具有混合电荷回收调节器的电压堆叠多核系统高效可靠的电力输送

An Zou, Jingwen Leng, Xin He, Yazhou Zu, V. Reddi, Xuan Zhang
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引用次数: 13

摘要

电压叠加(VS)通过串联叠加多个电压域,消除显式降压电压转换,降低功率传递路径上的能量损失,从根本上提高了功率传递效率(PDE)。然而,它受到严重的电源噪声的影响,阻碍了它在主流计算系统中的采用。在本文中,我们研究了一种在电压堆叠多核系统中实现高效可靠供电的实用方法,该方法可以确保最坏情况下供电噪声的可靠性,而无需过度昂贵的过度设计。我们首先开发一个分析模型来捕捉vs中的基本噪声行为,它使我们能够识别主要的噪声贡献者并得出最坏情况。有了深入的了解,我们提出了一种混合电压调节解决方案,以有效地降低噪音,并保证最坏情况。当使用实际基准进行评估时,我们的解决方案可以实现93.8%的功率传输效率,比传统基准提高13.9%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Efficient and Reliable Power Delivery in Voltage-Stacked Manycore System with Hybrid Charge-Recycling Regulators
Voltage stacking (VS) fundamentally improves power delivery efficiency (PDE) by series-stacking multiple voltage domains to eliminate explicit step-down voltage conversion and reduce energy loss along the power delivery path. However, it suffers from aggravated supply noise, preventing its adoption in mainstream computing systems. In this paper, we investigate a practical approach to enabling efficient and reliable power delivery in voltage-stacked manycore systems that can ensure worst-case supply noise reliability without excessive costly over-design. We start by developing an analytical model to capture the essential noise behaviors in VS. It allows us to identify dominant noise contributor and derive the worst-case conditions. With this in-depth understanding, we propose a hybrid voltage regulation solution to effectively mitigate noise with worst-case guarantees. When evaluated with real-world benchmarks, our solution can achieve 93.8% power delivery efficiency, an improvement of 13.9% over the conventional baseline.
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