We revisit the properties of the two-component Fermi gas with short-range interactions in
three dimensions, in the limit where the s-wave scattering length diverges. Such a unitary …

We conduct a theoretical study of SU (N) fermions confined by a one-dimensional harmonic
potential. First, we introduce a numerical approach for solving the trapped interacting few …

The properties of two-component Fermi gases with zero-range interactions are universal.
We use an explicitly correlated Gaussian basis set expansion approach to investigate small …

Pairing lies at the heart of superfluidity in fermionic systems. Motivated by recent
experiments in mesoscopic Fermi gases, we study up to six fermionic atoms with equal …

We consider the quantum evolution of a pair of interacting atoms in a three-dimensional
isotropic trap where the interaction strength is quenched from one value to another. Using …

We consider the problem of three distinguishable fermions confined to a quasi-two-
dimensional (quasi-2D) geometry, where there is a strong harmonic potential in one …

Ultracold atomic systems have been of great theoretical and experimental interest in the past
few decades. They provide ideal paradigms to study quantum phenomena, simulate …

As dipolar gases become more readily accessible in experiment there is a need to develop
a comprehensive theoretical framework of the few-body physics of these systems. Here, we …