We first consider the problem of partitioning the edges of a graph G into bipartite cliques such that the total order of the cliques is minimized, where the order of a clique is the number of vertices in it. It is shown that the problem is NP-complete. We then prove the existence of a partition of small total order in a sufficiently dense graph and devise an efficient algorithm to compute such a partition. It turns out that our algorithm exhibits a trade-off between the total order of the partition and the running time. Next, we define the notion of a compression of a graph G and use the result on graph partitioning to efficiently compute an optimal compression for graphs of a given size. An interesting application of the graph compression ...
We consider the following clustering problems: given an undirected graph, partition its vertices int...
The graph partitioning problem consists of dividing the vertices of a graph into clusters, such that...
The problem of deciding whether the edge-set of a given graph can be partitioned into at most k cliq...
AbstractWe first consider the problem of partitioning the edges of a graph G into bipartite cliques ...
AbstractWe first consider the problem of partitioning the edges of a graph G into bipartite cliques ...
AbstractWe study the problem of clique-partitioning a graph. We prove a new general upper bound resu...
AbstractWe study the problem of clique-partitioning a graph. We prove a new general upper bound resu...
We consider the problem of partitioning a graph into a non-fixed number of non-overlapping subgraphs...
Abstract Massive graphs are ubiquitous and at the heart of many real-world problems and applications...
AbstractSeveral new tools are presented for determining the number of cliques needed to (edge-)parti...
We consider the following clustering problems: given a general undirected graph, partition its verti...
AbstractA partitioning problem on chordal graphs that arises in the solution of sparse triangular sy...
Maximal clique enumeration (MCE) is a long-standing problem in graph theory and has numerous importa...
Graph partitioning is the problem of splitting a graph into two or more partitions of fixed sizes wh...
Graph partitioning is the problem of splitting a graph into two or morepartitions of fixed sizes whi...
We consider the following clustering problems: given an undirected graph, partition its vertices int...
The graph partitioning problem consists of dividing the vertices of a graph into clusters, such that...
The problem of deciding whether the edge-set of a given graph can be partitioned into at most k cliq...
AbstractWe first consider the problem of partitioning the edges of a graph G into bipartite cliques ...
AbstractWe first consider the problem of partitioning the edges of a graph G into bipartite cliques ...
AbstractWe study the problem of clique-partitioning a graph. We prove a new general upper bound resu...
AbstractWe study the problem of clique-partitioning a graph. We prove a new general upper bound resu...
We consider the problem of partitioning a graph into a non-fixed number of non-overlapping subgraphs...
Abstract Massive graphs are ubiquitous and at the heart of many real-world problems and applications...
AbstractSeveral new tools are presented for determining the number of cliques needed to (edge-)parti...
We consider the following clustering problems: given a general undirected graph, partition its verti...
AbstractA partitioning problem on chordal graphs that arises in the solution of sparse triangular sy...
Maximal clique enumeration (MCE) is a long-standing problem in graph theory and has numerous importa...
Graph partitioning is the problem of splitting a graph into two or more partitions of fixed sizes wh...
Graph partitioning is the problem of splitting a graph into two or morepartitions of fixed sizes whi...
We consider the following clustering problems: given an undirected graph, partition its vertices int...
The graph partitioning problem consists of dividing the vertices of a graph into clusters, such that...
The problem of deciding whether the edge-set of a given graph can be partitioned into at most k cliq...