“…In particular, justifying the main results of the paper presented below requires only the usage of assertion (ii) in Proposition 3.1 without imposing any convexity assumption on the set Γ and therefore the Θ-convexity of the mapping g as in [16].…”
Section: Directional Derivatives Of Projection Operatorsmentioning
confidence: 99%
“…also [16]. On the other hand, it is not hard to construct simple examples showing that the violation of the second-order condition (3.6) for nonconvex sets Γ prevents the validity of the conclusion in Proposition 3.1(i).…”
Section: Directional Derivatives Of Projection Operatorsmentioning
confidence: 99%
“…Namely, the paper [20] contains the calculation of the limiting coderivative of the solution map to a counterpart of GE (1.1), where Θ is a Carthesian product of the Lorentz cones. Our recent paper [16] provides a precise second-order formula to calculate the regular coderivative of the solution map S given in (1.2) under natural assumptions. Furthermore, the same paper [16] contains a formula for calculating the graphical derivative of (1.2) but only under the convexity assumption on Γ, which is rather restrictive, being however unavoidable in the technique of [16].…”
Section: Introductionmentioning
confidence: 99%
“…Our recent paper [16] provides a precise second-order formula to calculate the regular coderivative of the solution map S given in (1.2) under natural assumptions. Furthermore, the same paper [16] contains a formula for calculating the graphical derivative of (1.2) but only under the convexity assumption on Γ, which is rather restrictive, being however unavoidable in the technique of [16]. Observe also that the convexity assumption on Γ is not imposed in [6] while the set Θ in (1.2) is assumed to be a convex polyhedron.…”
The paper concerns parameterized equilibria governed by generalized equations whose multivalued parts are modeled via regular normals to nonconvex conic constraints. Our main goal is to derive a precise pointwise second-order formula for calculating the graphical derivative of the solution maps to such generalized equations that involves Lagrange multipliers of the corresponding KKT systems and critical cone directions. Then we apply the obtained formula to characterizing a Lipschitzian stability notion for the solution maps that is known as isolated calmness.Mathematics Subject Classification (2010): primary 49J53, 49J52; secondary 90C31.
“…In particular, justifying the main results of the paper presented below requires only the usage of assertion (ii) in Proposition 3.1 without imposing any convexity assumption on the set Γ and therefore the Θ-convexity of the mapping g as in [16].…”
Section: Directional Derivatives Of Projection Operatorsmentioning
confidence: 99%
“…also [16]. On the other hand, it is not hard to construct simple examples showing that the violation of the second-order condition (3.6) for nonconvex sets Γ prevents the validity of the conclusion in Proposition 3.1(i).…”
Section: Directional Derivatives Of Projection Operatorsmentioning
confidence: 99%
“…Namely, the paper [20] contains the calculation of the limiting coderivative of the solution map to a counterpart of GE (1.1), where Θ is a Carthesian product of the Lorentz cones. Our recent paper [16] provides a precise second-order formula to calculate the regular coderivative of the solution map S given in (1.2) under natural assumptions. Furthermore, the same paper [16] contains a formula for calculating the graphical derivative of (1.2) but only under the convexity assumption on Γ, which is rather restrictive, being however unavoidable in the technique of [16].…”
Section: Introductionmentioning
confidence: 99%
“…Our recent paper [16] provides a precise second-order formula to calculate the regular coderivative of the solution map S given in (1.2) under natural assumptions. Furthermore, the same paper [16] contains a formula for calculating the graphical derivative of (1.2) but only under the convexity assumption on Γ, which is rather restrictive, being however unavoidable in the technique of [16]. Observe also that the convexity assumption on Γ is not imposed in [6] while the set Θ in (1.2) is assumed to be a convex polyhedron.…”
The paper concerns parameterized equilibria governed by generalized equations whose multivalued parts are modeled via regular normals to nonconvex conic constraints. Our main goal is to derive a precise pointwise second-order formula for calculating the graphical derivative of the solution maps to such generalized equations that involves Lagrange multipliers of the corresponding KKT systems and critical cone directions. Then we apply the obtained formula to characterizing a Lipschitzian stability notion for the solution maps that is known as isolated calmness.Mathematics Subject Classification (2010): primary 49J53, 49J52; secondary 90C31.
“…An important effort research is recently devoted to the study and characterization of stability for solutions of nonlinear semidefinite programming (or in general conic) problems, see for instance [107,20,33,70,49,98,97].…”
ABSTRACT. This paper provides a short introduction to optimization problems with semidefinite constraints. Basic duality and optimality conditions are presented. For linear semidefinite programming some advances by dealing with degeneracy and the semidefinite facial reduction are discussed. Two relatively recent areas of application are presented. Finally a short overview of relevant literature on algorithmic approaches for efficiently solving linear and nonlinear semidefinite programming is provided.
scite is a Brooklyn-based organization that helps researchers better discover and understand research articles through Smart Citations–citations that display the context of the citation and describe whether the article provides supporting or contrasting evidence. scite is used by students and researchers from around the world and is funded in part by the National Science Foundation and the National Institute on Drug Abuse of the National Institutes of Health.