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It is known that finding a perfect matching in a general graph
is AC0-equivalent to finding a perfect matching
in a 3-regular (i.e. cubic) graph.
In this paper we extend this result to both, planar and bipartite cases.
In particular we prove that the construction
problem for perfect matchings in planar graphs
is as difficult as in the case of planar cubic graphs
like it is known to be the case for the famous Map Four-Coloring problem.
Moreover we prove that the existence and construction...
Bermond conjectured that if G is Hamilton cycle decomposable, then L(G), the line graph of G, is Hamilton cycle decomposable. In this paper, we construct a perfect set of Euler tours for the complete tripartite graph Kp,p,p for any prime p and hence prove Bermond’s conjecture for G = Kp,p,p.
We consider the maximum weight perfectly matchable subgraph problem
on a bipartite graph G=(UV,E) with respect to given nonnegative
weights of its edges. We show that G has a perfect matching if and
only if some vector indexed by the nodes in UV is a base of an
extended polymatroid associated with a submodular function defined
on the subsets of UV. The dual problem of the separation problem
for the extended polymatroid is transformed to the special maximum
flow problem on G. In this paper, we give...
In this paper we give all pairs of non mutually placeable (p,q)-bipartite graphs G and H such that 2 ≤ p ≤ q, e(H) ≤ p and e(G)+e(H) ≤ 2p+q-1.
Suppose that red and blue points occur as independent homogeneous Poisson processes in ℝd. We investigate translation-invariant schemes for perfectly matching the red points to the blue points. For any such scheme in dimensions d=1, 2, the matching distance X from a typical point to its partner must have infinite d/2th moment, while in dimensions d≥3 there exist schemes where X has finite exponential moments. The Gale–Shapley stable marriage is one natural matching scheme, obtained by iteratively...
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