Different Asymptotic Behavior versus Same Dynamical Complexity
Abstract
For any dynamical system of a compact metric space with almost product property and uniform separation property, under the assumptions that the periodic points are dense in and the periodic measures are dense in the space of invariant measures, we distinguish various periodic-like recurrences and find that they all carry full topological topological entropy and so do their gap-sets. In particular, this implies that any two kind of periodic-like recurrences are essentially different. Moreover, we coordinate periodic-like recurrences with (ir)regularity and obtain lots of generalized multi-fractal analysis for all continuous observable functions. These results are suitable for all shfits (), topological mixing subshifts of finite type, topological mixing expanding maps or topological mixing hyperbolic diffeomorphisms, etc. Roughly speaking, we combine many different "eyes" (i.e., observable functions and periodic-like recurrences) to observe the dynamical complexity and obtain a {\it Refined Dynamical Structure} for Recurrence Theory and Multi-fractal Analysis.
Cite
@article{arxiv.1311.0614,
title = {Different Asymptotic Behavior versus Same Dynamical Complexity},
author = {Xueting Tian},
journal= {arXiv preprint arXiv:1311.0614},
year = {2015}
}
Comments
61 pages. For a certain class of dynamical systems such as $\beta$ shifts, mixing subshifts of finite type and mixing hyperblic systems, we study various gap-sets of periodic-like recurrence and (ir)regularity and show that they all carry full topological entropy