热管和蒸汽室在高性能计算机中的热管理,以及全球变暖和环境的挑战

M. Mochizuki, Thang Nguyen, K. Mashiko, Y. Saito, X. P. Wu, T. Nguyen, V. Wuttijumnong
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引用次数: 6

摘要

计算机处理器的性能和功耗每年都有显著提高的趋势。散热增加了,但由于纳米电路技术,处理器上的芯片尺寸减小或保持不变,因此热流密度非常高。高性能处理器的热流可以超过100 W/cm2,这可能比家用标准衣服熨斗表面高10倍。本文的目的是提供深入了解各种热管理解决方案使用热管和蒸汽室作为传热装置。本文包括设计、数据和各种风扇水槽空气冷却设计的讨论,展示了设计如何变化以推动空气冷却能力的极限。利用两相流体现象进行散热是提高高性能计算机空冷极限能力的关键因素。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Thermal management in high performance computers by use of heat Pipes and vapor chambers, and the challenges of global warming and environment
The trend of the computer processors performance and power consumption has been increased significantly each year. Heat dissipation has been increased but in contrast the size of die on the processor has been reduced or remained the same size due to nano-size circuit technology and thus the heat flux is critically high. The extreme high performance processors heat flux can be over 100 W/cm2, which is likely 10 times higher than the surface of the household standard clothes iron. The intention of this paper is to provide insight into various thermal management solution using heat pipes and vapor chambers as heat transfer devices. This paper includes designs, data, and discussions of various fan sink air cooling designs showing how the design changes to push the limit of the air cooling capability. The utilization of the two-phase fluid phenomena to spread the heat was a key factor to be the leader of extending the air cooling limit capability for high performance computers.
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