Nonsmooth multiobjective programming: strong Kuhn–Tucker conditions
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Abstract
We consider a multiobjective optimization problem with a feasible set defined by inequality and equality constraints and a set constraint, where the objective and constraint functions are locally Lipschitz. Several constraint qualifications are given in such a way that they generalize the classical ones, when the functions are differentiable. The relationships between them are analyzed. Then, we establish strong Kuhn–Tucker necessary optimality conditions in terms of the Clarke subdifferentials such that the multipliers of the objective function are all positive. Furthermore, sufficient optimality conditions under generalized convexity assumptions are derived. Moreover, the concept of efficiency is used to formulate duality for nonsmooth multiobjective problems. Wolf and Mond–Weir type dual problems are formulated. We also establish the weak and strong duality theorems.
Keywords
Multiobjective programming Optimality conditions Nonsmooth optimization Duality Constraint qualificationMathematics Subject Classification (2000)
90C46 90C29 49J52Notes
Acknowledgments
The second author was partially supported by the Center of Excellence for Mathematics, University of Shahrekord, Iran.
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