We examine the formation of vortices in a one- and two-component gas of bosonic atoms in a harmonic trap that is set rotating. Both the mean-field Gross-Pitaevskii approach, and the numerical diagonalization method are employed. For a two-component Bose gas, we show that beside the well-known coreless vortices of single quantization, the interatomic interactions between the two species may lead to coreless vortices of multiple quantization. We furthermore comment on the geometries of the interlaced vortex patterns. In the limit of weak interactions, we finally demonstrate a number of exact results
We examine the rotational properties of a mixture of two Bose gases. Considering the limit of weak i...
In classical hydrodynamics with uniform density, vortices move with the local fluid velocity. This d...
We study the lowest energy states of a weakly interacting trapped atomic Bose-Einstein condensate in...
We examine the formation of vortices in a one- and two-component gas of bosonic atoms in a harmonic ...
A rotating, two-component Bose-Einstein condensate is shown to exhibit vortices of multiple quantiza...
In this thesis, I explore the behavior of rotating ultra-cold Bose gases, by diagonalizing the Hamil...
We study the rotational properties of a two-component Bose gas trapped in a rotating harmonic potent...
We present the exact diagonalization study of rotating Bose-condensed gas interacting via finite-ran...
We derive analytically the phase diagram of a two-component Bose gas confined in an anharmonic poten...
For rotating Bose-Einstein condensates, the occurrence of vortices has been much discussed in the Gr...
The vortex density of a rotating superfluid, divided by its particle mass, dictates the superfluid's...
We investigate theoretically the formation of a vortex lattice in a superfluid two-spin component Fe...
We consider bosonic atoms that rotate in an anharmonic trapping potential. Using numerical diagonali...
We consider a gas of N(less than or equal to 15) Bose particles with hard-core repulsion, contained ...
The rotation of a quantum liquid induces vortices to carry angular momentum. When the system is comp...
We examine the rotational properties of a mixture of two Bose gases. Considering the limit of weak i...
In classical hydrodynamics with uniform density, vortices move with the local fluid velocity. This d...
We study the lowest energy states of a weakly interacting trapped atomic Bose-Einstein condensate in...
We examine the formation of vortices in a one- and two-component gas of bosonic atoms in a harmonic ...
A rotating, two-component Bose-Einstein condensate is shown to exhibit vortices of multiple quantiza...
In this thesis, I explore the behavior of rotating ultra-cold Bose gases, by diagonalizing the Hamil...
We study the rotational properties of a two-component Bose gas trapped in a rotating harmonic potent...
We present the exact diagonalization study of rotating Bose-condensed gas interacting via finite-ran...
We derive analytically the phase diagram of a two-component Bose gas confined in an anharmonic poten...
For rotating Bose-Einstein condensates, the occurrence of vortices has been much discussed in the Gr...
The vortex density of a rotating superfluid, divided by its particle mass, dictates the superfluid's...
We investigate theoretically the formation of a vortex lattice in a superfluid two-spin component Fe...
We consider bosonic atoms that rotate in an anharmonic trapping potential. Using numerical diagonali...
We consider a gas of N(less than or equal to 15) Bose particles with hard-core repulsion, contained ...
The rotation of a quantum liquid induces vortices to carry angular momentum. When the system is comp...
We examine the rotational properties of a mixture of two Bose gases. Considering the limit of weak i...
In classical hydrodynamics with uniform density, vortices move with the local fluid velocity. This d...
We study the lowest energy states of a weakly interacting trapped atomic Bose-Einstein condensate in...