Two metrics on the same set are said to be topologically equivalent of they have the same open sets. So if an open subset, U contained in M is open with respect to one metric if and only if it is open with respect to the other metric. Another way to think of this is two objects are topologically equivalent if one object can be continuously deformed to the other. To be more precise, a homemorphism, f, between two topological spaces is a continuous bijective map with a continuos inverse. If such a map exists between two spaces, the are topologically equivalent.
Both have at least one hexagonal face (base). Both have six faces that are topologically equivalent (either rectangles, or triangles).
None of the 32,300 topologically distinct decahedra is regular.
There are 257 topologically different convex octahedra. Many of these will have no parallel faces. It can have four pairs of parallel faces.
An octahedron is a closed 3-d shape with 8 polygonal faces. There are 257 topologically different convex octahedra. An octahedron can have 6 to 12 vertices.
An octahedron is a closed 3-d shape with 8 polygonal faces. There are 257 topologically different convex octahedra. An octohedron can have 12 to 18 edges.
For a simply connected convex polyhedron , that is, shapes that are topologically equivalent to a sphere, F - E + V = 2 where F = faces, E = edges and V = vertices. For shapes that are topologically equivalent to a sphere with one hole in it (torus or doughnut shape), F - E + V = 0 For shapes that are topologically equivalent to a sphere with two holes in it F - E + V = -2 For shapes that are topologically equivalent to a sphere with three holes in it F - E + V = -4 and so on.
Without further information, there is no unique answer. If the surface is topologically equivalent to a sphere, then the answer is 12. (chi = 2) If the surface is topologically equivalent to a torus (donut), then the answer is 10. (chi = 0) Given the Euler number of the surface, chi, F = chi - V + E, where F is the number of faces, V is the number of vertices, E is the number of edges.
Both have at least one hexagonal face (base). Both have six faces that are topologically equivalent (either rectangles, or triangles).
None of the 32,300 topologically distinct decahedra is regular.
It is a heptahedron. There are 34 topologically distinct convex heptahedra.
It is an octahedron. There are 257 topologically distinct octahedra: with 6 to 12 vertices.
There are around 6.4 million topologically different convex dodecahedra, plus concave ones.
Equivalent to means equal to or the same as.
To be equivalent means to be the same as a value or thing. So yes, it does mean equal.
If you mean 1 to 10 then the equivalent ratio is 10 to 100If you mean: 1 to 10 then the equivalent ratio is 10 to 100
If you mean "equivalent", it means equal to.
I think what you mean is equivalent fractions. It means two fractions that are equivalent, or the exact same.