Graphs without spanning closed trails
Discrete Mathematics
A note on minimum degree conditions for supereulerian graphs
Discrete Applied Mathematics - Sixth Twente Workshop on Graphs and Combinatorial Optimization
Graph Theory With Applications
Graph Theory With Applications
Hamiltonicity in 3-connected claw-free graphs
Journal of Combinatorial Theory Series B
Supereulerianity of k-edge-connected graphs with a restriction on small bonds
Discrete Applied Mathematics
Supereulerian graphs in the graph family C2(6,k)
Discrete Applied Mathematics
Hamilton cycles in 5-connected line graphs
European Journal of Combinatorics
Thomassen's conjecture implies polynomiality of 1-Hamilton-connectedness in line graphs
Journal of Graph Theory
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Let C(l,k) denote a class of 2-edge-connected graphs of order n such that a graph G ∈ C(l,k) if and only if for every edge cut S ⊆ E(G) with |S| ≤ 3, each component of G-S has order at least (n-k)/l. We prove the following: (1) If G ∈ C(6,0), then G is supereulerian if and only if G cannot be contracted to K2,3, K2,5 or K2,3(e), where e ∈ E(K2,3) and K2,3(e) stands for a graph obtained from K2,3 by replacing e by a path of length 2. (2) If G ∈ C(6, 0) and n≥7, then L(G) is Hamilton-connected if and only if κ(L(G))≥3. Former results by Catlin and Li, and by Broersma and Xiong are extended.