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Space
filling with Platonic and Archimedean solids |
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Uniary space fillers |
Just as the Platonic and Archimedean solids can be sectioned and rearranged |
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into each
other, so also can their whole bodies be packed together in various |
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combinations to fill space with no voids between them.
In order for them to pack |
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together the faces they share with each other must
be parallel and congruent. And |
the sum of the dihedral angles of faces
surrounding a commonly shared edge must |
equal 3600. Of the Platonic
solids, only the cube can fill space by simply repeating |
itself in three dimensions. Hence it is
called a uniary space filler. The truncated |
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octahedron is the only uniary space filler of
the Archimedean solids. |
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Fig. 23 - Filling
space with cubes |
Fig. 24 - Filling
space with |
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truncated octahedra |
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Note: In
all of the Polymorf models of space filling polyhedra shown here, each |
constituent
polyhedron is constructed in its entirety with all its faces. This is to |
demonstrate
unambiguously that space is being is filled from the packing together of |
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individual, discrete polyhedra. |
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Geometry rules! - Space filling polyhedra |