Assessing the Safety of Solid-State Technologies: What Can We Learn from a Coin Cell

Abstract All-solid-state lithium batteries equipped with lithium metal anodes offer a promising energy density potential critical for next-generation electric vehicles. Despite notable advancements in the performance of these emerging battery technologies, safety assessment remains a major challenge due to the lack of effective diagnostic techniques. This original study introduces a recently developed experimental setup designed to trigger thermal runaway in cells with very low capacity (10 mA h). A UV–Vis spectrometer is employed to analyze the light emitted by the flame, enabling the determination of flame temperature and the emission peaks of elements involved in the reaction. By comparing garnet-type and sulfide-based electrolytes, this work provides valuable insights into the reaction pathways leading to thermal runaway in both solid-state battery technologies and contributes to a comparative evaluation of their mutual safety potential.

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Publication Details

Journal
ACS Applied Energy Materials
Published
2026-11-11
DOI
https://doi.org/10.1021/acsaem.6c02064
Primary Topic
Advanced Battery Materials and Technologies
Type
article
Field-Weighted Citation Impact
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article

Assessing the Safety of Solid-State Technologies: What Can We Learn from a Coin Cell

Rémi Vincent, Pedro López‐Aranguren, Juliette Charbonnel, Ander Orue et al.
3 links
ACS Applied Energy Materials
Advanced Battery Materials and Technologies
article

Assessing the Safety of Solid-State Technologies: What Can We Learn from a Coin Cell

Rémi Vincent, Pedro López‐Aranguren, Juliette Charbonnel, Ander Orue, Thomas Grossetete, Paul Chassagne, Loïc Baggetto
article en

Abstract

Abstract All-solid-state lithium batteries equipped with lithium metal anodes offer a promising energy density potential critical for next-generation electric vehicles. Despite notable advancements in the performance of these emerging battery technologies, safety assessment remains a major challenge due to the lack of effective diagnostic techniques. This original study introduces a recently developed experimental setup designed to trigger thermal runaway in cells with very low capacity (10 mA h). A UV–Vis spectrometer is employed to analyze the light emitted by the flame, enabling the determination of flame temperature and the emission peaks of elements involved in the reaction. By comparing garnet-type and sulfide-based electrolytes, this work provides valuable insights into the reaction pathways leading to thermal runaway in both solid-state battery technologies and contributes to a comparative evaluation of their mutual safety potential.

ACS Applied Energy Materials
CEA Grenoble (FR), CIC energiGUNE (ES)
Affordable and clean energy
Advanced Battery Materials and Technologies
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