There cannot be such shapes.
The Euler characteristic for each shape requires Faces + Vertices = Edges + 2
Therefore, for 2 shapes, F + V = E + 4
The equation fails in this case.
There cannot be such shapes.
The Euler characteristic for each shape requires Faces + Vertices = Edges + 2
Therefore, for 2 shapes, F + V = E + 4
The equation fails in this case.
There cannot be such shapes.
The Euler characteristic for each shape requires Faces + Vertices = Edges + 2
Therefore, for 2 shapes, F + V = E + 4
The equation fails in this case.
There cannot be such shapes.
The Euler characteristic for each shape requires Faces + Vertices = Edges + 2
Therefore, for 2 shapes, F + V = E + 4
The equation fails in this case.
A rhombus is a two dimensional figure while the concept of {faces, vertices and edges} is relevant to 3-dimensional shapes.
Any polyhedron can be deformed (its angles changed) without affecting the number of edges, vertices or faces.
You cannot have such a shape because either the shapes must meet at an edge or the vertices must be joined by an edge.
Three faces, two edges and 0 vertices.
Three faces, two edges and 0 vertices.
A rhombus is a two dimensional figure while the concept of {faces, vertices and edges} is relevant to 3-dimensional shapes.
cube and cuboid
Any polyhedron can be deformed (its angles changed) without affecting the number of edges, vertices or faces.
Rectangular prism Cube
A cube and a rectangular prism.
A cylinder and a cone - are two entirely different 3D shapes. A cylinder has three faces & two edges. A cone has two faces and one edge.
You cannot have such a shape because either the shapes must meet at an edge or the vertices must be joined by an edge.
Three faces, two edges and 0 vertices.
Three faces, two edges and 0 vertices.
There are two plane faces and a curved face, two edges and no vertices.
One edge, no vertices and two faces.
The numbers do not satisfy Euler's characteristic so there can be no such polyhedron.