We study the properties of singly quantized linear vortices in the supersolid phase of a
dipolar Bose-Einstein condensate at zero-temperature modeling Dy 164 atoms. The system …

Fundamental to classical and quantum vortices, superconductors, magnetic flux tubes, liquid
crystals, cosmic strings, and DNA is the phenomenon of reconnection of line-like …

We have theoretically investigated the structure of spinning self-bound droplets made of a K
41-Rb 87 Bose mixture by solving the Gross-Pitaevskii equation including beyond-mean …

In a concurrent work, Villois et al.[Phys. Rev. Lett. 125, 164501 (2020) 10.1103/PhysRevLett.
125.164501] reported the evidence that vortex reconnections in quantum fluids follow an …

We have studied the merging of two identical He 4 droplets at zero temperature, caused by
their van der Waals mutual attraction. During the early stages of the merging, density …

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

Near absolute zero, superfluid liquid helium displays quantum properties at macroscopic
length scales. One property, superfluidity, means flow with zero viscosity. Another property …

Turbulence plays a crucial role in contexts ranging from galaxy formation to heavy atomic
nuclei, from jet engines to arterial blood flow, challenging engineers, physicists, and …

Experiments and numerical simulations show that quantum turbulence exists in two distinct
limiting regimes: Kolmogorov turbulence (which shares with classical turbulence the …

Formation of vortex rings around moving spherical objects in superfluid He 4 at 0 K is
modeled by time-dependent density functional theory. The simulations provide detailed …