Prove that the maximum vertex connectivity one can achieve with a graph G on n.
01.
Define a bipartite graph. Prove that a graph is bipartite if and only if it contains no
circuit of odd lengths.
Define a cut-vertex. Prove that every connected graph with three or more vertices
has at least two vertices that are not cut vertices.
Prove that a connected planar graph with n vertices and e edges has e - n + 2 regions.
02.
03.
04.
Define Euler graph. Prove that a connected graph G is an Euler graph if and only if
all vertices of G are of even degree.
Prove that every tree with two or more vertices is 2-chromatic.
05.
06.
07.
Draw the two Kuratowski's graphs and state the properties common to these graphs.
Define a Tree and prove that there is a unique path between every pair of vertices in a
tree.
If B is a circuit matrix of a connected graph G with e edge arid n vertices, prove
that rank of B=e-n+1.
08.
09.
A hexagon has more vertices.
Hexagons have more than 5 verticies. Not pentagons because they have exactly 5 verticies. not a quadrilateral because that has 4 vertices. not a triangle because it has 3 vertices but left down to Hexagon which has 6 vertices .
Triangular prism has 6 vertices. Triangular pyramid has 4 vertices. 6-4 = 2 Answer: 2 vertices.
it has 4 vertices, a vertice is a point were two lines intersect
no
Every polygon that is not a triabgle (3 vertices), quadrilateral (4 vertices) or pentagon (5 vertices) has more than 5 vertices.
the vertex is where the two or more edges meet so to find them just count the corners because every corner is a vertex. a cube has 8 Vertices
A hexagon has more vertices.
Both vertices and vertexes are acceptable, but vertices is more commonly used.
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A vertex of a geometric figure is defined as a point where two or more edges meet, making it a boundary point of that figure. However, not all boundary points are vertices; for example, on the edge of a shape, any point along the edge is a boundary point but does not qualify as a vertex unless it specifically represents a corner where edges converge. Thus, while every vertex is a boundary point, the reverse is not true, as boundary points can exist along edges without being vertices.
The number of vertices does not determine the number of faces. If the shape with 6 vertices was a quadrilateral based bipyramid, it would have 8 faces. A hexagonal based pyramid has 7 vertices and 7 faces. So more vertices does not necessarily imply more faces.
A rectangular prism has 8 vertices, a rectangular pyramid has 5 vertices, 8-5=3 more vertices, so yes.
2 more vertices
3 more vertices
A cube has 8 vertices and 6 faces. Therefore a cube has 2 more vertices than faces.
11 vertices (one more than the number of vertices in the base).