A Systematic Review of Thermal Runaway in Li-ion Batteries: Pathways, Detection Techniques, and Early Warning Models

Shubham Bhoir , Emanuele Michelini , Jörg Moser , Claudio Brivio , Mario Paolone
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Abstract

In the recent past, various accidents related to lithium battery fires have been reported worldwide, some of them being fatal. This emphasizes the need to improve battery systems’ safety for their users. To achieve this, first, an understanding of the phenomena that take place during TR is essential. Then, such an understanding may be used to identify sensors and models that can predict TR, with sufficient anticipation. Following this logic, this systematic literature review thoroughly analyzes the state-of-the-art regarding the different abuses and the consequent safety threats to lithium-based battery cells to (i) describe the various phenomena that occur when a battery cell is abused, (ii) analyze the different sensors that are found in the literature which can be used to detect a faulty or abused battery cell, and (iii) review the various models that are used to analyze the data acquired by the sensors. Since this is a systematic literature review, the methodology followed to carry out this review is rigorously described, including the literature database search string and paper-inclusion criteria used to screen the list of works and arrive at a final set of meaningful papers. Finally, in view of the findings, a combination of sensors and models is suggested to assess the safety level of a battery cell. It is concluded that temperature monitoring, along with an empirical model, is best suited for abuse detection, while voltage monitoring, along with a statistical model, should be adopted for cells’ fault detection.
锂离子电池热失控的系统综述:途径、检测技术和早期预警模型
最近,世界各地都报道了与锂电池起火有关的各种事故,其中一些是致命的。这强调了为用户提高电池系统安全性的必要性。要做到这一点,首先,了解在TR期间发生的现象是至关重要的。然后,这样的理解可以用来识别传感器和模型,可以预测TR,有足够的预期。按照这一逻辑,这彻底进行系统性文献回顾分析了先进的关于不同的滥用和随之而来的安全威胁锂离子电池(i)描述各种现象发生的电池被滥用时,(2)分析文献中发现不同的传感器可以用来检测错误或滥用电池,和(3)审查的各种模型,用于分析获得的数据传感器。由于这是一项系统的文献综述,因此严格描述了进行该综述所遵循的方法,包括文献数据库搜索字符串和用于筛选作品列表并得出最终一组有意义的论文的论文纳入标准。最后,鉴于这些发现,建议将传感器和模型相结合来评估电池的安全水平。结果表明,温度监测结合经验模型最适合于电池的滥用检测,电压监测结合统计模型最适合于电池的故障检测。
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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