Dynamical Triviality and the Collapse of Structure: Why Aperiodic Orbits are Periodic Orbits of Infinite Period

We investigate the structure of aperiodic orbits in a generalized shift systemon the uncountable Cantor space C = {0, 1}^{A}, where A is partitioned into uncountablymany countable chains. While the aperiodic set admits 2^{2^{ℵ0}}topologically distinct orbit closures and contains uncountably many minimal components, we prove that the inducedshift acts trivially—every aperiodic orbit class is a fixed point. Combined with the resultthat topological entropy is infinite (arising entirely from periodic orbit proliferation), thisjustifies a natural compactification collapsing all aperiodic orbits to a single point.This dramatic simplification—from 2^{2^{ℵ0}} to one—preserves all dynamical and entropy-theoretic information, as the collapsed structure is topologically rich but dynamically andinformationally inert. Our main theorem rigorously establishes that ”aperiodic orbits areperiodic orbits of infinite period” as a dynamical and information-theoretic equivalence,demonstrating that topological complexity, dynamical complexity, and entropy can varyindependently. This provides a case study in optimal information compression and distin-guishability theory within dynamical systems.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-11-07
DOI
https://doi.org/10.5281/zenodo.17554823
Primary Topic
Cellular Automata and Applications
Type
article
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article

Dynamical Triviality and the Collapse of Structure: Why Aperiodic Orbits are Periodic Orbits of Infinite Period

Zenodo (CERN European Organization for Nuclear Research)
Cellular Automata and Applications
article

Dynamical Triviality and the Collapse of Structure: Why Aperiodic Orbits are Periodic Orbits of Infinite Period

article en

Abstract

We investigate the structure of aperiodic orbits in a generalized shift systemon the uncountable Cantor space C = {0, 1}^{A}, where A is partitioned into uncountablymany countable chains. While the aperiodic set admits 2^{2^{ℵ0}}topologically distinct orbit closures and contains uncountably many minimal components, we prove that the inducedshift acts trivially—every aperiodic orbit class is a fixed point. Combined with the resultthat topological entropy is infinite (arising entirely from periodic orbit proliferation), thisjustifies a natural compactification collapsing all aperiodic orbits to a single point.This dramatic simplification—from 2^{2^{ℵ0}} to one—preserves all dynamical and entropy-theoretic information, as the collapsed structure is topologically rich but dynamically andinformationally inert. Our main theorem rigorously establishes that ”aperiodic orbits areperiodic orbits of infinite period” as a dynamical and information-theoretic equivalence,demonstrating that topological complexity, dynamical complexity, and entropy can varyindependently. This provides a case study in optimal information compression and distin-guishability theory within dynamical systems.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 40%
Cellular Automata and Applications
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