Topological quantum computers promise a fault tolerant means to perform quantum
computation. Topological quantum computers use particles with exotic exchange statistics …

We study the massive point-vortex model introduced in Richaud et al.[A. Richaud, V. Penna,
R. Mayol, and M. Guilleumas, Phys. Rev. A 101, 013630 (2020) 10.1103/PhysRevA …

Quantum vortices are often endowed with an effective inertial mass, due, for example, to
massive particles in their cores. Such “massive vortices” display new phenomena beyond …

Fracton phases of matter feature local excitations with restricted mobility. Despite the
substantial theoretical progress they lack conclusive experimental evidence. We discuss a …

Vortices are topological defects associated with superfluids and superconductors, which,
when mobile, dissipate energy destroying the dissipationless nature of the superfluid. The …

Quantized vortices are fundamental to the two-dimensional dynamics of superfluids, from
quantum turbulence to phase transitions. However, surface effects have prevented direct …

We experimentally study the emergence of microcanonical equilibrium states in the turbulent
relaxation dynamics of a two-dimensional chiral vortex gas. Same-sign vortices are injected …

Experimentalists use particles as tracers in liquid helium. The intrusive effects of particles on
the dynamics of vortices remain poorly understood. We implement a study of how basic, well …

We study the spontaneously broken phase of the XY model in three dimensions, with
boundary conditions enforcing the presence of a vortex line. Comparing Monte Carlo and …

We have studied topology and dynamics of quantum vortices in spin-2 Bose-Einstein
condensates. By computationally modeling controllable braiding and fusion of these …