Narrow Results

Application of Wigner–Weyl calculus to the investigation of nondissipative transport phenomena is reviewed. We focus on the quantum Hall effect, Chiral Magnetic effect and Chiral separation effect, and discuss the role of interactions, inhomogeneity and deviations from equilibrium.

This paper reviews the method of bosonization for one-dimensional interacting fermions. Example of its application to mesoscopic systems is presented with an explicit calculation of the spin and charge currents in an interacting quantum wire subject to a uniform magnetic field and alternating voltage source. Special emphasis is given to the details of the calculation using bosonization and Keldysh techniques.

This paper reviews the method of bosonization for one-dimensional interacting fermions. Example of its application to mesoscopic systems is presented with an explicit calculation of the spin and charge currents in an interacting quantum wire subject to a uniform magnetic field and alternating voltage source. Special emphasis is given to the details of the calculation using bosonization and Keldysh techniques.