Skewed muoctahedron
Skewed muoctahedron | |
---|---|
Rank | 3 |
Space | Euclidean |
Notation | |
Schläfli symbol | , |
Elements | |
Faces | N triangular helices |
Edges | N×2M |
Vertices | N×M |
Vertex figure | Square |
Petrie polygons | N triangular helices |
Holes | Apeirogons |
Related polytopes | |
Regiment | Skewed muoctahedron |
Petrie dual | Skewed muoctahedron |
Abstract & topological properties | |
Schläfli type | {∞,4} |
Properties | |
Chiral | Yes |
Convex | No |
The skewed muoctahedron is a regular skew polyhedron within 3-dimensional space. It is an infinite polyhedron consisting of triangular helices, with 4 at a vertex. Like the hemidodecahedron, the skewed muoctahedron is self-Petrie; it is its own Petrie dual. Its vertices and edges are a subset of those found in the cubic honeycomb.
The skewed muoctahedron can be obtained by skewing () the muoctahedron, an operation abstractly equivalent to where is the Petrie dual, is the dual, and is halving. Despite the fact that some intermediate steps in the process of skewing cannot exist in 3D space, the final result ends up having a realization.
The skewed muoctahedron is a chiral polyhedron; its helices are either all clockwise or all counterclockwise.
External links[edit | edit source]
- jan Misali (2020). "there are 48 regular polyhedra".
Bibliography[edit | edit source]
- McMullen, Peter; Schulte, Egon (1997). "Regular Polytopes in Ordinary Space" (PDF). Discrete Computational Geometry (47): 449–478. doi:10.1007/PL00009304.