Design and Optimization for Nanoscale Power Distribution Networks in Gigascale Systems

R. Sarvari, A. Naeemi, P. Zarkesh-Ha, J. Meindl
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引用次数: 9

Abstract

For the first time, an optimization methodology has been presented for power distribution interconnects at the local level. For a given IR drop budget, compact models are presented for the optimal widths of power and ground lines in the first two metal levels for which the total metal area used for power distribution is minimized. Wire widths and thicknesses at the end of the ITRS are projected to scale down to 14 nm, and size effects are expected to increase copper resistivity by more than 4 times. Either a 3 times increase in wiring area for local power lines or a 2 times decrease in the power via pitch is necessary to compensate for size effects.
千兆级系统中纳米级配电网络的设计与优化
本文首次提出了一种局部配电互连的优化方法。对于给定的红外跌落预算,给出了用于配电的总金属面积最小的前两个金属层中电源线和地线的最佳宽度的紧凑模型。预计ITRS末端的导线宽度和厚度将缩小至14 nm,尺寸效应预计将使铜电阻率提高4倍以上。为了补偿尺寸效应,需要将本地电源线的布线面积增加3倍,或将功率通过节距减小2倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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