arXiv:2502.18807cs.LGcs.AI2025-02KDD被引 22

构建首个覆盖多类型电池的寿命预测数据集与基准测试。

BatteryLife: A Comprehensive Dataset and Benchmark for Battery Life Prediction

  • 整合16个数据集,样本量为此前最大数据集的2.5倍。
  • 首次公开锌离子、钠离子及工业级大容量锂电池数据。
  • 提出CyclePatch技术,显著提升多种神经网络在寿命预测中的表现。

电池寿命预测(BLP)依赖于电池退化测试生成的时间序列数据,对电池的使用、优化和生产至关重要。尽管取得显著进展,该领域仍面临三大挑战:现有数据集规模有限,难以深入理解现代电池寿命数据;多数数据集中于小容量锂离子电池,测试条件单一,影响研究结果的泛化性;不同研究间基准不一致,难以评估基线模型的有效性,也难以判断其他时间序列领域的流行模型是否适用于BLP。为此,我们提出了BatteryLife,一个全面的电池寿命预测数据集与基准。BatteryLife融合了16个数据集,样本量是此前最大数据集的2.5倍,涵盖8种电池形态、59种化学体系、9种工作温度和421种充放电协议,包括实验室与工业测试数据。特别地,它是首个发布锌离子、钠离子电池以及工业级大容量锂离子电池数据的数据集。基于此,我们重新评估了其他时间序列领域常用模型的有效性,并提出一种可插拔的CyclePatch技术,广泛适配各类神经网络。对18种方法的广泛评测表明,部分通用时间序列模型在BLP中表现不佳,而CyclePatch能持续提升性能,建立新的基准。此外,BatteryLife还评估了模型在不同老化条件和应用场景下的表现。数据集已开源:https://github.com/Ruifeng-Tan/BatteryLife。

原文摘要 · Abstract (English)

Battery Life Prediction (BLP), which relies on time series data produced by battery degradation tests, is crucial for battery utilization, optimization, and production. Despite impressive advancements, this research area faces three key challenges. Firstly, the limited size of existing datasets impedes insights into modern battery life data. Secondly, most datasets are restricted to small-capacity lithium-ion batteries tested under a narrow range of diversity in labs, raising concerns about the generalizability of findings. Thirdly, inconsistent and limited benchmarks across studies obscure the effectiveness of baselines and leave it unclear if models popular in other time series fields are effective for BLP. To address these challenges, we propose BatteryLife, a comprehensive dataset and benchmark for BLP. BatteryLife integrates 16 datasets, offering a 2.5 times sample size compared to the previous largest dataset, and provides the most diverse battery life resource with batteries from 8 formats, 59 chemical systems, 9 operating temperatures, and 421 charge/discharge protocols, including both laboratory and industrial tests. Notably, BatteryLife is the first to release battery life datasets of zinc-ion batteries, sodium-ion batteries, and industry-tested large-capacity lithium-ion batteries. With the comprehensive dataset, we revisit the effectiveness of baselines popular in this and other time series fields. Furthermore, we propose CyclePatch, a plug-in technique that can be employed in various neural networks. Extensive benchmarking of 18 methods reveals that models popular in other time series fields can be unsuitable for BLP, and CyclePatch consistently improves model performance establishing state-of-the-art benchmarks. Moreover, BatteryLife evaluates model performance across aging conditions and domains. BatteryLife is available at https://github.com/Ruifeng-Tan/BatteryLife.

电池寿命时间序列数据集深度学习

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