AbstractThe complexity of linear programming and other problems in the geometry of d-dimensions is studied. A notion of LP-completeness is introduced, and a set of problems is shown to be (polynomially) equivalent to linear programming. Many of these problems involve computation of subsets of convex hulls of polytopes, and require O(n log n) operations for d=2. Known results are surveyed in order to give an interesting characterization for the complexity of linear programming and a transformation is given to produce NP-complete versions of LP-complete provlems
AbstractAn n log n lower bound is found for linear decision tree algorithms with integer inputs that...
This paper gives an algorithm for solving linear programming problems. For a problem with n constrai...
AbstractWe investigate the computational complexity of computing the convex hull of a two-dimensiona...
AbstractThe complexity of linear programming and other problems in the geometry of d-dimensions is s...
The complexity of linear programming is discussed in the "integer" and "real number" models of compu...
International audienceTropical geometry has been recently used to obtain new complexity results in c...
AbstractWe analyze the arithmetic complexity of the linear programming feasibility problem over the ...
In this paper we show a simple treatment of the complexity of Linear Programming. We describe the sh...
Linear programming has many important practical applications, and has also given rise to a wide body...
AbstractMany combinatorial optimization problems call for the optimization of a linear function over...
Two decades ago, Megiddo and Dyer showed that linear programming in two and three dimensions (and su...
summary:A lower bound for the number of comparisons is obtained, required by a computational problem...
We study a mixed integer linear program with m integer variables and k non-negative continu...
Computational geometry has developed many efficient algorithms for geometric problems in low dimensi...
The construction of the convex hull of a finite point set in a low-dimensional Euclidean space is a...
AbstractAn n log n lower bound is found for linear decision tree algorithms with integer inputs that...
This paper gives an algorithm for solving linear programming problems. For a problem with n constrai...
AbstractWe investigate the computational complexity of computing the convex hull of a two-dimensiona...
AbstractThe complexity of linear programming and other problems in the geometry of d-dimensions is s...
The complexity of linear programming is discussed in the "integer" and "real number" models of compu...
International audienceTropical geometry has been recently used to obtain new complexity results in c...
AbstractWe analyze the arithmetic complexity of the linear programming feasibility problem over the ...
In this paper we show a simple treatment of the complexity of Linear Programming. We describe the sh...
Linear programming has many important practical applications, and has also given rise to a wide body...
AbstractMany combinatorial optimization problems call for the optimization of a linear function over...
Two decades ago, Megiddo and Dyer showed that linear programming in two and three dimensions (and su...
summary:A lower bound for the number of comparisons is obtained, required by a computational problem...
We study a mixed integer linear program with m integer variables and k non-negative continu...
Computational geometry has developed many efficient algorithms for geometric problems in low dimensi...
The construction of the convex hull of a finite point set in a low-dimensional Euclidean space is a...
AbstractAn n log n lower bound is found for linear decision tree algorithms with integer inputs that...
This paper gives an algorithm for solving linear programming problems. For a problem with n constrai...
AbstractWe investigate the computational complexity of computing the convex hull of a two-dimensiona...