We consider a few-particle system of trapped neutral fermionic atoms at ultra-low temperatures, with the attractive interaction tuned to Feshbach resonance. We calculate the energies and the spatial densities of the few-body systems using a generalization of the extended Thomas-Fermi (ETF) method, and assuming the particles obey the Haldane-Wu fractional exclusion statistics (FES) at unitarity. This method is different from the scaled ETF version given by Chang and Bertsch. Our semiclassical FES results are consistent with the Monte Carlo calculations of the above authors, but can hardly be distinguished from their overall scaling of the ETF result at unitarity
We investigate the ground-state properties of trapped fermion systems described by the Hubbard model...
We present a systematic comparison of the most recent thermodynamic measurements of a trapped Fermi ...
© 2016 Dr. Christopher John BradlySince their recent experimental realisation, ultracold quantum gas...
We consider a gas of neutral fermionic atoms at ultra-low temperatures, with the attractive interact...
We consider N fermions in a two-dimensional harmonic oscillator potential interacting with a very sh...
Consider two identical atoms in a spherical harmonic oscillator interacting with a zero-range intera...
We revisit the properties of the two-component Fermi gas with short-range interactions in three dime...
We use the Thomas-Fermi method to examine the thermodynamics of particles obeying Haldane exclusion ...
Thesis (Ph.D.), Department of Physics and Astronomy, Washington State UniversityMuch progress has be...
4 pages, 1 figure, PRL formatWe explore the connections between the description of interacting parti...
We apply the general principles of effective field theories to the construction of effective interac...
We use the Thomas-Fermi method to examine the thermodynamics of particles obeying Haldane exclusion ...
Few- and many-fermion systems on the verge of stability, and consisting of strongly interacting part...
In this dissertation, we analyze both many- and few-body systems under external confinement with tun...
Thesis (Ph.D.), Department of Physics and Astronomy, Washington State UniversityUltracold atomic sys...
We investigate the ground-state properties of trapped fermion systems described by the Hubbard model...
We present a systematic comparison of the most recent thermodynamic measurements of a trapped Fermi ...
© 2016 Dr. Christopher John BradlySince their recent experimental realisation, ultracold quantum gas...
We consider a gas of neutral fermionic atoms at ultra-low temperatures, with the attractive interact...
We consider N fermions in a two-dimensional harmonic oscillator potential interacting with a very sh...
Consider two identical atoms in a spherical harmonic oscillator interacting with a zero-range intera...
We revisit the properties of the two-component Fermi gas with short-range interactions in three dime...
We use the Thomas-Fermi method to examine the thermodynamics of particles obeying Haldane exclusion ...
Thesis (Ph.D.), Department of Physics and Astronomy, Washington State UniversityMuch progress has be...
4 pages, 1 figure, PRL formatWe explore the connections between the description of interacting parti...
We apply the general principles of effective field theories to the construction of effective interac...
We use the Thomas-Fermi method to examine the thermodynamics of particles obeying Haldane exclusion ...
Few- and many-fermion systems on the verge of stability, and consisting of strongly interacting part...
In this dissertation, we analyze both many- and few-body systems under external confinement with tun...
Thesis (Ph.D.), Department of Physics and Astronomy, Washington State UniversityUltracold atomic sys...
We investigate the ground-state properties of trapped fermion systems described by the Hubbard model...
We present a systematic comparison of the most recent thermodynamic measurements of a trapped Fermi ...
© 2016 Dr. Christopher John BradlySince their recent experimental realisation, ultracold quantum gas...