There cannot be such a polyhedron since it does not satisfy Euler's criterion.
A polyhedron must have at least 4 faces, at least 4 vertices and at least 6 edges.
The above numbers do not satisfy the Euler characteristic (Faces + Vertices = Edges + 2) and so it is not a simply connected polyhedron.
There is no such convex polyhedron in normal geometries because it does not satisfy the Euler characteristic. That requires that Faces + Vertices = Edges + 2
Because the Euler characteristic establishes the rule that for all simply connected polyhedra, Faces + Vertices = Edges + 2 Vertices = 4 and Edges = 6 implies that Faces + 4 = 6 + 2 = 8 so that Faces = 4. So there is only one such polyhedron.
The only thing that can be said that there must be at least 4 faces and at least 6 edges and that the polyhedron must satisfy the Euler criterion which requires that: Faces + Vertices = Edges + 2.
No regular polyhedron can have these qualities: F + V - E must equal 2. - a three-sided pyramid has 4 faces, 6 edges, and 4 vertices. - a four-sided pyramid has 5 faces, 8 edges, and 5 vertices
2 faces, 4 edges, and 4 vertices 2 faces, 4 edges, and 4 vertices
4 faces, 6 edges, 4 verticesFour faces, six edges and four vertices.
A polyhedron is a generic term for 3 dimensional objects which are bounded by polygonal faces. They can have 4 or more vertices, 6 or more edges and 4 or more faces. The numbers of vertices (V), edges (E) and faces (F) must also satisfy the Euler characteristic: F + V = E + 2.
Faces=1 Edges=4 Vertices=4
Cylinder: Vertices = 0, Faces = 3, Edges = 2Rectangle: Vertices = 4, Faces = 1, Edges = 4.
A tetrahedron is the smallest possible polyhedron: a closed 3-d shape with polygonal faces. It has 4 triangular faces, 4 vertices and 6 edges.