Electrode strain dynamics in layered intercalation battery cathodes

Rechargeable batteries using electrodes based on intercalation chemistry exhibit notable cyclability, yet their performance still suffers from chemomechanical degradation. In this study, by combining a suite of operando microscopy methods, we explored electrode strain evolution and observed intricate particle cluster rearrangement under electrochemical stimuli. We show that early-stage strain accumulation in intercalation cathodes occurs during the period of interparticle charge transfer and redox reactions stemming from asynchronous coupling and decoupling between chemical (de)intercalation and physical grain motion. This interplay drives heterogeneous redox activity, localized charge equilibration, and multiscale strain cascades that propagate through an asynchronous network of chemical-mechanical interactions. Together, these findings reveal how collective particle dynamics and hierarchical strain transmission dictate electrode deformation and degradation in intercalation cathodes.

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Publication Details

Journal
Science
Published
2025-12-18
DOI
https://doi.org/10.1126/science.aea2763
Citations
4
Primary Topic
Advancements in Battery Materials
Type
article
Field-Weighted Citation Impact
2.92
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article

Electrode strain dynamics in layered intercalation battery cathodes

Guannan Qian, Ruqing Fang, P. Pianetta, Stephen E. Trask et al.
4 citations
Science
Advancements in Battery Materials
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article

Electrode strain dynamics in layered intercalation battery cathodes

Guannan Qian, Ruqing Fang, P. Pianetta, Stephen E. Trask, Guibin Zan, Tianxiao Sun, Yijin Liu, Arturo Gutierrez, William C. Chueh, Guihua Yu, Jason R. Croy, Wenlong Li, Zhichen Xue, Juner Zhu, Luxi Li, Wenbing Yun, Shimao Deng
article en
4 citations

Abstract

Rechargeable batteries using electrodes based on intercalation chemistry exhibit notable cyclability, yet their performance still suffers from chemomechanical degradation. In this study, by combining a suite of operando microscopy methods, we explored electrode strain evolution and observed intricate particle cluster rearrangement under electrochemical stimuli. We show that early-stage strain accumulation in intercalation cathodes occurs during the period of interparticle charge transfer and redox reactions stemming from asynchronous coupling and decoupling between chemical (de)intercalation and physical grain motion. This interplay drives heterogeneous redox activity, localized charge equilibration, and multiscale strain cascades that propagate through an asynchronous network of chemical-mechanical interactions. Together, these findings reveal how collective particle dynamics and hierarchical strain transmission dictate electrode deformation and degradation in intercalation cathodes.

ScienceVol. 390(6779)
Argonne National Laboratory (US), Northeastern University (US), SLAC National Accelerator Laboratory (US), Stanford Synchrotron Radiation Lightsource (US), Sigray (United States) (US), Walker (United States) (US), The University of Texas at Austin (US), Stanford University (US)
Openalex Percentile: Top 8%
Advancements in Battery Materials
2.92
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