Icosahedron in Cube

Twelve vertices of an icosahedron are naturally split into 3 groups of four so that, in each group, pairs of vertices are joined by parallel edges. So there are three groups of parallel edges, edges from different groups being perpendicular. As such, these edges fit into opposite faces of a cube. In the applet below pairs of opposite edges joined to form a rectangle. There are three of them along each of the three basic planes.

What if applet does not run?

And here is an entire icosahedron embedded in a cube.

What if applet does not run?

Drag the mouse to rotate the dodecahedron. Use the right button to remove and put back individual faces.

(Acknowledgement: I have learned most of Java details from the implementation by Meiko Rachimow.)

Related material

  • Right Pentagonal Prism
  • Square Pyramid
  • Right Triangular Prism
  • Twisted Triangular Prism
  • Tetrahedron: an Interactive Model
  • Octahedron: an Interactive Model
  • Cube: an Interactive Model
  • Icosahedron: an Interactive Model
  • Dodecahedron: an Interactive Model
  • Three Pyramids are Better Than Two
  • Cube In Octahedron
  • Octahedron In Cube
  • Octahedron In Tetrahedron
  • Tetrahedron In Cube
  • Icosahedron In Cube
  • Great Stellated Dodecahedron
  • Lennes' Polyhedron
  • Triangulated Dinosaur
  • Volumes of Two Pyramids
  • Császár Polyhedron 1
  • Császár Polyhedron 4
  • Szilassi Polyhedron
  • Dissection of a Square Pyramid
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    Copyright © 1996-2017 Alexander Bogomolny


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