Exploring the magnetic and magnetocaloric properties of PLA composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05 for additive manufacturing

We performed an experimental study on the structural and magnetocaloric properties of PLA-based composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05. X-ray diffraction patterns confirmed that the as-cast powder and the extruded filament composites exhibited the mixed hexagonal and orthorhombic...

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Main Authors: Ashika Bhatta, Thomas F. McKenzie, Jemma R. DeFeo, Jacob Casey, Venkateswara Yenugonda, Shakhzodkhon Mukaddaskhonov, Gejla Toromani, Arjun K. Pathak, Mahmud Khan
Format: Article
Language:English
Published: AIP Publishing LLC 2025-03-01
Series:AIP Advances
Online Access:http://dx.doi.org/10.1063/9.0000942
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author Ashika Bhatta
Thomas F. McKenzie
Jemma R. DeFeo
Jacob Casey
Venkateswara Yenugonda
Shakhzodkhon Mukaddaskhonov
Gejla Toromani
Arjun K. Pathak
Mahmud Khan
author_facet Ashika Bhatta
Thomas F. McKenzie
Jemma R. DeFeo
Jacob Casey
Venkateswara Yenugonda
Shakhzodkhon Mukaddaskhonov
Gejla Toromani
Arjun K. Pathak
Mahmud Khan
author_sort Ashika Bhatta
collection DOAJ
description We performed an experimental study on the structural and magnetocaloric properties of PLA-based composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05. X-ray diffraction patterns confirmed that the as-cast powder and the extruded filament composites exhibited the mixed hexagonal and orthorhombic crystal structures at room temperature. The dc magnetization data showed that all samples exhibited the first-order magnetic phase transition near room temperature. The entropy changes evaluated from the isothermal magnetization data peaked at 301 K for the powder sample and 322 K for the filament with 57 wt. % powder during warming. For a field change of 5 T, peak entropy changes of −5.5 J kg−1 K−1 and −1.2 J kg−1 K−1 were observed for powder and filament, respectively. The results suggested that PLA-composite additive manufacturing may be a promising technique for producing magnetocaloric coolants from brittle materials.
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institution DOAJ
issn 2158-3226
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publishDate 2025-03-01
publisher AIP Publishing LLC
record_format Article
series AIP Advances
spelling doaj-art-fa6cc5abc2df4863840120953094e8802025-08-20T03:03:07ZengAIP Publishing LLCAIP Advances2158-32262025-03-01153035216035216-510.1063/9.0000942Exploring the magnetic and magnetocaloric properties of PLA composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05 for additive manufacturingAshika Bhatta0Thomas F. McKenzie1Jemma R. DeFeo2Jacob Casey3Venkateswara Yenugonda4Shakhzodkhon Mukaddaskhonov5Gejla Toromani6Arjun K. Pathak7Mahmud Khan8Department of Physics, Miami University, Oxford, Ohio 45056, USADepartment of Physics, Miami University, Oxford, Ohio 45056, USADepartment of Physics, SUNY Buffalo State University, Buffalo, New York 14222, USADepartment of Physics, SUNY Buffalo State University, Buffalo, New York 14222, USADepartment of Physics, SUNY Buffalo State University, Buffalo, New York 14222, USADepartment of Physics, Miami University, Oxford, Ohio 45056, USADepartment of Physics, Miami University, Oxford, Ohio 45056, USADepartment of Physics, SUNY Buffalo State University, Buffalo, New York 14222, USADepartment of Physics, Miami University, Oxford, Ohio 45056, USAWe performed an experimental study on the structural and magnetocaloric properties of PLA-based composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05. X-ray diffraction patterns confirmed that the as-cast powder and the extruded filament composites exhibited the mixed hexagonal and orthorhombic crystal structures at room temperature. The dc magnetization data showed that all samples exhibited the first-order magnetic phase transition near room temperature. The entropy changes evaluated from the isothermal magnetization data peaked at 301 K for the powder sample and 322 K for the filament with 57 wt. % powder during warming. For a field change of 5 T, peak entropy changes of −5.5 J kg−1 K−1 and −1.2 J kg−1 K−1 were observed for powder and filament, respectively. The results suggested that PLA-composite additive manufacturing may be a promising technique for producing magnetocaloric coolants from brittle materials.http://dx.doi.org/10.1063/9.0000942
spellingShingle Ashika Bhatta
Thomas F. McKenzie
Jemma R. DeFeo
Jacob Casey
Venkateswara Yenugonda
Shakhzodkhon Mukaddaskhonov
Gejla Toromani
Arjun K. Pathak
Mahmud Khan
Exploring the magnetic and magnetocaloric properties of PLA composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05 for additive manufacturing
AIP Advances
title Exploring the magnetic and magnetocaloric properties of PLA composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05 for additive manufacturing
title_full Exploring the magnetic and magnetocaloric properties of PLA composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05 for additive manufacturing
title_fullStr Exploring the magnetic and magnetocaloric properties of PLA composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05 for additive manufacturing
title_full_unstemmed Exploring the magnetic and magnetocaloric properties of PLA composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05 for additive manufacturing
title_short Exploring the magnetic and magnetocaloric properties of PLA composite filaments of Mn0.5Fe0.5Ni0.95Cr0.05Si0.95Al0.05 for additive manufacturing
title_sort exploring the magnetic and magnetocaloric properties of pla composite filaments of mn0 5fe0 5ni0 95cr0 05si0 95al0 05 for additive manufacturing
url http://dx.doi.org/10.1063/9.0000942
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