Steady-state nonequilibrium density of states of driven strongly correlated lattice models in infinite dimensions

Abstract

The formalism for exactly calculating the retarded and advanced Green's functions of strongly correlated lattice models in a uniform electric field is derived within dynamical mean-field theory. To illustrate the method, we solve for the nonequilibrium density of states of the Hubbard model in both the metallic and Mott insulating phases at half-filling (with an arbitrary strength electric field) by employing the numerical renormalization group as the impurity solver. This general approach can be applied to any strongly correlated lattice model in the limit of large dimensions.

(5 pages, 2 figures, RevTeX)

References in corpus (6)

• The numerical renormalization group method for quantum impurity systems
• Atom interferometry with a weakly-interacting Bose Einstein condensate
• Measuring the one-particle excitations of ultracold fermionic atoms by stimulated Raman spectroscopy
• Quenching Bloch oscillations in a strongly correlated material
• Imaginary-time formulation of steady-state nonequilibrium: application to strongly correlated transport
• Nonequilibrium sum rules for the retarded self-energy of strongly correlated electrons

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