TMB (TM = Cr, Fe) monolayers: a new type of room temperature antiferromagnetic topological nodal line semimetal

Two-dimensional materials that combine magnetism and topology offer unique advantages in the fields of spintronics and quantum computing. However, the design of two-dimensional (2D) materials simultaneously integrating both properties remains a significant challenge. Through systematic first-principles calculations, we predict two highly stable two-dimensional transition metal borides (TMBs). Our results reveal that both structures are antiferromagnetic (AFM) Dirac nodal line semimetals (NLSMs) with multiple band crossings near the Fermi level. Under biaxial strain, FeB can be transformed into a ferromagnetic state under 2% tensile strain, which is further verified to possess Weyl nodal loops (Weyl NLs). This discovery provides novel insights for the regulation of magnetic topological materials and holds promising potential for applications in low-power-consumption spintronic devices.

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Publication Details

Journal
Nanoscale Horizons
Published
2025-01-01
DOI
https://doi.org/10.1039/d5nh00224a
Primary Topic
Topological Materials and Phenomena
Type
article
Field-Weighted Citation Impact
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article

TMB (TM = Cr, Fe) monolayers: a new type of room temperature antiferromagnetic topological nodal line semimetal

Zijin Wang, Changlei Yan, Ai‐Lei He, Jie Li et al.
Nanoscale Horizons
Topological Materials and Phenomena
article

TMB (TM = Cr, Fe) monolayers: a new type of room temperature antiferromagnetic topological nodal line semimetal

Zijin Wang, Changlei Yan, Ai‐Lei He, Jie Li, Xiuyun Zhang, Yuanyuan Duan, Yuqing Mao
article en

Abstract

Two-dimensional materials that combine magnetism and topology offer unique advantages in the fields of spintronics and quantum computing. However, the design of two-dimensional (2D) materials simultaneously integrating both properties remains a significant challenge. Through systematic first-principles calculations, we predict two highly stable two-dimensional transition metal borides (TMBs). Our results reveal that both structures are antiferromagnetic (AFM) Dirac nodal line semimetals (NLSMs) with multiple band crossings near the Fermi level. Under biaxial strain, FeB can be transformed into a ferromagnetic state under 2% tensile strain, which is further verified to possess Weyl nodal loops (Weyl NLs). This discovery provides novel insights for the regulation of magnetic topological materials and holds promising potential for applications in low-power-consumption spintronic devices.

Nanoscale HorizonsVol. 10(7)
Yangzhou University (CN)
Openalex Percentile: Top 92%
Topological Materials and Phenomena
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