MEMS slide block locking mechanism based on elastic supporting structure

Fan Chenyang, Li Xiaojie, W. Falin
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引用次数: 1

Abstract

Aiming at the condition that when the Fuze MEMS (micro electro mechanical system) S&A system bears setback/centrifugal overload in an experiment, the clamping head of a setback/centrifugal slide block deforms considerably when entering the clamping seat of a base plate, so that the slide block cannot be locked successfully by the clamping seat of the base plate, this paper presents an MEMS slide block locking mechanism with an elastic supporting structure. The structure of the mechanism, which is contrary to the original structure, is that rigid barbs are arranged on the clamping head, and an elastic supporting arm is arranged on the base plate. The finite element simulation with ANSYS shows that when the clamping head and the clamping arm of the locking mechanism with the elastic supporting structure bear overload, the stress of the dangerous cross-section of the locking mechanism is reduced by 52%, compared with that of the original mechanism, so that plastic deformation is avoided, and the slide block can enter the clamping seat smoothly and locked. Therefore, it can provide selection and reference for the design of locking mechanisms of MEMS S&A system in future.
基于弹性支撑结构的MEMS滑块锁定机构
针对引信微机电系统(MEMS) S&A系统在实验中承受退退/离心过载时,退退/离心滑块夹头进入底板夹座时发生较大变形,导致滑块无法被底板夹座成功锁定的情况,设计了一种弹性支撑结构的MEMS滑块锁定机构。该机构的结构与原结构相反,在夹紧头上设有刚性倒钩,在底板上设有弹性支撑臂。利用ANSYS进行有限元仿真表明,采用弹性支承结构的锁紧机构的夹头和夹紧臂承受过载时,锁紧机构的危险截面应力比原机构减小52%,从而避免了塑性变形,滑块能够顺利进入夹紧座并锁紧。因此,可以为今后MEMS S&A系统锁紧机构的设计提供选择和参考。
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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