晶圆级3D堆叠架构对先进器件性能的影响

J. C. Liu, K. C. Huang, Y. Chu, J. Hung, C. C. Change, Y. L. Wei, J. Lin, M. Kao, P. Chen, S. Y. Huang, H. C. Lin, W. D. Wang, P.S. Chou, C. F. Lu, Y. Tu, F. J. Shiu, C. Huang, C. H. Lin, T. Lu, D. Yaung
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引用次数: 0

摘要

成功展示了一种具有背面通孔(BTV)和晶圆级3D堆叠技术的高密度50K~100K/mm2交叉层连接。晶圆片堆积和减薄至<;1/250 Si厚度工艺对先进器件性能几乎没有影响。研究了BTV诱导的应力效应;经过SiGe处理和未经过SiGe处理的硅片的性能差异很大。当BTV离通道太近时,SiGe局部应变会被BTV诱导应变减小,从而降低空穴迁移率。这种影响可以通过适当的隔离区(KOZ)设计最小化。此外,3D堆叠架构提供了在独立晶圆上单独优化每个功能块的工艺和设计的机会,从而提高芯片性能和功耗,并有利于芯片占地面积。
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Advanced device performance impact by wafer level 3D stacked architecture
A high density 50K~100K/mm2 cross-tier connection featuring backside through-via (BTV) and wafer level 3D stacking technologies has been successfully demonstrated. Wafer stacking and thinning to <; 1/250 Si thickness process showed little to no impact to advanced device performance. BTV induced stress effect was also studied; quite different behaviors between wafers with SiGe and without SiGe process were found. SiGe local strain will be diminished by BTV induced strain when BTV getting too close to channel, and hence lower hole mobility. This impact could be minimized by proper Keep-Out Zone (KOZ) design. Furthermore, 3D stacked architecture provides the opportunity to individually optimize process and design for each function block on separated wafers, thus improve chip performance and power consumption, and also benefit chip footprint.
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