Simulation Analysis of Thermal Runaway Characteristics of Lithium-Ion Batteries

Zhi Hao, Yadong He, Jun Chen, Shaowen Luo, Xuwen Zhou, Baopeng Lu
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Abstract

Lithium-ion batteries have become the first choice for electric vehicle power batteries and energy storage power plants due to their good output characteristics and high energy density. Taking the lithium battery as the research object, a battery monomer heat production model is established to explore the heat generation mechanism of the lithium-ion battery, and the simulation results show that the internal temperature field of lithium-ion battery is unevenly distributed, and the middle temperature is higher than the surrounding temperature. The experimental analysis of the thermal runaway characteristics of the lithium-ion battery under the pinning conditions shows that the temperature change trend of the battery is the same at each point during the pinning period, but the temperature at the pinning point is the highest. With the increase of the battery SOC, the maximum temperature at each temperature point increases, but the growth rate of the maximum temperature becomes gradually slower.
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锂离子电池热失控特性仿真分析
锂离子电池因其良好的输出特性和高能量密度,已成为电动汽车动力电池和储能电站的首选。以锂电池为研究对象,建立电池单体产热模型,探索锂离子电池的产热机理,仿真结果表明,锂离子电池内部温度场分布不均匀,中间温度高于周围温度。通过对锂离子电池在钉钉工况下热失控特性的实验分析表明,在钉钉工况下,电池在各点的温度变化趋势相同,但在钉钉工况下的温度最高。随着电池荷电状态的增加,各温度点的最高温度升高,但最高温度的增长速度逐渐变慢。
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