Relaxing the Geodesic Rule in Defect Formation Algorithms
arXiv:hep-ph/9709317 · doi:10.1016/S0370-2693(98)00109-9
Abstract
In studying the formation of topological defects, it is conventional to assume the ``geodesic rule'' which is equivalent to minimizing gradients of the order parameter. This assumption has been called into question in field-theoretic studies of first order phase transitions and in the case of local defects. We present a scheme for numerically investigating the formation of strings without assuming the geodesic rule. Our results show that the fraction of string in infinite strings grows as we deviate from the geodesic rule.
3 pages, 3 figures, RevTeX
References in corpus (1)
Cited by in corpus (11)
- Observation of Magnetic Flux Generated Spontaneously During a Rapid Quench of Superconducting Films
- Search for Spontaneous Nucleation of Magnetic Flux During Rapid Cooling of YBCO films Through Tc
- Critical dynamics of gauge systems: Spontaneous vortex formation in 2D superconductors
- Measuring Cosmic Defect Correlations in Liquid Crystals
- How does the geodesic rule really work for global symmetry breaking first order phase transitions?
- Cosmic string formation by flux trapping
- Kibble mechanism for electroweak magnetic monopoles and magnetic fields
- Formation of multiple winding topological defects in the early universe
- A stochastic derivation of the geodesic rule
- String Production in the Abelian Higgs Vacuum
- The geodesic rule for higher codimensional global defects