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Holographic topological defects and local gauge symmetry: clusters of strongly coupled equal-sign vortices
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Gauge invariance plays an important role in forming topological defects. In this work, from the AdS/CFT correspondence, we realize the clusters of equal-sign vortices during the course of critical dynamics of a strongly coupled superconductor. This is the first time to achieve the equal-sign vortex clusters in strongly coupled systems, considering that vortices with equal sign repel. The appearance of clusters of equal-sign vortices is a typical character of flux trapping mechanism, distinct from Kibble-Zurek mechanism which merely presents vortex-antivortex pair distributions resulting from global symmetry breaking. Numerical results of spatial correlations and net fluxes of the equal-sign vortex clusters quantitatively support the positive correlations between vortices. The linear dependence between the vortex number and the amplitude of magnetic field at the `trapping' time demonstrates the flux trapping mechanism very well.
Forward citations
Cited by 2 Pith papers
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Nonequilibrium crossover in the supercritical region from quench dynamics
Quench dynamics in a holographic superfluid reveal a nonequilibrium crossover line in the supercritical region defined by a turning point in invasion velocity.
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Kibble-Zurek Mechanism and Current-Phase Relation in a Holographic Josephson Junction
In a holographic superfluid ring quenched through its transition, the weak-link current follows J = Jmax sin(Δφ), with Jmax exponentially sensitive to junction width, depth, and final temperature.
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