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Intrinsic Magnetic Topological Materials

Fuente: arXiv

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Auteurs principaux:	Wang, Yuan, Zhang, Fayuan, Zeng, Meng, Sun, Hongyi, Hao, Zhanyang, Cai, Yongqing, Rong, Hongtao, Zhang, Chengcheng, Liu, Cai, Ma, Xiaoming, Wang, Le, Guo, Shu, Lin, Junhao, Liu, Qihang, Liu, Chang, Chen, Chaoyu
Format:	Preprint
Publié:	2022
Sujets:	Mesoscale and Nanoscale Physics
Accès en ligne:	Acceder al recurso
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_version_	1866917748403077120
author	Wang, Yuan Zhang, Fayuan Zeng, Meng Sun, Hongyi Hao, Zhanyang Cai, Yongqing Rong, Hongtao Zhang, Chengcheng Liu, Cai Ma, Xiaoming Wang, Le Guo, Shu Lin, Junhao Liu, Qihang Liu, Chang Chen, Chaoyu
author_facet	Wang, Yuan Zhang, Fayuan Zeng, Meng Sun, Hongyi Hao, Zhanyang Cai, Yongqing Rong, Hongtao Zhang, Chengcheng Liu, Cai Ma, Xiaoming Wang, Le Guo, Shu Lin, Junhao Liu, Qihang Liu, Chang Chen, Chaoyu
contents	Topological states of matter possess bulk electronic structures categorized by topological invariants and edge/surface states due to the bulk-boundary correspondence. Topological materials hold great potential in the development of dissipationless spintronics, information storage, and quantum computation, particularly if combined with magnetic order intrinsically or extrinsically. Here, we review the recent progress in the exploration of intrinsic magnetic topological materials, including but not limited to magnetic topological insulators, magnetic topological metals, and magnetic Weyl semimetals. We pay special attention to their characteristic band features such as the gap of topological surface state, gapped Dirac cone induced by magnetization (either bulk or surface), Weyl nodal point/line, and Fermi arc, as well as the exotic transport responses resulting from such band features. We conclude with a brief envision for experimental explorations of new physics or effects by incorporating other orders in intrinsic magnetic topological materials.
format	Preprint
id	arxiv_https___arxiv_org_abs_2212_09057
institution	arXiv
publishDate	2022
record_format	arxiv
spellingShingle	Intrinsic Magnetic Topological Materials Wang, Yuan Zhang, Fayuan Zeng, Meng Sun, Hongyi Hao, Zhanyang Cai, Yongqing Rong, Hongtao Zhang, Chengcheng Liu, Cai Ma, Xiaoming Wang, Le Guo, Shu Lin, Junhao Liu, Qihang Liu, Chang Chen, Chaoyu Mesoscale and Nanoscale Physics Topological states of matter possess bulk electronic structures categorized by topological invariants and edge/surface states due to the bulk-boundary correspondence. Topological materials hold great potential in the development of dissipationless spintronics, information storage, and quantum computation, particularly if combined with magnetic order intrinsically or extrinsically. Here, we review the recent progress in the exploration of intrinsic magnetic topological materials, including but not limited to magnetic topological insulators, magnetic topological metals, and magnetic Weyl semimetals. We pay special attention to their characteristic band features such as the gap of topological surface state, gapped Dirac cone induced by magnetization (either bulk or surface), Weyl nodal point/line, and Fermi arc, as well as the exotic transport responses resulting from such band features. We conclude with a brief envision for experimental explorations of new physics or effects by incorporating other orders in intrinsic magnetic topological materials.
title	Intrinsic Magnetic Topological Materials
topic	Mesoscale and Nanoscale Physics
url	https://arxiv.org/abs/2212.09057