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Network Design with Edge-Connectivity and Degree Constraints

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Abstract

We consider the following network design problem; Given a vertex set V with a metric cost c on V, an integer k≥1, and a degree specification b, find a minimum cost k-edge-connected multigraph on V under the constraint that the degree of each vertex vV is equal to b(v). This problem generalizes metric TSP. In this paper, we show that the problem admits a ρ-approximation algorithm if b(v)≥2, vV, where ρ=2.5 if k is even, and ρ=2.5+1.5/k if k is odd. We also prove that the digraph version of this problem admits a 2.5-approximation algorithm and discuss some generalization of metric TSP.

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Correspondence to Takuro Fukunaga.

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Fukunaga, T., Nagamochi, H. Network Design with Edge-Connectivity and Degree Constraints. Theory Comput Syst 45, 512–532 (2009). https://doi.org/10.1007/s00224-008-9149-3

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