Structure and Orientation of the Moving Vortex Lattice in Clean Type II Superconductors
arXiv:cond-mat/0411097 · doi:10.1103/PhysRevB.70.214529
Abstract
The dynamics of moving vortex lattice is considered in the framework of the time dependent Ginzburg - Landau equation neglecting effects of pinning. At high flux velocities the pinning dominated dynamics is expected to cross over into the interactions dominated dynamics for very clean materials recently studied experimentally. The stationary lattice structure and orientation depend on the flux flow velocity. The vortex lattice will have a different orientation for V>V_c. The two orientations can be desribed as motion "in channels" and motion of "lines of vortices perpendicular to the direction of motion. Although we start from the lowest Landau level approximation, corrections to conductivity and the vortex lattice energy dissipation from higher Landau levels are systematically calculated and compared to a recent experiment.
arXiv comment17 pages, 5 figures
References in corpus (12)
- The Flux-Line Lattice in Superconductors
- Moving glass phase of driven lattices
- Moving glass theory of driven lattices with disorder
- Nonequilibrium Steady States of Driven Periodic Media
- Vortex dynamics in two-dimensional systems at high driving forces
- Transport Properties and Fluctuations in Type II Superconductors Near
- Transverse depinning in strongly driven vortex lattices with disorder
- Structure of Flux Line Lattices with Weak Disorder at Large Length Scales
- Why the lowest Landau level approximation works in strongly type II superconductors
- Dynamic transition in driven vortices across the peak effect in superconductors
- Hydrodynamics and Nonlocal Conductivities in Vortex States of Type II Superconductors
- Perturbative studies of the conductivity in the vortex-liquid regime
Cited by in corpus (8)
- The Ginzburg-Landau Theory of Type II superconductors in magnetic field
- Magnon radiation by moving Abrikosov vortices in ferromagnetic superconductors and superconductor-ferromagnet multilayers
- Electrical conductivity beyond linear response in layered superconductors under magnetic field
- Time dependent London approach, dissipation due to out-of-core normal excitations by moving vortices
- Fast Dynamics of Vortices in Superconductors
- Flow and Tilt-Induced Orientation of the Moving Vortex Lattice in Amorphous NbGe Superconducting Thin Films
- High-frequency dynamical response of Abrikosov vortex lattice in flux-flow region
- Elastic fields in superconductors caused by moving vortices