The experimental and theoretical research of spin–orbit-coupled ultracold atomic gases has
advanced and expanded rapidly in recent years. Here, we review some of the progress that …

We review phase-space techniques based on the Wigner representation that provide an
approximate description of dilute ultra-cold Bose gases. In this approach the quantum field …

Recently spin-orbit (SO)-coupled superfluids in free space or harmonic traps have been
extensively studied, motivated by the recent experimental realization of SO coupling for …

The system of a cold atomic gas in an optical lattice is governed by two factors: nonlinearity
originating from the interparticle interaction, and the periodicity of the system set by the …

Using a numerical implementation of the truncated Wigner approximation, we simulate the
experiment reported by Ramanathan in Phys. Rev. Lett. 106, 130401 (2011) PRLTAO 0031 …

We theoretically investigate the stochastic decay of persistent currents in a toroidal ultracold
atomic superfluid caused by a perturbing barrier. Specifically, we perform detailed three …

We study experimentally the stability of excited, interacting states of bosons in a double-well
optical lattice in regimes where the nonlinear interactions are expected to induce …

For flowing quantum gases, it has been found that at long times an initial black-hole laser
(BHL) configuration exhibits only two possible states: the ground state or a periodic self …

Quenches in isolated quantum systems are currently a subject of intense study. Here, we
consider quantum few-mode systems that are integrable in their classical mean-field limit …

The unequivocal detection of entanglement between two distinct matter-wave pulses is a
significant challenge that has yet to be experimentally demonstrated. We describe a realistic …