First-principles calculations predict that chiral lattice vibrations induce orbital accumulation in metals, controlled mainly by orbital character, near-degeneracies, and electron-phonon coupling.
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cond-mat.mes-hall 4years
2026 4verdicts
UNVERDICTED 4representative citing papers
A theory is derived for disorder-induced time-reversal-odd nonlinear spin and orbital Hall effects, including a scaling relation to distinguish mechanisms and model results showing orbital contributions can exceed spin ones.
Orbital currents in transition metals decay within a few atomic layers after injection and partially convert to spin currents with spin-orbit coupling, differing from spin current behavior.
Current-induced MOKE signal in Bi1-xSbx scales with resistivity as rho^1.7 and mobility as mu_c^2, consistent with Dirac carriers generating the spin current.
citing papers explorer
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First-principles prediction of chiral-phonon-induced orbital accumulation
First-principles calculations predict that chiral lattice vibrations induce orbital accumulation in metals, controlled mainly by orbital character, near-degeneracies, and electron-phonon coupling.
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Disorder induced time-reversal-odd nonlinear spin and orbital Hall effects
A theory is derived for disorder-induced time-reversal-odd nonlinear spin and orbital Hall effects, including a scaling relation to distinguish mechanisms and model results showing orbital contributions can exceed spin ones.
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Injection of orbital angular momentum into transition metals from first-principles
Orbital currents in transition metals decay within a few atomic layers after injection and partially convert to spin currents with spin-orbit coupling, differing from spin current behavior.
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Current induced magneto-optical Kerr effect as a probe of Dirac carriers in Bi$_{1-x}$Sb$_x$ alloy
Current-induced MOKE signal in Bi1-xSbx scales with resistivity as rho^1.7 and mobility as mu_c^2, consistent with Dirac carriers generating the spin current.