We propose a scheme to realize the itinerant ferromagnetism of two-component cold fermionic atoms in the p-orbital bands in optical lattices. The band flatness in the two-dimensional honeycomb lattice dramatically amplifies the interaction effect, driving the ferromagnetic transition even with a relatively weak repulsive interaction. This scheme has the advantage that the stability of the system can be maintained without causing decay to the molecular state as one approaches the Feshbach resonance from the side with the positive scattering length. Experimental signatures and detections are also discussed. ©2010 The American Physical Society.link_to_subscribed_fulltex
We study a model of an equal mixture of two species of fermions in a deep optical lattice at a filli...
We address Bloch oscillations of a spin-orbit coupled atom in periodic potentials of two types: opti...
This dissertation summarizes my recent work regarding systems of strongly interacting fermionic atom...
Abstract. We propose a method for controllable preparation and detection of interaction-induced ferr...
We demonstrate that a two-dimensional (2D) optical lattice loaded with repulsive, contact-interactin...
Using continuous-space quantum Monte Carlo methods, we investigate the zero-temperature ferroma...
We propose an easy to use model for interacting atoms in an optical lattice. This model allows for t...
We study a two-dimensional fermionic cloud of repulsive alkali-metal atoms characterized by two hype...
We study a one-dimensional (1D) two-component atomic Fermi gas with an infinite intercomponent conta...
We propose an easy to use model to solve for interacting atoms in an optical lattice. This model all...
The ground-state properties of the Hubbard chain with on-site repulsion and anisotropic nearest-neig...
We propose an experiment to explore the magnetic phase transitions in interacting fermionic Hubbard...
Can a gas of spin-up and spin-down fermions become ferromagnetic because of repulsive interactions? ...
We study a model of an equal mixture of two species of fermions in a deep optical lattice at a filli...
We address Bloch oscillations of a spin-orbit coupled atom in periodic potentials of two types: opti...
This dissertation summarizes my recent work regarding systems of strongly interacting fermionic atom...
Abstract. We propose a method for controllable preparation and detection of interaction-induced ferr...
We demonstrate that a two-dimensional (2D) optical lattice loaded with repulsive, contact-interactin...
Using continuous-space quantum Monte Carlo methods, we investigate the zero-temperature ferroma...
We propose an easy to use model for interacting atoms in an optical lattice. This model allows for t...
We study a two-dimensional fermionic cloud of repulsive alkali-metal atoms characterized by two hype...
We study a one-dimensional (1D) two-component atomic Fermi gas with an infinite intercomponent conta...
We propose an easy to use model to solve for interacting atoms in an optical lattice. This model all...
The ground-state properties of the Hubbard chain with on-site repulsion and anisotropic nearest-neig...
We propose an experiment to explore the magnetic phase transitions in interacting fermionic Hubbard...
Can a gas of spin-up and spin-down fermions become ferromagnetic because of repulsive interactions? ...
We study a model of an equal mixture of two species of fermions in a deep optical lattice at a filli...
We address Bloch oscillations of a spin-orbit coupled atom in periodic potentials of two types: opti...
This dissertation summarizes my recent work regarding systems of strongly interacting fermionic atom...