Magnetic and mechanical properties of additively manufactured Alx(CoFeNi) complex concentrated alloys
NARTU, Mohan Sai Kiran
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
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Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
NARTU, Mohan Sai Kiran
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
VARAHABHATLA, Sai Sree Meenakshi
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
MANTRI, Srinivas Aditya
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
DAHOTRE, Narendra
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
BANERJEE, Rajarshi
Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
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Department of Materials Science and Engineering
Center for Agile and Adaptive Manufacturing [CAAAM]
Langue
en
Article de revue
Ce document a été publié dans
Scripta Materialia. 2023, vol. 224, p. 115149 (6 p.)
Elsevier
Résumé en anglais
Varying the Al content, strongly influences the microstructure, magnetic and microhardness of additively manufactured Alx(CoFeNi) (x = 0, 10, 30) complex concentrated alloys (CCA). Compared to the single FCC phase of CoFeNi, ...Lire la suite >
Varying the Al content, strongly influences the microstructure, magnetic and microhardness of additively manufactured Alx(CoFeNi) (x = 0, 10, 30) complex concentrated alloys (CCA). Compared to the single FCC phase of CoFeNi, the hierarchical FCC/L12+BCC/B2 heterostructure of heat treated Al10(CoFeNi) CCA displayed substantially improved saturation magnetization, Curie temperature and microhardness. However, there was no significant change in the properties of heat treated CoFeNi and Al30(CoFeNi) CCA. These findings can be rationalized via thermodynamic modelling of the phase stability. We have demonstrated the feasibility of exploiting additive manufacturing for rapidly screening and developing novel high-performance alloys for next generation rotating electrical machines.< Réduire
Mots clés en anglais
Complex concentrated alloys
Additive manufacturing
Microstructure
Magnetic properties
Origine
Importé de halUnités de recherche