Optimal structure design and heat transfer characteristic analysis of X-type air-cooled battery thermal management system

Lisheng Luo, Yicai Liu, Zimiao Liao, Jie Zhong
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引用次数: 2

Abstract

This paper develops an X-type double inlet and outlet symmetrical air-cooled battery thermal management system (BTMS) that overcomes the high temperature, large temperature difference, and high power dissipation problems. The proposed method extends previous symmetrical BTMSs, i.e., single inlet and outlet BTMS, single inlet and double outlet BTMS, and double inlet and single outlet BTMS. However, compared with the existing symmetrical BTMS, the suggested X-type BTMS improves performance and reduces the maximum temperature, maximum temperature difference, and maximum power dissipation by 4.33 K, 74 %, and 62.9 %, respectively. Additionally, the inlet and outlet parameters of the X-type BTMS are optimized with orthogonal analysis, and the optimum settings defined as 71 mm near the outlet, 135 mm near the inlet, 90° for the outlet angle, and 150° for the inlet angle, among which the outlet position and inlet angle significantly affect the performance of the BTMS. The original X-type BTMS is optimized to reduce the maximum temperature and maximum temperature difference by 4 K and 76.5 %, respectively. Furthermore, the heat transfer correlation expression for the X-type BTMS is obtained through theoretical analysis within an 8 % deviation, providing a reference for the design of BTMS.
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x型风冷电池热管理系统优化结构设计及传热特性分析
研制了一种x型双进出口对称风冷电池热管理系统(BTMS),克服了高温、温差大、功耗大的问题。该方法扩展了以前的对称BTMS,即单入口和出口BTMS,单入口和双出口BTMS以及双入口和单出口BTMS。然而,与现有的对称BTMS相比,所提出的x型BTMS的性能得到了提高,最大温度、最大温差和最大功耗分别降低了4.33 K、74%和62.9%。此外,采用正交分析方法对x型BTMS的进出口参数进行优化,确定最佳设置为出口附近71 mm、进口附近135 mm、出口角90°和进口角150°,其中出口位置和进口角对BTMS的性能影响较大。经过优化,原x型BTMS的最高温度和最大温差分别降低了4 K和76.5%。通过理论分析,得到了x型BTMS的传热相关表达式,误差在8%以内,为BTMS的设计提供了参考。
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