基于神经网络的电池电压预测

Di Zhu, Jeffrey Campbell, Gyouho Cho
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引用次数: 1

摘要

电池电压预测是建立预测控制模型以保证电池系统安全高效运行的关键。本文研究了一种基于长短期记忆的方法,利用过去电压、预测电流和SOC信息来预测电池电压。与使用多对一架构的先前技术不同,多对多架构用于表示三种温度的测试数据。还选择了电池控制器可访问的输入。进一步研究了归一化对电压预测的有效性。结果表明,温度对预测精度没有明显影响。在0°C的情况下获得的最低RMSE为0.0997。由于输入和输出已经处于相似的规模,应用数据归一化并没有在三个选定的温度中提供任何一致的准确性改进。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Battery Voltage Prediction Using Neural Networks
The battery voltage prediction is critical to model predictive controls for the safe and efficient operation of battery systems. This paper presents a comprehensive study using a long-short-term-memory-based method to predict the battery voltage with past voltage and forecasted current and SOC information. Unlike prior art using many-to-one architecture, a many-to-many architecture was used with test data representing three temperatures. Battery-controller-accessible inputs were also selected. Further, the effectiveness of normalization for voltage prediction was investigated. The results show the temperature has no noticeable impact on the prediction accuracy. The lowest RMSE obtained from the 0 °C case is 0.0997. With having both inputs and output already on a similar scale, applying data normalization didn't provide any consistent accuracy improvement across the three selected temperatures.
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