Uniform 6-polytope
6-simplex |
Truncated 6-simplex |
Rectified 6-simplex | |||||||||
Cantellated 6-simplex |
Runcinated 6-simplex | ||||||||||
Stericated 6-simplex |
Pentellated 6-simplex | ||||||||||
6-orthoplex |
Truncated 6-orthoplex |
Rectified 6-orthoplex | |||||||||
Cantellated 6-orthoplex |
Runcinated 6-orthoplex |
Stericated 6-orthoplex | |||||||||
Cantellated 6-cube |
Runcinated 6-cube | ||||||||||
Stericated 6-cube |
Pentellated 6-cube | ||||||||||
6-cube |
Truncated 6-cube |
Rectified 6-cube | |||||||||
6-demicube |
Truncated 6-demicube |
Cantellated 6-demicube | |||||||||
Runcinated 6-demicube |
Stericated 6-demicube | ||||||||||
221 |
122 | ||||||||||
Truncated 221 |
Truncated 122 | ||||||||||
In six-dimensional geometry, a uniform 6-polytope is a six-dimensional uniform polytope. A uniform polypeton is vertex-transitive, and all facets are uniform 5-polytopes.
The complete set of convex uniform 6-polytopes has not been determined, but most can be made as Wythoff constructions from a small set of symmetry groups. These construction operations are represented by the permutations of rings of the Coxeter-Dynkin diagrams. Each combination of at least one ring on every connected group of nodes in the diagram produces a uniform 6-polytope.
The simplest uniform polypeta are regular polytopes: the 6-simplex {3,3,3,3,3}, the 6-cube (hexeract) {4,3,3,3,3}, and the 6-orthoplex (hexacross) {3,3,3,3,4}.