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MIT Class 6.S080 (AUS) Mechanical Invention through Computation Kinetic Origami
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Mechanical Invention through Computation Kinetic Origami

Dec 31, 2016

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Page 1: Mechanical Invention through Computation Kinetic Origami

MIT Class 6.S080 (AUS)

Mechanical Invention through Computation Kinetic Origami

Page 2: Mechanical Invention through Computation Kinetic Origami

Miura Ori

Basis of much

Kinetic origami

(continuous folding)

Page 3: Mechanical Invention through Computation Kinetic Origami

Miura Ori

Page 4: Mechanical Invention through Computation Kinetic Origami

Miura Ori in Nature (L. Mahadevan, Wyss Institute)

Page 5: Mechanical Invention through Computation Kinetic Origami

Buckling of a cylinder

Page 6: Mechanical Invention through Computation Kinetic Origami

Curvature in patterned folding

Waterbomb tessellation (“Namako” by Shuzo Fujimoto)

Page 7: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 8: Mechanical Invention through Computation Kinetic Origami

Space-filling Origami Tomohiro Tachi

University of Tokyo

Page 9: Mechanical Invention through Computation Kinetic Origami

Tomohiro Tachi

University of Tokyo

Page 10: Mechanical Invention through Computation Kinetic Origami

Miura folding with

thick materials

Page 11: Mechanical Invention through Computation Kinetic Origami

Material Thickness in Miura Ori (Hoberman)

Page 12: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 13: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 14: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 15: Mechanical Invention through Computation Kinetic Origami

Origami Mechanisms

Page 16: Mechanical Invention through Computation Kinetic Origami

Origami Mechanisms

Page 17: Mechanical Invention through Computation Kinetic Origami

Origami:Form

Tomohiro Tachi

University of Tokyo

Page 18: Mechanical Invention through Computation Kinetic Origami

Origami:

Form Tomohiro Tachi

University of Tokyo

Page 19: Mechanical Invention through Computation Kinetic Origami

Transformation

Deployment

"Rigid Origami Structures with Vacuumatics: Geometric Considerations" T. Tachi, M. Masubuchi, M. Iwamoto, 2012 IASS

Tomohiro Tachi

University of Tokyo

Page 20: Mechanical Invention through Computation Kinetic Origami

Tomohiro Tachi

University of Tokyo

Page 21: Mechanical Invention through Computation Kinetic Origami

Tomohiro Tachi

University of Tokyo

Page 22: Mechanical Invention through Computation Kinetic Origami

Tomohiro Tachi

University of Tokyo

Hexagonal Tripod Shells

Page 23: Mechanical Invention through Computation Kinetic Origami

Alternate methods for

thick origami

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• Material

• 10mm Structural Cardboard

(double wall)

• Cloth

• Size

• 2.5m x 2.5m

• exhibited at NTT ICC

Tomohiro Tachi

University of Tokyo

Page 25: Mechanical Invention through Computation Kinetic Origami

‘Thick’ Origami (Hoberman)

Page 26: Mechanical Invention through Computation Kinetic Origami

‘Thick’ Origami (Hoberman)

Page 27: Mechanical Invention through Computation Kinetic Origami

‘Thick’ Origami (Hoberman)

Page 28: Mechanical Invention through Computation Kinetic Origami

‘Thick’ Origami (Hoberman)

Page 29: Mechanical Invention through Computation Kinetic Origami

‘Thick’ Origami

Page 30: Mechanical Invention through Computation Kinetic Origami

‘Thick’ Origami

Page 31: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 32: Mechanical Invention through Computation Kinetic Origami

Thick Origami

Page 33: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 34: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 35: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 36: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 37: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 38: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 39: Mechanical Invention through Computation Kinetic Origami

Kinetic Origami

Page 40: Mechanical Invention through Computation Kinetic Origami

Abu Dhabi Investment Council Headquarters

Architect: Aedas

Page 41: Mechanical Invention through Computation Kinetic Origami

Custom Kinetic Facades:

Abu Dhabi Investment Council Headquarters

Architect: Aedas

Page 42: Mechanical Invention through Computation Kinetic Origami

Hiden Senbazuru Orikata 1797

Page 43: Mechanical Invention through Computation Kinetic Origami

Modern Origami

Satoshi Kamiya photo by Brian Chan

Cerberus & Ryujin

Satoshi Kamiya

2005

photo by Brian Chan

Page 44: Mechanical Invention through Computation Kinetic Origami

2006 Design Challenge Photos by Brian Chan

Brian Chan

Robert Lang Giang Dinh

Jason Ku

Andrea Hawksley

Page 45: Mechanical Invention through Computation Kinetic Origami

Joel Cooper

Brian Chan

Goran Konjevod

Origami USA Convention

2009

Page 46: Mechanical Invention through Computation Kinetic Origami

Origami Mathematics & Algorithms

Explosion in technical origami thanks in part to growing mathematical and computational understanding of origami

Butterfly 2.2

Jason Ku

Page 47: Mechanical Invention through Computation Kinetic Origami

Tree Method of Origami Design [Fujimoto, Kamiya, Kawahata, Lang, Maekawa, Meguro, Yoshino] [Lang, Demaine, Demaine 2006–2012]

Page 48: Mechanical Invention through Computation Kinetic Origami

What Shapes Can Be Folded?

