Using a quantum Monte Carlo technique, we provide strong evidence for the stability of a saturated ferromagnetic phase in the high-density regime of the two-dimensional infinite-U Hubbard model. By decreasing the electron density, we observe a discontinuous transition to a paramagnetic phase, accompanied by a divergence of the susceptibility on the paramagnetic side. This behavior, resulting from a high degeneracy among different spin sectors, is consistent with an infinite-order phase transition. The remarkable stability of itinerant ferromagnetism renews the hope of describing this phenomenon within a purely kinetic mechanism and will facilitate the validation of experimental quantum simulators with cold atoms loaded in optical lattic...
Using continuous-space quantum Monte Carlo methods, we investigate the zero-temperature ferroma...
Itinerant ferromagnetism, phase separation and first-order paramagnetic metal to antiferromagnetic i...
Using continuous-space quantum Monte Carlo methods, we investigate the zero-temperature ferroma...
Using a quantum Monte Carlo technique, we provide strong evidence for the stability of a saturated ...
4noUsing a quantum Monte Carlo technique, we provide strong evidence for the stability of a saturate...
We present different numerical calculations based on variational quantum Monte Carlo simulations sup...
2noWe present different numerical calculations based on variational quantum Monte Carlo simulations ...
We present different numerical calculations based on variational quantum Monte Carlo simulations sup...
The Hubbard model on fcc-type lattices is studied in the dynamical mean-field theory of infinite spa...
The importance of Hund's rule coupling for the stabilization of itinerant ferromagnetism is investi...
A variety of analytical techniques suggest that quantum fluctuations lead to a fundamental instabili...
Itinerant ferromagnetism, phase separation and first-order paramagnetic metal to antiferromagnetic i...
To understand the effects of orbital degeneracy on magnetism, in particular the effects of Hund's ru...
To understand the effects of orbital degeneracy on magnetism, in particular the effects of Hund's ru...
To understand the effects of orbital degeneracy on magnetism, in particular the effects of Hund's ru...
Using continuous-space quantum Monte Carlo methods, we investigate the zero-temperature ferroma...
Itinerant ferromagnetism, phase separation and first-order paramagnetic metal to antiferromagnetic i...
Using continuous-space quantum Monte Carlo methods, we investigate the zero-temperature ferroma...
Using a quantum Monte Carlo technique, we provide strong evidence for the stability of a saturated ...
4noUsing a quantum Monte Carlo technique, we provide strong evidence for the stability of a saturate...
We present different numerical calculations based on variational quantum Monte Carlo simulations sup...
2noWe present different numerical calculations based on variational quantum Monte Carlo simulations ...
We present different numerical calculations based on variational quantum Monte Carlo simulations sup...
The Hubbard model on fcc-type lattices is studied in the dynamical mean-field theory of infinite spa...
The importance of Hund's rule coupling for the stabilization of itinerant ferromagnetism is investi...
A variety of analytical techniques suggest that quantum fluctuations lead to a fundamental instabili...
Itinerant ferromagnetism, phase separation and first-order paramagnetic metal to antiferromagnetic i...
To understand the effects of orbital degeneracy on magnetism, in particular the effects of Hund's ru...
To understand the effects of orbital degeneracy on magnetism, in particular the effects of Hund's ru...
To understand the effects of orbital degeneracy on magnetism, in particular the effects of Hund's ru...
Using continuous-space quantum Monte Carlo methods, we investigate the zero-temperature ferroma...
Itinerant ferromagnetism, phase separation and first-order paramagnetic metal to antiferromagnetic i...
Using continuous-space quantum Monte Carlo methods, we investigate the zero-temperature ferroma...