1 citations · 1 across the 19 of their papers we have counts for
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Spreading in claw-free cubic graphs
Boštjan Brešar, Jaka Hedžet, Michael A. Henning
Let and . We study a dynamic coloring of the vertices of a graph that starts with an initial subset of blue…
An exploration of the balance game
Paul Dorbec, Michael A. Henning, Zsolt Tuza +1
The balance game is played on a graph by two players, Admirable (A) and Impish (I), who take turns selecting unlabeled vertices of . Admirable labels the selected vertices b…
Identifying open codes in trees and 4-cycle-free graphs of given maximum degree
Dipayan Chakraborty, Florent Foucaud, Michael A. Henning
An identifying open code of a graph is a set of vertices that is both a separating open code (that is, for all distinct vertices and $…
On total domination subdivision numbers of trees
Michael A. Henning, Jerzy Topp
A set of vertices in a graph is a total dominating set of if every vertex is adjacent to a vertex in . The total domination number is the minimum cardinalit…
Best possible upper bounds on the restrained domination number of cubic graphs
Boštjan Brešar, Michael A. Henning
A dominating set in a graph is a set of vertices such that every vertex in is adjacent to a vertex in . A restrained dominating set of is a domina…
Identifying codes in triangle-free graphs of bounded maximum degree
Dipayan Chakraborty, Florent Foucaud, Michael A. Henning +1
An identifying code of a closed-twin-free graph is a set of vertices of such that any two vertices in have a distinct, nonempty intersection between their closed ne…
Identifying codes in graphs of given maximum degree: Characterizing trees
Dipayan Chakraborty, Florent Foucaud, Michael A. Henning +1
An identifying code of a closed-twin-free graph is a dominating set of vertices of such that any two vertices in have a distinct intersection between their closed n…
The 1/3-conjectures for domination in cubic graphs
Paul Dorbec, Michael Antony Henning
A set S of vertices in a graph G is a dominating set of G if every vertex not in S is adjacent to a vertex in S . The domination number of G, denoted by (G), is the minimum card…