Abstract
We present a greedy algorithm that determines a lower bound on the zero error capacity. The algorithm has many new advantages, e.g., it does not store a whole product graph in a computer memory and it uses the so-called distributions in all dimensions to get a better approximation of the zero error capacity. We also show an additional application of our algorithm.
This article was partially supported by the Narodowe Centrum Nauki under grant DEC-2011/02/A/ST6/00201.
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Notes
- 1.
The number of vertices and edges of G we often denote by n and m, respectively, thus \(|V(G)|=n\) and \(|E(G)|=m\).
- 2.
We assume that W is non-empty.
- 3.
It is worth to note that the number of maximal cliques in G is at most exponential with respect to |V(G)| [11], while the number of edges in G is at most quadratic with respect to |V(G)|.
- 4.
A graph is vertex transitive if for any two vertices u and v of this graph, there is an automorphism such that the image of u is v.
- 5.
There is a better upper bound on \(\varTheta (G)\), the so-called Lovász theta function [28].
- 6.
This part of the proposition was found by my colleague [30].
- 7.
Our algorithm works for an arbitrary graph product, as well as for an arbitrary single graph.
- 8.
A fullerene graph is the graph formed from the vertices and edges of a convex polyhedron, whose faces are all pentagons or hexagons and all vertices have degree equal to three.
- 9.
We can use the so-called Lovász theta function instead of \(\alpha ^*\), since it is also multiplicative with respect to the strong product for all graphs [28].
- 10.
We assume that a network (graph) G is non-empty, i.e., \(|E(G)|\ne 0\).
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Jurkiewicz, M. (2020). An Approximation of the Zero Error Capacity by a Greedy Algorithm. In: Wu, W., Zhang, Z. (eds) Combinatorial Optimization and Applications. COCOA 2020. Lecture Notes in Computer Science(), vol 12577. Springer, Cham. https://doi.org/10.1007/978-3-030-64843-5_7
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