
AbstractThe minimal spanning tree problem has been well studied and until now many efficient algorithms such as [5,6] have been proposed. This paper generalizes it toward a stochastic version, i.e., considers a stochastic spanning tree problem in which edge costs are not constant but random variables and its objective is to find an optimal spanning tree satisfying a certain chance constraint. This problem may be considered as a discrete version of P-model first introduced by Kataoka [4].First it is transformed into its deterministic equivalent problem P. Then, an auxiliary problem P(R) with a positive parameter R is defined. After clarifying close relations between P and P(R), this paper proposes a polynomial order algorithm fully utilizing P(R). Finally, more improvement of the algorithm and applicability of this type algorithm to other discrete stochastic programming problems are discussed.
random edge costs, Analysis of algorithms and problem complexity, Applied Mathematics, Stochastic programming, Integer programming, Programming involving graphs or networks, Numerical mathematical programming methods, stochastic spanning tree, minimal spanning tree problem, communication network, Deterministic network models in operations research, Discrete Mathematics and Combinatorics, polynomial order algorithm, discrete stochastic programming
random edge costs, Analysis of algorithms and problem complexity, Applied Mathematics, Stochastic programming, Integer programming, Programming involving graphs or networks, Numerical mathematical programming methods, stochastic spanning tree, minimal spanning tree problem, communication network, Deterministic network models in operations research, Discrete Mathematics and Combinatorics, polynomial order algorithm, discrete stochastic programming
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