考虑增材制造的螺旋翅片散热器设计

Shingo Otake, Y. Tateishi, H. Gohara, R. Kato, Y. Ikeda, V. Parque, Muhammed Khairi Faiz, M. Yoshida, T. Miyashita
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引用次数: 4

摘要

近年来,对高性能、小型化和轻量化的要求越来越高,电源模块的数量也在不断增加。但这就要求功率模块的产热密度过高,导致结工作温度升高。因此,对冷却装置的高散热要求很大。一般采用形状简单的散热器(直鳍型和针鳍型)。但是它们的冷却性能是有限的。在本报告中,我们开发了新的散热器形状,以应对快速增长的冷却要求。冷却性能表现为热阻和压力损失。通过热流体分析对其进行了评价。在这种方法中,具有螺旋弯曲通道的螺旋翅片散热器具有良好的冷却性能。这个形状是这个报告的独特之处。这是因为具有三维规则曲线的形状尚未得到研究。螺旋翅片散热器有许多因素(翅片厚度、翅片间距、通道数量等)。这些因素影响冷却器的性能。我们通过改变这些因素来确定最佳的螺旋鳍形状。结果表明,最佳形状的热阻比直翅型低14.9%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Heatsink design using spiral-fins considering additive manufacturing
In recent years, there have been increasing the number of power modules which is required with high performance, miniaturization and weight saving. But these requires cause high heat generation density for power module, which gets junction operation temperature to rise. Cooling unit is thus greatly demanded for high heat dissipation. The simple shaped heatsinks (straight-fin type and pin fin type) were generally used. But they have the limit of cooling performance. In this report, we have developed new heatsink shape to cope with rapidly increasing of the cooling requirement. Cooling performance is shown to thermal resistance and pressure loss. We evaluated them by thermal fluid analysis. In this approach, the spiral-fin heatsink with spiral curved channels has excellent cooling performance. This shape is the unique point in this report. This is because the shape with three-dimensional regular curve has not been studied. The spiral-fin heatsink has many factors (fin thickness, fin pitch, the number of channels, etc.). These factors affect cooler performance. We changed these factors to determine the best shape of spiral-fin. As a result, the best shape is 14.9[%] lower than the straight-fin type in thermal resistance.
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