基于神经网络的动态弯曲和日历老化柔性锂离子电池健康可靠性评估

P. Lall, Hye-Yoen Jang
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摘要

可穿戴电子产品因其外形与功能的紧密结合、灵活性、轻量化等优点而备受关注。与FHE一起使用的电源除了在产品使用寿命期间可灵活安装外,还可能受到动态弯曲的影响。虽然厚块电池在先前的研究中已经得到了广泛的研究,但日常运动应力对薄柔性电池健康退化状态的影响以及使用参数还没有得到很好的理解。使用条件,包括储存时间、使用温度、弯曲频率、弯曲间隔和弯曲半径,可能会有所不同。需要机器学习(ML)方法来预测各种环境条件下电池的健康状态(SOH)退化。在每个条件下测量电池响应是不划算的,而人工神经网络机器学习可能能够评估以前没有测量过的条件。在这方面,预计人工神经网络可能能够训练模拟。本研究以日历老化电池为研究对象,对柔性电池在高温下的动态折叠、扭转和静态折叠过程中充放电SOH的降解进行了模拟。因此,用仿真数据集训练人工神经网络机器学习模型来代替仿真。生成的数据将用于ML模型的交叉验证和电池寿命预测的仿真。人们期望这种数据分析的组合方法有助于提高研究的时间效率和降低研究成本。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ANN Based Assessment of State-of-Health Reliability of Flexible Li-Ion Batteries Under Dynamic Flexing and Calendar Aging
Wearable electronics have garnered much attention owing to benefits such as closer integration of form with function, flexibility, and light-weighting. Power sources used with FHE may be subject to dynamic flexing in addition to flex-to-install during the usage life of the product. While thick block batteries have been studied extensively in prior research — the impact of stresses of daily motion on the state of health degradation of thin-flexible batteries in conjunction with the use parameters is not well understood. Use conditions, including storage duration, operating temperature, flexing frequency, interval, and flex radius, might vary. Machine learning (ML) methods are needed prediction of state-of-health (SOH) degradation of the battery in various environmental conditions. It is not cost-effective to measure battery response in every condition, while the ANN ML might be able to assess conditions not previously measured. In this regard, it is expected that the ANN might be able to train the simulation. In this study, the simulation of SOH degradation on charging/discharging the flexible battery in dynamic folding, twisting and static folding with a calendar-aged battery in high temperature have been conducted. Accordingly, the ANN ML model has been trained with the simulation datasets to substitute the simulation. The generated data will be used for cross-validation of ML model and simulation for the battery life prediction. There is an expectation that such a combined method for data analysis might be helpful for time efficiency and cost reduction of research.
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