utilizes the full Wheatstone Bridge configuration to compensate for temperature‐related influences. These early results suggest that Ga2O3‐based MEMS devices have great potential for use in high‐temperature pressure sensor applications in the future.This article is protected by copyright. All rights reserved.
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