AbstractWe describe a “condition” number for the linear complementarity problem (LCP), which characterizes the degree of difficulty for its solution when a potential reduction algorithm is used. Consequently, we develop a class of LCPs solvable in polynomial time. The result suggests that the convexity (or positive semidefiniteness) of the LCP may not be the basic issue that separates LCPs solvable and not solvable in polynomial time
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
We show that the Extended Linear ComplementarityProblem (ELCP) can be recast as a standard Linear Co...
Linear Complementarity Problems (LCPs) belong to the class of NP-complete problems. Therefore we can...
AbstractWe describe a “condition” number for the linear complementarity problem (LCP), which charact...
AbstractWe extend the potential reduction algorithm to solve the restricted convex linear complement...
We study the behavior of simple principal pivoting methods for the P-matrix linear complementarity p...
Although the general linear complementarity problem (LCP) is NP-complete, there are special classes ...
Although LCP(q,M), where M is a general integer matrix, is NP-complete, LCPs corresponding to intege...
We study the behavior of simple principal pivoting methods for the P-matrix linear complementarity p...
Cover title. "Revised version of LIDS-P-1819."Includes bibliographical references.Partially supporte...
AbstractThis paper provides an introduction to complementarity problems, with an emphasis on applica...
In this paper, we present a theoretical and numerical study of linear complementary problems solvabl...
A family of complementarity problems are defined as extensions of the well known Linear Complementar...
Linear Complementarity Problems (LCPs) belong to the class of -complete problems. Therefore we canno...
AbstractThe linear complementarity problem LCP(M,q) is to find a vector z in IRn satisfying zT(Mz+q)...
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
We show that the Extended Linear ComplementarityProblem (ELCP) can be recast as a standard Linear Co...
Linear Complementarity Problems (LCPs) belong to the class of NP-complete problems. Therefore we can...
AbstractWe describe a “condition” number for the linear complementarity problem (LCP), which charact...
AbstractWe extend the potential reduction algorithm to solve the restricted convex linear complement...
We study the behavior of simple principal pivoting methods for the P-matrix linear complementarity p...
Although the general linear complementarity problem (LCP) is NP-complete, there are special classes ...
Although LCP(q,M), where M is a general integer matrix, is NP-complete, LCPs corresponding to intege...
We study the behavior of simple principal pivoting methods for the P-matrix linear complementarity p...
Cover title. "Revised version of LIDS-P-1819."Includes bibliographical references.Partially supporte...
AbstractThis paper provides an introduction to complementarity problems, with an emphasis on applica...
In this paper, we present a theoretical and numerical study of linear complementary problems solvabl...
A family of complementarity problems are defined as extensions of the well known Linear Complementar...
Linear Complementarity Problems (LCPs) belong to the class of -complete problems. Therefore we canno...
AbstractThe linear complementarity problem LCP(M,q) is to find a vector z in IRn satisfying zT(Mz+q)...
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
We show that the Extended Linear ComplementarityProblem (ELCP) can be recast as a standard Linear Co...
Linear Complementarity Problems (LCPs) belong to the class of NP-complete problems. Therefore we can...