List colourings of planar graphs
By M. Voigt. Discrete Mathematics, 2006
305 citations recorded by the source corpus.
Subfields: Computational Theory and Mathematics
View Paper: https://www.semanticscholar.org/paper/8f9713ea8fcda72668e3a20f6fb2bd5e5be10569
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In Computational Theory and Mathematics
Citations in the corpus
- Breaking the degeneracy barrier for coloring graphs with no K minor (2019, result): “is a choice of colors {c(v)}v∈V (G) such that c(v) ∈ L(v), and c(v) 6= c(u) for every uv ∈ E(G). Clearly every k-list colorable graph is k-colorable, but the converse implication does not hold. Voigt [Voi93] has shown that there exist planar graphs which are not 4-list colorable. Generalizing the re”
- An extremal problem for H -linked graphs (2005, background): “The version of Brooks’ Theorem for list-chromatic number implies that if G is a graph on the Klein bottle, then also ‘(G) 6. For graphs on the sphere, the maximum chromatic number is 4, but the maximum list-chromatic number is 5 (upper bound by Thomassen [21], lower bound by Voigt [ 22 ]).”
- Complexity of clique-coloring odd-hole-free graphs (2009, background): “Observe that this does not hold for the usual list colouring, since Voigt [15] proved that there exist planar graphs which are not 4-choosable.”
- Defective and Clustered Graph Colouring (2018, background): “Voigt [213] and later Mirzakhani [175] constructed planar graphs that are not 4-choosable.”