新型闭环喷雾冷却系统的优化设计

Hongsheng Zhang, Yunze Li, Yufeng Mao, Shaoping Tian, Yang Liu, Liman Yang
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引用次数: 4

摘要

针对喷雾冷却系统在去除电子设备产生的高废热通量方面的优势,提出了一种新型喷射式冷凝器结合喷雾冷却系统,并介绍了其工作流程。以往的相关研究大多集中在参数对喷雾冷却性能的影响上。本文通过对流体流动和传热特性的分析,给出了整个系统的多目标优化函数,并应用粒子群算法求解该问题。得到了不同热功率下泵总质量、泵总功耗和热面温度的优化结果。得到了喷雾器、喷射冷凝器、散热器的最优系统结构参数。得到了在热源功率为500w(热流密度为500w /cm2)时,以功率消耗最小、系统质量最小、热源温度最低为条件下喷雾器质量流量和热面温度的工况。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optimization design of a novel closed-loop spray cooling system
Due to the superiority of spray cooling system in removing high waste heat flux generated by the electronics, a novel spray cooling system combined with ejective condenser is proposed and its work procedure is introduced. Most previous relevant studies are only focus on the influences of parameters on the spray cooling performance. In the present paper, a multi-objective optimization function on the overall system is provided through the analysis of fluid flow and heat transfer characteristics, and the Particle Swarm Optimization (PSO) is applied to solve this problem. The optimized results of the total mass, the total pump power consumption and the heat surface temperature are obtained at different heat power. The optimal system structure parameters of the sprayer, the ejective condenser, the radiator are obtained. The work conditions of the sprayer mass flow and the heat surface temperature are also got under the performance of minimum power consumption, minimum system mass and the lowest heat source temperature at heat source power 500 W (heat flux 500 W/cm2).
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