We show that topological superconductivity may emerge upon doping of transition metal
dichalcogenide heterobilayers above an integer-filling magnetic state of the topmost valence …

We study the near-threshold molecular and collisional physics of a strong K 40 p-wave
Feshbach resonance through a combination of measurements, numerical calculations, and …

The ultracold and weakly coupled Fermi gas in two spatial dimensions is studied in an
effective field theory framework. It has long been observed that universal corrections to the …

We systematically studied the two-body loss in a two-component Fermi gas of Li 6 atoms
near ap-wave Feshbach resonance. The two-body loss rate constants were measured for …

We investigate the scattering properties and bound states of a quasi-two-dimensional (Q2D)
spin-polarized Fermi gas near ap-wave Feshbach resonance. Strong confinement promotes …

Low-dimensional ultracold gases are created in the laboratory by confining three-
dimensional (3D) gases inside highly anisotropic trapping potentials. Such trap geometries …

We describe the three-body loss coefficient of identical fermions with p-wave interactions
using a set of rate equations in which three-body recombination happens via an indirect …

Orbital degrees of freedom play an essential role in metals, semiconductors, and strongly
confined electronic systems. Experiments with ultracold atoms have used highly anisotropic …

An important tool for understanding the effects of interactions in harmonically trapped atomic
gases is the examination of their collective modes. One such mode is the breathing or …

We study the Fermi liquid properties of a single component Fermi gas with p-wave
interactions. In the weak repulsive limit, we obtain exact perturbative expansions for the …