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Magnetic and Magnetostrictive Behaviors of Laves-Phase Rare-Earth—Transition-Metal Compounds Tb(1−x)Dy(x)Co(1.95)

The magnetic morphotropic phase boundary (MPB) was first discovered in Laves-phase magnetoelastic system Tb–Dy–Co alloys (PRL 104, 197201 (2010)). However, the composition-dependent and temperature-dependent magnetostrictive behavior for this system, which is crucial to both practical application an...

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Autores principales: Zhou, Chao, Li, Kaili, Chen, Yuanliang, Dai, Zhiyong, Wang, Yu, Wang, Liqun, Matsushita, Yoshitaka, Zhang, Yin, Zuo, Wenliang, Tian, Fanghua, Murtaza, Adil, Yang, Sen
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9182151/
https://www.ncbi.nlm.nih.gov/pubmed/35683182
http://dx.doi.org/10.3390/ma15113884
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author Zhou, Chao
Li, Kaili
Chen, Yuanliang
Dai, Zhiyong
Wang, Yu
Wang, Liqun
Matsushita, Yoshitaka
Zhang, Yin
Zuo, Wenliang
Tian, Fanghua
Murtaza, Adil
Yang, Sen
author_facet Zhou, Chao
Li, Kaili
Chen, Yuanliang
Dai, Zhiyong
Wang, Yu
Wang, Liqun
Matsushita, Yoshitaka
Zhang, Yin
Zuo, Wenliang
Tian, Fanghua
Murtaza, Adil
Yang, Sen
author_sort Zhou, Chao
collection PubMed
description The magnetic morphotropic phase boundary (MPB) was first discovered in Laves-phase magnetoelastic system Tb–Dy–Co alloys (PRL 104, 197201 (2010)). However, the composition-dependent and temperature-dependent magnetostrictive behavior for this system, which is crucial to both practical application and the understanding of transitions across the MPB, is still lacking. In this work, the composition-dependence and temperature-dependence of magnetostriction for Tb(1−x)Dy(x)Co(1.95) (x = 0.3~0.8) are presented. In a ferrimagnetic state (as selected 100 K in the present work), the near-MPB compositions x = 0.6 and 0.7, exhibit the largest saturation magnetization M(S) and the lowest coercive field H(C); by contrast, the off-MPB composition x = 0.5, exhibits the largest magnetostriction, the lowest M(S,) and the largest H(C). Besides, a sign change of magnetostriction is observed, which occurs with the magnetic transition across the MPB. Our results suggest the combining effect from the lattice strain induced from structure phase transition, and the influence of the MPB on magnetocrystalline anisotropy. This work may stimulate the research interests on the transition behavior around the MPB and its relationship with physical properties, and also provide guidance in designing high-performance magnetostrictive materials for practical applications.
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spelling pubmed-91821512022-06-10 Magnetic and Magnetostrictive Behaviors of Laves-Phase Rare-Earth—Transition-Metal Compounds Tb(1−x)Dy(x)Co(1.95) Zhou, Chao Li, Kaili Chen, Yuanliang Dai, Zhiyong Wang, Yu Wang, Liqun Matsushita, Yoshitaka Zhang, Yin Zuo, Wenliang Tian, Fanghua Murtaza, Adil Yang, Sen Materials (Basel) Article The magnetic morphotropic phase boundary (MPB) was first discovered in Laves-phase magnetoelastic system Tb–Dy–Co alloys (PRL 104, 197201 (2010)). However, the composition-dependent and temperature-dependent magnetostrictive behavior for this system, which is crucial to both practical application and the understanding of transitions across the MPB, is still lacking. In this work, the composition-dependence and temperature-dependence of magnetostriction for Tb(1−x)Dy(x)Co(1.95) (x = 0.3~0.8) are presented. In a ferrimagnetic state (as selected 100 K in the present work), the near-MPB compositions x = 0.6 and 0.7, exhibit the largest saturation magnetization M(S) and the lowest coercive field H(C); by contrast, the off-MPB composition x = 0.5, exhibits the largest magnetostriction, the lowest M(S,) and the largest H(C). Besides, a sign change of magnetostriction is observed, which occurs with the magnetic transition across the MPB. Our results suggest the combining effect from the lattice strain induced from structure phase transition, and the influence of the MPB on magnetocrystalline anisotropy. This work may stimulate the research interests on the transition behavior around the MPB and its relationship with physical properties, and also provide guidance in designing high-performance magnetostrictive materials for practical applications. MDPI 2022-05-29 /pmc/articles/PMC9182151/ /pubmed/35683182 http://dx.doi.org/10.3390/ma15113884 Text en © 2022 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Zhou, Chao
Li, Kaili
Chen, Yuanliang
Dai, Zhiyong
Wang, Yu
Wang, Liqun
Matsushita, Yoshitaka
Zhang, Yin
Zuo, Wenliang
Tian, Fanghua
Murtaza, Adil
Yang, Sen
Magnetic and Magnetostrictive Behaviors of Laves-Phase Rare-Earth—Transition-Metal Compounds Tb(1−x)Dy(x)Co(1.95)
title Magnetic and Magnetostrictive Behaviors of Laves-Phase Rare-Earth—Transition-Metal Compounds Tb(1−x)Dy(x)Co(1.95)
title_full Magnetic and Magnetostrictive Behaviors of Laves-Phase Rare-Earth—Transition-Metal Compounds Tb(1−x)Dy(x)Co(1.95)
title_fullStr Magnetic and Magnetostrictive Behaviors of Laves-Phase Rare-Earth—Transition-Metal Compounds Tb(1−x)Dy(x)Co(1.95)
title_full_unstemmed Magnetic and Magnetostrictive Behaviors of Laves-Phase Rare-Earth—Transition-Metal Compounds Tb(1−x)Dy(x)Co(1.95)
title_short Magnetic and Magnetostrictive Behaviors of Laves-Phase Rare-Earth—Transition-Metal Compounds Tb(1−x)Dy(x)Co(1.95)
title_sort magnetic and magnetostrictive behaviors of laves-phase rare-earth—transition-metal compounds tb(1−x)dy(x)co(1.95)
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9182151/
https://www.ncbi.nlm.nih.gov/pubmed/35683182
http://dx.doi.org/10.3390/ma15113884
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