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 …

New developments in superconductivity, particularly through unexpected and often
surprising forms of superconducting materials, continue to excite the community and …

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

We study a possible superconductivity in quasiperiodic systems by portraying the issue
within the attractive Hubbard model on a Penrose lattice. Applying a real-space dynamical …

We study the spontaneous symmetry breaking of the excitonic insulator state induced by the
Coulomb interaction U in the two-dimensional extended Falicov-Kimball model. Using the …

We study the time evolution of the antiferromagnetic order parameter after interaction
quenches in the Hubbard model. Using the nonequilibrium dynamical mean-field formalism …

We study the Holstein-Hubbard model at half filling to explore ordered phases including
superconductivity (SC), antiferromagnetism (AF), and charge order (CO) in situations where …

Understanding competing instabilities in systems with correlated fermions remains one of
the holy grails of modern condensed matter physics. Among the fermionic lattice models …

We provide a fresh perspective on the pseudogap physics for attractive fermions as
described by the three-dimensional Hubbard model. The pseudogap in the single-particle …

We study the unitary time evolution of antiferromagnetic order in the Hubbard model after a
quench starting from the perfect Néel state. In this setup, which is well suited for experiments …