Criticality in non-linear one-dimensional maps: RG universal map and non-extensive entropy
arXiv:cond-mat/0202095 · doi:10.1016/j.physd.2004.01.016
Abstract
We consider the period-doubling and intermittency transitions in iterated nonlinear one-dimensional maps to corroborate unambiguously the validity of Tsallis' non-extensive statistics at these critical points. We study the map , , as it describes generically the neighborhood of all of these transitions. The exact renormalization group (RG) fixed-point map and perturbation static expressions match the corresponding expressions for the dynamics of iterates. The time evolution is universal in the RG sense and the non-extensive entropy associated to the fixed-point map is maximum with respect to that of the other maps in its basin of attraction. The degree of non-extensivity - the index in - and the degree of nonlinearity are equivalent and the generalized Lyapunov exponent , , is the leading map expansion coefficient . The corresponding deterministic diffusion problem is similarly interpreted. We discuss our results.
To be published in Physica D, expanded version, updated references
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Cited by in corpus (19)
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