一种增强高级功率模型的混合功率建模方法

A. Nocua, A. Virazel, A. Bosio, P. Girard, C. Chevalier
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引用次数: 2

摘要

电源管理技术应用于高抽象级别,以降低芯片功耗。在设计流程中,需要尽早建立准确高效的功率模型,以确保做出正确的节省决策。然而,由于对电路结构没有确切的了解,因此无法确保这些级别的准确性。然后,需要基于较低抽象级别的估计技术的功率模型。在这项工作中,我们提出了一种基于有效库表征方法和有效功率估计流程的混合功率建模方法,以准确评估门级功耗。主要思想是通过提供物理设计的真实信息来增强高级功率模型。我们在采用28nm FDSOI技术合成的ISCAS’85基准电路上进行了实验。为了证明我们的方法的有效性,我们将我们的结果与SPECTRE模拟进行了比较,并表明我们可以在运行时以类似晶体管的精度实现144X的加速。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A hybrid power modeling approach to enhance high-level power models
Power management techniques are applied at high abstraction levels to reduce chip power consumption. Accurate and efficient power models are needed as early as possible in the design flow to ensure that correct saving decisions are taken. However, accuracy at those levels cannot be ensured, as there is not exact knowledge of the circuit structure. Then, power models based on estimation techniques at lower abstraction levels are desired. In this work, we propose a hybrid power modeling approach based on an effective library characterization methodology and an efficient power estimation flow to accurately assess gate-level power consumption. The main idea is to enhance the high-level power models by providing realistic information of the physical design. We perform experiments on ISCAS'85 benchmark circuits synthesized with a 28nm FDSOI technology. To prove the validity of our approach, we compare our results with SPECTRE simulations and show that we can achieve a 144X speedup on the runtime with a transistor-like accuracy.
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