Structure design optimization of micro/nano angular-table with S-shape compliant structure

M. Helal, W. Rong, Lining Sun
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引用次数: 0

Abstract

Micro-electromechanical Systems is a rapidly growing field that will permeate our everyday lives in the coming decades. Recently, the evolution in microelectronics of combining mechanical and electrical functions has brought about an exciting new field micro/nano-electro-mechanical system. Compliant mechanisms can play an important role in the design of micro-devices for micro-electro-mechanical systems applications. Compliant mechanism is flexible structures that generate desired motion by undergoing elastic deformations. The concept of structural optimization has been more and more widely accepted in many engineering fields. The structural optimization can result in a much more reasonable and economical structure design. In this investigation, structure optimization is applied for designing two-dimensional micro/nano angular-table compliant mechanism. The interface between Malab and Ansys were shown to obtain the optimal shape of the compliant mechanism. Structure design optimization of the two-dimension micro/nano angular-table with S-shape compliant structure was shown and all results are illustrated.
s型柔顺结构微纳角工作台结构设计优化
微机电系统是一个快速发展的领域,将在未来几十年渗透到我们的日常生活中。近年来,随着微电子学的发展,机械和电气功能的结合带来了一个令人兴奋的新领域微/纳米机电系统。柔性机构在微机电系统的微器件设计中起着重要的作用。柔性机构是一种通过弹性变形产生所需运动的柔性结构。结构优化的概念已越来越广泛地应用于许多工程领域。结构优化可以使结构设计更加合理和经济。本研究将结构优化技术应用于二维微纳角工作台柔性机构的设计。利用Malab和Ansys进行界面分析,得到了柔性机构的最优形状。给出了具有s形柔顺结构的二维微纳角工作台的结构优化设计,并对结果进行了说明。
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