A unified GPR model based on transfer learning for SOH prediction of lithium-ion batteries

IF 3.3 2区 计算机科学 Q2 AUTOMATION & CONTROL SYSTEMS
Li Cai
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Abstract

State of health (SOH) acts as a qualitative capability measure in lithium-ion batteries’ management systems. Accurate SOH prediction is a critical issue for lithium-ion batteries. Most existing techniques always extract features from the tested batteries’ historical charging/discharging curves to achieve SOH prediction. However, the charging or discharging curves may be incomplete in the real-world application. Also, it is necessary to provide effective and dependable SOH predictions for both one-step-ahead and multi-step-ahead scenarios simultaneously, catering to diverse requirements. In order to achieve a unified SOH prediction without a prediction lag, a Gaussian process regression (GPR) model based on transfer learning is proposed. In this article, a non-zero mean function along with a compound covariance function are designed to describe the capacity attenuation. The hyper-parameter set of this model can be transferred and pre-determined from some readily available batteries in the same processes. The proposed method is verified on several batteries from NASA dataset. Results illustrate that our approach with both superior prediction performance and stronger robustness outperforms the counterparts.
基于迁移学习的统一 GPR 模型用于锂离子电池的 SOH 预测
健康状态(SOH)是锂离子电池管理系统中的一种定性能力衡量标准。准确预测 SOH 是锂离子电池的关键问题。大多数现有技术都是从被测电池的历史充电/放电曲线中提取特征来实现 SOH 预测。然而,在实际应用中,充电或放电曲线可能并不完整。此外,有必要同时为一步提前和多步提前场景提供有效、可靠的 SOH 预测,以满足不同的要求。为了实现无预测滞后的统一 SOH 预测,本文提出了一种基于迁移学习的高斯过程回归(GPR)模型。本文设计了一个非零均值函数和一个复合协方差函数来描述容量衰减。该模型的超参数集可以从相同流程中的一些现成电池中转移和预设。我们在 NASA 数据集中的几个电池上验证了所提出的方法。结果表明,我们的方法在预测性能和鲁棒性方面都优于同行。
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来源期刊
Journal of Process Control
Journal of Process Control 工程技术-工程:化工
CiteScore
7.00
自引率
11.90%
发文量
159
审稿时长
74 days
期刊介绍: This international journal covers the application of control theory, operations research, computer science and engineering principles to the solution of process control problems. In addition to the traditional chemical processing and manufacturing applications, the scope of process control problems involves a wide range of applications that includes energy processes, nano-technology, systems biology, bio-medical engineering, pharmaceutical processing technology, energy storage and conversion, smart grid, and data analytics among others. Papers on the theory in these areas will also be accepted provided the theoretical contribution is aimed at the application and the development of process control techniques. Topics covered include: • Control applications• Process monitoring• Plant-wide control• Process control systems• Control techniques and algorithms• Process modelling and simulation• Design methods Advanced design methods exclude well established and widely studied traditional design techniques such as PID tuning and its many variants. Applications in fields such as control of automotive engines, machinery and robotics are not deemed suitable unless a clear motivation for the relevance to process control is provided.
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