基于MATLAB/Simulink的锂离子电池充放电过程中的主动电池平衡

Dapynhunlang Shylla, R. Swarnkar, H. R., S. M. Md Ali
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引用次数: 1

摘要

在文献中提出了几种细胞平衡方法来解决细胞在序列字符串中不匹配的问题。耗散平衡是这些选项中最简单和最便宜的。但这不是很有效,需要很长时间来平衡。电容器平衡是一种流行的方式来转移能量,因为它易于使用,小,便宜。但由于它的平衡速度慢,因此基于变换器的平衡被大量使用。最后,运行时平衡是一种相对较新的技术,它可以很好地平衡速度和效率。本文比较了不同的电池平衡技术。讨论了由4节电池组成的电池组的平衡机理。提出的有源电池平衡模型利用Buck-Boost变换器技术对电池电压进行平衡。并对有源单元平衡和无源单元平衡进行了比较,后者的模型是利用开关并联电阻实现的。根据这项研究,有源电池平衡(ACB)被证明对锂离子电池驱动的电动汽车更好。本文提出的ACB方法在静态、充电和放电状态下分别取T=7.285s、T=3.953s和T=7.91s进行电池平衡。这项工作表明,所提出的ACB技术平衡电池比无源电池平衡技术更快,并且功耗更小。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Active Cell Balancing During Charging and Discharging of Lithium-Ion Batteries in MATLAB/Simulink
Several cell balancing ways to address the issue of cells that don’t match up in a series string have been suggested in the literature. Dissipative balancing is the easiest and least expensive of these options. But this isn’t very effective and takes a long time to balance. Capacitor balancing is a popular way to transfer energy because it is easy to use, small, and cheap. However, it has a slow balancing speed, so converter-based balancing has been used a lot. Lastly, runtime balancing, which is a relatively new technique, does a good job of balancing speed and efficiency. This paper compared different cell balancing techniques. Battery pack consisting of 4 cells whose balancing mechanism are discussed. The proposed active cell balancing model balance cell voltages by using the Buck-Boost converter technique. It also demonstrates the comparison between the active cell balancing with passive cell balancing and the latter its model is implemented utilizing switching-shunt resistors. Active cell balancing (ACB) proves to be better for lithium-ion battery-powered electric cars, according to this research. The proposed ACB method takes T=7.285s, T=3.953s and T=7.91s during static, charging and discharging state respectively, for cell balancing. This work shows that the proposed ACB technique balance cell faster than the passive cell balance technique, along with less power loss.
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