Electrical Analysis about internal short circuit using additional resistance in high energy lithium-ion battery

Seungyun Han, Changki Choi, Sanguk Kwon, Seongjun Lee, Jonghoon Kim
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引用次数: 1

Abstract

Safety is critical issue for using lithium-ion battery. There are many causes and effects of faults in lithium-ion battery. Thermal runaway is the most hazardous safety problem. It leads to the dangerous result such as fire or explosion of the battery. If thermal runaway is occurred in application, its application like electrical vehicle or energy storage system would be a catastrophe. For preventing thermal runaway, diagnosis and prognosis of main causes are significant. One of the main causes of thermal runaway is internal short circuit. In this work, change of voltage and temperature from internal short circuit are analyzed. Usually, it is hard to detect internal short circuit in normal electrical equivalent circuit model (EECM). Thus, lots of papers apply a parallel resistor in EECM to catch internal short circuit. In this paper, this model is used to show effects from internal short circuit. Resistance of parallel resistor represents the probability of occurrence of internal short circuit. Current passing through the parallel resistor indicates the leakage current inside of the battery which is not detected. To verify the model in high energy lithium-ion battery, induced internal short circuit suggested in UL standard is conducted. And change of voltage, internal leakage current, parallel resistor’s value is analyzed.
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高能锂离子电池附加电阻内部短路的电学分析
安全性是锂离子电池使用的关键问题。锂离子电池故障的原因和影响是多方面的。热失控是最危险的安全问题。会导致电池着火或爆炸等危险后果。如果在应用中发生热失控,其在电动汽车或储能系统中的应用将是灾难性的。主要原因的诊断和预后对预防热失控具有重要意义。热失控的主要原因之一是内部短路。在本工作中,分析了内部短路对电压和温度的影响。一般的等效电路模型(EECM)很难检测到内部短路。因此,许多论文在EECM中采用并联电阻来捕获内部短路。在本文中,该模型用于显示内部短路的影响。并联电阻器的电阻表示内部发生短路的概率。通过并联电阻的电流表示电池内部未检测到的泄漏电流。为了在高能锂离子电池中验证该模型,进行了UL标准中建议的感应内部短路。分析了电压、内漏电流、并联电阻器值的变化。
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