A Semiclassical Kinetic Theory of Dirac Particles and Thomas Precession
arXiv:1508.00781 · doi:10.1016/j.physletb.2015.07.059
Abstract
Kinetic theory of Dirac fermions is studied within the matrix valued differential forms method. It is based on the symplectic form derived by employing the semiclassical wave packet build of the positive energy solutions of the Dirac equation. A satisfactory definition of the distribution matrix elements imposes to work in the basis where the helicity is diagonal which is also needed to attain the massless limit. We show that the kinematic Thomas precession correction can be studied straightforwardly within this approach. It contributes on an equal footing with the Berry gauge fields. In fact in equations of motion it eliminates the terms arising from the Berry gauge fields.
12 pages
References in corpus (9)
- Berry Curvature, Triangle Anomalies, and the Chiral Magnetic Effect in Fermi Liquids
- Lorentz Invariance in Chiral Kinetic Theory
- Chiral transport equation from the quantum Dirac Hamiltonian and the on-shell effective field theory
- Semiclassical Diagonalization of Quantum Hamiltonian and Equations of Motion with Berry Phase Corrections
- Kinetic equations for massive Dirac fermions in electromagnetic field with non-Abelian Berry phase
- Berry Phase, Lorentz Covariance, and Anomalous Velocity for Dirac and Weyl Particles
- Bobbing and Kicks in Electromagnetism and Gravity
- Relation Between the Spin Hall Conductivity and the Spin Chern Number for Dirac-like Systems
- A Semiclassical Formulation of the Chiral Magnetic Effect and Chiral Anomaly in Even d+1 Dimensions
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