We develop an extension of the well-known BCS-theory to systems with trapped fermionic atoms. The theory fully includes the quantized energy levels in the trap. The key ingredient is to model the attractive interaction between two atoms by a pseudo-potential which leads to a well defined scattering problem and consequently to a BCS-theory free of divergences. We present numerical results for the BCS critical temperature and the temperature dependence of the gap. They are used as a test of existing semi-classical approximations
We give a self-contained introduction to the physics of ultracold atoms using functional integral te...
Using numerical simulation based-on a density-functional equation for a trapped Fermi-super-fluid va...
To study the behavior of atomic Fermi gases in the vicinity of Feshbach resonance, M. Holland et al....
In this dissertation, we analyze both many- and few-body systems under external confinement with tun...
We consider the BCS-BEC (Bose-Einstein-condensate) crossover for a system of trapped Fermi atoms at...
We present a rigorous derivation of the BCS gap equation for superfluid fermionic gases with point i...
We study the BCS energy gap Ξ in the high–density limit and derive an asymptotic formula, which stro...
We present a detailed study of the BCS pairing transition in a trapped polarized dipolar Fermi gas. ...
We study translation-invariant quasi-free states for a system of fermions with two-particle interact...
A detailed analysis is given of the effects of common and recurring approximations used in conventio...
We give a self-contained introduction to the physics of ultracold atoms using functional integral te...
This thesis summarizes our study on the properties of ultracold Fermions near a Feshbach resonance. ...
We derive semiclassical transport equations for a trapped atomic Fermi gas in the BCS phase at tempe...
The BCS-BEC (Bose-Einstein condensation) crossover in a lattice is a powerful paradigm that describe...
A generalized Bose-Einstein condensation (GBEC) statistical theory of superconductors accounts not f...
We give a self-contained introduction to the physics of ultracold atoms using functional integral te...
Using numerical simulation based-on a density-functional equation for a trapped Fermi-super-fluid va...
To study the behavior of atomic Fermi gases in the vicinity of Feshbach resonance, M. Holland et al....
In this dissertation, we analyze both many- and few-body systems under external confinement with tun...
We consider the BCS-BEC (Bose-Einstein-condensate) crossover for a system of trapped Fermi atoms at...
We present a rigorous derivation of the BCS gap equation for superfluid fermionic gases with point i...
We study the BCS energy gap Ξ in the high–density limit and derive an asymptotic formula, which stro...
We present a detailed study of the BCS pairing transition in a trapped polarized dipolar Fermi gas. ...
We study translation-invariant quasi-free states for a system of fermions with two-particle interact...
A detailed analysis is given of the effects of common and recurring approximations used in conventio...
We give a self-contained introduction to the physics of ultracold atoms using functional integral te...
This thesis summarizes our study on the properties of ultracold Fermions near a Feshbach resonance. ...
We derive semiclassical transport equations for a trapped atomic Fermi gas in the BCS phase at tempe...
The BCS-BEC (Bose-Einstein condensation) crossover in a lattice is a powerful paradigm that describe...
A generalized Bose-Einstein condensation (GBEC) statistical theory of superconductors accounts not f...
We give a self-contained introduction to the physics of ultracold atoms using functional integral te...
Using numerical simulation based-on a density-functional equation for a trapped Fermi-super-fluid va...
To study the behavior of atomic Fermi gases in the vicinity of Feshbach resonance, M. Holland et al....