Topological entropy and orbit growth in link complements
Matthias Meiwes
Abstract
Open-access reader
Matthias Meiwes
Abstract
Open-access reader
In this article, we exhibit certain linking properties of periodic orbits of $C^{1+α}$ flows with positive topological entropy on closed 3-manifolds M. It is shown that any such flow contains a link L of periodic orbits and a horseshoe K in MŁ, such that all periodic orbits in K are unique in their homotopy class in MŁ(among periodic orbits in M). Moreover, the entropy of the flow can be approximated by the entropies of such horseshoes K. A version of that result for chords is obtained. Our main motivation comes from Reeb dynamics, and as an application, we address a question by Alves-Pirnapasov, and obtain that the topological entropy of a 3-dimensional, $C^{\infty}$-generic Reeb flow can be approximated by the exponential homotopical growth rates of contact homology in link complements.
OpenAlex reports 1 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
In this article, we exhibit certain linking properties of periodic orbits of $C^{1+α}$ flows with positive topological entropy on closed 3-manifolds M. It is shown that any such flow contains a link L of periodic orbits and a horseshoe K in MŁ, such that all periodic orbits in K are unique in their homotopy class in MŁ(among periodic orbits in M). Moreover, the entropy of the flow can be approximated by the entropies of such horseshoes K. A version of that result for chords is obtained. Our main motivation comes from Reeb dynamics, and as an application, we address a question by Alves-Pirnapasov, and obtain that the topological entropy of a 3-dimensional, $C^{\infty}$-generic Reeb flow can be approximated by the exponential homotopical growth rates of contact homology in link complements.
Key concepts: Topological entropy, Periodic orbits, Mathematics, Homotopy, Link (geometry), Topology (electrical circuits), Entropy (arrow of time), Homology (biology)