Investigation of chip temperature related to various copper thickness on glass-fabric-based substrate

Jin-Ju Chue, Chih-Chyau Yang, Chen-Chia Chen, Chun-Chieh Chiu, Chien‐Ming Wu, Chun-Ming Huang
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引用次数: 3

Abstract

This paper presents an investigation of analyzing various thickness of “thermal functioned” copper layers on glass-fabric-based printed circuit board (PCB). To pursue the optimum thermal solution, two strategies are proposed for improving the heat dissipation ability on PCB and reducing copper amount usage. The first one is optimizing the thermal functioned copper layer position. By analyzing different locations of copper layer, top position attains the best heat dissipation efficiency. The other one is obtaining the best cross section profile of copper thickness. Different from common uniform copper thickness, a novel various copper thickness profile model is built for heat dissipation on PCB. By monitoring chip temperature, results show that the ability of heat dissipation is advanced by proposed various thickness of the thermal-function copper layer. Comparing to uniform copper layer thickness, the proposed various copper thickness profile efficiently cools down the 0.45-W power consuming chip by 2~5 degrees with the same copper amount usage. Results show that proposed various copper thickness profile owns both benefits of higher heat dissipation ability and lower copper usage.
玻璃纤维基板上不同铜厚度对芯片温度影响的研究
本文研究了玻璃纤维基印刷电路板(PCB)上不同厚度的“热功能”铜层。为了寻求最佳的散热解决方案,提出了两种策略来提高PCB的散热能力和减少铜的使用量。首先是优化热功能铜层的位置。通过对铜层不同位置的分析,得出顶部位置的散热效果最佳。二是获得铜厚度的最佳截面轮廓。不同于一般的均匀铜厚,本文建立了一种新颖的多铜厚PCB散热轮廓模型。通过对芯片温度的监测,结果表明不同厚度的热功能铜层提高了芯片的散热能力。与均匀铜层厚度相比,在相同铜用量的情况下,所提出的不同铜层厚度剖面能有效地将0.45 w功耗芯片冷却2~5度。结果表明,所提出的不同厚度的铜型材既具有较高的散热能力,又具有较低的铜用量。
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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