Yes.
to add to that
a vertex must be connected to at least 3 edges to be 3d, an edge is always connected to 2 vertexes, so the closest the two can ever be is
vetexes x 3 = edges x 2,
but when working with any platonic solid you can follow this:
vertexes x (faces / vertexes) x [edges on one side] = edges x 2
or
vertexes x [faces meeting at one vertex] = edges x 2
when working with any other polyhedron
[vertexes with x amount of faces] x (x) + [vertexes with y amount of faces] x (y) ...{and so on} = edges x 2
A shape with more than 12 edges is a dodecahedron which has 30 edges
I don't know but I need to know =p
The shape would be impossible. The faces and vertices have to add up to two more than the edges.
Oh, isn't that a happy little question! Let's think about it together. A prism has 2 bases and the same number of edges as the number of sides on those bases, plus the number of edges connecting the corresponding vertices on the bases. So, a prism can't have seven more edges than vertices because the number of edges is determined by the number of sides on the bases and the number of vertices.
Yes, an example of this is a sphere which does not have any edges. If you had intended to ask if there are any polyhedra with less than three edges, the answer to that would be no, as the only figure constructable from three distinct lines is a triangle.
an octagon
Every triangle has three vertices (vertexes).If it has less than 3 or more than 3, it isn't a triangle.
check a reference book
Vertexes or Vertices. (VERT-uh-seize)
The plural form of vertex is verteces or vertexes.
3 more
A shape with more than 12 edges is a dodecahedron which has 30 edges
A cube has 12 edges whereas a cylinder has 2 edges so therefore it has 10 more edges than a cylinder.
you take face, than add the vertice, and subtract 2 from it this works for almost al polyhedrons but it doesn't work for a cylinder
9 edges n 5 faces, 4 more edges
yes it does has more than 3 pairs of parrallel edges
A pyramid is a solid with a (convex) polygonal base and triangular sides all terminating in the same point. As such the number of "corners" (topologists call them vertexes) is one more than the number of vertexes of the base. A "square pyramid" (such as those famous structures in Giza, Egypt, has five vertexes. A tetrahedron is also a pyramid but one that has only 4 vertexes (the fewest of all the pyramidal shapes). 3