We introduce a new matrix class Pc , which consists of those matrices M for which the solution set of the corresponding linear complementarity problem is connected for every q 2 IR n . We consider Lemke's pivotal method from the perspective of piecewise linear homotopies and normal maps and show that Lemke's method processes all matrices in Pc " Q0 . We further investigate the relationship of the class Pc to other known matrix classes and show that column sufficient matrices are a subclass of Pc , as are 2 \Theta 2 P0 --matrices. 1. INTRODUCTION The linear complementarity problem is a classical problem from optimization theory of finding x 2 IR n with z 0; Mz + q 0; z ? (Mz + q) = 0: Here M 2 IR n\Thetan and q 2 IR ...
AbstractSpecially structured linear complementarity problems (LCPs) and their solution by the criss-...
AbstractIn this article, we consider positive subdefinite matrices (PSBD) recently studied by J.-P. ...
AbstractWe pose and answer two questions about solutions of the linear complementarity problem (LCP)...
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
This study centers on the task of efficiently finding a solution of the linear complementarity probl...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
Let A be a rational n × n square matrix and b be a rational n-vector for some positive integer n. Th...
AbstractThe paper is a collection of results on the linear complementarity problem (q, M). The resul...
Although LCP(q,M), where M is a general integer matrix, is NP-complete, LCPs corresponding to intege...
AbstractSpecially structured linear complementarity problems (LCPs) and their solution by the criss-...
AbstractIn this article, we consider positive subdefinite matrices (PSBD) recently studied by J.-P. ...
AbstractWe pose and answer two questions about solutions of the linear complementarity problem (LCP)...
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
This study centers on the task of efficiently finding a solution of the linear complementarity probl...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
We generalize new criss-cross type algorithms for linear complementarity problems (LCPs) given with ...
Let A be a rational n × n square matrix and b be a rational n-vector for some positive integer n. Th...
AbstractThe paper is a collection of results on the linear complementarity problem (q, M). The resul...
Although LCP(q,M), where M is a general integer matrix, is NP-complete, LCPs corresponding to intege...
AbstractSpecially structured linear complementarity problems (LCPs) and their solution by the criss-...
AbstractIn this article, we consider positive subdefinite matrices (PSBD) recently studied by J.-P. ...
AbstractWe pose and answer two questions about solutions of the linear complementarity problem (LCP)...