Theory of Fluctuations in a Network of Parallel Superconducting Wires
Kohjiro Kobayashi, David Stroud

TL;DR
This paper models a network of parallel superconducting wires under a magnetic field, revealing a critical temperature for phase coherence onset using a quantum-mechanical mapping and mean field approximation.
Contribution
It introduces a novel mapping of the superconducting wire network problem onto a two-dimensional quantum mechanics model with an imaginary magnetic field, and analyzes the phase transition.
Findings
Identifies a critical temperature for phase coherence transition.
Plots transition temperature under magnetic and non-magnetic conditions.
Uses mean field approximation to analyze the system.
Abstract
We show how the partition function of a network of parallel superconducting wires weakly coupled together by the proximity effect, subjected a vector potential along the wires can be mapped onto N-distinguishable two dimensional quantum-mechanics problem with a perpendicular imaginary magnetic field. Then, we show, using a mean field approximation, that, for a given coupling, there is a critical temperature for onset of inter-wire phase coherence. The transition temperature is plotted on both cases for non-magnetic and a magnetic field perpendicular to the wires.
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Taxonomy
TopicsPhysics of Superconductivity and Magnetism · Distributed and Parallel Computing Systems · Theoretical and Computational Physics
