Influence of Solidification Rate and Impurity Content on 5/7-Crossover Alloys

Research output: Chapter in Book/Report/Conference proceedingChapterResearch

Standard

Influence of Solidification Rate and Impurity Content on 5/7-Crossover Alloys. / Samberger, Sebastian; Stemper, Lukas; Uggowitzer, Peter et al.
The Minerals, Metals & Materials Series. ed. / Samuel Wagstaff. Vol. 2024 2024. p. 226-233 (Light Metals 2024).

Research output: Chapter in Book/Report/Conference proceedingChapterResearch

Harvard

Samberger, S, Stemper, L, Uggowitzer, P, Tosone, R & Pogatscher, S 2024, Influence of Solidification Rate and Impurity Content on 5/7-Crossover Alloys. in S Wagstaff (ed.), The Minerals, Metals & Materials Series. vol. 2024, Light Metals 2024, pp. 226-233. https://doi.org/10.1007/978-3-031-50308-5_28

APA

Samberger, S., Stemper, L., Uggowitzer, P., Tosone, R., & Pogatscher, S. (2024). Influence of Solidification Rate and Impurity Content on 5/7-Crossover Alloys. In S. Wagstaff (Ed.), The Minerals, Metals & Materials Series (Vol. 2024, pp. 226-233). (Light Metals 2024). https://doi.org/10.1007/978-3-031-50308-5_28

Vancouver

Samberger S, Stemper L, Uggowitzer P, Tosone R, Pogatscher S. Influence of Solidification Rate and Impurity Content on 5/7-Crossover Alloys. In Wagstaff S, editor, The Minerals, Metals & Materials Series. Vol. 2024. 2024. p. 226-233. (Light Metals 2024). doi: 10.1007/978-3-031-50308-5_28

Author

Samberger, Sebastian ; Stemper, Lukas ; Uggowitzer, Peter et al. / Influence of Solidification Rate and Impurity Content on 5/7-Crossover Alloys. The Minerals, Metals & Materials Series. editor / Samuel Wagstaff. Vol. 2024 2024. pp. 226-233 (Light Metals 2024).

Bibtex - Download

@inbook{dd49947e59a541e3994117517c095140,
title = "Influence of Solidification Rate and Impurity Content on 5/7-Crossover Alloys",
abstract = "In view of an upcoming scrap wave and the need for products with lower carbon footprint, there is an urgent need to increase the recycled fraction in wrought aluminum alloys. However, due to the narrow compositional limits of conventional aluminum wrought alloys and the higher impurity levels in scrap material, the applicable recycling content is limited. Therefore, new approaches need to be identified to increase the recycled content. The introduction of the AlMgZn(Cu) Crossover alloy concept may prove to be a step forward in escaping the corset of conventional alloying systems. The 5/7-Crossover alloy not only overcomes the long-standing trade-off between the excellent formability of 5xxx-series alloys and the outstanding strength of 7xxx-series alloys by combining both properties but may also tolerate a higher content of impurity elements. The scope of this study is to properly address the 5/7-Crossover alloy{\textquoteright}s sustainability in terms of its ability to be manufactured from secondary raw materials. AlMgZn(Cu) alloys with different tramp element concentrations were investigated.",
keywords = "Aluminum, Crossover alloys, Intermetallics, Phase formation, Solidification rate",
author = "Sebastian Samberger and Lukas Stemper and Peter Uggowitzer and Ramona Tosone and Stefan Pogatscher",
note = "Publisher Copyright: {\textcopyright} The Minerals, Metals & Materials Society 2024.",
year = "2024",
month = feb,
day = "3",
doi = "10.1007/978-3-031-50308-5_28",
language = "English",
isbn = "9783031503078",
volume = "2024",
series = "Light Metals 2024",
pages = "226--233",
editor = "Samuel Wagstaff",
booktitle = "The Minerals, Metals & Materials Series",

}

RIS (suitable for import to EndNote) - Download

TY - CHAP

T1 - Influence of Solidification Rate and Impurity Content on 5/7-Crossover Alloys

AU - Samberger, Sebastian

AU - Stemper, Lukas

AU - Uggowitzer, Peter

AU - Tosone, Ramona

AU - Pogatscher, Stefan

N1 - Publisher Copyright: © The Minerals, Metals & Materials Society 2024.

PY - 2024/2/3

Y1 - 2024/2/3

N2 - In view of an upcoming scrap wave and the need for products with lower carbon footprint, there is an urgent need to increase the recycled fraction in wrought aluminum alloys. However, due to the narrow compositional limits of conventional aluminum wrought alloys and the higher impurity levels in scrap material, the applicable recycling content is limited. Therefore, new approaches need to be identified to increase the recycled content. The introduction of the AlMgZn(Cu) Crossover alloy concept may prove to be a step forward in escaping the corset of conventional alloying systems. The 5/7-Crossover alloy not only overcomes the long-standing trade-off between the excellent formability of 5xxx-series alloys and the outstanding strength of 7xxx-series alloys by combining both properties but may also tolerate a higher content of impurity elements. The scope of this study is to properly address the 5/7-Crossover alloy’s sustainability in terms of its ability to be manufactured from secondary raw materials. AlMgZn(Cu) alloys with different tramp element concentrations were investigated.

AB - In view of an upcoming scrap wave and the need for products with lower carbon footprint, there is an urgent need to increase the recycled fraction in wrought aluminum alloys. However, due to the narrow compositional limits of conventional aluminum wrought alloys and the higher impurity levels in scrap material, the applicable recycling content is limited. Therefore, new approaches need to be identified to increase the recycled content. The introduction of the AlMgZn(Cu) Crossover alloy concept may prove to be a step forward in escaping the corset of conventional alloying systems. The 5/7-Crossover alloy not only overcomes the long-standing trade-off between the excellent formability of 5xxx-series alloys and the outstanding strength of 7xxx-series alloys by combining both properties but may also tolerate a higher content of impurity elements. The scope of this study is to properly address the 5/7-Crossover alloy’s sustainability in terms of its ability to be manufactured from secondary raw materials. AlMgZn(Cu) alloys with different tramp element concentrations were investigated.

KW - Aluminum

KW - Crossover alloys

KW - Intermetallics

KW - Phase formation

KW - Solidification rate

UR - http://dx.doi.org/10.1007/978-3-031-50308-5_28

U2 - 10.1007/978-3-031-50308-5_28

DO - 10.1007/978-3-031-50308-5_28

M3 - Chapter

SN - 9783031503078

VL - 2024

T3 - Light Metals 2024

SP - 226

EP - 233

BT - The Minerals, Metals & Materials Series

A2 - Wagstaff, Samuel

ER -