Parametrized family of pseudo-arc attractors: physical measures and prime end rotations
Jernej \v{C}in\v{c}, Piotr Oprocha

TL;DR
This paper investigates a family of strange planar attractors, demonstrating their topological and measure-theoretic properties, including the existence of physical measures, statistical stability, and continuous variation of prime end rotation numbers.
Contribution
It constructs a parametrized family of pseudo-arc attractors with varying prime end rotation numbers and establishes their measure-theoretic stability and topological properties.
Findings
Pseudo-arc appears as inverse limit of Lebesgue measure preserving maps.
Attractors vary continuously with parameters in Hausdorff distance.
Family of physical measures is statistically stable and varies continuously.
Abstract
The main goal of this paper is to study topological and measure-theoretic properties of an intriguing family of strange planar attractors. Building towards these results, we first show that any generic Lebesgue measure preserving map generates the pseudo-arc as inverse limit with as a single bonding map. These maps can be realized as attractors of disc homeomorphisms in such a way that the attractors vary continuously (in Hausdorff distance on the disc) with the change of bonding map as a parameter. Furthermore, for generic Lebesgue measure preserving maps the background Oxtoby-Ulam measures induced by Lebesgue measure for on the interval are physical on the disc and in addition there is a dense set of maps defining a unique physical measure. Moreover, the family of physical measures on the attractors varies continuously in the weak* topology; i.e. the parametrized…
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Taxonomy
TopicsMathematical Dynamics and Fractals · Quantum chaos and dynamical systems
