In this work we study spherical shell dark soliton states in three-dimensional atomic Bose-
Einstein condensates. Their symmetry is exploited in order to analyze their existence, as …

We investigate the transition from a dark soliton to vortices in a Bose-Einstein condensate,
achieved through the adiabatic manipulation of external potentials. Our primary focus is on …

We perform a comparative beyond-mean-field study of black and gray solitonic excitations in
a finite ensemble of ultracold bosons confined to a one-dimensional box. An optimized …

Using the classical field method, we study numerically the characteristics and decay of the
turbulent tangle of superfluid vortices which is created in the evolution of a Bose gas from …

The ab initio simulation of quantum vortices in a Bose-Einstein condensate is performed by
adopting the complex Langevin techniques. We simulate the nonrelativistic boson field …

In the last decade, considerable advances have been made in the investigation of dipolar
quantum gases. Previous theoretical investigations of a rotating binary dipolar Bose-Einstein …

We consider the mean-field vortex solutions and their stability within a two-component Bose-
Einstein condensate in the immiscible limit. A variational approach is employed to study a …

Superconducting Josephson vortices have direct analogues in ultracold-atom physics as
solitary-wave excitations of two-component superfluid Bose gases with linear coupling. Here …

Dipolar Bosonic atoms confined in external potentials open up new avenues for quantum-
state manipulation and will contribute to the design and exploration of novel functional …

In the present article the snake instability mechanism for dark solitons in superfluid Fermi
gases is studied in the context of a recently developed effective field theory [SN Klimin, Eur …