探索标准单元14nm、10nm和7nm FinFET ic的功率噪声模型

Ravi Patel, Kan Xu, E. Friedman, P. Raghavan
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引用次数: 0

摘要

标准电池的物理尺寸限制了电网的尺寸,影响了片上功率噪声。提出了一种用于先进技术节点功率噪声估计的探索性建模方法。这些模型分别针对14nm、10nm和7nm技术进行了评估,以评估对性能的影响。缩放技术被证明对功率噪声更敏感,导致通过缩放实现的性能增强的潜在损失。局部轨道轨道之间的条纹被评估为降低功率噪声的一种手段,在7纳米技术节点上显示出高达56.5%的功率噪声改善。观察到条纹的宽度有很强的依赖性,表明较少的宽条纹比许多细条纹更有利。石墨烯作为一种很有前途的电网互连材料,在降低功率噪声方面显示出良好的潜力。讨论了局部电源轨的不同标度方案对功率噪声的影响。
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Exploratory power noise models of standard cell 14, 10, and 7 nm FinFET ICs
The physical dimensions of standard cells constrain the dimensions of power networks, affecting the on-chip power noise. An exploratory modeling methodology is presented for estimating power noise in advanced technology nodes. The models are evaluated for 14, 10, and 7 nm technologies to assess the impact on performance. Scaled technologies are shown to be more sensitive to power noise, resulting in potential loss of performance enhancements achieved by scaling. Stripes between local track rails is evaluated as a means to reduce power noise, exhibiting up to 56.5% improvement in power noise for the 7 nm technology node. A strong dependence on the width of a stripe is observed, indicating that fewer wide stripes are more favorable then many thin stripes. As a promising alternative material for power network interconnects, graphene is shown to exhibit good potential in reducing power noise. The effects of different scaling scenarios of local power rails on power noise are also discussed.
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