The Dynamics Of Vortex And Monopole Production By Quench Induced Phase Separation
arXiv:hep-th/9410159 · doi:10.1103/PhysRevD.51.6949
Abstract
Our understanding of the mechanism by which topological defects are formed in symmetry breaking phase transitions has recently changed. We examine the non-equilibrium dynamics of defect formation for weakly-coupled global O(N) theories possessing vortices (strings) and monopoles. It is seen that, as domains form and grow, defects are swept along on their boundaries at a density of about one defect per coherence area (strings) or per coherence volume (monopoles).
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