Abstract

In this paper, we introduce a new kind of approximate weakly efficient solutions to the set-valued vector equilibrium problems with constraints in locally convex Hausdorff topological vector spaces; then we discuss a relationship between the weakly efficient solutions and approximate weakly efficient solutions. Under the assumption of near cone-subconvexlikeness, by using the separation theorem for convex sets we establish Kuhn–Tucker-type and Lagrange-type optimality conditions for set-valued vector equilibrium problems, respectively.

Highlights

  • Vector optimization problems, vector variational inequality problems, vector complementarity problems, and vector saddle point problems are particular cases of vector equilibrium problems

  • Motivated by works in [3, 12, 15], in this paper, we introduce a new kind of approximate weakly efficient solutions to the set-valued vector equilibrium problems and reveal the relationship between weakly efficient solutions and approximate weakly efficient solutions

  • 3 Approximate weakly efficient solutions Firstly, we introduce approximate weakly efficient solutions to the set-valued vector equilibrium problems with constraints

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Summary

Introduction

Vector variational inequality problems, vector complementarity problems, and vector saddle point problems are particular cases of vector equilibrium problems. 4, we establish Kuhn–Tucker-type sufficient and necessary optimality conditions for approximate weakly efficient solutions to the set-valued vector equilibrium problems. 5, we establish Lagrange-type sufficient and necessary optimality conditions for approximate weakly efficient solutions to the set-valued vector equilibrium problems. Definition 2.4 A vector x ∈ X0 is said to be a weakly efficient solution of (USOP)Tif there exists y ∈ F(x) such that (L(X0, T ) –y) ∩(– int C) = ∅, where L(X0, T ) = x∈X0 L(x, T ). We discuss the relationship between the approximate weakly efficient solutions and weakly efficient solutions to the set-valued vector equilibrium problems with constraints.

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Conclusions
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