Snub cube | |
Faces: | 38 |
Edges: | 60 |
Vertices: | 24 |
Symmetry: | Rotational octahedral symmetry O |
Angle: | triangle-to-triangle: 153.23° triangle-to-square: 142.98° |
Vertex Figure: | Polyhedron snub 6-8 left vertfig.svg |
Net: | Polyhedron snub 6-8 left net.svg |
s\scriptstyle\begin{Bmatrix}4\ 3\end{Bmatrix}
t\scriptstyle\begin{Bmatrix}4\ 3\end{Bmatrix}
The snub cube can be generated by taking the six faces of the cube, pulling them outward so they no longer touch, then giving them each a small rotation on their centers (all clockwise or all counter-clockwise) until the spaces between can be filled with equilateral triangles.
The snub cube may also be constructed from a rhombicuboctahedron. It started by twisting its square face (in blue), allowing its triangles (in red) to be automatically twisted in opposite directions, forming other square faces (in white) to be skewed quadrilaterals that can be filled in two equilateral triangles.
The snub cube can also be derived from the truncated cuboctahedron by the process of alternation. 24 vertices of the truncated cuboctahedron form a polyhedron topologically equivalent to the snub cube; the other 24 form its mirror-image. The resulting polyhedron is vertex-transitive but not uniform.
Cartesian coordinates for the vertices of a snub cube are all the even permutations ofwith an even number of plus signs, along with all the odd permutations with an odd number of plus signs, where
t ≈ 1.83929
This snub cube has edges of length
\alpha=\sqrt{2+4t-2t2}
For a snub cube with edge length
a
O
34 ⋅ 4
The skeleton of a snub cube can be represented as a graph with 24 vertices and 60 edges, an Archimedean graph.