Circular Economy can substantially reduce EU steel supply chain emissions: A quality-focused circularity assessment

Steel is strategically important for the European Union. Yet, the steel system majorly contributes to greenhouse gas emissions and resource use, which can potentially be mitigated through increased circularity. Circularity, however, is constrained by a growing surplus of low-quality steel scrap, contaminated with tramp elements. This study uses Material Flow Analysis and Life Cycle Assessment to investigate the potential of ambitious circularity measures and climate-compliant energy targets to cut emissions and conserve resources across the European Union’s steel supply chain, while addressing steel quality challenges. Results show that circularity strategies complement each other, reducing production quantities and increasing recycled content. An ambitious circular steel supply chain combined with an energy transition can decrease greenhouse gas emissions by 69%–75% compared to 2020 and can comprise up to 94% recycled steel by 2050. The findings highlight circularity’s key role in meeting global net-zero climate targets, while simultaneously increasing resource independence.

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Publication Details

Journal
Resources Conservation and Recycling
Published
2026-02-02
DOI
https://doi.org/10.1016/j.resconrec.2026.108825
Primary Topic
Iron and Steelmaking Processes
Type
article
Field-Weighted Citation Impact
0.00
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article

Circular Economy can substantially reduce EU steel supply chain emissions: A quality-focused circularity assessment

Anna M. Walker, Paola Federica Albizzati, Davide Tonini, José M. Mogollón et al.
Resources Conservation and Recycling
Iron and Steelmaking Processes
article

Circular Economy can substantially reduce EU steel supply chain emissions: A quality-focused circularity assessment

Anna M. Walker, Paola Federica Albizzati, Davide Tonini, José M. Mogollón, Aymara Wagner, Arnold Tukker
article en

Abstract

Steel is strategically important for the European Union. Yet, the steel system majorly contributes to greenhouse gas emissions and resource use, which can potentially be mitigated through increased circularity. Circularity, however, is constrained by a growing surplus of low-quality steel scrap, contaminated with tramp elements. This study uses Material Flow Analysis and Life Cycle Assessment to investigate the potential of ambitious circularity measures and climate-compliant energy targets to cut emissions and conserve resources across the European Union’s steel supply chain, while addressing steel quality challenges. Results show that circularity strategies complement each other, reducing production quantities and increasing recycled content. An ambitious circular steel supply chain combined with an energy transition can decrease greenhouse gas emissions by 69%–75% compared to 2020 and can comprise up to 94% recycled steel by 2050. The findings highlight circularity’s key role in meeting global net-zero climate targets, while simultaneously increasing resource independence.

Resources Conservation and RecyclingVol. 228
Leiden University (NL), Netherlands Organisation for Applied Scientific Research (NL), University of Applied Sciences Leiden (NL), European Commission (BE), Joint Research Center (ES)
Openalex Percentile: Top 70%
Iron and Steelmaking Processes
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