Probing the Chirality of Trigonal Selenium and Tellurium by Spin and Orbital Hall Effects
arXiv:2605.14506 · doi:10.1103/27lp-vbfd
Abstract
Chiral crystals exhibit enantiomer-dependent transport phenomena that generate pure spin or orbital currents, while the handedness sensitivity of spin and orbital Hall conductivities (SHC/OHC) remains insufficiently understood. Using first-principles calculations, we demonstrate that trigonal selenium and tellurium -- prototypical chiral semiconductors -- exhibit opposite signs of the SHC/OHC tensor elements and between their left- and right-handed enantiomers. This behavior originates from the mirror operation relating the two structures, described by space groups (left-handed) and (right-handed). Although both enantiomers share identical band structures and four nonzero SHC/OHC tensor components, and reverse sign due to the antisymmetric transformation of the spin/orbital Berry curvature under the mirror operation. More generally, for mirror-related enantiomorphic structures, selected SHC/OHC tensor components can exhibit symmetry-governed sign reversal. For trigonal Se and Te, the calculated signs of these components can be directly correlated with the left- and right-handed structures under the chosen coordinate convention. These results clarify the symmetry origin of handedness-dependent SHC/OHC and suggest a possible route for correlating measurable SHC/OHC signals with structural handedness in specific chiral materials.
arXiv comment9 pages, 6 figures
References in corpus (29)
- Maximally localized Wannier functions: Theory and applications
- WannierTools: An open-source software package for novel topological materials
- Study of Intrinsic Spin Hall Effect and Orbital Hall Effect in 4d- and 5d- Transition Metals
- Intrinsic Spin and Orbital Hall Effects from Orbital Texture
- Discovery of topological chiral crystals with helicoid arc states
- Spin-Selective Transport of Electron in DNA Double Helix
- Strong, anisotropic anomalous Hall effect and spin Hall effect in chiral antiferromagnetic compounds Mn ( = Ge, Sn, Ga, Ir, Rh and Pt)
- Chiral Topological Semimetal with Multifold Band Crossings and Long Fermi arcs
- Weyl Node and Spin Texture in Trigonal Tellurium and Selenium
- Calculation of intrinsic spin Hall conductivity by Wannier interpolation
- Gyrotropic effects in trigonal tellurium studied from first principles
- Radial spin texture in elemental tellurium with chiral crystal structure
- Composite Weyl nodes stabilized by screw symmetry with and without time reversal
- Interplay of Structural Chirality, Electron Spin and Topological Orbital in Chiral Molecular Spin Valves
- Unconventional spin Hall effects in nonmagnetic solids
- Chirality selective magnon-phonon hybridization and magnon-induced chiral phonons in a layered zigzag antiferromagnet
- Observation of giant spin-split Fermi-arc with maximal Chern number in the chiral topological semimetal PtGa
- Chirality-Induced Selectivity of Phonon Angular Momenta in Chiral Quartz Crystals
- Large Second-Harmonic Generation and Linear Electro-Optic Effect in Trigonal Selenium and Tellurium
- Tunable Chirality-dependent Nonlinear Electrical Responses in 2D Tellurium
- Weyl phonons in chiral crystals
- Odd non-linear conductivity under spatial inversion in chiral Tellurium
- A group-theoretic approach to the origin of chirality-induced spin selectivity in non-magnetic molecular junctions
- Probing structural chirality of crystals using high harmonic generation in solids
- Helicity-tunable spin Hall and spin Nernst effects in unconventional chiral fermion semimetals XY (X=Co, Rh; Y=Si, Ge)
- Intrinsic orbital and spin Hall effect in bismuth semimetal
- Chirality-induced orbital Edelstein effect in an analytically solvable model
- Ferroelectric polarization controlled orbital Hall conductivity in a higher-order topological insulator: \textit{d1T}-phase monolayer MoS
- Chirality-tunable non-linear Hall effect