Challenges and prospects in real-world battery status prediction within Industry 4.0

IF 16.4
Xudong Qu , Jingyuan Zhao , Hui Pang , Michael Fowler , Andrew F. Burke
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Abstract

The performance of lithium-ion batteries is critical across a range of applications, including portable devices, electric vehicles, and energy storage systems. Effective diagnostics of these battery systems require evaluating multiple factors such as charge, health, lifespan, and safety. Diagnosing batteries under real-world conditions presents notable challenges, particularly due to dynamic operating environments, inconsistent data quality, and cell-to-cell variations. These challenges complicate diagnostics further when considering the need for model integration, scalability, and managing computational costs. Industry 4.0 introduces new opportunities for intelligent, real-time battery performance evaluation, but also brings its own complexities. This review examines several real-world battery diagnostic scenarios, identifying key obstacles. We provide an in-depth analysis of the integration of intelligent diagnostic technologies in Industry 4.0, with a focus on IoT connectivity, machine learning techniques, and big data analytics. Moreover, we outline promising research directions, such as fostering interdisciplinary collaboration, improving data and model integration, utilizing diverse data patterns, and strengthening partnerships between academia and industry. Cloud-based AI solutions not only enhance diagnostics related to battery lifespan and safety but also align with the Industry 4.0 framework by facilitating automated decision-making and resource management. This review highlights recent advancements and identifies critical challenges that require further exploration. It aims to support sustainable industrial practices and drive the adoption of green technologies within smart, digital and sustainable environments. It aims to promote intelligent industrial practices and accelerate the adoption of battery technologies within smart, digital, and eco-friendly environments.

Abstract Image

工业4.0环境下实际电池状态预测的挑战与展望
锂离子电池的性能在一系列应用中至关重要,包括便携式设备、电动汽车和储能系统。有效诊断这些电池系统需要评估多种因素,如充电、健康、寿命和安全性。在实际条件下诊断电池存在显著的挑战,特别是由于动态操作环境、不一致的数据质量以及电池间的差异。当考虑到模型集成、可伸缩性和管理计算成本的需要时,这些挑战使诊断进一步复杂化。工业4.0为智能、实时电池性能评估带来了新机遇,但也带来了自身的复杂性。本文考察了几个现实世界的电池诊断场景,确定了主要障碍。我们对工业4.0中的智能诊断技术集成进行了深入分析,重点关注物联网连接、机器学习技术和大数据分析。此外,我们还概述了未来的研究方向,如促进跨学科合作,提高数据和模型的整合,利用多样化的数据模式,加强学术界和工业界的伙伴关系。基于云的人工智能解决方案不仅增强了与电池寿命和安全性相关的诊断,而且通过促进自动化决策和资源管理,与工业4.0框架保持一致。这篇综述强调了最近的进展,并确定了需要进一步探索的关键挑战。它旨在支持可持续工业实践,并推动在智能、数字和可持续环境中采用绿色技术。它旨在促进智能工业实践,并在智能、数字化和环保环境中加速采用电池技术。
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CiteScore
6.40
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0.00%
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