We theoretically show the possibility to induce magnetic ordering in non-magnetic one-dimensional systems of strongly interacting electrons hopping on a tight-binding lattice. Our analysis is provided within the framework of the t1-t2 Hubbard Model, assuming non-zero second-neighbor hopping rate. It is shown that a high-frequency electric field can be exploited to induce artificial ferromagnetism and eventually control the anti-ferromagnetic/ferromagnetic phase transition. Our analysis is validated by numerical simulations in a low-density system of 2-particles on a lattice with 11 sites
The experimental realization of time-dependent ultracold lattice systems has paved the way towards t...
We demonstrate that a two-dimensional (2D) optical lattice loaded with repulsive, contact-interactin...
By using a modulated magnetic field in a Feshbach resonance for ultracold fermionic atoms in optical...
We theoretically show the possibility to induce magnetic ordering in non-magnetic one-dimensional sy...
We compare magnetism in two artificial lattice structures, a quantum dot array formed in a two-dimen...
We use a simple tight-binding model to study the magnetism of two-dimensional quantum dot lattices w...
We present a simple, but very realistic, model for a stabilization band ferromagnetism in strongly c...
We present a series of rigorous examples of the Kondo lattice model that exhibit full ferromagnetism...
We extend the Mermin-Wagner theorem to a system of lattice spins which are spin coupled to itinerant...
Using an improved version of the projection quantum Monte Carlo technique, we study the square-latti...
The Hubbard model on fcc-type lattices is studied in the dynamical mean-field theory of infinite spa...
Band ferromagnetism in strongly correlated electron systems is one of the most challenging issues in...
In the present paper, we study the existence of metallic ferromagnetism in a cluster of nanometer sc...
We investigate the necessary conditions for the emergence of complex, noncoplanar magnetic configura...
We study the 2D Kondo insulators in a uniform magnetic field using quantum Monte Carlo simulations ...
The experimental realization of time-dependent ultracold lattice systems has paved the way towards t...
We demonstrate that a two-dimensional (2D) optical lattice loaded with repulsive, contact-interactin...
By using a modulated magnetic field in a Feshbach resonance for ultracold fermionic atoms in optical...
We theoretically show the possibility to induce magnetic ordering in non-magnetic one-dimensional sy...
We compare magnetism in two artificial lattice structures, a quantum dot array formed in a two-dimen...
We use a simple tight-binding model to study the magnetism of two-dimensional quantum dot lattices w...
We present a simple, but very realistic, model for a stabilization band ferromagnetism in strongly c...
We present a series of rigorous examples of the Kondo lattice model that exhibit full ferromagnetism...
We extend the Mermin-Wagner theorem to a system of lattice spins which are spin coupled to itinerant...
Using an improved version of the projection quantum Monte Carlo technique, we study the square-latti...
The Hubbard model on fcc-type lattices is studied in the dynamical mean-field theory of infinite spa...
Band ferromagnetism in strongly correlated electron systems is one of the most challenging issues in...
In the present paper, we study the existence of metallic ferromagnetism in a cluster of nanometer sc...
We investigate the necessary conditions for the emergence of complex, noncoplanar magnetic configura...
We study the 2D Kondo insulators in a uniform magnetic field using quantum Monte Carlo simulations ...
The experimental realization of time-dependent ultracold lattice systems has paved the way towards t...
We demonstrate that a two-dimensional (2D) optical lattice loaded with repulsive, contact-interactin...
By using a modulated magnetic field in a Feshbach resonance for ultracold fermionic atoms in optical...