Results 11 to 20 of about 7,242 (121)
Constructing completely independent spanning trees in crossed cubes
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Cheng, Baolei, Wang, Dajin, Fan, Jianxi
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Completely independent spanning trees in Eisenstein-Jacobi networks
Abstract In this work, we propose construction algorithms to build Completely Independent Spanning Trees (CIST) in EJ networks with time complexity of $O(n)$, where $n$ is the total number of nodes in the network. We present a sequential and a parallel CISTs construction algorithms.
Zaid Hussain +2 more
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Two counterexamples on completely independent spanning trees
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An Algorithm to Construct Completely Independent Spanning Trees in Line Graphs
AbstractIn the past few years, much importance and attention have been attached to completely independent spanning trees (CISTs). Many results, such as edge-disjoint Hamilton cycles, traceability, number of spanning trees, structural properties, topological indices, etc., have been obtained on line graphs, and researchers have applied the line graphs ...
Yifeng Wang +4 more
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Fan's condition for completely independent spanning trees
Spanning trees $T_1,T_2, \dots,T_k$ of $G$ are $k$ completely independent spanning trees if, for any two vertices $u,v\in V(G)$, the paths from $u$ to $v$ in these $k$ trees are pairwise edge-disjoint and internal vertex-disjoint. Hasunuma proved that determining whether a graph contains $k$ completely independent spanning trees is NP-complete, even ...
Ma, Jie, Cai, Junqing
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Constructing two completely independent spanning trees in hypercube-variant networks
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Kung-Jui Pai, Jou-Ming Chang
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Let $T_{1},T_{2},\dots,T_{k}$ be spanning trees of a graph $G$. For any two vertices$u,v$ of $G$, if the paths from $u$ to $v$ in these $k$ trees are pairwise openly disjoint, then we say that $T_{1},T_{2},\dots,T_{k}$ are completely independent spanning trees.
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Construction of Four Completely Independent Spanning Trees on Augmented Cubes
Let T1, T2,..., Tk be spanning trees in a graph G. If for any pair of vertices {u, v} of G, the paths between u and v in every Ti( 0 < i < k+1) do not contain common edges and common vertices, except the vertices u and v, then T1, T2,..., Tk are called completely independent spanning trees in G. The n-dimensional augmented cube, denoted as AQn, a
Mane, S. A. +2 more
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Completely Independent Spanning Trees on Some Interconnection Networks
Kung-Jui PAI +4 more
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