Design of an Optimal Heat Sink for Microelectronic Devices Using Entropy Generation Minimization

J. M. Cruz-Duarte, J. Aviña-Cervantes, Ivan M. Amaya-Contreras, C. R. Correa-Cely
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引用次数: 2

Abstract

The present article describes the design of an optimum rectangular microchannel heat sink typically used in microelectronics heat transfer management. We use the entropy generation minimization criterion to model the heat transfer process, and the spiral algorithm to solve it. For the scenarios we considered, optimum heat sinks using environmentally friendly ammonia (azane) performed about 17% better than those using air. Moreover, we observed that the thermal resistance related to the working fluid represents about 52 ± 16% of the total equivalent thermal resistance, whilst the thermal resistance related to convection phenomena only represents about 12 ± 6%.
基于熵产最小化的微电子器件最佳散热器设计
本文介绍了一种典型用于微电子传热管理的最佳矩形微通道散热器的设计。采用熵产最小化准则对换热过程进行建模,并用螺旋算法求解。在我们考虑的场景中,使用环境友好型氨(氮烷)的最佳散热器比使用空气的散热器性能好17%左右。此外,我们观察到与工作流体相关的热阻约占总等效热阻的52±16%,而与对流现象相关的热阻仅占约12±6%。
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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