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Self-folding origami at any energy scale

Author

Listed:
  • Matthew B. Pinson

    (Physics and the James Franck Institute, University of Chicago)

  • Menachem Stern

    (Physics and the James Franck Institute, University of Chicago)

  • Alexandra Carruthers Ferrero

    (Physics and the James Franck Institute, University of Chicago
    University of Puerto Rico, Rio Pierdas Campus)

  • Thomas A. Witten

    (Physics and the James Franck Institute, University of Chicago)

  • Elizabeth Chen

    (SEAS (School of Engineering and Applied Sciences), Harvard University)

  • Arvind Murugan

    (Physics and the James Franck Institute, University of Chicago)

Abstract

Programmable stiff sheets with a single low-energy folding motion have been sought in fields ranging from the ancient art of origami to modern meta-materials research. Despite such attention, only two extreme classes of crease patterns are usually studied; special Miura-Ori-based zero-energy patterns, in which crease folding requires no sheet bending, and random patterns with high-energy folding, in which the sheet bends as much as creases fold. We present a physical approach that allows systematic exploration of the entire space of crease patterns as a function of the folding energy. Consequently, we uncover statistical results in origami, finding the entropy of crease patterns of given folding energy. Notably, we identify three classes of Mountain-Valley choices that have widely varying ‘typical’ folding energies. Our work opens up a wealth of experimentally relevant self-folding origami designs not reliant on Miura-Ori, the Kawasaki condition or any special symmetry in space.

Suggested Citation

  • Matthew B. Pinson & Menachem Stern & Alexandra Carruthers Ferrero & Thomas A. Witten & Elizabeth Chen & Arvind Murugan, 2017. "Self-folding origami at any energy scale," Nature Communications, Nature, vol. 8(1), pages 1-8, August.
  • Handle: RePEc:nat:natcom:v:8:y:2017:i:1:d:10.1038_ncomms15477
    DOI: 10.1038/ncomms15477
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