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Multiscale Materials Imaging and Spectroscopy for Battery Materials
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Journal Article
Multiscale Materials Imaging and Spectroscopy for Battery Materials
2025
Overview
Multiscale imaging and spectroscopy play a pivotal role in understanding the structural, chemical, and dynamic behavior of battery materials, providing critical insights that drive advancements in performance, longevity, and safety. This review provides a comprehensive analysis of various imaging techniques, from macroscopic tools like x‐ray tomography to nanoscale methods such as atomic force microscopy and transmission electron microscopy. By categorizing these techniques based on spatial resolution, the review highlights their applications in resolving key issues like electrode degradation, dendrite formation, and phase transitions during battery operation. Moreover, the integration of machine learning accelerates data processing, enabling multiscale correlations and predictive modeling. The review underscores the necessity of multiscale approaches to optimize battery performance, safety, and lifespan, showcasing how emerging methodologies contribute to next‐generation energy storage technologies. Key physical and chemical phenomena in battery materials are illustrated across multiple length scales, from atomic to device level. Corresponding characterization techniques are aligned with each regime, showing how structural, thermal, and interfacial changes affect performance. This multiscale framework underscores the importance of integrated imaging for next‐generation battery diagnostics and design.
Publisher
John Wiley & Sons, Inc,Wiley
Subject
