Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (2025)

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Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation

Meng Zhu, Xinlu Li, Fanxing Zheng, Jianting Dong, Ye Zhou, Kun Wu, and Jia Zhang
Phys. Rev. B 110, 054420 – Published 9 August 2024
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Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (1)

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    Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (2)

    Abstract

    Noncollinear antiferromagnets (nc-AFMs) have attracted increasing research attention in spintronics due to their unique spin structures and fascinating charge and spin transport properties. By using first-principles calculations, we comprehensively investigate the charge and spin Hall effects in representative noncollinear antiferromagnet Mn3Pt. Our study reveals that the Hall effects in nc-AFMs are critically dependent on the crystal facet orientation and temperature. For (001)-oriented Mn3Pt, each charge and spin Hall conductivity element comprises time-reversal odd (T-odd) and even (T-even) contribution, associated with longitudinal conductivity, which leads to sizable and highly anisotropic Hall conductivity. The temperature dependence of charge and spin Hall conductivity has been elucidated by considering both phonon and spin disorder scattering. The scaling relations between Hall conductivity and longitudinal conductivity have also been investigated. The existence of prominent spin Hall effect in nc-AFMs may generate spin current with Sz spin polarization, which is advantageous for field-free switching of perpendicular magnetization. Our work may provide unambiguous understanding of the charge and spin transport in noncollinear antiferromagnets and pave the way for applications in antiferromagnetic spintronics.

    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (3)
    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (4)
    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (5)
    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (6)
    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (7)
    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (8)
    • Received 26 May 2024
    • Revised 26 July 2024
    • Accepted 28 July 2024

    DOI:https://doi.org/10.1103/PhysRevB.110.054420

    ©2024 American Physical Society

    1. Research Areas

    Anomalous Hall effectSpin Hall effectSpintronics

    1. Physical Systems

    AntiferromagnetsNoncollinear magnets

    1. Techniques

    Density functional theoryGreen's function methods

    Condensed Matter, Materials & Applied Physics

    Authors & Affiliations

    Meng Zhu, Xinlu Li*, Fanxing Zheng, Jianting Dong, Ye Zhou, Kun Wu, and Jia Zhang

    • *Contact author: lixinlu@hust.edu.cn
    • Contact author: jiazhang@hust.edu.cn

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    Vol. 110, Iss. 5 — 1 August 2024

    Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (9)
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    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (13)

      Figure 1

      (a) Crystal structure and spin configuration of cubic nc-AFM Mn3Pt. (b) and (c) are the top views of Mn3Pt from (111) and (001) planes. The red, green, and blue arrows along different crystallographic axes indicate the x, y, and z axes in the Cartesian coordinate. (b) and (c) are denoted as config1 and config2, which can be used to study the charge and spin Hall effect for (111) and (001)-oriented Mn3Pt, respectively.

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    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (14)

      Figure 2

      The Bloch spectra function (BSF) of cubic Mn3Pt calculated at 0 K (a), 100 K (b), 200 K (c), and 350 K (d). The horizontal white dashed lines indicate the Fermi energy.

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    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (15)

      Figure 3

      (a) The calculated temperature dependence of longitudinal resistivity ρxx. The experimental longitudinal resistivity for single-crystal bulk Mn3Pt is shown in green open diamond for comparison [47]. The inset is the experimental M(T) curve of Mn3Pt we use for considering spin-fluctuation scattering. (b) The calculated temperature-dependent T-odd (blue triangles, refer to left axis) and T-even (red diamonds, refer to right axis) charge Hall conductivity of Mn3Pt (001) in config2. T-odd experimental data are shown in blue open diamonds for comparison [47]. (c) The total T-odd and T-even charge Hall conductivity as a function of θ for Mn3Pt (001) at room temperature 300 K. The inset shows the definition of angle θ. (d) The calculated T-odd (blue triangles, refer to left axis) and T-even (red diamonds, refer to right axis) charge Hall conductivity as a function of longitudinal conductivity σxx. The dashed lines are the fitting curves based on scaling relation σ̃xyaσxx2+bσxx+c and σ¯xyaσxx+b, respectively.

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    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (16)

      Figure 4

      Comparison of spin Hall effect for SOT applications: (a) Conventional nonmagnetic heavy metals like Pt and Ta may generate spin current along z direction with only Sy spin polarization by applying charge current Jc along x direction. (b) Representative nc-AFM such as Mn3Pt (001) could produce spin current with all three spin polarizations Sx,Sy, and Sz, which is beneficial for field-free switching of perpendicular magnetization.

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    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (17)

      Figure 5

      The calculated spin Hall conductivity σzxx (a), σzxy (b), and σzxz (c) of Mn3Pt (001) in config2 as a function of temperature. (d)–(f) are the scaling relation between σzxx,σzxy, and σzxz and the longitudinal conductivity σxx, where the dashed lines are linear fittings by σzxx,y,zaσxx+b. (g)–(i) are the in-plane anisotropic spin Hall conductivity (refer to left axis) and the corresponding spin Hall angle (refer to right axis) for Mn3Pt (001) at room temperature (300 K).

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    • Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (18)

      Figure 6

      Comparison of the calculated spin Hall conductivity σzxz relevant for spin current with out-of-plane Sz spin polarization for Mn3Pt (001) at 300 K and the reported experimental results for PtTe2/WTe2/ [51], Mn3Ir [50], Mn3GaN [52], RuO2 [53], and WTe2 [54].

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    Crystal facet orientation and temperature dependence of charge and spin Hall effects in noncollinear antiferromagnets: A first-principles investigation (2025)

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