Experimental Investigation on Modular Phase Change Material (PCM) Thermal Management Structure for Cylindrical Battery Cells

Foo Shen Hwang, Colin J. Reidy, D. Picovici, D. Callaghan, D. Culliton, Cathal Nolan, T. Confrey
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Abstract

The effectiveness of a passive modular li-ion battery thermal management system (BTMS) comprising of a PCM and hexagonal aluminum fin structure was experimentally examined in this study. The maximum temperature rise of a li-ion cell attached to the prototype was recorded as it is discharged under a 1C, 2C and 3C discharge rate and its results are then compared to a li-ion cell cooled under natural convection conditions. From the results obtained, the prototype was able to maintain the cell temperature at its optimum temperature between 15°C to 35°C for all three discharge rates whereas the li-ion cell under natural convection was only able to maintain an optimal operating temperature at a 1C discharge rate. The Nusselt number of the prototype was also examined and it was determined that the Nusselt number decreases as the discharge rate of the battery increases signifying a reduction in the heat transfer rate of the prototype at higher discharge rates.
圆柱电池模块相变材料(PCM)热管理结构实验研究
实验研究了由PCM和六边形铝翅片结构组成的无源模块化锂离子电池热管理系统(BTMS)的有效性。将附着在原型上的锂离子电池在1C、2C和3C放电速率下的最高温升记录下来,并将其结果与自然对流条件下冷却的锂离子电池进行比较。从获得的结果来看,在所有三种放电速率下,原型电池都能够将电池温度保持在15°C至35°C之间的最佳温度,而自然对流下的锂离子电池只能在1C放电速率下保持最佳工作温度。对原型的努塞尔数也进行了检测,确定努塞尔数随着电池放电速率的增加而降低,这表明在较高的放电速率下原型的传热速率降低。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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