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Complete graph
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In graph theory, a complete graph is a simple graph in which every pair of distinct vertices is connected by an edge. The complete graph on n vertices has n vertices and n(n-1)/2 edges, and is denoted by . It is a regular graph of degree . All complete graphs are their own cliques. They are maximally connected as the only vertex cut which disconnects the graph is the complete set of vertices.
A complete graph with n nodes represents the edges of an (n-1)-simplex.

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In graph theory, a complete graph is a simple graph in which every pair of distinct vertices is connected by an edge. The complete graph on n vertices has n vertices and n(n-1)/2 edges, and is denoted by . It is a regular graph of degree . All complete graphs are their own cliques. They are maximally connected as the only vertex cut which disconnects the graph is the complete set of vertices.
A complete graph with n nodes represents the edges of an (n-1)-simplex. Geometrically relates to a triangle, a tetrahedron, a pentachoron, etc.
through are all planar. Kuratowski's theorem says that a planar graph cannot contain (or the complete bipartite graph ) as a minor. Since includes , no complete graph with n greater than or equal to 5 is planar.
Since a complete graph contains all n(n-1)/2 possible edges, it gives a quadratic upper bound on the number of connections in large connected systems like social and computer networks.
Complete graphs on n vertices, for between 1 and 8, are shown below along with the numbers of connections:
See also
External links
- Counting Paths and Cycles in Complete Graphs. Results are available or
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