AbstractA k-container of G between u and v, C(u,v), is a set of k internally disjoint paths between u and v. A k∗-container C(u,v) of G is a k-container if it contains all vertices of G. A graph G is k∗-connected if there exists a k∗-container between any two distinct vertices. Thus, every 1∗-connected graph is Hamiltonian connected. Moreover, every 2∗-connected graph is Hamiltonian. Zhan proved that G=L(M) is Hamiltonian connected if the edge-connectivity of M is at least 4. In this paper, we generalize this result by proving G=L(M) is k∗-connected if the edge-connectivity of M is at least max{2k,4}. We also generalize our result into spanning fan-connectivity
AbstractWe investigate graphs G such that the line graph L(G) is hamiltonian connected if and only i...
Spanning connectivity of graphs has been intensively investigated in the study of interconnection ne...
Thomassen conjectured that every 4-connected line graph is Hamiltonian. Chen and Lai [Z.-H. Chen, H....
AbstractA k-container C(u,v) of G between u and v is a set of k internally disjoint paths between u ...
AbstractLet G be a graph. The connectivity of G, κ(G), is the maximum integer k such that there exis...
AbstractLet u and v be any two distinct nodes of an undirected graph G, which is k-connected. For 1≤...
AbstractA graph G is hamiltonian-connected if any two of its vertices are connected by a Hamilton pa...
AbstractA well-known conjecture of Thomassen says that every 4-connected line graph is hamiltonian. ...
AbstractThomassen conjectured that every 4-connected line graph is Hamiltonian. Chen and Lai [Z.-H. ...
AbstractA k-container C(u,v) of a graph G is a set of k-disjoint paths joining u to v. A k-container...
The research of my dissertation was motivated by the conjecture of Thomassen that every 4-connected ...
AbstractGiven a graph G, for an integer c∈{2,…,|V(G)|}, define λc(G)=min{|X|:X⊆E(G),ω(G−X)≥c}. For a...
AbstractThomassen conjectured that every 4-connected line graph is Hamiltonian. A vertex cut X of G ...
AbstractThomassen conjectured that every 4-connected line graph is hamiltonian. Here we shall see th...
AbstractA k-container C(u,v) of a graph G is a set of k-disjoint paths joining u to v. A k-container...
AbstractWe investigate graphs G such that the line graph L(G) is hamiltonian connected if and only i...
Spanning connectivity of graphs has been intensively investigated in the study of interconnection ne...
Thomassen conjectured that every 4-connected line graph is Hamiltonian. Chen and Lai [Z.-H. Chen, H....
AbstractA k-container C(u,v) of G between u and v is a set of k internally disjoint paths between u ...
AbstractLet G be a graph. The connectivity of G, κ(G), is the maximum integer k such that there exis...
AbstractLet u and v be any two distinct nodes of an undirected graph G, which is k-connected. For 1≤...
AbstractA graph G is hamiltonian-connected if any two of its vertices are connected by a Hamilton pa...
AbstractA well-known conjecture of Thomassen says that every 4-connected line graph is hamiltonian. ...
AbstractThomassen conjectured that every 4-connected line graph is Hamiltonian. Chen and Lai [Z.-H. ...
AbstractA k-container C(u,v) of a graph G is a set of k-disjoint paths joining u to v. A k-container...
The research of my dissertation was motivated by the conjecture of Thomassen that every 4-connected ...
AbstractGiven a graph G, for an integer c∈{2,…,|V(G)|}, define λc(G)=min{|X|:X⊆E(G),ω(G−X)≥c}. For a...
AbstractThomassen conjectured that every 4-connected line graph is Hamiltonian. A vertex cut X of G ...
AbstractThomassen conjectured that every 4-connected line graph is hamiltonian. Here we shall see th...
AbstractA k-container C(u,v) of a graph G is a set of k-disjoint paths joining u to v. A k-container...
AbstractWe investigate graphs G such that the line graph L(G) is hamiltonian connected if and only i...
Spanning connectivity of graphs has been intensively investigated in the study of interconnection ne...
Thomassen conjectured that every 4-connected line graph is Hamiltonian. Chen and Lai [Z.-H. Chen, H....