Novel Polymer MEMS Capacitive Hydrogen sensor with Palladium Ring on Membrane-Mass Architecture

Joel Zacharias, K. H. Nikhita, V. Seena
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引用次数: 1

Abstract

In this paper, we report a novel high sensitivity polymer MEMS based capacitive hydrogen gas sensor on a membrane-mass architecture. The novel design of the sensor along with the use of SU-8 as structural layer materials allows the sensor to effectively transduce the hydrogen gas absorption to large capacitance change. The sensor is simulated using a finite element analysis software (FEA) and the mechanical and electromechanical behavior of the sensor is studied. The sensor exhibits over 61% capacitance change for 0.5% volume of hydrogen gas which is 3.8 times higher than previously reported sensors. The novel sensor design also offers a large design window to enhance the sensitivity and the gas detection range.
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膜-质量结构钯环聚合物MEMS电容式氢传感器
在本文中,我们报道了一种新型的基于膜-质量结构的高灵敏度聚合物MEMS电容式氢气传感器。新颖的传感器设计以及使用SU-8作为结构层材料,使传感器能够有效地将氢气吸收转化为大电容变化。利用有限元分析软件(FEA)对传感器进行了仿真,研究了传感器的力学和机电性能。该传感器在0.5%的氢气体积下表现出超过61%的电容变化,比以前报道的传感器高3.8倍。新颖的传感器设计还提供了一个大的设计窗口,以提高灵敏度和气体检测范围。
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