嵌入式两相液体冷却,提高计算效率

P. Parida, Augusto J. Vega, A. Buyuktosunoglu, P. Bose, T. Chainer
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引用次数: 4

摘要

高端服务器级处理器继续推动单线程性能和吞吐量性能的提高。通过三维(3D)芯片堆叠技术增加复杂内核的数量可以提高计算性能和功耗效率。然而,热和相关的可靠性问题可能是这种策略的一个限制因素,除非有一个积极的、新的冷却解决方案。本文展示了一种新的芯片内两相液体冷却技术,其通道尺寸与硅通孔(TSV)兼容的3D芯片堆叠一致,以减轻任何热约束。为了评估这些好处,我们使用IBM POWER7+™系统特性研究的数据和相应的微处理器功耗图来生成功耗和计算性能模型。这些模型与系统级模型相结合,对系统性能进行定量分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Embedded two phase liquid cooling for increasing computational efficiency
High-end server-class processors continue to push towards increased performance in both single thread and throughput performance. Improved computational performance and power efficiency can be achieved by increasing the number of complex cores through three-dimensional (3D) chip stacking technology. However, the thermal and associated reliability issues can be a limiting factor in such a strategy unless it is augmented by an aggressive, new cooling solution. This research paper demonstrates a novel intrachip two-phase liquid cooling technology with channel dimensions which are consistent with through silicon vias (TSV) compatible 3D chip stacking to mitigate any thermal constraints. To evaluate the benefits, data from characterization studies of IBM POWER7+™ systems and corresponding microprocessor power maps were used to generate power and computational performance models. These models were combined with system-level models to perform a quantitative analysis on system performance.
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