VOSCH:电压缩放缓存层次结构

W. Wong, Cheng-Kok Koh, Yiran Chen, Hai Helen Li
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引用次数: 15

摘要

最先进的——尤其是多核的——微处理器的缓存层次结构消耗了大量的面积和能量。大量的研究特别致力于减少后者。动态电压缩放(DVS)是能源管理中最重要的微体系结构技术之一。在分布式交换机解决方案中,每个缓存在多个不同的电压下运行。大多数关于分布式交换机技术的研究都围绕着如何调整和调谐电压。在本文中,我们通过检查缓存的静态电压分配来脱离分布式交换机的节能使用。我们建议使用电压缩放缓存层次结构(VOSCH)作为保存静态和动态能量的一种手段。在VOSCH中,随着缓存电平的增加,缓存以逐渐降低的电源电压供电。与分布式交换机解决方案相比,VOSCH简单,可能更强大,并且可以节省更多能源。我们还尝试了更激进的设计,包括在VOSCH中添加小型缓存结构。在不牺牲性能的情况下实现了更大的能源节约。
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VOSCH: Voltage scaled cache hierarchies
The cache hierarchy of state-of-the-art - especially multicore - microprocessors consumes a significant amount of area and energy. A significant amount of research has been devoted especially to reducing the latter. One of the most important microarchitectural techniques proposed for the energy management is dynamic voltage scaling (DVS). In DVS solutions, each cache operates at a number of different voltages. Most of the research in DVS techniques have been around how the voltages can be adjusted and tuned. In this paper, we depart from the use of DVS for energy conservation by examining static voltage assignments for caches. We propose the use of voltage scaled cache hierarchies (VOSCH) as a means to conserve both static and dynamic energy. In VOSCH, the caches are powered at progressively lower supply voltages as the cache level increases. Compared to DVS solutions, VOSCH is simple, potentially more robust and can conserve more energy. We also experimented with more aggressive designs that included the addition of small cache structures to VOSCH. Even greater energy savings were achieved without having to sacrifice performance.
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