Liquid cooling performance for a 3-dimensional multichip module and miniature heat sink

M. Vogel
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引用次数: 4

Abstract

Measured thermal performance is presented for a single phase liquid-cooled module. Tape automated bonded (TAB) thermal test chips and their associated substrates are stacked in a compact, 3-dimensional liquid tight module. A dielectric liquid, polyalphaolefin (PAO) is forced to flow past the active and inactive sides of the TAB chips. At a volumetric flowrate of 0.05 gallons per minute (gpm) and an estimated pressure loss less than 0.5 psi. the measured junction-to-liquid thermal resistance is 2.0 C/W for a 0.50"/spl times/0.50"/spl times/0.015" thermal test chip. The thermal resistance was also measured for an indirect liquid cooling approach. PAO was used to cool a miniature sink mounted directly to a 0.50"/spl times/0.50" heat source. The heat source was used to simulate the thermal characteristics of a chip carrier package. Overall dimensions of the liquid heat sink measured 1.0"/spl times/1.0"/spl times/0.28". The measured junction-to-liquid thermal resistance is 0.52 C/W for a flowrate of 0.05 gpm. and for an estimated pressure loss less than 1.0 psi. Numerical computational techniques yielded results which were comparable to the measured thermal resistances for both the 3-dimensional module and the miniature heat sink. Enhanced thermal performance gained by introducing micro encapsulated phase change material to the PAO is estimated for both the 3-dimensional module and the miniature heat sink.<>
三维多芯片模块和微型散热器的液体冷却性能
介绍了一种单相液冷模块的热性能测量方法。胶带自动粘合(TAB)热测试芯片及其相关基板堆叠在紧凑的三维液密模块中。一种介电液体,聚α -烯烃(PAO)被强迫流过TAB芯片的活性和非活性两侧。体积流量为0.05加仑/分钟(gpm),估计压力损失小于0.5 psi。对于0.50"/spl倍/0.50"/spl倍/0.015"热测试芯片,测量到的结液热阻为2.0 C/W。还测量了间接液体冷却方法的热阻。PAO用于冷却直接安装在0.50“/spl倍/0.50”热源上的微型水槽。利用该热源模拟了芯片载体封装的热特性。液体散热器的整体尺寸测量为1.0"/spl倍/1.0"/spl倍/0.28"。测量的结液热阻为0.52 C/W,流速为0.05 gpm。并且估计压力损失小于1.0 psi。数值计算技术产生的结果与三维模块和微型散热器的测量热阻相当。通过在PAO中引入微封装相变材料,估计三维模块和微型散热器的热性能都得到了提高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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