微处理器闭环冷却技术

G. Upadhya, P. Zhou, K. Goodson, M. Munch, T. Kenny
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引用次数: 5

摘要

下一代微处理器的最新趋势清楚地表明,功耗和热密度显著增加,并在热管理方面面临相应的挑战。在桌面系统中,趋势是最小化系统插框尺寸,同时最大化性能,从而导致高功率密度。今天使用的热管理技术包括先进的散热器设计和带强制空气冷却的热管设计。然而,这些技术正在接近高热流密度的基本极限,并且越来越需要开发更高效和可扩展的冷却系统。为此,开发了一种新的闭环液体冷却系统,以处理大于500 W/sq cm的热通量。所述冷却系统包括用于去除高热流密度的微通道热交换器、用于输送具有所需流速和压力的流体的电动泵以及用于将热量散发到环境中的逆流散热器。用ICEPAK分析了该系统的热性能。为了验证该模型的有效性,并评估其在高端计算机系统冷却应用中的性能,进行了实验研究。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Closed-loop cooling technologies for microprocessors
Recent trends for next generation microprocessors clearly point to significant increase in power consumption, heat density, and to corresponding challenges in thermal management. In desktop systems, the trend is to minimize system enclosure size while maximizing performance, which in turn leads to high power densities. The thermal management technologies used today consist of advanced heat sink designs and heat pipe designs with forced air cooling. However, these techniques are approaching fundamental limits for high heat flux, and there is a growing need for development of more efficient and scalable cooling systems. To this end, a new closed loop liquid cooling system has been developed to handle heat fluxes greater than 500 W/sq cm. The cooling system comprises a micro channel heat exchanger for high heat flux removal, an electro-kinetic pump for delivering fluid with required flow rate and pressure, and a counterflow heat rejector to dissipate heat to the ambient. The thermal performance of such a system was analyzed with ICEPAK. Experimental work was carried out to validate the modeling results and evaluate performance for a high end computer system cooling application.
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