Cycle
Builds on Circuit
Remarks
The only repeated vertex is . In a simple graph, each cycle has length . The vertices and edges of a cycle of length form a subgraph isomorphic to the cycle graph . A graph with no cycle is acyclic.
Reading path
To understand this page from the ground up, read these 5 pages in order. The foundations come first.
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Where this leads
25 pages build on this one.
- A graph is bipartite iff it has no odd cycle
- Every connected graph has a spanning tree
- Hamiltonian graph
- Unique paths in trees
- Forest
- Prüfer sequence
- Trees are bipartite
- Rooted tree
- Characterization of bridges
- Spanning tree
- Every finite tree with at least two vertices has a leaf
- Hamiltonian cycle
- Cayley's formula
- Tree
- Ore's theorem
- Dirac's theorem on Hamiltonian cycles
- A tree on n vertices has n − 1 edges
- Acyclic graph
- Minimum spanning tree
- Net of a polyhedron
- Jordan's theorem on primitive groups containing a prime cycle
- Treewidth
- Strong perfect graph theorem
- Girth
- Kruskal's tree theorem
Further reading
- Web https://en.wikipedia.org/wiki/Cycle_(graph_theory), Circuit and cycle
About this page
| Tag | 07CT9RDY7Q |
|---|---|
| URI | m2://07CT9RDY7Q |
| Kind | definition |
| Writing | W1 stated |
| MSC | 05C38 |
| Defines | Cycle |
| Uses | Circuit |
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What this page needs for W2
- edge instance_of in: one example (0 of 1)
- edge not_instance_of in: one non-example that fails one clause (0 of 1)
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