用于高性能探测的柔性微弹簧互连

J.M. Haemer, S. Sitaraman, D. Fork, F. Chong, S. Mok, D.L. Smith, F. Swiatowiec
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引用次数: 24

摘要

集成电路制造的进步已经引起了对一种创新的、廉价的、可靠的、具有超细间距能力的探测技术的需求。佐治亚理工学院、施乐帕洛阿尔托研究中心和Nanonexus公司的研究团队正在开发柔性微型弹簧结构,这种结构可以远远超出下一代微电子设备的封装和探测需求。高度柔顺的悬臂弹簧已被制成,间距小至6 /spl mu/m。这些微型弹簧的设计是为了适应探测表面的拓扑变化,同时在弹性范围内弯曲。微型弹簧具有可靠的电接触和机械坚固性。为了理解微弹簧在机械载荷作用下的变形,建立了非线性有限元模型。通过该模型,确定了弹簧的探测力与位移的关系以及内应力的分布。设计准则已经建立,以最大限度地探测力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Flexible micro-spring interconnects for high performance probing
Advances in integrated circuit fabrication have given rise to a need for an innovative, inexpensive, yet reliable probing technology with ultra-fine pitch capability. Research teams at Georgia Tech, Xerox PARC, and Nanonexus, Inc. are developing flexible micro-spring structures that can far exceed the packaging and probing needs of the next-generation microelectronic devices. Highly compliant cantilevered springs have been fabricated at pitches as small as 6 /spl mu/m. These micro-springs are designed to accommodate topological variation in probing surfaces while flexing within the elastic regime. The micro-springs have demonstrated reliable electrical contact and mechanical ruggedness. Non-linear finite element models have been developed to understand the deformation of a micro-spring under mechanical loading. Through the models, the probing force versus displacement relation for a spring as well as the internal stress distribution have been determined. Design guidelines have been established to maximize probing force.
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