Anisotropic Morphing in Bistable Kirigami through Symmetry Breaking and Geometric Frustration

Abstract: Shape morphing in bistable kirigami enables remarkable functionalities appealing to a diverse range of applications across the spectrum of length scale. At the core of their shape shifting lies the architecture of their repeating unit, where highly deformable slits and quasi‐rigid rotating units often exhibit multiple symmetries that confer isotropic deployment obeying uniform scaling transformation. In this work, symmetry breaking in bistable kirigami is investigated to access geometric frustration and anisotropic morphing, enabling arbitrarily scaled deployment in planar and spatial bistable domains. With an analysis on their symmetry properties complemented by a systematic investigation integrating semi‐analytical derivations, numerical simulations, and experiments on elastic kirigami sheets, this work unveils the fundamental relations between slit symmetry, geometric frustration, and anisotropic bistable deployment. Furthermore, asymmetric kirigami units are leveraged in planar and flat‐to‐3D demonstrations to showcase the pivotal role of shear deformation in achieving target shapes and functions so far unattainable with uniformly stretchable kirigami. The insights provided in this work unveil the role of slit symmetry breaking in controlling the anisotropic bistable deployment of soft kirigami metamaterials, enriching the range of achievable functionalities for applications spanning deployable space structures, wearable technologies, and soft machines.

Standort
Deutsche Nationalbibliothek Frankfurt am Main
Umfang
Online-Ressource
Sprache
Englisch

Erschienen in
Anisotropic Morphing in Bistable Kirigami through Symmetry Breaking and Geometric Frustration ; day:08 ; month:03 ; year:2024 ; extent:11
Advanced materials ; (08.03.2024) (gesamt 11)

Urheber
Qiao, Chuan
Agnelli, Filippo
Pokkalla, Deepak Kumar
D'Ambrosio, Nicholas
Pasini, Damiano

DOI
10.1002/adma.202313198
URN
urn:nbn:de:101:1-2024030813483126660194
Rechteinformation
Open Access; Der Zugriff auf das Objekt ist unbeschränkt möglich.
Letzte Aktualisierung
14.08.2025, 10:51 MESZ

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Beteiligte

  • Qiao, Chuan
  • Agnelli, Filippo
  • Pokkalla, Deepak Kumar
  • D'Ambrosio, Nicholas
  • Pasini, Damiano

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