We show that three-dimensional spherical-shell condensates respond to rotation by forming
two aligned triangular Abrikosov-like vortex lattices on each hemispherical surface. The …

Quantum vortices naturally emerge in rotating Bose–Einstein condensates (BECs) and,
similarly to their classical counterparts, allow the study of a range of interesting out-of …

We study a twocomponent Bose-Einstein condensate in the presence of an inhomogeneous
artificial gauge field. In response to this field, the condensate forms a localized vortex lattice …

We predict electric-field-driven exciton vortices in transition metal dichalcogenide
monolayers in the Bose-Einstein condensation regime. The Rashba spin-orbit coupling …

We theoretically examine the vortex states of a gas of trapped quasi-two-dimensional
ultracold bosons subject to a density-dependent gauge potential, realizing an effective …

Summary Bose–Einstein Condensates (BECs) are superfluid systems consisting of bosonic
atoms that have been cooled and condensed into a single, macroscopic ground state …

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 …

Abstract We employ the Gross–Pitaevskii theory to model a quantized vortex depinning from
a small obstacle in a two-dimensional superfluid due to an imposed background superfluid …

We investigate a small vortex-lattice system of four corotating vortices in an atomic Bose-
Einstein condensate and find that the vortex dynamics display chaotic behavior after a …

The split-step Fourier method is a powerful technique for solving partial differential
equations and simulating ultracold atomic systems of various forms. In this body of work, we …