Graph Isomorphism, Bounded Vertex Valences: Difference between revisions

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(Created page with "{{DISPLAYTITLE:Graph Isomorphism, Bounded Vertex Valences (Graph Isomorphism Problem)}} == Description == Given two graphs with the degree of each vertex bounded, determine whether they are isomorphic to one another. == Related Problems == Generalizations: Graph Isomorphism, General Graphs Related: Graph Isomorphism, Bounded Number of Vertices of Each Color, Graph Isomorphism, Trivalent Graphs, Largest Common Subtree, Subtree Isomorphism == Par...")
 
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== Parameters ==  
== Parameters ==  


<pre>$n$: number of vertices in the larger graph</pre>
$n$: number of vertices in the larger graph


== Table of Algorithms ==  
== Table of Algorithms ==  

Latest revision as of 13:03, 15 February 2023

Description

Given two graphs with the degree of each vertex bounded, determine whether they are isomorphic to one another.

Related Problems

Generalizations: Graph Isomorphism, General Graphs

Related: Graph Isomorphism, Bounded Number of Vertices of Each Color, Graph Isomorphism, Trivalent Graphs, Largest Common Subtree, Subtree Isomorphism

Parameters

$n$: number of vertices in the larger graph

Table of Algorithms

Name Year Time Space Approximation Factor Model Reference
McKay 1981 $O((m1 + m2)n^{3} + m2 n^{2} L)$ ${2}mn+{10}n+m+(m+{4})K+{2}mL$ Exact Deterministic Time
Schmidt & Druffel 1976 $O(n*n!)$ $O(n^{2})$ Exact Deterministic Time
Babai 2017 {2}^{$O(\log n)$^3} Exact Deterministic Time
Babai 1980 \exp(n^{\frac{1}{2} + $O({1})$}) $O(n^{2})$ Exact Randomized Time & Space