Ultracold polar molecules possess long-range, anisotropic and tunable dipolar interactions,
providing opportunities to probe quantum phenomena that are inaccessible with existing …

An accurate knowledge of the scattering length is fundamental in ultracold quantum gas
experiments and essential for the characterization of the system as well as for a meaningful …

We study collisional rethermalization in ultracold dipolar thermal gases, made intricate by
their anisotropic differential cross sections. Theoretical methods are provided to derive the …

Signatures of self-organized criticality (SOC) have recently been observed in an ultracold
atomic gas under continuous laser excitation to strongly interacting Rydberg states [S …

We consider plane wave modes in ultracold, but not quantum degenerate, dipolar Fermi
gases in the hydrodynamic limit. Longitudinal waves present anisotropies in both the speed …

We consider collective motion and dam** of dipolar Fermi gases in the hydrodynamic
regime. We investigate the trajectories of collective oscillations—here dubbed “weltering” …

We analytically derive the transport tensor of thermal conductivity in an ultracold, but not yet
quantum degenerate, gas of Bosonic lanthanide atoms using the Chapman-Enskog …

We present a hydrodynamic model of ultracold, but not yet quantum condensed, dipolar
bosonic gases. Such systems present both s-wave and dipolar scattering, the latter of which …

In the quest toward realizing novel quantum matter in ultracold molecular gases, we perform
a numerical study of evaporative cooling in ultracold gases of microwave-shielded polar …

Ultracold polar molecules, which have complex internal structures and dipole moments
tunable with external electric fields, are a promising system for studying many-body physics …