High‐throughput calculation of large spin Hall conductivity in heavy‐metal‐based antiperovskite compounds

Abstract Spin Hall effect (SHE) provides a promising solution to the realization of advantageous functionalities for spin‐based recording and information processing. In this work, we conduct high‐throughput calculations on the spin Hall conductivity (SHC) of antiperovskite compounds with the composition ZXM 3 , where Z is a nonmetal, X is a metal, and M is a platinum group metal. From an initial database over 4500 structures, we screen 295 structurally stable compounds and identify 24 compounds with intrinsic SHC exceeding 500 (ℏ/e) (Ω⁻ 1 cm⁻ 1 ). We reveal a strong dependence of SHC on spin‐orbit coupling‐induced energy splitting near the Fermi level. In addition, SHCs can be regulated through proper doping of electrons or holes. The present work establishes high‐throughput database of SHC in antiperovskites which is crucial for designing future electric and spintronic devices.

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Publication Details

Journal
Materials Genome Engineering Advances
Published
2024-12-04
DOI
https://doi.org/10.1002/mgea.69
Citations
4
Primary Topic
Ferroelectric and Piezoelectric Materials
Type
article
Field-Weighted Citation Impact
0.47
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article

High‐throughput calculation of large spin Hall conductivity in heavy‐metal‐based antiperovskite compounds

Hui Wang, Xiong Xu, Jun Lv, Zhe Wang et al.
4 citations
Materials Genome Engineering Advances
Ferroelectric and Piezoelectric Materials
0.47
article

High‐throughput calculation of large spin Hall conductivity in heavy‐metal‐based antiperovskite compounds

Hui Wang, Xiong Xu, Jun Lv, Zhe Wang, Yajun Wang, Min Li
article en
4 citations

Abstract

Abstract Spin Hall effect (SHE) provides a promising solution to the realization of advantageous functionalities for spin‐based recording and information processing. In this work, we conduct high‐throughput calculations on the spin Hall conductivity (SHC) of antiperovskite compounds with the composition ZXM 3 , where Z is a nonmetal, X is a metal, and M is a platinum group metal. From an initial database over 4500 structures, we screen 295 structurally stable compounds and identify 24 compounds with intrinsic SHC exceeding 500 (ℏ/e) (Ω⁻ 1 cm⁻ 1 ). We reveal a strong dependence of SHC on spin‐orbit coupling‐induced energy splitting near the Fermi level. In addition, SHCs can be regulated through proper doping of electrons or holes. The present work establishes high‐throughput database of SHC in antiperovskites which is crucial for designing future electric and spintronic devices.

Materials Genome Engineering AdvancesVol. 3(2)
Central South University (CN), University of California, Irvine (US), State Key Laboratory of Powder Metallurgy
Affordable and clean energy
Openalex Percentile: Top 37%
Ferroelectric and Piezoelectric Materials
0.47
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High‐throughput calculation of large spin Hall conductivity in heavy‐metal‐based antiperovskite compounds — Hui Wang, Xiong Xu, et al. · Materials Genome Engineering Advances (2024) | TGRS Research Map | TGRS