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Quadratic diameter bounds for dual network flow polyhedra

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Abstract

Both the combinatorial and the circuit diameter of polyhedra are of interest to the theory of linear programming for their intimate connection to a best-case performance of linear programming algorithms. We study the diameters of dual network flow polyhedra associated to b-flows on directed graphs \(G=(V,E)\) and prove quadratic upper bounds for both of them: the minimum of \((|V|-1)\cdot |E|\) and \(\frac{1}{6}|V|^3\) for the combinatorial diameter, and \(\frac{|V|\cdot (|V|-1)}{2}\) for the circuit diameter. Previously, bounds on these diameters have only been known for bipartite graphs. The situation is much more involved for general graphs. In particular, we construct a family of dual network flow polyhedra with members that violate the circuit diameter bound for bipartite graphs by an arbitrary additive constant.

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Acknowledgments

The second author gratefully acknowledges the support from the graduate program TopMath of the Elite Network of Bavaria and the TopMath Graduate Center of TUM Graduate School at Technische Universität München.

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Correspondence to Steffen Borgwardt.

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Borgwardt, S., Finhold, E. & Hemmecke, R. Quadratic diameter bounds for dual network flow polyhedra. Math. Program. 159, 237–251 (2016). https://doi.org/10.1007/s10107-015-0956-4

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  • DOI: https://doi.org/10.1007/s10107-015-0956-4

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