微针场流动沸腾的欧拉多相共轭模型的建立与验证

P. Parida, T. Chainer
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引用次数: 11

摘要

芯片嵌入式微米级两相冷却技术对于充分优化未来计算系统中高性能集成电路(ic)中三维(3D)堆叠的改进集成密度的好处至关重要;但它面临着包括高保真建模在内的重大发展挑战。本文建立了一种欧拉多相模型,用于模拟芯片内嵌微腔的两相蒸发冷却。首先,利用该模型预测了冷却剂R1234ze在长约10 mm的双孔微腔内的流动和换热特性,该微腔内排列着直径80 μm的针状翅片。流动在腔体的初始部分是过冷的,在其余部分是饱和的。将结果与基础实验的实验数据进行了比较,重点考察了模型预测正确流型、温度分布和压降的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Eulerian multiphase conjugate model development and validation for flow boiling in micro-pin field
Chip-embedded micrometer scale two-phase cooling technology can be essential to fully optimize the benefits of improved integration density of three-dimensional (3D) stacking in high performance integrated circuits (ICs) for future computing systems; but is faced with significant developmental challenges including high fidelity modeling. In the present work, an Eulerian multiphase model has been developed for simulating two-phase evaporative cooling through chip embedded microscale cavities populated with pin-fins. First the model is used to predict the flow and heat transfer characteristics for coolant R1234ze flowing through a two-port ~10 mm long micro-cavity populated with 80 μm diameter pin-fins arranged in an in-line manner. The flow is sub-cooled in the initial section of the cavity and saturated in the remaining. The results were compared to experimental data available from fundamental experiments, focusing on the model capability to predict the correct flow pattern, temperature profile and pressure drop.
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