Vortex embedding in spinor dipolar quantum droplets induces spontaneous axial magnetization via Barnett-like orbital-to-spin transfer, enabling mechanical Larmor precession and stable chiral bound states.
Title resolution pending
4 Pith papers cite this work. Polarity classification is still indexing.
4
Pith papers citing it
citation-role summary
background 1
citation-polarity summary
fields
cond-mat.quant-gas 4years
2026 4verdicts
UNVERDICTED 4roles
background 1polarities
background 1representative citing papers
Quantum corrections to dissipative semiclassical dynamics are set by zero-point energy of fluctuations evaluated at the classical underdamped frequency in the low-temperature weak-damping regime.
An impurity in a 1D quantum droplet localizes with a central density hump under attractive interactions and phase-separates under repulsive ones, while post-release expansion is suppressed only by strong attraction.
In quasi-1D and quasi-2D dipolar Bose gases the soliton-to-droplet transition occurs either as a first-order phase transition with bistability or as a smooth crossover, with the breathing-mode response serving as an accessible experimental signature.
citing papers explorer
-
Barnett effect in rotating spinor dipolar quantum droplets
Vortex embedding in spinor dipolar quantum droplets induces spontaneous axial magnetization via Barnett-like orbital-to-spin transfer, enabling mechanical Larmor precession and stable chiral bound states.
-
Quantum effective action for dissipative semiclassical dynamics
Quantum corrections to dissipative semiclassical dynamics are set by zero-point energy of fluctuations evaluated at the classical underdamped frequency in the low-temperature weak-damping regime.
-
Phases and dynamics of an impurity immersed in one-dimensional quantum droplets
An impurity in a 1D quantum droplet localizes with a central density hump under attractive interactions and phase-separates under repulsive ones, while post-release expansion is suppressed only by strong attraction.
-
Soliton-to-droplet crossover in a dipolar Bose gas in one and two dimensions
In quasi-1D and quasi-2D dipolar Bose gases the soliton-to-droplet transition occurs either as a first-order phase transition with bistability or as a smooth crossover, with the breathing-mode response serving as an accessible experimental signature.