We experimentally and numerically investigate the sudden expansion of fermions in a homogeneous one-dimensional optical lattice. For initial states with an appreciable amount of doublons, we observe a dynamical phase separation between rapidly expanding singlons and slow doublons remaining in the trap center, realizing the key aspect of fermionic quantum distillation in the strongly interacting limit. For initial states without doublons, we find a reduced interaction dependence of the asymptotic expansion speed compared to bosons, which is explained by the interaction energy produced in the quench
In the strongly interacting limit of the Hubbard model localized double occupancies form effective h...
We study a system of few fermions in a one-dimensional harmonic trap and focus on the case of dipola...
We consider a system of non-interacting fermions in one dimension subject to a single-particle poten...
Expansion dynamics of interacting fermions in a lattice is simulated within the one-dimensional (1D)...
A variety of recent studies have shed light on the far from equilibrium behavior of quantum systems....
We theoretically investigate the thermodynamics of an interacting inhomogeneous two-component Fermi ...
We study the out-of-equilibrium dynamics of a dilute, lattice-confined Bose-Fermi mixture initialize...
We experimentally and numerically investigate the expansion of initially localized ultracold bosons ...
We study the out-of-equilibrium dynamics of bosonic atoms in a 1D optical lattice, after the ground-...
The effect of interactions on a system of fermions that are in a nonequilibrium steady state due to ...
Constraints in the dynamics of quantum many-body systems can dramatically alter transport properties...
We show that in the sudden expansion of a spin-balanced, two-component Fermi gas into an empty optic...
We investigate the ground-state properties of trapped fermion systems described by the Hubbard model...
The density distribution of the one-dimensional Hubbard model in a harmonic trapping potential is in...
Unlike typical condensed-matter systems, ultra-cold atoms loaded into optical lattices allow separat...
In the strongly interacting limit of the Hubbard model localized double occupancies form effective h...
We study a system of few fermions in a one-dimensional harmonic trap and focus on the case of dipola...
We consider a system of non-interacting fermions in one dimension subject to a single-particle poten...
Expansion dynamics of interacting fermions in a lattice is simulated within the one-dimensional (1D)...
A variety of recent studies have shed light on the far from equilibrium behavior of quantum systems....
We theoretically investigate the thermodynamics of an interacting inhomogeneous two-component Fermi ...
We study the out-of-equilibrium dynamics of a dilute, lattice-confined Bose-Fermi mixture initialize...
We experimentally and numerically investigate the expansion of initially localized ultracold bosons ...
We study the out-of-equilibrium dynamics of bosonic atoms in a 1D optical lattice, after the ground-...
The effect of interactions on a system of fermions that are in a nonequilibrium steady state due to ...
Constraints in the dynamics of quantum many-body systems can dramatically alter transport properties...
We show that in the sudden expansion of a spin-balanced, two-component Fermi gas into an empty optic...
We investigate the ground-state properties of trapped fermion systems described by the Hubbard model...
The density distribution of the one-dimensional Hubbard model in a harmonic trapping potential is in...
Unlike typical condensed-matter systems, ultra-cold atoms loaded into optical lattices allow separat...
In the strongly interacting limit of the Hubbard model localized double occupancies form effective h...
We study a system of few fermions in a one-dimensional harmonic trap and focus on the case of dipola...
We consider a system of non-interacting fermions in one dimension subject to a single-particle poten...