The thermal performance of a chip scale package array with simple block and plate heat sinks

S. P. Watson, B. Sammakia
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引用次数: 5

Abstract

This paper describes the results of a computational investigation of the thermal performance of chip scale package arrays with various low profile heat sinks. The arrays considered were fully populated with both modules and heat sinks. The heat sinks used in any single array were identical. The parameters evaluated included module spacing, cooling air inlet velocity, per module power dissipation, and heat sink design. The heat sinks fell into two categories: the plate and the block. A plate was defined as a single continuous piece of material covering all of the modules in the array. The block heat sinks were individual pieces of material that were affixed to each module and were not physically connected to the other heat sinks in the array. The results of this study are presented as thermal resistances for each module in the array. Also considered, for some specific cases, are the heat transfer coefficients for each heat sink as a function of its position within the array. Interesting results included the changing of the shape of the resistance curve with changes in heat sink design. Also noted was the relationship between the thermal resistance of a module and the heat transfer coefficient for the top surface of that heat sink. Related to this were the changes in thermal resistance due to changes in the material properties used in the modules and how this affected the heat flow within the array.
采用简单块和板散热器的芯片级封装阵列的热性能
本文描述了采用各种低轮廓散热器的芯片级封装阵列的热性能的计算研究结果。所考虑的阵列完全填充了模块和散热器。在任何单一阵列中使用的散热片都是相同的。评估的参数包括模块间距、冷却空气入口速度、每个模块的功耗和散热器设计。散热器分为两类:板式散热器和块状散热器。板被定义为覆盖阵列中所有模块的单一连续材料。块散热器是固定在每个模块上的单独材料,与阵列中的其他散热器没有物理连接。本研究的结果以阵列中每个模块的热阻的形式呈现。对于某些特定情况,还考虑了每个散热器的传热系数作为其在阵列内位置的函数。有趣的结果包括电阻曲线形状随着散热器设计的变化而变化。同样值得注意的是模块的热阻和散热器顶部表面的传热系数之间的关系。与此相关的是由于模块中使用的材料特性的变化而导致的热阻变化,以及这如何影响阵列内的热流。
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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