Finite temperature and confinement along the extra dimensions studied on a five-dimensional U(1) lattice gauge model
arXiv:0807.3463 · doi:10.1103/PhysRevD.78.114502
Abstract
In this paper we study the properties of the phase diagram of a simple extra dimensional model on the lattice at finite temperature. We consider the five-dimensional pure gauge abelian model with anisotropic couplings which at zero temperature exhibits a new interesting phase, the layer phase. This phase is characterized by a massless photon living on the four dimensional subspace and confinement along the extra dimension. We show that, as long as the temperature takes a non zero value the aforementioned layer phase disappears. It would be equivalent to assume that at finite temperature the higher-dimensional lattice model loses any feature of the layered structure due to the deconfinement which opens up the interactions between the three-dimensional subspaces at finite temperature.
24 pages, 10 figures
References in corpus (6)
- Second Randall-Sundrum brane world scenario with a nonminimally coupled bulk scalar field
- Gauss-Bonnet gravity, brane world models, and non-minimal coupling
- The 4-D Layer Phase as a Gauge Field Localization: Extensive Study of the 5-D Anisotropic U(1) Gauge Model on the Lattice
- Non-Perturbative U(1) Gauge Theory at Finite Temperature
- Establishment of the Coulomb law in the layer phase of a pure U(1) lattice gauge theory
- Critical Exponents for U(1) Lattice Gauge Theory at Finite Temperature