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A forced gas cooling circle packaging with liquid cooling plate for the thermal management of Li-ion batteries under space environment

机译:具有液体冷却板的强制气体冷却圆包装,用于空间环境下的锂离子电池热管理

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摘要

Large temperature difference in power cells will lead to a lot of reliability issues such as the reducing of life cycle and the decreasing of energy conversion efficiency. This paper presents an integrated cooling method combing the forced internal gas cooling circle and a liquid cooling plate to overcome the thermal issue for Li-ion space batteries. Models of the Li-ion battery packaging with the integrated cooling components have been established. Numerical investigations have been conducted focusing on the impacts of flow field characteristics with different assembly structures, turbulence intensity of the gas circle, and the liquid cooling conditions on the temperature control performance of the integrated cooling approach using computational fluid dynamics method. Compared with the traditional vacuum packaged cooling way, the maximum temperature and the general temperature difference of the space battery cells with total 576 W heat generation can be decreased by 3.45 K and 3.88 K respectively, meanwhile, the temperature uniformity and the temperature control effectiveness can be increased by 2.42 times and 2.61 times respectively. The numerical results support that this novel thermal management method can improve the performance and reliability of the space battery system quite well. (C) 2017 Elsevier Ltd. All rights reserved.
机译:功率电池的大温差将导致大量的可靠性问题,例如生命周期的减少和能量转换效率的降低。本文介绍了强制内部气体冷却圆和液体冷却板的集成冷却方法,以克服锂离子空间电池的热问题。已经建立了具有集成冷却部件的锂离子电池封装的模型。已经对数值研究专注于流场特性与不同装配结构,气体圆圈的湍流强度的影响,以及使用计算流体动力学方法的集成冷却方法的温度控制性能的液体冷却条件。与传统的真空封装冷却方式相比,总共576W发热的空间电池电池的最高温度和一般温度差异可分别降低3.45 k和3.88 k,同时,温度均匀性和温度控制效果可以增加2.42倍和2.61次。该新颖的热管理方法的数值结果支持很好地提高了空间电池系统的性能和可靠性。 (c)2017 Elsevier Ltd.保留所有权利。

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