工艺开发,使模具分类和3D集成电路堆叠

A. L. Manna, R. Daily, G. Capuz, J. de Vos, K. Rebibis, L. Bogaerts, A. Miller, E. Beyne
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引用次数: 1

摘要

3D堆叠是一项相对较新的技术,为实现大批量生产提出了许多需要解决的挑战。典型的三维工艺:TSV、晶圆减薄、叠层对良率和可靠性有很大影响。对于3D堆叠,模具厚度通常为50um,但对于中间层应用(通常为100um厚)有一些例外。这项工作描述了一些需要解决的关键挑战,以实现厚模和薄模的堆叠。在本文中,我们报告了实现3D堆叠所需的工艺步骤和设备优化。我们专注于两个主要过程:模具分类(或模具挑选和放置)和模具堆叠。对于模具分类,我们报告了选择正确的“弹出”和“拾取”工具所考虑的参数,并提出了工艺优化的考虑因素。对于模具堆积,我们报告了堆积过程中的温度控制以及外来颗粒可能对堆积对齐的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Process development to enable die sorting and 3D IC stacking
3D stacking is a relative new technology and presents numerous challenges that need to be addressed for enabling high volume manufacturing. Yield and reliability are strongly affected by typical 3D processes: TSV, wafer thinning, stacking. For 3D stacking the die thickness is typically 50um with some exceptions for Interposer applications (typically 100um thick). This work describes some of the key challenges that need to be addressed to enable stacking of thick and thin dies. In this paper we report on process steps and equipment optimization that are required to enable 3D stacks. We focus on two main processes: die sorting (or die pick and place) and die stacking. For die sorting we report on the parameters considered to select the right ‘eject’ and ‘pick up’ tools and present considerations for process optimizations. For die stacking we report about temperature control during stacking and about the effects that foreign particles may have on stacking alignment.
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