电化学阻抗谱(EIS)和基于机器学习的电池健康状态(SoH)估计

Masuda A. Tonima, Austin DeHart, Deniz Tabakci, Piramon Tisapramotkul, Andrew Munro-West, Aarushi Mehra, T. Shoa
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引用次数: 0

摘要

虽然锂离子电池已经被证明具有很长的使用寿命,但目前的电池管理系统(BMS)设备还无法准确评估电池容量和剩余寿命。BMS中使用的电池传感器通常监测电池的电压、电流和温度,以预测电池的健康状态(SoH)。SoH是指示受退化影响的剩余容量的度量。通过监测电压、电流和温度获得的信息往往不足以预测SoH。在这项研究中,我们通过电化学阻抗谱(EIS)从电池的界面层捕获了额外的信息,并采用基于xgboost的机器学习方法来训练我们的模型。结果表明,该方法预测电池SoH的准确度为90%,置信度为95%,可靠性为82%。此外,研究表明,即使特征数量急剧减少,样本量最小,也可以在几乎没有变化的情况下保持准确性,从而使该方法对于基于嵌入式EIS/AI的解决方案非常实用。
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Electrochemical Impedance Spectroscopy (EIS) and Machine Learning based Battery State of Health (SoH) Estimation
While Li-ion batteries have proven long lifetimes, an accurate assessment of the battery ca-pacity and its remaining life cannot yet be made using current Battery Management Systems (BMS) devices. Battery sensors used in BMS typically mon-itor voltage, current and temperature of the battery, in order to predict the state of health (SoH) of the battery. SoH is a measure that indicates the remaining capacity that had been affected by degradation. Information obtained by monitoring voltage, current and temperature are often not sufficient to predict SoH. In this study we captured extra information from interfacial layers of the battery through applying Electrochemical Impedance Spectroscopy (EIS) and employed a XGBoost-based machine learning approach to train our models. The results show that SoH of batteries can be predicted with 90% accuracy, 95% confidence and 82% reliability. Additionally, it was shown that accuracy could be maintained with little to no change even when the number of features was dramatically reduced and the sample size was minimal, thus making this method very practical for embedded EIS/AI based solutions.
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