1969
DOI: 10.1287/mnsc.15.9.550
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An Algorithm for Separable Nonconvex Programming Problems

Abstract: In this paper we present an algorithm for solving mathematical programming problems of the form: Find x - (x 1,..., x n) to minimize \sum \varphi i (x i) subject to x \in G and l i is assumed to be lower semicontinuous, possibly nonconvex, and G is assumed to be closed. The algorithm is of the branch and bound type and solves a sequence of problems in each of which the objective function is convex. These problems correspond to successive partitions of the feasible set. Two different rules for refining the part… Show more

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Cited by 365 publications
(172 citation statements)
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“…Initially conceived as an algorithm to solve combinatorial optimization problems [21,9], branch-and-bound has evolved to a method for solving more general multi-extremal problems like P [11,19]. To solve P, branch-and-bound computes lower and upper bounds on the optimal objective function value over successively refined partitions of the search space.…”
Section: Branch-and-bound In Continuous Spacesmentioning
confidence: 99%
“…Initially conceived as an algorithm to solve combinatorial optimization problems [21,9], branch-and-bound has evolved to a method for solving more general multi-extremal problems like P [11,19]. To solve P, branch-and-bound computes lower and upper bounds on the optimal objective function value over successively refined partitions of the search space.…”
Section: Branch-and-bound In Continuous Spacesmentioning
confidence: 99%
“…The function 4~(f) is discussed (in other terms) in [22], where it is called the convex envelope of f, and it provides a way of turning a general minimisation problem into a convex problem, since f and its convex evelope have the same minimum point and value.…”
Section: Vx Su(x) Vy F(y) -F(x) ->-Omentioning
confidence: 99%
“…(12) In this formulation, the y variables have the same interpretation as in the multiple choice model.…”
mentioning
confidence: 99%