Deep inelastic vortex scattering: A third outcome for head-on collisions
arXiv:2008.12893 · doi:10.1103/PhysRevD.102.056011
Abstract
Results are presented from numerical simulations of the flat-space nonlinear Maxwell-Klein-Gordon equations demonstrating deep inelastic scattering of vortices for a range of Ginzburg-Landau (or Abelian-Higgs) parameters (), impact parameters (), and initial velocities (). The threshold () of right-angle scattering is explored for head-on () collisions by varying . Solutions obey time-scaling laws, , with -dependent scaling exponents, , and have that appear not to have the previously reported upper bound. The arbitrarily long-lived static intermediate attractor at criticality () is observed to be the -specific vortex solution. Scattering angles are observed for off-axis () collisions for a wide range of , , and . It is shown that for arbitrarily small impact parameters (), the unstable %but arbitrarily long-lived -dependent "critical" vortex is an intermediate attractor and decays with a -\emph{independent} scattering angle of , as opposed to either of the well-known values of or for .
arXiv comment13 pages, 14 figures, 3 tables
References in corpus (12)
- Oscillons: Resonant Configurations During Bubble Collapse
- Constraints on cosmic strings using data from the first Advanced LIGO observing run
- Critical Behaviour in Gravitational Collapse of a Yang-Mills Field
- Boson stars driven to the brink of black hole formation
- Fine Structure of Oscillons in the Spherically Symmetric Klein-Gordon Model
- Phases of massive scalar field collapse
- Cosmic String Loop Collapse in Full General Relativity
- Gravitational backreaction simulations of simple cosmic string loops
- Resonant Configurations in Scalar Field Theories: Can (Some) Oscillons Live Forever?
- Renormalization group and critical behaviour in gravitational collapse
- A Texture Bestiary
- Critical phenomena in gravitational collapse (review paper)