The study of nonequilibrium phenomena in correlated lattice systems has developed into
one of the most active and exciting branches of condensed matter physics. This research …

In the last two decades non-equilibrium spectroscopies have evolved from avant-garde
studies to crucial tools for expanding our understanding of the physics of strongly correlated …

The driven-dissipative many-body problem remains one of the most challenging unsolved
problems in quantum mechanics. The advent of quantum computers may provide a unique …

We study dynamical phase transitions from antiferromagnetic to paramagnetic states driven
by an interaction quench in the fermionic Hubbard model using the nonequilibrium …

We solve nonequilibrium dynamical mean-field theory (DMFT) using matrix product states
(MPS). This allows us to treat much larger bath sizes and by that reach substantially longer …

We investigate the properties of the metallic state obtained by photodo** carriers into a
Mott insulator. In a strongly interacting system, these carriers have a long lifetime, so that …

We study how strongly correlated electrons on a dissipative lattice evolve out of equilibrium
under a constant electric field, focusing on the extent of the linear regime and hysteretic …

We propose a generalization of the linked-cluster expansions to study driven-dissipative
quantum lattice models, directly accessing the thermodynamic limit of the system. Our …

We characterize the current-carrying nonequilibrium steady state (NESS) in a single-band
Hubbard model confronted with a static electric field in the presence of quenched disorder …

Ultra-fast spectroscopy can reveal the interplay of charges with low energy degrees of
freedom, which underlies the rich physics of correlated materials. As a potential glue for …