| Article ID | Journal | Published Year | Pages | File Type | 
|---|---|---|---|---|
| 975969 | Physica A: Statistical Mechanics and its Applications | 2011 | 9 Pages | 
Abstract
												The transition to turbulence (spatio-temporal chaos) in a wide class of spatially extended dynamical system is due to the loss of transversal stability of a chaotic attractor lying on a homogeneous manifold (in the Fourier phase space of the system), causing spatial mode excitation. Since the latter manifests as intermittent spikes this has been called a bubbling transition. We present numerical evidences that this transition occurs due to the so-called blowout bifurcation, whereby the attractor as a whole loses transversal stability and becomes a chaotic saddle. We used a nonlinear three-wave interacting model with spatial diffusion as an example of this transition.
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											Authors
												J.D. Szezech Jr., S.R. Lopes, I.L. Caldas, R.L. Viana, 
											