Meyer sets, Pisot numbers, and self-similarity in symbolic dynamical systems

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Hauptverfasser: Berthé, Valérie, Yassawi, Reem
Format: Preprint
Veröffentlicht: 2024
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author Berthé, Valérie
Yassawi, Reem
author_facet Berthé, Valérie
Yassawi, Reem
contents Aperiodic order refers to the mathematical formalisation of quasicrystals. Substitutions and cut and project sets are among their main actors; they also play a key role in the study of dynamical systems, whether they are symbolic, generated by tilings, or point sets. We focus here on the relations between quasicrystals and self-similarity from an arithmetical and dynamical viewpoint, illustrating how efficiently aperiodic order irrigates various domains of mathematics and theoretical computer science, on a journey from Diophantine approximation to computability theory. In particular, we see how Pisot numbers allow the definition of simple model sets, and how they also intervene for scaling factors for invariance by multiplication of Meyer sets. We focus in particular on the characterisation due to Yves Meyer: any Pisot or Salem number is a parameter of dilation that preserves some Meyer set.
format Preprint
id arxiv_https___arxiv_org_abs_2404_04116
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Meyer sets, Pisot numbers, and self-similarity in symbolic dynamical systems
Berthé, Valérie
Yassawi, Reem
Dynamical Systems
37B10, 37B52, 37A05, 52C23, 37E05, 11K16, 42A32, 43A45, 68R15, 03D80, 11R06
Aperiodic order refers to the mathematical formalisation of quasicrystals. Substitutions and cut and project sets are among their main actors; they also play a key role in the study of dynamical systems, whether they are symbolic, generated by tilings, or point sets. We focus here on the relations between quasicrystals and self-similarity from an arithmetical and dynamical viewpoint, illustrating how efficiently aperiodic order irrigates various domains of mathematics and theoretical computer science, on a journey from Diophantine approximation to computability theory. In particular, we see how Pisot numbers allow the definition of simple model sets, and how they also intervene for scaling factors for invariance by multiplication of Meyer sets. We focus in particular on the characterisation due to Yves Meyer: any Pisot or Salem number is a parameter of dilation that preserves some Meyer set.
title Meyer sets, Pisot numbers, and self-similarity in symbolic dynamical systems
topic Dynamical Systems
37B10, 37B52, 37A05, 52C23, 37E05, 11K16, 42A32, 43A45, 68R15, 03D80, 11R06
url https://arxiv.org/abs/2404.04116