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Auteurs principaux: Shen, Yao, Zhang, Guangkai, Zhang, Qinghua, Gui, Xuejuan, Zhang, Yu, Lee, Heemin, Kuo, Cheng-Tai, Lee, Jun-Sik, Sutarto, Ronny, Ye, Feng, Pan, Zhao, Qin, Xiaomei, Wang, Jinchen, Ying, Tianping, Long, Youwen
Format: Preprint
Publié: 2026
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Accès en ligne:https://arxiv.org/abs/2603.10412
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author Shen, Yao
Zhang, Guangkai
Zhang, Qinghua
Gui, Xuejuan
Zhang, Yu
Lee, Heemin
Kuo, Cheng-Tai
Lee, Jun-Sik
Sutarto, Ronny
Ye, Feng
Pan, Zhao
Qin, Xiaomei
Wang, Jinchen
Ying, Tianping
Long, Youwen
author_facet Shen, Yao
Zhang, Guangkai
Zhang, Qinghua
Gui, Xuejuan
Zhang, Yu
Lee, Heemin
Kuo, Cheng-Tai
Lee, Jun-Sik
Sutarto, Ronny
Ye, Feng
Pan, Zhao
Qin, Xiaomei
Wang, Jinchen
Ying, Tianping
Long, Youwen
contents Disorder in magnetic systems typically suppresses long-range order, promoting short-range states such as spin glasses and magnetic clusters. This is particularly prominent in high-entropy materials, characterized by the random distributions of local magnetic entities and exchange interactions. However, in rare exceptions, long-range magnetic order can persist in high-entropy systems, while the microscopic characters and underlying mechanisms remain elusive, especially the magnetic behaviors of individual elements. Here, combining neutron diffraction and resonant soft x-ray scattering, we have conducted an element-specific investigation into the magnetic order of a high-entropy honeycomb-lattice van der Waals material (Mn1/4Fe1/4Co1/4Ni1/4)PS3. Despite significant atomic disorder, long-range zigzag antiferromagnetic order is observed below 72 K, with all four transition-metal elements participating in a unified phase transition. However, the spin orientations of various elements are distinct, attributed to the competition between single-ion anisotropies and exchange interactions. Our findings showcase a novel form of long-range magnetic order with disordered spin orientations, which is synergically stabilized by distinct magnetic elements in a high entropy magnet, offering a new paradigm for understanding complex magnetic systems.
format Preprint
id arxiv_https___arxiv_org_abs_2603_10412
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Long-range magnetic order with disordered spin orientations in a high-entropy antiferromagnet
Shen, Yao
Zhang, Guangkai
Zhang, Qinghua
Gui, Xuejuan
Zhang, Yu
Lee, Heemin
Kuo, Cheng-Tai
Lee, Jun-Sik
Sutarto, Ronny
Ye, Feng
Pan, Zhao
Qin, Xiaomei
Wang, Jinchen
Ying, Tianping
Long, Youwen
Strongly Correlated Electrons
Materials Science
Disorder in magnetic systems typically suppresses long-range order, promoting short-range states such as spin glasses and magnetic clusters. This is particularly prominent in high-entropy materials, characterized by the random distributions of local magnetic entities and exchange interactions. However, in rare exceptions, long-range magnetic order can persist in high-entropy systems, while the microscopic characters and underlying mechanisms remain elusive, especially the magnetic behaviors of individual elements. Here, combining neutron diffraction and resonant soft x-ray scattering, we have conducted an element-specific investigation into the magnetic order of a high-entropy honeycomb-lattice van der Waals material (Mn1/4Fe1/4Co1/4Ni1/4)PS3. Despite significant atomic disorder, long-range zigzag antiferromagnetic order is observed below 72 K, with all four transition-metal elements participating in a unified phase transition. However, the spin orientations of various elements are distinct, attributed to the competition between single-ion anisotropies and exchange interactions. Our findings showcase a novel form of long-range magnetic order with disordered spin orientations, which is synergically stabilized by distinct magnetic elements in a high entropy magnet, offering a new paradigm for understanding complex magnetic systems.
title Long-range magnetic order with disordered spin orientations in a high-entropy antiferromagnet
topic Strongly Correlated Electrons
Materials Science
url https://arxiv.org/abs/2603.10412