Rare-Earth Chalcogenides: An Inspiring Playground for Exploring Frustrated Magnetism

Abstract The rare-earth chalcogenide ARECh 2 family ( A = alkali metal or monovalent ions, RE = rare earth, Ch = chalcogen) has emerged as a paradigmatic platform for studying frustrated magnetism on a triangular lattice. The family members exhibit a variety of ground states, from quantum spin liquid to exotic ordered phases, providing fascinating insight into quantum magnetism. Their simple crystal structure and chemical tunability enable systematic exploration of competing interactions in quantum magnets. Recent neutron scattering and thermodynamic studies have revealed rich phase diagrams and unusual excitations, refining theoretical models of frustrated systems. This review provides a succinct introduction to ARECh 2 research. It summarizes key findings on crystal structures, single-ion physics, magnetic Hamiltonians, ground states, and low-energy excitations. By highlighting current developments and open questions, we aim to catalyze further exploration and deeper physical understanding on this frontier of quantum magnetism.

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Publication Details

Journal
Chinese Physics Letters
Published
2024-10-23
DOI
https://doi.org/10.1088/0256-307x/41/11/117505
Citations
12
Primary Topic
Advanced Condensed Matter Physics
Type
article
Field-Weighted Citation Impact
3.73

Funders

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article

Rare-Earth Chalcogenides: An Inspiring Playground for Exploring Frustrated Magnetism

Weizhen Zhuo, Yanzhen Cai, Mingtai Xie, Qingming Zhang et al.
12 citations
Chinese Physics Letters
Advanced Condensed Matter Physics
3.73
article

Rare-Earth Chalcogenides: An Inspiring Playground for Exploring Frustrated Magnetism

Weizhen Zhuo, Yanzhen Cai, Mingtai Xie, Qingming Zhang, Zheng Zhang
article en
12 citations

Abstract

Abstract The rare-earth chalcogenide ARECh 2 family ( A = alkali metal or monovalent ions, RE = rare earth, Ch = chalcogen) has emerged as a paradigmatic platform for studying frustrated magnetism on a triangular lattice. The family members exhibit a variety of ground states, from quantum spin liquid to exotic ordered phases, providing fascinating insight into quantum magnetism. Their simple crystal structure and chemical tunability enable systematic exploration of competing interactions in quantum magnets. Recent neutron scattering and thermodynamic studies have revealed rich phase diagrams and unusual excitations, refining theoretical models of frustrated systems. This review provides a succinct introduction to ARECh 2 research. It summarizes key findings on crystal structures, single-ion physics, magnetic Hamiltonians, ground states, and low-energy excitations. By highlighting current developments and open questions, we aim to catalyze further exploration and deeper physical understanding on this frontier of quantum magnetism.

Chinese Physics LettersVol. 41(11)
Institute of Physics (CN), Lanzhou University (CN)
National Science Foundation, National Natural Science Foundation of China, Chinese Academy of Sciences, Sun Yat-sen University, Beijing Normal University, Fudan University, National Key Research and Development Program of China
Openalex Percentile: Top 6%
Advanced Condensed Matter Physics
3.73
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