时钟门控和操作数隔离的模型检查视图

J. Brandt, K. Schneider, Sumit Ahuja, S. Shukla
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引用次数: 10

摘要

时钟门控和操作数隔离是在最先进的硬件设计中降低功耗的两种技术。这两种方法基本上都遵循两个步骤:首先,它们静态分析硬件电路以确定不相关的计算。其次,通过动态门控时钟或隔离操作数,所有负责这些计算的部分都被其他在平均情况下消耗更少功率的部分所取代。本文主要研究第一阶段,即不相关计算的计算。我们贡献的核心是定义了每个信号x的所谓无源条件,即x当前携带的值对系统的最终结果没有贡献。在展示了我们的理论如何在时钟门控和操作数隔离的背景下普遍使用之后,我们对许多最先进的方法进行了分类,并表明它们实际上是我们一般设置的保守近似。从而为全面采用这些方法确定了理论基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Model Checking View to Clock Gating and Operand Isolation
Clock gating and operand isolation are two techniques to reduce the power consumption in state-of-the-art hardware designs. Both approaches basically follow a two-step procedure: first, they statically analyze a hardware circuit to determine irrelevant computations. Second, all parts which are responsible for these computations are replaced by others that consume less power in the average case, either by dynamically gating clocks or by isolating operands. This paper focuses on the first phase, i.e. the computation of irrelevant computation. The core of our contribution is the definition of so-called passiveness conditions for each signal x, which indicate that the value currently carried by x does not contribute to the final result of the system. After showing how our theory can be generally used in the context of clock gating and operand isolation, we classify many state-of-the-art approaches and show that they are in fact conservative approximations of our general setting. Thereby, it defines the theoretical basis for adoption of these approaches in their entirety.
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