The Two Phases of Topologically Massive Compact Theory
arXiv:hep-th/9507137 · doi:10.1103/PhysRevD.53.4510
Abstract
The mean field like gauge invariant variational method formulated recently, is applied to a topologically massive QED in 3 dimensions. We find that the theory has a phase transition in the Chern Simons coefficient . The phase transition is of the Berezinsky-Kosterlitz - Thouless type, and is triggered by the liberation of Polyakov monopoles, which for are tightly bound into pairs. In our Hamiltonian approach this is seen as a similar behaviour of the magnetic vortices, which are present in the ground state wave functional of the compact theory. For , the low energy behavior of the theory is the same as in the noncompact case. For there are no propagating degrees of freedom on distance scales larger than the ultraviolet cutoff. The distinguishing property of the phase, is that the magnetic flux symmetry is spontaneoously broken.
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