Chain recurrence rates and topological entropy for free semigroup actions
Yanjie Tang, Xiaojiang Ye, Dongkui Ma

TL;DR
This paper extends the concepts of pseudo-entropy and chain recurrence from single transformations to free semigroup actions, establishing their equivalence with topological entropy and analyzing recurrence properties.
Contribution
It introduces pseudo-entropy for free semigroup actions, proves its equivalence with topological entropy, and explores recurrence times and system structure in this context.
Findings
Pseudo-entropy coincides with topological entropy for free semigroup actions.
Upper bounds for chain recurrence and mixing times are established.
Lower bounds of entropy relate to chain mixing time and box dimension.
Abstract
Misiurewicz[19]introducedtheconceptofpseudo-entropyandproved this quantity coincides with topological entropy. Richeson et al. [21] obtained the lower bounded of topological entropy by means of the definition of pseudo-entropy. This paper aims to generalize the main results obtained by Misiurewicz and Rich-eson et al. to free semigroup actions. Firstly, the pseudo-entropy is introduced for free semigroup actions, and it is shown that the pseudo-entropy coincides with the topological entropy defined by Bufetov [9]. Secondly, these concepts of the chain recurrence, the chain mixing, the chain recurrence time, and the chain mixing time for free semigroup actions are introduced, and the upper bounds of these recurrence times are given. Furthermore, a lower bound of topological entropy is given by the lower box dimension and the chain mixing time using the definition of pseudo-entropy for…
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Taxonomy
TopicsMathematical Dynamics and Fractals · Quantum chaos and dynamical systems · Computability, Logic, AI Algorithms
