The field of quantum turbulence is related to the manifestation of turbulence in quantum
fluids, such as liquid helium and ultracold gases. The concept of turbulence in quantum …

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 two-dimensional quantum turbulence in miscible binary Bose-Einstein
condensates in either a harmonic trap or a steep-wall trap through the numerical simulations …

The coexistence of the energy and enstrophy cascades in 2D quantum turbulence is one of
the important open questions in the studies of quantum fluids. Here, we show that polariton …

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 …

Inspired by topological data analysis techniques, we introduce persistent homology
observables and apply them in a geometric analysis of the dynamics of quantum field …

Coarsening of an isolated far-from-equilibrium quantum system is a paradigmatic many-
body phenomenon, relevant from subnuclear to cosmological lengthscales, and predicted to …

Dissipation of quantum vortex motion is fundamental to superfluid dynamics and quantum
turbulence, yet there is currently a large gap between theory and experiments with ultracold …

Topological structures reveal the hidden secrets and beauty in nature, such as the double
helix in DNA, whilst, the manipulation of which in physical fields, especially in ultrafast …

We study the phase-ordering dynamics of a uniform Bose gas in two dimensions following a
quench into the ordered phase. We explore the crossover between dissipative and …