AbstractThe solution of large sparse positive definite systems of equations typically involves four steps: ordering, data structure set-up (symbolic factorization), numerical factorization, and triangular solution. This article describes how these four phases are implemented on a hypercube multiprocessor. The role of elimination trees in the exploitation of sparsity and the identification of parallelism is explained, and pseudo-code algorithms are provided for some of the important algorithms. Numerical experiments run on an Intel iPSC multiprocessor are presented in order to provide some indication of the performance of the various algorithms
We develop algorithms for Cholesky factorization and the solution of triangular systems of linear e...
As computing machines advance, new fields are explored and old ones are expanded. This thesis consid...
AbstractWe analyze the average parallel complexity of the solution of large sparse positive definite...
AbstractThe solution of large sparse positive definite systems of equations typically involves four ...
We develop an algorithm for computing the symbolic and numeric Cholesky factorization of a large sp...
Systems of linear equations of the form $Ax = b,$ where $A$ is a large sparse symmetric positive de...
We present an overview of parallel direct methods for solving sparse systems of linear equations, fo...
We investigate parallel Gauss elimination for sparse matrices, especially those arising from the dis...
We consider several issues involved in the solution of sparse symmetric positive definite system b...
. The efficiency of solving sparse linear systems on parallel processors and more complex multiclust...
This paper is concerned with parallel algorithms for matrix factorization on distributed-memory, mes...
[[abstract]]In this paper we use hypercube computers for solving linear systems. First, the pivoting...
We develop a parallel algorithm for partitioning the vertices of a graph into $p \geq 2$ sets in su...
Recent advances in linear programming solution methodology have focused on interior point algorithms...
As sequential computers seem to be approaching their limits in CPU speed there is increasing intere...
We develop algorithms for Cholesky factorization and the solution of triangular systems of linear e...
As computing machines advance, new fields are explored and old ones are expanded. This thesis consid...
AbstractWe analyze the average parallel complexity of the solution of large sparse positive definite...
AbstractThe solution of large sparse positive definite systems of equations typically involves four ...
We develop an algorithm for computing the symbolic and numeric Cholesky factorization of a large sp...
Systems of linear equations of the form $Ax = b,$ where $A$ is a large sparse symmetric positive de...
We present an overview of parallel direct methods for solving sparse systems of linear equations, fo...
We investigate parallel Gauss elimination for sparse matrices, especially those arising from the dis...
We consider several issues involved in the solution of sparse symmetric positive definite system b...
. The efficiency of solving sparse linear systems on parallel processors and more complex multiclust...
This paper is concerned with parallel algorithms for matrix factorization on distributed-memory, mes...
[[abstract]]In this paper we use hypercube computers for solving linear systems. First, the pivoting...
We develop a parallel algorithm for partitioning the vertices of a graph into $p \geq 2$ sets in su...
Recent advances in linear programming solution methodology have focused on interior point algorithms...
As sequential computers seem to be approaching their limits in CPU speed there is increasing intere...
We develop algorithms for Cholesky factorization and the solution of triangular systems of linear e...
As computing machines advance, new fields are explored and old ones are expanded. This thesis consid...
AbstractWe analyze the average parallel complexity of the solution of large sparse positive definite...