[Demaine, Demaine, Mitchell 1999] 3D model by Bitmapworld

Page 49: Mechanical Invention through Computation Kinetic Origami

Tomohiro Tachi

Origamizer [Tachi 2006;

Demaine & Tachi 2009–2012]

Page 50: Mechanical Invention through Computation Kinetic Origami

Metal Bunny

[Cheung, Demaine, Demaine, Tachi 2011]

Page 51: Mechanical Invention through Computation Kinetic Origami

Metal Bunny

[Cheung, Demaine, Demaine, Tachi 2011]

Page 52: Mechanical Invention through Computation Kinetic Origami

Pleated Folding [1999–2013]

Page 53: Mechanical Invention through Computation Kinetic Origami

Hyperbolic Paraboloid

hyperbolic paraboloid

Page 54: Mechanical Invention through Computation Kinetic Origami
Page 55: Mechanical Invention through Computation Kinetic Origami

Hyparhedra: Platonic Solids [Demaine, Demaine, Lubiw 1999]

Page 56: Mechanical Invention through Computation Kinetic Origami

Hyperbolic Paraboloid

hyperbolic paraboloid

mathematically impossible!

Demaine, Demaine, Hart, Price, Tachi 2009

Page 57: Mechanical Invention through Computation Kinetic Origami

actual

parabolic fit Triangulated Hypars Exist Demaine, Demaine, Hart, Price, Tachi 2009

Page 58: Mechanical Invention through Computation Kinetic Origami

Circular Variation from Bauhaus

Page 59: Mechanical Invention through Computation Kinetic Origami

Curved Origami at the Bauhaus

Page 60: Mechanical Invention through Computation Kinetic Origami
Page 61: Mechanical Invention through Computation Kinetic Origami

Virtual Origami [Demaine, Demaine, Fizel, Ochsendorf 2006]

Page 62: Mechanical Invention through Computation Kinetic Origami

Simulation

Page 63: Mechanical Invention through Computation Kinetic Origami

“Black Hexagon” Demaine, Demaine, Fizel 2006

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“Computational Origami” Erik & Martin Demaine

MoMA, 2013–2014

Elephant hide paper ~9”x15”x7”

Page 65: Mechanical Invention through Computation Kinetic Origami

Curved Crease Sculpture Erik & Martin Demaine

Renwick Gallery, Smithsonian American Art Museum, 2012

Page 66: Mechanical Invention through Computation Kinetic Origami

Demaine & Demaine 2011

Feb.–Apr., 2012 Brockton, Mass.

Page 67: Mechanical Invention through Computation Kinetic Origami

Guided By Invoices Chelsea, New York Jan.–Mar., 2012

Earthtone Series Demaine & Demaine

2012

Page 68: Mechanical Invention through Computation Kinetic Origami

Ocean Series Demaine &

Demaine, 2012

Simons Gallery Stony Brook, NY July–Aug., 2012

Page 69: Mechanical Invention through Computation Kinetic Origami

Popup Books/Cards

Page 70: Mechanical Invention through Computation Kinetic Origami

Popups [Abel, Demaine, Demaine, Eisenstat, Lubiw,

Schulz, Souvaine, Viglietta, Winslow 2013]

Any polygon can be subdivided into a single-degree-of-freedom popup, with specified target angle

Page 71: Mechanical Invention through Computation Kinetic Origami

Popups [Abel, Demaine, Demaine, Eisenstat, Lubiw,

Schulz, Souvaine, Viglietta, Winslow 2013]

Any polygon can be subdivided into a single-degree-of-freedom popup, with specified target angle

Page 72: Mechanical Invention through Computation Kinetic Origami

3D popups [Abel et al. 2013]

Page 73: Mechanical Invention through Computation Kinetic Origami

Hydro-Fold

Hydro-Fold [Christophe Guberan 2012]

Page 74: Mechanical Invention through Computation Kinetic Origami

The Movie

Vanessa Gould, Green Fuse Films [56 minutes, 2008]

Page 75: Mechanical Invention through Computation Kinetic Origami

Book

www.gfalop.org

Published August 2007

Cambridge University Press

Coming soon in Japanese

Page 76: Mechanical Invention through Computation Kinetic Origami

Free Video Lectures!