Within density functional theory, we have investigated the coalescence dynamics of two
superfluid helium nanodroplets hosting vortex lines in different relative orientations, which …

Here we revisit the topic of stationary and propagating solitonic excitations in self-repulsive
three-dimensional (3D) Bose–Einstein condensates by quantitatively comparing theoretical …

In this paper the properties of dark solitons in superfluid Fermi gases with spin imbalance
are studied by means of a recently developed effective field theory [Eur. Phys. J. B 88, 122 …

Under some constraints, we build exact and approximate first-and second-order rogue wave
(RW) solutions with two control and one free parameters for a quasi-one-dimensional Gross …

We characterize the collective modes of a soliton train in a quasi-one-dimensional Fermi
superfluid, using a mean-field formalism. In addition to the expected Goldstone and Higgs …

We propose a robust imaging technique that makes it possible to distinguish vortices from
antivortices in quasi-two-dimensional Bose-Einstein condensates from a single image of the …

We explore the effect of using two-dimensional matter-wave vortices to confine an ensemble
of bosonic quantum impurities. This is modeled theoretically using a mass-imbalanced …

We establish a dataset of over 1. 6× 104 experimental images of Bose–Einstein
condensates containing solitonic excitations to enable machine learning (ML) for many-body …

We study numerically the detailed structure and decay dynamics of isolated monopoles in
conditions similar to those of their recent experimental discovery. We find that the core of a …

The high degree of control on ultracold gases allows us to precisely manipulate their internal
state. When the gas is made of atoms in two different internal states, it can be considered as …