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Main Authors: Endichi, A., Bouhani, H., Baggari, O., Zaari, H., Mounkachi, O., Kenz, A. El, Benyoussef, A.
Format: Preprint
Published: 2024
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Online Access:https://arxiv.org/abs/2402.09979
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author Endichi, A.
Bouhani, H.
Baggari, O.
Zaari, H.
Mounkachi, O.
Kenz, A. El
Benyoussef, A.
author_facet Endichi, A.
Bouhani, H.
Baggari, O.
Zaari, H.
Mounkachi, O.
Kenz, A. El
Benyoussef, A.
contents Gadolinium stand as the favored choice among magnetic refrigerant materials for numerous active magnetic regenerator (AMR) prototypes due to its remarkable ability to exhibit a substantial change in magnetic entropy. This unique characteristic arises from its status as one of the elemental ferromagnets with a high Curie temperature, closely aligning with room temperature conditions, and undergoing a second-order magnetic phase transition. In this comprehensive study, we employ density functional theory (DFT) calculations to explore the structural, electronic, and magnetic properties of both Gadolinium bulk and film configurations. Our primary objective is to gain a deeper understanding of the intricate physics underlying the intriguing magnetocaloric features observed in Gadolinium. This investigation provides valuable insights into the potential applications and the broader implications of Gadolinium in the realm of magnetic refrigeration technology.
format Preprint
id arxiv_https___arxiv_org_abs_2402_09979
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Insights into the magnetocaloric effect of Gadolinium: A DFT Exploration of Structural, Electronic, and Magnetic Features in Bulk and Film configurations
Endichi, A.
Bouhani, H.
Baggari, O.
Zaari, H.
Mounkachi, O.
Kenz, A. El
Benyoussef, A.
Materials Science
Gadolinium stand as the favored choice among magnetic refrigerant materials for numerous active magnetic regenerator (AMR) prototypes due to its remarkable ability to exhibit a substantial change in magnetic entropy. This unique characteristic arises from its status as one of the elemental ferromagnets with a high Curie temperature, closely aligning with room temperature conditions, and undergoing a second-order magnetic phase transition. In this comprehensive study, we employ density functional theory (DFT) calculations to explore the structural, electronic, and magnetic properties of both Gadolinium bulk and film configurations. Our primary objective is to gain a deeper understanding of the intricate physics underlying the intriguing magnetocaloric features observed in Gadolinium. This investigation provides valuable insights into the potential applications and the broader implications of Gadolinium in the realm of magnetic refrigeration technology.
title Insights into the magnetocaloric effect of Gadolinium: A DFT Exploration of Structural, Electronic, and Magnetic Features in Bulk and Film configurations
topic Materials Science
url https://arxiv.org/abs/2402.09979