用于混合动力汽车温升预测的锂离子电池热建模

Balaji Ravichandran Vignesh, Thomas R. B. Grandjean, A. McGordon, D. Greenwood
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引用次数: 5

摘要

为了开发使用锂离子电池组的混合动力汽车,有必要了解所使用的锂离子电池的热行为。本文主要研究了混合动力两轮车驱动循环中锂离子电池温升的预测问题。为了预测温度的上升,在Simulink中开发了一个模型,使用经验参数进行参数化。该模型基于焦耳热效应和热容方程,同时考虑了内阻随环境工作温度、电荷状态和工作速率的变化。通过脉冲功率特性法进行参数评估测试,测量内阻。为了验证Simulink模型,对锂离子电池进行了标准驱动循环和恒流放电测试,并测量了温度的升高。Simulink模型的精度为±2.2°C,这对于本研究来说是可以接受的,并且与文献中其他可用的模型相当。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Thermal modeling of lithium ion batteries for temperature rise predictions in hybrid vehicle application
In order to develop a hybrid vehicle with lithium ion battery packs, it is necessary to understand the thermal behaviour of the lithium ion batteries used. This paper focuses on predicting the temperature rise of lithium ion batteries during a drive cycle in hybrid two wheeler applications. To predict the rise in temperature, a model is developed in Simulink, parameterized using the empirical parameters. The model is based on the Joule heating effect and heat capacity equation while considering the variation of internal resistance with respect to ambient temperature of operation, state of charge and C rate of operation. The internal resistance is measured by parameter evaluation testing through the pulse power characterisation method. To validate the Simulink model, the lithium ion batteries are tested on standard drive cycles and constant current discharges, and the rise in temperature is measured. The accuracy of the Simulink model was found to be ± 2.2°C, which is acceptable for this study and comparable to the other available models in the literature.
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