Study of pull-in voltage in MEMS actuators

Prashant D. Hanasi, B. G. Sheeparamatti, B. Kirankumar
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引用次数: 5

Abstract

Micro cantilevers are the basic MEMS structures, which can be used both as sensors and actuators. The actuation principle of micro cantilever is based on the measurement of change in cantilever position as result of applied stimulus. The objective of this work is to study concept of pull-in voltage and how to reduce the same. The proposed work is carried out by using Comsol/Multiphysics softwere which is based on the finite element method (FEM). The model is developed and simulated by selecting electro mechanics as the physics domain in the Comsol/Multiphysics softwere. Voltage is applied to upper cantilever beam and lower contact electrode is made as ground. By increasing common area between cantilever beam and contact electrode, and also by reducing thickness of the cantilever beam, it is tried to reduce the pull-in voltage. The common area between cantilever beam and contact electrode dimension is increased and the pull-in voltage is reduced from 19.7V to 12.1 V. Similarly the thickness of the cantilever beam is decreased from 1μm to 0.25μm in the steps of 0.25 μm then pull-in voltage is reduced from 57V to 7.2V.
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MEMS执行器的拉入电压研究
微悬臂梁是MEMS的基本结构,既可以用作传感器,也可以用作致动器。微悬臂梁的驱动原理是基于对施加刺激后悬臂梁位置变化的测量。本工作的目的是研究拉入电压的概念以及如何降低拉入电压。本文采用基于有限元法的Comsol/Multiphysics软件进行计算。在Comsol/Multiphysics软件中选择电力学作为物理域,对模型进行了开发和仿真。上悬臂梁加电压,下接触电极接地。通过增加悬臂梁与接触电极之间的共面积,以及减小悬臂梁的厚度,试图降低拉入电压。悬臂梁与接触电极之间的公共面积增大,拉入电压从19.7V降至12.1 V。同样,悬臂梁的厚度在0.25μm的台阶上从1μm减小到0.25μm,拉入电压从57V减小到7.2V。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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