In this paper, we study the relationship between forbidden subgraphs and the existence of a matching. Let W be a set of connected graphs. each of which has three or more vertices. A graph G is said to be H-free if no graph in W is ail induced subgraph of G. We completely characterize the set H such that every connected H-free graph of sufficiently large even order has a perfect matching in the following cases. (1) Every graph in R is triangle-free. (2) H consists of two graphs (i.e. a pair of forbidden subgraphs). A matching M in a graph of odd order is said to be a near-perfect matching if every vertex of G but one is incident with an edge of M. We also characterize H such that every H-free graph of sufficiently large odd order has a near-...
Given a bipartite graph G=(U∪V,E) such that ∣U∣=∣V∣ and every edge is labelled true or false or both...
For every graph X, we consider the class of all connected {K(1,3), X}-free graphs which are distinct...
Given a bipartite graph G = (U ? V, E) such that |U| = |V | and every edge is labelled true or false...
AbstractIn this paper, we study the relationship between forbidden subgraphs and the existence of a ...
AbstractIn this paper, we study the relationship between forbidden subgraphs and the existence of a ...
The matching number of a graph is the maximum size of a set of vertex-disjoint edges. The transversa...
Let H be a class of given graphs. A graph G is said to be H-free if G contains no induced copies of ...
In this article, we present a characterization of basic graphs in terms of forbidden induced subgrap...
Artículo de publicación ISIThe matching number of a graph is the maximum size of a set of vertex-dis...
Artículo de publicación ISIThe matching number of a graph is the maximum size of a set of vertex-dis...
We characterise the pairs of graphs {X, Y} such that all {X, Y}-free graphs(distinct from C5) are pe...
In this article, we present a characterization of basic graphs in terms of forbidden induced subgrap...
Given a bipartite graph G = (U ∪ V , E ) such that |U | = |V | and every edge is labelled true or f...
AbstractIn this article, we present a characterization of basic graphs in terms of forbidden induced...
International audienceGiven a bipartite graph G=(U∪V,E) such that ∣U∣=∣V∣ and every edge is labelled...
Given a bipartite graph G=(U∪V,E) such that ∣U∣=∣V∣ and every edge is labelled true or false or both...
For every graph X, we consider the class of all connected {K(1,3), X}-free graphs which are distinct...
Given a bipartite graph G = (U ? V, E) such that |U| = |V | and every edge is labelled true or false...
AbstractIn this paper, we study the relationship between forbidden subgraphs and the existence of a ...
AbstractIn this paper, we study the relationship between forbidden subgraphs and the existence of a ...
The matching number of a graph is the maximum size of a set of vertex-disjoint edges. The transversa...
Let H be a class of given graphs. A graph G is said to be H-free if G contains no induced copies of ...
In this article, we present a characterization of basic graphs in terms of forbidden induced subgrap...
Artículo de publicación ISIThe matching number of a graph is the maximum size of a set of vertex-dis...
Artículo de publicación ISIThe matching number of a graph is the maximum size of a set of vertex-dis...
We characterise the pairs of graphs {X, Y} such that all {X, Y}-free graphs(distinct from C5) are pe...
In this article, we present a characterization of basic graphs in terms of forbidden induced subgrap...
Given a bipartite graph G = (U ∪ V , E ) such that |U | = |V | and every edge is labelled true or f...
AbstractIn this article, we present a characterization of basic graphs in terms of forbidden induced...
International audienceGiven a bipartite graph G=(U∪V,E) such that ∣U∣=∣V∣ and every edge is labelled...
Given a bipartite graph G=(U∪V,E) such that ∣U∣=∣V∣ and every edge is labelled true or false or both...
For every graph X, we consider the class of all connected {K(1,3), X}-free graphs which are distinct...
Given a bipartite graph G = (U ? V, E) such that |U| = |V | and every edge is labelled true or false...