The quantum vortices dynamics: spatio-temporal scale hierarchy and origin of turbulence
arXiv:2309.01085 · doi:10.1088/1402-4896/ad8d90
Abstract
This study investigates the evolution and interaction of quantum vortex loops with a small but non-zero radius of core . The quantization scheme of the classical vortex system is based on the approach proposed by the author \cite{Tal,Tal_PhRF}. We consider small perturbations in the ring-shaped loops, which include both helical-type shape variations and small excitations of the flow in the vortex core. The quantization of the circulation is deduced from the first principles of quantum theory. As a result of our approach, the set of quantized circulation values is wider than the standard one. The developed theory introduces a hierarchical spatio-temporal scale in the quantum evolution of vortices. We also explore the applicability of this model for describing the origins of turbulence in quantum fluid flows. To achieve this specific objective, we employ the method of random Hamiltonians to describe the interaction of quantum vortex loops.
28 pages, 4 figures
References in corpus (13)
- Introduction to quantum turbulence
- Identifying a superfluid Reynolds number via dynamical similarity
- The Generation of Turbulence by Oscillating Structures in Superfluid Helium at Very Low Temperatures
- Quantum Turbulence
- Vortex clustering, polarisation and circulation intermittency in classical and quantum turbulence
- Hydrodynamics of the Physical Vacuum: II. Vorticity dynamics
- Hydrodynamics of the Physical Vacuum: I. Scalar quantum sector
- Small Oscillations of a Vortex Ring: Hamiltonian Formalism and Quantization
- Linear Stability of Inviscid Vortex Rings to Axisymmetric Perturbations
- The turbulence development at its initial stage: a scenario based on the idea of vortices decay
- Towards quantum turbulence theory: A simple model with interaction of the vortex loops
- The system of the vortex-like structures: the viewpoint on a turbulence modelling
- Tangled vortex lines: dynamics, geometry and topology of quantum turbulence