Swelling Mechanisms, Diagnostic Applications, and Mitigation Strategies in Lithium-Ion Batteries

Electrochemical processes within a lithium-ion battery cause electrode expansion and gas generation, thus resulting in battery swelling and, in severe cases, reliability and safety issues. This paper presents the mechanisms responsible for swelling, including thermal expansion, lithium intercalation, electrode interphase layer growth, lithium plating, and gas generation, while highlighting their dependence on material properties, design considerations, C-rate, temperature, state of charge (SoC), and voltage. The paper then discusses how swelling correlates with capacity fade, impedance rise, and thermal runaway, and demonstrates the potential of using swelling as a diagnostic and prognostic metric for battery health. Swelling models that connect microscopic mechanisms to macroscopic deformation are then presented. Finally, the paper presents strategies to mitigate swelling, including materials engineering, surface coatings, electrolyte formulation, and mechanical design modifications.

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Publication Details

Journal
Batteries
Published
2025-09-28
DOI
https://doi.org/10.3390/batteries11100356
Citations
6
Primary Topic
Advancements in Battery Materials
Type
article
Field-Weighted Citation Impact
4.38
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article

Swelling Mechanisms, Diagnostic Applications, and Mitigation Strategies in Lithium-Ion Batteries

Michael Pecht, Huzaifa Rauf, Naveed Arshad, Michael Osterman et al.
6 citations
Batteries
Advancements in Battery Materials
4.38
article

Swelling Mechanisms, Diagnostic Applications, and Mitigation Strategies in Lithium-Ion Batteries

Michael Pecht, Huzaifa Rauf, Naveed Arshad, Michael Osterman, Sahithi Maddipatla
article en
6 citations

Abstract

Electrochemical processes within a lithium-ion battery cause electrode expansion and gas generation, thus resulting in battery swelling and, in severe cases, reliability and safety issues. This paper presents the mechanisms responsible for swelling, including thermal expansion, lithium intercalation, electrode interphase layer growth, lithium plating, and gas generation, while highlighting their dependence on material properties, design considerations, C-rate, temperature, state of charge (SoC), and voltage. The paper then discusses how swelling correlates with capacity fade, impedance rise, and thermal runaway, and demonstrates the potential of using swelling as a diagnostic and prognostic metric for battery health. Swelling models that connect microscopic mechanisms to macroscopic deformation are then presented. Finally, the paper presents strategies to mitigate swelling, including materials engineering, surface coatings, electrolyte formulation, and mechanical design modifications.

BatteriesVol. 11(10)
Lahore University of Management Sciences (PK), Life Cycle Engineering (United States) (US), University of Maryland, College Park (US)
Openalex Percentile: Top 5%
Advancements in Battery Materials
4.38
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Swelling Mechanisms, Diagnostic Applications, and Mitigation Strategies in Lithium-Ion Batteries — Michael Pecht, Huzaifa Rauf, et al. · Batteries (2025) | TGRS Research Map | TGRS