Sustainable Battery Design: Holistic Recyclable Lithium‐Ion Battery System for Automotive and Following 2nd Life Stationary Use

The present article addresses the following research question: What are core aspects of a sustainable lithium‐ion (Li‐ion) battery system? In a multidisciplinary approach, the article describes key aspects of the battery cell safety assessment (accelerating rate calorimetry, nail penetration, overcharge) for 2nd life on the example of field‐aged cells from an automotive application, details of the stationary application, and the design of a sustainable battery system. For battery system recycling, an alternative expanded recycling process with economical aspects for the plastic recycling is described. Finally, the article summarizes CO 2 emission for Li‐ion batteries in general and gives details about life cycle aspects replacing an aluminum battery tray with a plastic battery tray.

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Publication Details

Journal
Energy Technology
Published
2025-11-12
DOI
https://doi.org/10.1002/ente.202501329
Primary Topic
Extraction and Separation Processes
Type
article
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article

Sustainable Battery Design: Holistic Recyclable Lithium‐Ion Battery System for Automotive and Following 2nd Life Stationary Use

Thomas Waldmann, David Petermann, Eva‐Maria Stelter, Christin Hogrefe et al.
Energy Technology
Extraction and Separation Processes
article

Sustainable Battery Design: Holistic Recyclable Lithium‐Ion Battery System for Automotive and Following 2nd Life Stationary Use

Thomas Waldmann, David Petermann, Eva‐Maria Stelter, Christin Hogrefe, Nicole Büchau, Christian Hein, C. Schäfer, Riccardo Möller, Dominik Spancken, M. Gebauer, J. E. Hack, Alexander Hepp, Gunnar Balkow, Brendan Muscutt, Andre Stegmann
article en

Abstract

The present article addresses the following research question: What are core aspects of a sustainable lithium‐ion (Li‐ion) battery system? In a multidisciplinary approach, the article describes key aspects of the battery cell safety assessment (accelerating rate calorimetry, nail penetration, overcharge) for 2nd life on the example of field‐aged cells from an automotive application, details of the stationary application, and the design of a sustainable battery system. For battery system recycling, an alternative expanded recycling process with economical aspects for the plastic recycling is described. Finally, the article summarizes CO 2 emission for Li‐ion batteries in general and gives details about life cycle aspects replacing an aluminum battery tray with a plastic battery tray.

Energy TechnologyVol. 14(1)
University of Kassel (DE), Universität Ulm (DE), Fraunhofer Institute for Structural Durability and System Reliability (DE), Umicore (Germany) (DE), Bagilstein (Germany) (DE), Zentrum für Sonnenenergie- und Wasserstoff-Forschung Baden-Württemberg (DE), Helmholtz-Institute Ulm (DE), Technische Hochschule Ulm (DE), Technische Hochschule Mittelhessen (DE)
Openalex Percentile: Top 65%
Extraction and Separation Processes
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