We study the behavior of simple principal pivoting methods for the P-matrix linear complementarity problem (P-LCP). We solve an open problem of Morris by showing that Murty's least-index pivot rule (under any fixed index order) leads to a quadratic number of iterations on Morris's highly cyclic P-LCP examples. We then show that on K-matrix LCP instances, all pivot rules require only a linear number of iterations. As the main tool, we employ unique-sink orientations of cubes, a useful combinatorial abstraction of the P-LC
Linear Complementarity Problems (LCPs) belong to the class of NP-complete problems. Therefore we can...
AbstractSpecially structured linear complementarity problems (LCPs) and their solution by the criss-...
AbstractIn this note, we present an algorithm to reduce a horizontal linear complementarity problem ...
We study the behavior of simple principal pivoting methods for the P-matrix linear complementarity p...
AbstractWe describe a “condition” number for the linear complementarity problem (LCP), which charact...
Although LCP(q,M), where M is a general integer matrix, is NP-complete, LCPs corresponding to intege...
The goal of this thesis is to give a better understanding of the linear complementarity problem with...
This paper addresses a fundamental problem in linear programming, quadratic programming, and bimatri...
Abstracte present a number of combinatorial characterizations of K-matrices. This extends a theorem ...
In this work we rewrote the linear complementarity problem in a formulation based on unknown project...
We say an LP (linear programming) is fully nondegenerate if both the primal and the dual problems ar...
In this paper, we present a theoretical and numerical study of linear complementary problems solvabl...
The plain Newton-min algorithm to solve the linear complementarity problem (LCP for short) 0 £ x^(Mx...
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
AbstractEarlier papers by Murty [16] and Fathi [7] have exhibited classes of linear complementarity ...
Linear Complementarity Problems (LCPs) belong to the class of NP-complete problems. Therefore we can...
AbstractSpecially structured linear complementarity problems (LCPs) and their solution by the criss-...
AbstractIn this note, we present an algorithm to reduce a horizontal linear complementarity problem ...
We study the behavior of simple principal pivoting methods for the P-matrix linear complementarity p...
AbstractWe describe a “condition” number for the linear complementarity problem (LCP), which charact...
Although LCP(q,M), where M is a general integer matrix, is NP-complete, LCPs corresponding to intege...
The goal of this thesis is to give a better understanding of the linear complementarity problem with...
This paper addresses a fundamental problem in linear programming, quadratic programming, and bimatri...
Abstracte present a number of combinatorial characterizations of K-matrices. This extends a theorem ...
In this work we rewrote the linear complementarity problem in a formulation based on unknown project...
We say an LP (linear programming) is fully nondegenerate if both the primal and the dual problems ar...
In this paper, we present a theoretical and numerical study of linear complementary problems solvabl...
The plain Newton-min algorithm to solve the linear complementarity problem (LCP for short) 0 £ x^(Mx...
AbstractWe introduce a new matrix class Pc, which consists of those matrices M for which the solutio...
AbstractEarlier papers by Murty [16] and Fathi [7] have exhibited classes of linear complementarity ...
Linear Complementarity Problems (LCPs) belong to the class of NP-complete problems. Therefore we can...
AbstractSpecially structured linear complementarity problems (LCPs) and their solution by the criss-...
AbstractIn this note, we present an algorithm to reduce a horizontal linear complementarity problem ...