AbstractWe study some operations on graphs in relation to the stable set polytope, for instance, identification of two nodes, linking a pair of nodes by an edge and composition of graphs by subgraph identification. We show that, with appropriate conditions, the descriptions of the stable set polytopes associated with the resulting graphs can be derived from those related to the initial graphs by adding eventual clique inequalities. Thus, perfection and h-perfection of graphs are preserved
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
AbstractWe study the stability number, chromatic number and clique cover of graphs with no induced P...
A graph $G$ with a two-node cutset decomposes into two pieces. A technique to describe the stable se...
AbstractSeveral applications of methods from nonlinear algebra to the stable set problem in graphs a...
Computing the chromatic number and finding an optimal coloring of a perfect graph can be done effici...
AbstractSeveral applications of methods from nonlinear algebra to the stable set problem in graphs a...
AbstractFor some graph classes defined by forbidding one-vertex extensions of the P4, we introduce a...
AbstractRank inequalities due to stability critical (a-critical) graphs are used to develop a finite...
We study the linear extension complexity of stable set polytopes of perfect graphs. We make use of k...
AbstractWe give a polyhedral characterization of line graphs that, in some sense, gives a converse t...
AbstractIt is shown that a graph is perfect iff maximum clique · number of stability is not less tha...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
AbstractWe answer a question of Corneil and Fonlupt by showing that deciding whether a graph has a s...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
AbstractWe study the stability number, chromatic number and clique cover of graphs with no induced P...
A graph $G$ with a two-node cutset decomposes into two pieces. A technique to describe the stable se...
AbstractSeveral applications of methods from nonlinear algebra to the stable set problem in graphs a...
Computing the chromatic number and finding an optimal coloring of a perfect graph can be done effici...
AbstractSeveral applications of methods from nonlinear algebra to the stable set problem in graphs a...
AbstractFor some graph classes defined by forbidding one-vertex extensions of the P4, we introduce a...
AbstractRank inequalities due to stability critical (a-critical) graphs are used to develop a finite...
We study the linear extension complexity of stable set polytopes of perfect graphs. We make use of k...
AbstractWe give a polyhedral characterization of line graphs that, in some sense, gives a converse t...
AbstractIt is shown that a graph is perfect iff maximum clique · number of stability is not less tha...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
AbstractWe answer a question of Corneil and Fonlupt by showing that deciding whether a graph has a s...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
Stable set problems subsume matching problems since a matching is a stable set in a so- called line...
AbstractWe study the stability number, chromatic number and clique cover of graphs with no induced P...