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Autores principales: Moritake, Yuto, Takiguchi, Masato, Aihara, Takuma, Notomi, Masaya
Formato: Preprint
Publicado: 2025
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Acceso en línea:https://arxiv.org/abs/2506.07561
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author Moritake, Yuto
Takiguchi, Masato
Aihara, Takuma
Notomi, Masaya
author_facet Moritake, Yuto
Takiguchi, Masato
Aihara, Takuma
Notomi, Masaya
contents Aperiodic systems such as quasiperiodic systems exhibit unique properties different from periodic structures. In 2023, Smith et al. discovered a new aperiodic structure: a single-shaped tile that can only tile space aperiodically, known as an aperiodic monotile. Although the aperiodic monotile possesses intriguing mathematical properties, its experimental investigation remains unexplored. In this study, we report an experimental investigation of diffraction patterns from a monotile lattice using a nanophotonic platform. We observed clear Bragg peaks, which is evidence of long-range order and a chiral structure of the diffraction patterns. Furthermore, we found exotic behavior in circular polarization dependence, which cannot be observed in conventional quasiperiodic structures. These findings establish the monotile lattice as a novel class of aperiodic systems, expanding the study of nonperiodic structures beyond conventional quasicrystals.
format Preprint
id arxiv_https___arxiv_org_abs_2506_07561
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Chiral Diffraction from Aperiodic Monotile Lattice
Moritake, Yuto
Takiguchi, Masato
Aihara, Takuma
Notomi, Masaya
Optics
Aperiodic systems such as quasiperiodic systems exhibit unique properties different from periodic structures. In 2023, Smith et al. discovered a new aperiodic structure: a single-shaped tile that can only tile space aperiodically, known as an aperiodic monotile. Although the aperiodic monotile possesses intriguing mathematical properties, its experimental investigation remains unexplored. In this study, we report an experimental investigation of diffraction patterns from a monotile lattice using a nanophotonic platform. We observed clear Bragg peaks, which is evidence of long-range order and a chiral structure of the diffraction patterns. Furthermore, we found exotic behavior in circular polarization dependence, which cannot be observed in conventional quasiperiodic structures. These findings establish the monotile lattice as a novel class of aperiodic systems, expanding the study of nonperiodic structures beyond conventional quasicrystals.
title Chiral Diffraction from Aperiodic Monotile Lattice
topic Optics
url https://arxiv.org/abs/2506.07561