CELONCEL:针对高性能集成电路的三维单片集成的有效设计技术

Shashikanth Bobba, A. Chakraborty, O. Thomas, P. Batude, T. Ernst, O. Faynot, D. Pan, G. Micheli
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引用次数: 66

摘要

三维单片集成(3DMI),也称为顺序集成,是未来千兆级电路的潜在技术。由于器件层是按顺序处理的,因此垂直触点的尺寸与传统触点相似,而不像通过硅通孔(tsv)进行平行三维集成的情况。考虑到这种小接触的优势,3DMI可以制造彼此非常接近的多个活动层。在这项工作中,我们提出了两种不同的策略,在不破坏常规设计流程规则的情况下,在3-D中堆叠标准单元:a)扩散区域的垂直堆叠(细胞内堆叠),支持2-D物理设计工具的完全重用;b)细胞的垂直堆叠(细胞上堆叠)。提出了一种定位工具(CELONCEL-placer),针对Cell-on-Cell定位问题,实现了高质量的三维布局生成。我们的实验证明了CELONCEL技术的有效性,在45nm技术节点上通过互连主导的低密度奇偶校验(LDPC)解码器进行基准测试时,与2d情况相比,CELONCEL技术的面积增益为37.5%,波长减少15.51%,总延迟提高13.49%。
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CELONCEL: Effective design technique for 3-D monolithic integration targeting high performance integrated circuits
3-D monolithic integration (3DMI), also termed as sequential integration, is a potential technology for future gigascale circuits. Since the device layers are processed in sequential order, the size of the vertical contacts is similar to traditional contacts unlike in the case of parallel 3-D integration with through silicon vias (TSVs). Given the advantage of such small contacts, 3DMI enables manufacturing multiple active layers very close to each other. In this work we propose two different strategies of stacking standard cells in 3-D without breaking the regularity of the conventional design flow: a) Vertical stacking of diffusion areas (Intra-Cell stacking) that supports complete reuse of 2-D physical design tools and b) vertical stacking of cells over others (Cell-on-Cell stacking). A placement tool (CELONCEL-placer) targeting the Cell-on-Cell placement problem is proposed to allow high quality 3-D layout generation. Our experiments demonstrate the effectiveness of CELONCEL technique, fetching us an area gain of 37.5%, 15.51% reduction in wirelength, and 13.49% improvement in overall delay, compared with a 2-D case when benchmarked across an interconnect dominated low-density-parity-check (LDPC) decoder at 45nm technology node.
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