Thermal Performances of Multi-Layered Liquid Cold Plates

Andoniaina M. Randriambololona, M. Shaeri
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Abstract

- Thermal performances of multi-layered cold plates (CPs) with varying numbers of channels are investigated through three-dimensional simulation of laminar flow and heat transfer. Thermal performances are characterized by the maximum temperature and temperature variation across the heating surface. The thermal performances are presented as functions of flow rates and pumping power to provide better insight on CP’s practical applications. It was found that at both a given flow rate and pumping power, increasing the number of layers monotonically enhances the heat transfer rate.; however, the percentage of enhancement of heat transfer is reduced by increasing the number of layers beyond two due to additional thermal resistance experienced between the lower-level channels/layers and the heat source. The findings suggest the existence of a threshold number of layers such that beyond that threshold, the heat transfer is not enhanced.
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多层液体冷板的热性能研究
通过层流和传热的三维模拟,研究了具有不同通道数的多层冷板的热性能。热性能的特征是最高温度和整个受热面的温度变化。为了更好地了解CP的实际应用,将其热性能描述为流量和泵送功率的函数。结果表明,在一定的流量和泵送功率下,增加层数单调地提高了换热率。然而,由于下层通道/层与热源之间的额外热阻,增加两层以上的层数会降低传热增强的百分比。研究结果表明,存在一个阈值层数,超过该阈值,传热就不会增强。
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