用热虹吸冷却中央处理器

R. Khodabandeh, M. Lindstrom
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引用次数: 2

摘要

在这项研究中,被测试的蒸发器由小块铜制成,有11个直径为2.5 mm,长度为30 mm的垂直通道。上升管和下降管将蒸发器连接到冷凝器,冷凝器通过自由或强制对流的空气进行冷却。冷凝器采用尺寸为365x365 mm的10mm铝制散热器型材,翅片长度为20mm,间距为8mm。在散热器的顶部有一个2倍2毫米截面的冷凝器通道系统。本研究使用的CPU为Intel奔腾4,频率为3.2 GHz。处理器的最大热负荷为104 W,处理器允许的最高温度为65℃。在CPU、蒸发器壁、冷凝器壁和环境中测量处理器的空闲、50%和最大热负荷的温度。介绍了热虹吸系统中CPU与蒸发器壁、冷凝器壁与环境壁的温差。由于异丁烷具有较低的饱和压力,并且这种制冷剂对环境友好,因此已被用作工作液。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cooling of CPU with a thermosyphon
In this study the tested evaporator is made from small blocks of copper with 11 vertical channels with a diameter of 2.5 mm and length of 30 mm. The riser and downcomer connected the evaporator to the condenser, which is cooled by air in free or forced convection. The condenser is made from 10 mm aluminium heat sink profile of the size of 365times365 mm with a fin length of 20 mm at a distance of 8 mm. In the top part of the heat sink a condenser channel system with 2times2 mm cross section is milled. The CPU used in this study is an Intel Pentium 4 with 3.2 GHz. The maximum heat load to the processor is 104 W, and the highest temperature allowed on the processor is 65degC. Temperatures are measured for idle, 50% and maximum heat load of the processor at the CPU, evaporator wall, condenser wall and in the ambient. Temperature differences in the thermosyphon system, between the CPU and the evaporator wall, the condenser wall and ambient are presented. Isobutane has been used as the working fluid, due to the fact that it has low saturation pressure and that this refrigerant is friendly to the environment.
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