AbstractThe eternal domination problem requires a graph to be protected against an infinitely long sequence of attacks on vertices by guards located at vertices, the configuration of guards inducing a dominating set at all times. An attack at a vertex with no guard is defended by sending a guard from a neighboring vertex to the attacked vertex. We allow any number of guards to move to neighboring vertices at the same time in response to an attack. We compare the eternal domination number with the vertex cover number of a graph. One of our main results is that the eternal domination number is less than the vertex cover number of any graph of minimum degree at least two having girth at least nine
Eternal and m-eternal domination are concerned with using mobile guards to protect a graph against i...
International audienceIn the eternal domination game, an attacker attacks a vertex at each turn and ...
International audienceIn the eternal domination game, an attacker attacks a vertex at each turn and ...
AbstractMobile guards on the vertices of a graph are used to defend it against an infinite sequence ...
The eternal domination problem requires a graph to be protected against an infinitely long sequence ...
AbstractMobile guards on the vertices of a graph are used to defend it against an infinite sequence ...
AbstractThe eternal domination number of a graph is the number of guards needed at vertices of the g...
© 2018 Elsevier B.V. In the m-Eternal Domination game, a team of guard tokens initially occupies a d...
Mobile guards on the vertices of a graph are used to defend the graph against an infinite sequence o...
A dynamic domination problem in graphs is considered in which an infinite sequence of attacks occur ...
A dynamic domination problem in graphs is considered in which an infinite sequence of attacks occur ...
The use of mobile guards to protect a graph has received much attention in the literature of late in...
An eternal dominating set of a graph G is a set of guards distributed on the vertices of a dominatin...
In the Eternal Domination game, a team of guard tokens initially occupies a dominating set on a grap...
The domination number for grid graphs has been a long studied problem; the first results appeared ov...
Eternal and m-eternal domination are concerned with using mobile guards to protect a graph against i...
International audienceIn the eternal domination game, an attacker attacks a vertex at each turn and ...
International audienceIn the eternal domination game, an attacker attacks a vertex at each turn and ...
AbstractMobile guards on the vertices of a graph are used to defend it against an infinite sequence ...
The eternal domination problem requires a graph to be protected against an infinitely long sequence ...
AbstractMobile guards on the vertices of a graph are used to defend it against an infinite sequence ...
AbstractThe eternal domination number of a graph is the number of guards needed at vertices of the g...
© 2018 Elsevier B.V. In the m-Eternal Domination game, a team of guard tokens initially occupies a d...
Mobile guards on the vertices of a graph are used to defend the graph against an infinite sequence o...
A dynamic domination problem in graphs is considered in which an infinite sequence of attacks occur ...
A dynamic domination problem in graphs is considered in which an infinite sequence of attacks occur ...
The use of mobile guards to protect a graph has received much attention in the literature of late in...
An eternal dominating set of a graph G is a set of guards distributed on the vertices of a dominatin...
In the Eternal Domination game, a team of guard tokens initially occupies a dominating set on a grap...
The domination number for grid graphs has been a long studied problem; the first results appeared ov...
Eternal and m-eternal domination are concerned with using mobile guards to protect a graph against i...
International audienceIn the eternal domination game, an attacker attacks a vertex at each turn and ...
International audienceIn the eternal domination game, an attacker attacks a vertex at each turn and ...