Effects of heating rate and State of Charge of Thermal Runaway in Pouch Li-ion Battery Cells

This study investigates the impact of heating rate and state of charge (SoC) on thermal runaway in pouch Li-ion battery cells.Thermal runaway is a critical safety concern in Li-ion batteries, leading to catastrophic failure and potential hazards.By systematically varying the heating rates and SoC levels, we analyse the onset temperatures, reaction kinetics and the severity of thermal runaway events.Our findings indicate that higher heating rates accelerate the onset of thermal runaway, reducing the reaction time and increasing the severity of thermal events.Additionally, cells at higher SoC levels exhibit lower onset temperatures and more violent thermal runaway reactions due to increased stored energy and electrolyte decomposition.These results highlight the importance of controlling heating rates and SoC to enhance the safety and stability of Li-ion battery systems.The provides valuable insights for the development of safer battery management systems and thermal safety protocols.

Publication Details

Journal
Research & Development in Material Science
Published
2024-10-17
DOI
https://doi.org/10.31031/rdms.2024.21.001001
Primary Topic
Advanced Battery Technologies Research
Type
article
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article

Effects of heating rate and State of Charge of Thermal Runaway in Pouch Li-ion Battery Cells

Research & Development in Material Science
Advanced Battery Technologies Research
article

Effects of heating rate and State of Charge of Thermal Runaway in Pouch Li-ion Battery Cells

article en

Abstract

This study investigates the impact of heating rate and state of charge (SoC) on thermal runaway in pouch Li-ion battery cells.Thermal runaway is a critical safety concern in Li-ion batteries, leading to catastrophic failure and potential hazards.By systematically varying the heating rates and SoC levels, we analyse the onset temperatures, reaction kinetics and the severity of thermal runaway events.Our findings indicate that higher heating rates accelerate the onset of thermal runaway, reducing the reaction time and increasing the severity of thermal events.Additionally, cells at higher SoC levels exhibit lower onset temperatures and more violent thermal runaway reactions due to increased stored energy and electrolyte decomposition.These results highlight the importance of controlling heating rates and SoC to enhance the safety and stability of Li-ion battery systems.The provides valuable insights for the development of safer battery management systems and thermal safety protocols.

Research & Development in Material ScienceVol. 21(1)
Affordable and clean energy
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Advanced Battery Technologies Research
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