The origin of flux-flow resistance oscillations in BiSrCaCuO: Fiske steps in a single junction?
arXiv:cond-mat/0504331 · doi:10.1103/PhysRevB.72.052502
Abstract
We propose an alternative explanation to the oscillations of the flux-flow resistance found in several previously published experiments with BiSrCaCuO stacks. It has been argued by the previous authors that the period of the oscillations corresponding to the field needed to add one vortex per two intrinsic Josephson junctions is associated with a moving triangular lattice of vortices (out-of-phase mode), while the period corresponding to one vortex per one junction is due to the square lattice (in-phase mode). In contrast, we show that both type of oscillations may occur in a single-layer Josephson junction and thus the above interpretation is inconsistent.
References in corpus (4)
- Emission of continuous coherent terahertz waves with tunable frequency by intrinsic Josephson junctions
- Periodic Oscillations of Josephson-Vortex Flow Resistance in BiSrCaCuO
- Edge critical currents of dense Josephson vortex lattice in layered superconductors
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Cited by in corpus (7)
- Anomalous transport in biased ac-driven Josephson junctions: Negative conductances
- Fiske steps studied with flux-flow resistance oscillation in a narrow stack of Bi2Sr2CaCu2O8+d junctions
- Stabilization of in-phase fluxon state by geometrical confinement in small Bi-2212 mesa structures
- Magnetic oscillations of critical current in intrinsic Josephson-junction stacks
- Periodic Oscillations of Josephson-Vortex Flow Resistance in Oxygen-Deficient Y1Ba2Cu3Ox
- Scaling behavior of the crossover to short-stack regimes of Josephson vortex lattices in BiSrCaCuO stacks
- Microwave impedance of a dc-biased Josephson Fluxonic Diode in the presence of magnetic field and rf drive