TY - GEN
T1 - Toward a Circular Economy in Deep Drawing: Remanufacturing End-of-Life Automotive Parts
AU - Grabner, Florian
AU - Oberhauser, Paul
AU - Hovden, Sindre Løver
AU - Schlögl, Carina
A2 - Österreicher, Johannes A.
PY - 2025
Y1 - 2025
N2 - Recycling aluminium typically involves energy-intensive melting processes. This study presents a more sustainable approach by directly remanufacturing deep-drawn parts from end-of-life aluminium automotive components. We used aluminium engine hoods as a source material, beginning with assessment of alloy composition and tensile properties. Dismantling operations and the removal of coating and adhesive bonds were studied to prepare the material. The blanks were then processed through deep drawing using various forming strategies, namely warm forming and W temper forming. The maximum draw depth achieved was 22 and 30 %, respectively, lower than with virgin sheet material, and surface quality was notably inferior. Despite these limitations, the findings highlight the feasibility of re-forming aluminium automotive scrap into deep-drawn components for specific applications, such as non-visible parts. Our approach aligns with circular economy goals, conserving resources, reducing carbon emissions, and maintaining material quality for demanding applications.
AB - Recycling aluminium typically involves energy-intensive melting processes. This study presents a more sustainable approach by directly remanufacturing deep-drawn parts from end-of-life aluminium automotive components. We used aluminium engine hoods as a source material, beginning with assessment of alloy composition and tensile properties. Dismantling operations and the removal of coating and adhesive bonds were studied to prepare the material. The blanks were then processed through deep drawing using various forming strategies, namely warm forming and W temper forming. The maximum draw depth achieved was 22 and 30 %, respectively, lower than with virgin sheet material, and surface quality was notably inferior. Despite these limitations, the findings highlight the feasibility of re-forming aluminium automotive scrap into deep-drawn components for specific applications, such as non-visible parts. Our approach aligns with circular economy goals, conserving resources, reducing carbon emissions, and maintaining material quality for demanding applications.
U2 - 10.1051/matecconf/202540802026
DO - 10.1051/matecconf/202540802026
M3 - Vortrag mit Beitrag in Tagungsband
VL - 408
T3 - MATEC Web of Conferences
BT - 44th Conference of the International Deep Drawing Research Group (IDDRG 2025)
T2 - 44th Conference of the International Deep Drawing Research Group, IDDRG 2025
Y2 - 1 June 2025 through 5 June 2025
ER -