Anisotropic chiral magnetic effect from tilted Weyl cones
arXiv:1707.00598 · doi:10.1103/PhysRevB.96.121116
Abstract
We determine the antisymmetric current-current response for a pair of (type I) tilted Weyl cones with opposite chirality. We find that the dynamical chiral magnetic effect depends on the magnitude of the tilt and on the angle between the tilting direction and the wave vector of the magnetic field. Additionally, the chiral magnetic effect is shown to be closely related to the presence of an intrinsic anomalous Hall effect with a current perpendicular to the tilting direction and the electric field. We investigate the nonanalytic long-wavelength limit of the corresponding transport coefficients.
5 pages; 5 figures; 8 pages supplemental material; second version includes responses to the referee reports
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- Rotatory power reversal induced by magnetic-current in bi-isotropic media
- Quantum magnetic oscillations in Weyl semimetals with tilted nodes
- Exploiting the violation of Lorentz symmetry for the planar Hall effect