The Theory of Doubly Periodic Pseudo Tangles

Ioannis Diamantis, Sofia Lambropoulou*, Sonia Mahmoudi

*Corresponding author for this work

Research output: Working paper / PreprintPreprint

Abstract

Doubly periodic tangles (DP tangles) are configurations of curves embedded in the thickened plane, invariant under translations in two transversal directions. In this paper we extend the classical theory of DP tangles by introducing the theory of {\it doubly periodic pseudo tangles} (pseudo DP tangles), which incorporate undetermined crossings called {\it precrossings}, inspired by the theory of pseudo knots. Pseudo DP tangles are defined as liftings of spatial pseudo links in the thickened torus, called {\it pseudo motifs}, and are analyzed through diagrammatic methods that account for both local and global isotopies. We emphasize on {\it pseudo scale equivalence}, a concept defining equivalence between finite covers of pseudo motif diagrams. We investigate the notion of equivalence for these structures, leading to an analogue of the Reidemeister theorem for pseudo DP tangles. Furthermore, we address the complexities introduced by pseudo scale equivalence in defining minimal pseudo motif diagrams. This work contributes to the broader understanding of periodic entangled structures and can find applications in diverse fields such as textiles, materials science and crystallography due to their periodic nature.
Original languageEnglish
PublisherCornell University - arXiv
Number of pages19
DOIs
Publication statusPublished - 24 Dec 2024

Publication series

SeriesarXiv.org
Number2412.16808
ISSN2331-8422

Keywords

  • pseudo knots
  • doubly periodic structures
  • tangles
  • thickened torus
  • pseudo motif
  • pseudo motif isotopy
  • pseudo Reidemeister moves
  • mixed pseudo links
  • DP tangle equivalence
  • Dehn twists
  • periodic lattice
  • homologous precrossings
  • minimal lattice
  • minimal motif
  • resolution sets

Fingerprint

Dive into the research topics of 'The Theory of Doubly Periodic Pseudo Tangles'. Together they form a unique fingerprint.

Cite this