Reduction of Exhausters by Set Order Relations and Cones
Mustafa Soyertem, \.Ilknur Atasever G\"uven\c{c}, Didem Tozkan

TL;DR
This paper introduces methods to simplify the analysis of nonsmooth optimization problems by reducing exhausters using set order relations and cones, making optimality conditions easier to verify.
Contribution
It proposes new techniques to reduce generalized exhausters in constrained and unconstrained optimization using set order relations and cones, enhancing computational efficiency.
Findings
Exhausters can be reduced to minimal elements using set order relations.
Reduction of exhausters simplifies the verification of optimality conditions.
Methods are applicable to both constrained and unconstrained optimization problems.
Abstract
The notions of upper and lower exhausters are effective tools for the study of non smooth functions. There are many studies presenting optimality conditions for unconstrained and constrained cases. One can observe that optimality conditions in terms of both proper and adjoint exhausters are related to all elements of the exhausters. Moreover, in the constrained case the conditions that must be provided for a particular cone determined by constraint set and the point (to be checked whether it is optimal) are rather challenging to check. Thus it is advantageous to reduce the number of sets in the exhauster for constrained case. In this work, we first consider constrained optimization problems and deal with the problem of reducing generalized exhausters of the directional derivative of the objective function. We present some results to reduce generalized lower (upper) exhausters by…
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Taxonomy
TopicsOptimization and Variational Analysis · Advanced Optimization Algorithms Research · Topology Optimization in Engineering
