AbstractThe k-path partition problem is to partition a graph into the minimum number of paths, so that none of them has length more than k, for a given positive integer k. The problem is a generalization of the Hamiltonian path problem and the problem of partitioning a graph into the minimum number of paths. The k-path partition problem remains NP-complete on the class of chordal bipartite graphs if k is part of the input, and we show that it is NP-complete on the class of comparability graphs even for k=3. On the positive side, we present a polynomial-time solution for the problem, with any k, on bipartite permutation graphs, which form a subclass of chordal bipartite graphs
Let τ(G) denote the number of vertices in a longest path of the graph G and let k₁ and k₂ be positiv...
The Hamiltonian path problem is to determine whether a graph has a Hamiltonian path. This problem is...
AbstractExtending previous NP-completeness results for the harmonious coloring problem and the pair-...
AbstractThe k-path partition problem is to partition a graph into the minimum number of paths, so th...
The path-partition problem is to find a minimum number of vertex-disjoint paths that cover all verti...
We prove that it is NP-complete to decide whether a bipartite graph of maximum degree three on nk ve...
AbstractThe path-partition problem is to find a minimum number of vertex-disjoint paths that cover a...
International audienceWe prove that it is NP-complete to decide whether a bipartite graph of maximum...
AbstractThe path-partition problem is to find a minimum number of vertex-disjoint paths that cover a...
The path partition number of a graph is the minimum number of edges we have to add to turn it into a...
In this paper, we continue the investigation proposed in [15] about the approximability of P k p...
Abstract. In this paper, we continue the investigation made in [11] about the approximability of Pk ...
AbstractFor a fixed positive integer k, the k-path partition problem is to partition the vertex set ...
In this paper, we continue the investigation made in [MT05] about the approximability of Pk partitio...
In this paper, we continue the investigation made in [MT05] about the approximability of Pk partitio...
Let τ(G) denote the number of vertices in a longest path of the graph G and let k₁ and k₂ be positiv...
The Hamiltonian path problem is to determine whether a graph has a Hamiltonian path. This problem is...
AbstractExtending previous NP-completeness results for the harmonious coloring problem and the pair-...
AbstractThe k-path partition problem is to partition a graph into the minimum number of paths, so th...
The path-partition problem is to find a minimum number of vertex-disjoint paths that cover all verti...
We prove that it is NP-complete to decide whether a bipartite graph of maximum degree three on nk ve...
AbstractThe path-partition problem is to find a minimum number of vertex-disjoint paths that cover a...
International audienceWe prove that it is NP-complete to decide whether a bipartite graph of maximum...
AbstractThe path-partition problem is to find a minimum number of vertex-disjoint paths that cover a...
The path partition number of a graph is the minimum number of edges we have to add to turn it into a...
In this paper, we continue the investigation proposed in [15] about the approximability of P k p...
Abstract. In this paper, we continue the investigation made in [11] about the approximability of Pk ...
AbstractFor a fixed positive integer k, the k-path partition problem is to partition the vertex set ...
In this paper, we continue the investigation made in [MT05] about the approximability of Pk partitio...
In this paper, we continue the investigation made in [MT05] about the approximability of Pk partitio...
Let τ(G) denote the number of vertices in a longest path of the graph G and let k₁ and k₂ be positiv...
The Hamiltonian path problem is to determine whether a graph has a Hamiltonian path. This problem is...
AbstractExtending previous NP-completeness results for the harmonious coloring problem and the pair-...