The buckling simulation of planar W-form micro-spring in MEMS safety and arming device

Wang Fufu; Lou Wenzhong; Liu Fangyi; Wang Dakui; Lu Jun; Wu Jian; Guo Xuhong; Zhang Zhe

doi:10.4028/www.scientific.net/KEM.645-646.796

The buckling simulation of planar W-form micro-spring in MEMS safety and arming device

Wang Fufu, Lou Wenzhong, Liu Fangyi^*, Wang Dakui, Lu Jun, Wu Jian, Guo Xuhong, Zhang Zhe

^*Corresponding author for this work

School of Mechatronical Engineering

Research output: Contribution to journal › Article › peer-review

3 Citations (Scopus)

Abstract

This paper describes the stability research of MEMS spring used in fuze. The micro-spring in thickness dimension is thin, while the size of axial direction is larger, during compression the micro-spring is prone to suffering buckling and become unstable. In order to consider the extreme environments in launch, this paper aims to carry out buckling simulation in high or low temperature, by using FEM analysis. The effect of temperature load on the micro-spring buckling can be obtained. These researches can provide theory reference for the design applications and reliability analysis of micro-spring, and also lay the foundation for the response characteristics of the micro-scale elastic components under compressive force.

Original language	English
Pages (from-to)	796-799
Number of pages	4
Journal	Key Engineering Materials
Volume	645
DOIs	https://doi.org/10.4028/www.scientific.net/KEM.645-646.796
Publication status	Published - 1 May 2015

Keywords

Buckling simulation
MEMS
Safety and arming device
W-form micro-spring

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10.4028/www.scientific.net/KEM.645-646.796

Cite this

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title = "The buckling simulation of planar W-form micro-spring in MEMS safety and arming device",

abstract = "This paper describes the stability research of MEMS spring used in fuze. The micro-spring in thickness dimension is thin, while the size of axial direction is larger, during compression the micro-spring is prone to suffering buckling and become unstable. In order to consider the extreme environments in launch, this paper aims to carry out buckling simulation in high or low temperature, by using FEM analysis. The effect of temperature load on the micro-spring buckling can be obtained. These researches can provide theory reference for the design applications and reliability analysis of micro-spring, and also lay the foundation for the response characteristics of the micro-scale elastic components under compressive force.",

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author = "Wang Fufu and Lou Wenzhong and Liu Fangyi and Wang Dakui and Lu Jun and Wu Jian and Guo Xuhong and Zhang Zhe",

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AU - Fufu, Wang

AU - Wenzhong, Lou

AU - Fangyi, Liu

AU - Dakui, Wang

AU - Jun, Lu

AU - Jian, Wu

AU - Xuhong, Guo

AU - Zhe, Zhang

PY - 2015/5/1

Y1 - 2015/5/1

N2 - This paper describes the stability research of MEMS spring used in fuze. The micro-spring in thickness dimension is thin, while the size of axial direction is larger, during compression the micro-spring is prone to suffering buckling and become unstable. In order to consider the extreme environments in launch, this paper aims to carry out buckling simulation in high or low temperature, by using FEM analysis. The effect of temperature load on the micro-spring buckling can be obtained. These researches can provide theory reference for the design applications and reliability analysis of micro-spring, and also lay the foundation for the response characteristics of the micro-scale elastic components under compressive force.

AB - This paper describes the stability research of MEMS spring used in fuze. The micro-spring in thickness dimension is thin, while the size of axial direction is larger, during compression the micro-spring is prone to suffering buckling and become unstable. In order to consider the extreme environments in launch, this paper aims to carry out buckling simulation in high or low temperature, by using FEM analysis. The effect of temperature load on the micro-spring buckling can be obtained. These researches can provide theory reference for the design applications and reliability analysis of micro-spring, and also lay the foundation for the response characteristics of the micro-scale elastic components under compressive force.

KW - Buckling simulation

KW - MEMS

KW - Safety and arming device

KW - W-form micro-spring

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SP - 796

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JO - Key Engineering Materials

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The buckling simulation of planar W-form micro-spring in MEMS safety and arming device

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Keywords

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