A graph $G$ is said to be \textit{$4$-ordered} if for any ordered set of four distinct vertices of $G$, there exists a cycle in $G$ that contains all of the four vertices in the designated order. Furthermore, if we can find such a cycle as a Hamiltonian cycle, $G$ is said to be \textit{$4$-ordered Hamiltonian}. It was shown that every $4$-connected planar triangulation is (i) Hamiltonian (by Whitney) and (ii) $4$-ordered (by Goddard). Therefore, it is natural to ask whether every $4$-connected planar triangulation is $4$-ordered Hamiltonian. In this paper, we give a partial solution to the problem, by showing that every $5$-connected planar triangulation is $4$-ordered Hamiltonian
AbstractIt is known that if G is a connected simple graph, then G3 is Hamiltonian (in fact, Hamilton...
In 1956, Tutte showed that every planar 4-connected graph is hamiltonian. In this article, we will g...
AbstractA graph G is k-ordered if for any sequence of k distinct vertices of G, there exists a cycle...
A graph $G$ is said to be \textit{$4$-ordered} if for any ordered set of four distinct vertices of $...
A graph $G$ is said to be \textit{$4$-ordered} if for any ordered set of four distinct vertices of $...
AbstractFor a positive integer k≥4, a graph G is called k-ordered, if for any ordered set of k disti...
AbstractA graph G is k-ordered if for any sequence of k distinct vertices of G, there exists a cycle...
Abstract—Given a graph G. A cycle of G is a sequence of vertices of G such that the first and the la...
Abstract—Given a graph G. A cycle of G is a sequence of vertices of G such that the first and the la...
Given a graph G. A cycle of G is a sequence of vertices of G such that the first and the last vertic...
AbstractIn 1956, W.T. Tutte proved that every 4-connected planar graph is hamiltonian. Moreover, in ...
AbstractA simple graph G is k-ordered (respectively, k-ordered hamiltonian), if for any sequence of ...
AbstractWe prove the result stated in the title (conjectured by Grünbaum) and a conjecture of Plumme...
AbstractWe prove the result stated in the title (conjectured by Grünbaum) and a conjecture of Plumme...
Tutte proved that every planar 4-connected graph is hamiltonian. Thomassen showed that the same conc...
AbstractIt is known that if G is a connected simple graph, then G3 is Hamiltonian (in fact, Hamilton...
In 1956, Tutte showed that every planar 4-connected graph is hamiltonian. In this article, we will g...
AbstractA graph G is k-ordered if for any sequence of k distinct vertices of G, there exists a cycle...
A graph $G$ is said to be \textit{$4$-ordered} if for any ordered set of four distinct vertices of $...
A graph $G$ is said to be \textit{$4$-ordered} if for any ordered set of four distinct vertices of $...
AbstractFor a positive integer k≥4, a graph G is called k-ordered, if for any ordered set of k disti...
AbstractA graph G is k-ordered if for any sequence of k distinct vertices of G, there exists a cycle...
Abstract—Given a graph G. A cycle of G is a sequence of vertices of G such that the first and the la...
Abstract—Given a graph G. A cycle of G is a sequence of vertices of G such that the first and the la...
Given a graph G. A cycle of G is a sequence of vertices of G such that the first and the last vertic...
AbstractIn 1956, W.T. Tutte proved that every 4-connected planar graph is hamiltonian. Moreover, in ...
AbstractA simple graph G is k-ordered (respectively, k-ordered hamiltonian), if for any sequence of ...
AbstractWe prove the result stated in the title (conjectured by Grünbaum) and a conjecture of Plumme...
AbstractWe prove the result stated in the title (conjectured by Grünbaum) and a conjecture of Plumme...
Tutte proved that every planar 4-connected graph is hamiltonian. Thomassen showed that the same conc...
AbstractIt is known that if G is a connected simple graph, then G3 is Hamiltonian (in fact, Hamilton...
In 1956, Tutte showed that every planar 4-connected graph is hamiltonian. In this article, we will g...
AbstractA graph G is k-ordered if for any sequence of k distinct vertices of G, there exists a cycle...