集成8nm自对准尖端,使4轨道标准单元架构作为缩放助推器

P. Marien, V. V. Gonzalez, S. Choudhury, D. Radisic, S. Decoster, S. Kundu, Y. Hermans, B. Kenens, H. De Coster, E. Sanchez, A. Peter, A. S. Marquez, N. Jourdan, D. Batuk, J. Ryckaert, G. Murdoch, S. Park, Z. Tokei
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引用次数: 0

摘要

随着标准电池(SC)的进一步规模化,需要新的创新技术来继续追求摩尔定律。中线(MOL)缩放助推器是标准电池缩放的关键模块之一。在这项工作中,我们提出了8 nm自对准尖端到尖端(T2T)的MOL金属层作为电池边界的新的形态学和首次电数据,以实现垂直-水平-垂直(VHV)电池结构。这将是进一步缩小标准单元高度从5到4轨道的关键功能。获得了8.3 nm的VintB空间,标准偏差为1.6 nm。对于M0B, T2T为5.9 nm,标准偏差为1.6 nm。在8纳米T2T中,14%的测量位置的M0B T2T漏电< 1e-10A /m, 10纳米T2T为30%,12纳米T2T为40%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Integrating 8nm Self-Aligned Tip-to-Tip to Enable 4-track Standard Cell Architecture as Scaling Booster
As further scaling of standard cells (SC) continues, new innovative techniques are required to the keep pursuing Moore’s law. Middle-of-line (MOL) scaling boosters are one of the most critical modules to scale standard cells. In this work, we present new morphological and first-time electrical data of 8 nm self-aligned tip-to-tip (T2T) of MOL metal layer as a cell boundary to enable Vertical-Horizontal-Vertical (VHV) cell architecture. This will be the key feature to further downscale standard cell height from 5 to 4 tracks. A VintB space of 8.3 nm with standard deviation of 1.6 nm was achieved. For the M0B, a T2T of 5.9 nm with a standard deviation of 1.6 nm was achieved. Electrically a M0B T2T leakage of <1e–10A/m was obtained on 14% of the measured sites for 8 nm T2T, 30% for 10 nm T2T and 40% for 12 nm T2T.
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