AbstractAn injective k-coloring of a graph G is an assignment of k colors to V(G) such that vertices having a common neighbor receive distinct colors. We study the list version of injective colorings of planar graphs. Let χil(G) and mad(G) be the injective choosability number and the maximum average degree of G, respectively. It is proved that (1) for each graph G with mad(G)<103, χil(G)≤Δ(G)+4 if Δ(G)≥30 (this conditionally improves some results of Doyon et al. (2010) [9] and Lužar et al. (2009) [11]), χil(G)≤Δ(G)+5 if Δ(G)≥18, and χil(G)≤Δ(G)+6 if Δ(G)≥14; (2) χil(G)≤Δ(G)+2 if mad(G)<3 and Δ(G)≥12 (this conditionally improves a result of Doyon et al. (2010) [9])
The injective chromatic number of a graph G is the minimum number of colors needed in order to color...
AbstractLet G be a planar graph with maximum degree 4. It is known that G is 8-totally choosable. It...
AbstractWe prove that every planar graph of girth at least 5 is 3-choosable. It is even possible to ...
AbstractA vertex coloring of a graph G is called injective if any two vertices joined by a path of l...
AbstractAn injective k-coloring of a graph G is an assignment of k colors to V(G) such that vertices...
AbstractAn injective coloring of a graph is a vertex coloring where two vertices have distinct color...
AbstractLet mad(G) denote the maximum average degree (over all subgraphs) of G and let χi(G) denote ...
AbstractA graph G is m-choosable with impropriety d, or simply (m,d)∗-choosable, if for every list a...
AbstractA graph G = G(V, E) is called L-list colourable if there is a vertex colouring of G in which...
Let mad(G) denote the maximum average degree (over all subgraphs) of G and let χi(G) denote the inje...
International audienceAn injective k-edge-coloring of a graph G is an assignment of colors, i.e. int...
AbstractA graph G = G(V, E) with lists L(v), associated with its vertices v ∈ V, is called L-list co...
An additive coloring of a graph G is a labeling of the vertices of G from {1, 2, . . . , k} such tha...
An additive coloring of a graph G is a labeling of the vertices of G from {1,2,...,k} such that two ...
AbstractA graph G is equitably k-choosable if for any k-uniform list assignment L, there exists an L...
The injective chromatic number of a graph G is the minimum number of colors needed in order to color...
AbstractLet G be a planar graph with maximum degree 4. It is known that G is 8-totally choosable. It...
AbstractWe prove that every planar graph of girth at least 5 is 3-choosable. It is even possible to ...
AbstractA vertex coloring of a graph G is called injective if any two vertices joined by a path of l...
AbstractAn injective k-coloring of a graph G is an assignment of k colors to V(G) such that vertices...
AbstractAn injective coloring of a graph is a vertex coloring where two vertices have distinct color...
AbstractLet mad(G) denote the maximum average degree (over all subgraphs) of G and let χi(G) denote ...
AbstractA graph G is m-choosable with impropriety d, or simply (m,d)∗-choosable, if for every list a...
AbstractA graph G = G(V, E) is called L-list colourable if there is a vertex colouring of G in which...
Let mad(G) denote the maximum average degree (over all subgraphs) of G and let χi(G) denote the inje...
International audienceAn injective k-edge-coloring of a graph G is an assignment of colors, i.e. int...
AbstractA graph G = G(V, E) with lists L(v), associated with its vertices v ∈ V, is called L-list co...
An additive coloring of a graph G is a labeling of the vertices of G from {1, 2, . . . , k} such tha...
An additive coloring of a graph G is a labeling of the vertices of G from {1,2,...,k} such that two ...
AbstractA graph G is equitably k-choosable if for any k-uniform list assignment L, there exists an L...
The injective chromatic number of a graph G is the minimum number of colors needed in order to color...
AbstractLet G be a planar graph with maximum degree 4. It is known that G is 8-totally choosable. It...
AbstractWe prove that every planar graph of girth at least 5 is 3-choosable. It is even possible to ...