基于拓扑优化的ETM微夹持器的研制

R. Horstmann, Liz K. R. Ardi, G. Rehder, E. C. Silva, M. Carrenõ
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引用次数: 0

摘要

本文介绍了一种用于有机和无机材料颗粒等微量元素操纵的微夹持器的研制过程。该装置被设计为利用焦耳效应引起的热膨胀来操纵直径在130-140微米之间的微粒。采用结合空间滤波技术的连续体拓扑优化方法,对微夹持器的几何结构进行了优化。利用有限元方法对优化后的拓扑结构进行建模,以验证所设计几何结构的性能。该结构采用基于倒装芯片技术的简单、低成本工艺制造。为了增加微夹持器尖端的位移,采用电镀镍制备了微夹持器结构。最后,对电热微夹持器进行了测试,并用光学显微镜测量了结构的总位移。总位移20微米可以安全地实现,而不会造成结构的永久变形。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of ETM microgrippers using Topology Optimization
This article presents the development process of an microgripper for the manipulation of microelements such as particles of organic and inorganic materials. The device was deigned to manipulate microparticles between 130-140 micrometers in diameter using the thermal expansion due to the Joule effect. The microgripper geometry was optimized through a Topology Optimization Method, which applies a continuum topology optimization with spatial filtering technique. The optimized topology was modeled using Finite Element Method in order to verify the behavior of the designed geometry. The structure was fabricated using simple, low-cost process based on a flip-chip technology. The structure was fabricated using electroplated nickel, in order to increase the displacement of the tip of the microgripper. Finally, the electrothermomechanical microgripper was tested and the total displacement of the structure measured using optical microscopy. A total displacement of 20 microns can be safely achieved without permanent deformation of the structure.
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