环境应用悬臂式MEMS传感器性能分析

A. Nallathambi, T. Shanmuganantham
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引用次数: 10

摘要

本文提出了一种基于MEMS(微机电系统)悬臂式湿度传感器,可用于环境监测、电子、农业和生物医学等领域。本文的主要重点是设计、仿真和分析基于MEMS的T型微悬臂梁的性能,这些微悬臂梁采用不同的传感材料,如A12O3、多孔硅和多晶硅。通过有限元工具和最大诱导应力等参数进行仿真;利用INTELLISUITE 8.7版软件对膜片的挠度和灵敏度进行了分析。湿度元素的变化是微悬臂梁的弯曲,它改变了基板与微悬臂梁之间的测量位移。这种位移的变化给出了该环境中存在的水蒸气量的测量。这些研究的结果可用于提高这些装置的灵敏度。结果表明,在10%RH ~ 100% RH范围内灵敏度输出响应最佳,最大灵敏度为21.85 (m/%RH)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance analysis of cantilever based MEMS sensor for environmental applications
In this paper we presents a MEMS (Micro-electromechanical System) cantilever based humidity sensor for various applications such as environmental monitoring, electronics, agriculture and biomedical fields. The main focus of this paper is to design, simulate and analyze the performance of MEMS based T shaped micro cantilevers using different sensing materials such as A12O3, Porous Silicon and Poly Silicon. The simulation is done through finite element tool and parameters like the maximum induced stress; deflection and sensitivity of the diaphragms have been analyzed using the software INTELLISUITE version 8.7. The change in humidity element is bending of the micro cantilever that modifies the measured displacement between the substrate and the micro cantilever. This change in displacement gives the measure of amount of water vapor present in that environment. The outcome of these studies can be used to enhance the sensitivity of these devices. Here we observe that the best sensitivity output responses are obtained in the range of 10%RH to 100% RH and also the maximum sensitivity of 21.85 (m/%RH).
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