We present a time-linear scaling method to simulate open and correlated quantum systems
out of equilibrium. The method inherits from many-body perturbation theory the possibility to …

We present recent advances in density functional theory (DFT) for applications in the field of
quantum transport, with particular emphasis on transport through strongly correlated …

We present a brief pedagogical review of theoretical Green's function methods applicable to
open quantum systems out of equilibrium, in general, and single molecule junctions, in …

Recently, borophene was reported to be produced on silver surfaces. We employed density
functional theory and electronic transport calculations to investigate the stabilities, electronic …

We investigate out-of-equilibrium dynamics in an excitonic insulator (EI) with a finite-
momentum pairing perturbed by a laser-pulse excitation and a sudden coupling to fermionic …

We review one of the most versatile theoretical approaches to the study of time-dependent
correlated quantum transport in nano-systems: the non-equilibrium Green's function (NEGF) …

It has long been known that quantum particles moving in a periodic lattice and subject to a
constant force field undergo an oscillatory motion that is referred to as Bloch oscillations …

The wide-band limit is a commonly used approximation to analyze transport through
nanoscale devices. In this work we investigate its applicability to the study of charge and …

Nonequilibrium quantum transport is of central importance in nanotechnology. Its description
requires the understanding of strong electronic correlations that couple atomic-scale …

The generalized Kadanoff–Baym ansatz (GKBA) offers a computationally inexpensive
approach to simulate out-of-equilibrium quantum systems within the framework of …