2006
DOI: 10.1088/0264-9381/23/16/s01
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Bifurcation and fine structure phenomena in critical collapse of a self-gravitating σ-field

Abstract: Building on previous work on the critical behavior in gravitational collapse of the self-gravitating SU (2) σ-field and using high precision numerical methods we uncover a fine structure hidden in a narrow window of parameter space. We argue that this numerical finding has a natural explanation within a dynamical system framework of critical collapse.

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Cited by 6 publications
(6 citation statements)
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“…One of them is the existence of Hopf bifurcations where a self-similar solution (a stable fixed point) is transformed into a discrete self-similar solution (limit cycle) as a certain parameter varies (see [49]). Other kinds of bifurcations, for example of the Shilnikov type, are found as well [50]. Now we demonstrate that chaotic behaviour is also possible.…”
Section: Strange Attractors and Exotic Behavioursupporting
confidence: 67%
“…One of them is the existence of Hopf bifurcations where a self-similar solution (a stable fixed point) is transformed into a discrete self-similar solution (limit cycle) as a certain parameter varies (see [49]). Other kinds of bifurcations, for example of the Shilnikov type, are found as well [50]. Now we demonstrate that chaotic behaviour is also possible.…”
Section: Strange Attractors and Exotic Behavioursupporting
confidence: 67%
“…High-precision numerics in [3] further supports this picture: For η > η c a codimension-1 CSS solution coexists in phase space with a codimension-1 DSS attractor such that the (1-dimensional) unstable manifold of the DSS solution lies on the stable manifold of the CSS solution. For η close to η c the two solutions are close and the orbits around the DSS solution become slower because they spend more time in the neighbourhood of the CSS attractor.…”
Section: More Spherical Symmetrymentioning
confidence: 91%
“…One of them is the existence of Hopf bifurcations where a self-similar solution (a stable fixed point) is transformed into a discrete self-similar solution (limit cycle) as a certain parameter varies (see [143]). Other kinds of bifurcations, for example of the Shilnikov type, are found as well [144]. Before coming to simple explicit examples, we mention that possible complex dynamics in τ has long been suggested for simplified versions of the inviscid Euler equations [145,146,141].…”
Section: Strange Attractors and Exotic Behaviourmentioning
confidence: 95%