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Numerical study of enhancing vehicle radiator performance using different porous fin configurations and materials

机译:使用不同的多孔翅片配置和材料提高车辆散热器性能的数值研究

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摘要

A vehicle radiator is used for cooling down the hot working fluid with airflow passing over its flow passages and fins. The proper design of the radiator is very important due to space and weight limitations in automobiles. In this study, a numerical investigation has been conducted on the improvements, which can be obtained by implementing different porous fins in the radiator channels. The effects of different porous fin configurations with the same porous media volume on the heat transfer rate and pressure drop were investigated. The coefficient of performance values were presented for evaluating the overall performance. The investigated geometries included horizontal, vertical, corrugated, and wavy-corrugated configurations. The results showed that the corrugated pattern had the best thermal performance among these geometries while the horizontal configuration presented the lowest pressure loss, even though the best overall performance belonged to wavy-corrugated configuration. After selecting this configuration, the influence of different porous materials on the radiator performance was studied. Finally, the radiator with the optimum porous media configuration and material was compared to a conventional radiator. It was found that implementing this porous media in the radiator channels improves its overall thermal performance factor up to 237%.
机译:车辆散热器用于冷却热的工作流体,使气流通过其流动通道和散热片。由于汽车的空间和重量限制,散热器的正确设计非常重要。在这项研究中,对改进进行了数值研究,可以通过在散热器通道中安装不同的多孔散热片来获得这些改进。研究了具有相同多孔介质体积的不同多孔翅片构型对传热速率和压降的影响。提出性能系数值以评估总体性能。所研究的几何形状包括水平,垂直,波纹和波浪波纹配置。结果表明,尽管最佳的整体性能属于波纹状,但在这些几何形状中,波纹型具有最佳的热性能,而水平构型的压力损失最低。选择此配置后,研究了不同多孔材料对散热器性能的影响。最后,将具有最佳多孔介质配置和材料的散热器与常规散热器进行了比较。发现在散热器通道中实施这种多孔介质可将其整体热性能系数提高多达237%。

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