Vortex on a non-commutative torus in the dual superconductivity model: a link between a cyclic $\tau\subset U(1)$, the color-electric charge of quarks and the vortex mass
Andrea Spirito

TL;DR
This paper explores vortex solutions on a non-commutative torus within the dual superconductivity model, revealing new relationships between the vortex mass, quark charges, and a cyclic subgroup of U(1) influenced by non-commutative parameters.
Contribution
It introduces a novel approach to non-commutative space coordinates, proposes new twist matrices, and uncovers a double Higgs mechanism regulated by a rational parameter r_theta, linking vortex properties to non-commutative geometry.
Findings
Energy of vortex configurations depends on r_theta, a ratio of non-commutative parameters.
The quark electric charge q_e can be fractional, related to the cyclic subgroup of U(1).
A non-null mass for the Goldstone boson emerges, influenced by r_theta.
Abstract
The model of dual superconductivity has been revisited considering the -gauged Ginzburg-Landau lagrangian density on a non-commutative torus , according to a new approach, we propose, in dealing with non-commutative space coordinates (). This led to consider a different set of the twist matrices relative to , since the corrisponding set, adopted in previous works, has resulted to be incompatible with the homogeneity of . We have also found that the index labelling the twists no longer has the usual physical role. In fact, the energy, suitably rewritten, of the minimum configurations at the point of Bogomolny and the quark color-electric charge depend on , where () is the parameter that…
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Taxonomy
TopicsPhysics of Superconductivity and Magnetism · Quantum and electron transport phenomena · Quantum Chromodynamics and Particle Interactions
