Prediction of stiction in microswitch systems

Ling Wu, V. Rochus, L. Noels, J. Golinval
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Abstract

Stiction is a major failure mode of MEMS as microscopic structures tend to adhere to each other when their surfaces enter into contact. Although increasing the restoring forces of switch devices could overcome the stiction effect, this is not practical, as in turn, it also increases the actuation voltage. Therefore stiction prediction is important to be considered when designing micro- and nano- devices. In this paper, the numerical prediction of stiction for capacitive MEMS switches is considered. Toward this end, a micro-adhesive-contact law is derived from previous work and combined with a finite-element model.
微动开关系统的粘滞预测
粘滞是MEMS的主要失效模式,微观结构在表面接触时容易相互粘滞。虽然增加开关装置的恢复力可以克服粘滞效应,但这是不切实际的,因为反过来,它也增加了驱动电压。因此,在设计微纳米器件时,必须考虑到弹性预测。本文对电容式MEMS开关的粘滞量进行了数值预测。为此,从先前的工作中导出了微粘接接触定律,并结合了有限元模型。
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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