(eng) This paper presents a parallel out-of-core algorithm to invert huge matrices, that is when size of matrices is larger than the available physical memory by one or more orders of magnitude. Preliminary performance results are shown for a commodity cluster. An accurate prediction performance model of the algorithm is given. Thanks to the prediction model, optimizations which avoid the overhead of the out-of-core algorithm are derived. Performances of the optimized algorithm using a $O(N)$ memory size are similar to the performances of the best known parallel in-core algorithm using a $O(N^2)$ memory size (where $N$ is the matrix order). There is no memory restriction for inversion of huge matrices
The performance of a parallel Gauss-Jordan matrix inversion algorithm on the Mark II hypercube3 at C...
International audienceIn this paper we present a performance evaluation of large scale matrix algebr...
In this paper, we describe the design and implementation of the Platform Independent Parallel Solver...
This paper presents a parallel out-of-core algorithm to invert huge matrices, that is when size of m...
An extremely common bottleneck encountered in statistical learning algorithms is inversion of huge c...
We study the use of massively parallel architectures for computing a matrix inverse. Two different ...
The inversion of matrices was calculated on a single transputer and on a network of transputers to s...
The Sherman--Morrison formula is one scheme for computing the approximate inverse preconditioner of ...
We take advantage of the new tasking features in OpenMP to propose advanced task-parallel algorithms...
Matrix inversion for real-time applications can be a challenge for the designers since its computati...
Abstract: Few realize that, for large matrices, many dense matrix computations achieve nearly the sa...
International audienceModern computers keep following the traditional model of addressing memory lin...
AbstractAn approach to preconditioning linear systems is presented, which is well suitable for paral...
Issues controlling efficient parallel implementations of a popular direct search inversion algorithm...
In this paper, we tackle the inversion of large-scale dense matrices via conventional matrix factori...
The performance of a parallel Gauss-Jordan matrix inversion algorithm on the Mark II hypercube3 at C...
International audienceIn this paper we present a performance evaluation of large scale matrix algebr...
In this paper, we describe the design and implementation of the Platform Independent Parallel Solver...
This paper presents a parallel out-of-core algorithm to invert huge matrices, that is when size of m...
An extremely common bottleneck encountered in statistical learning algorithms is inversion of huge c...
We study the use of massively parallel architectures for computing a matrix inverse. Two different ...
The inversion of matrices was calculated on a single transputer and on a network of transputers to s...
The Sherman--Morrison formula is one scheme for computing the approximate inverse preconditioner of ...
We take advantage of the new tasking features in OpenMP to propose advanced task-parallel algorithms...
Matrix inversion for real-time applications can be a challenge for the designers since its computati...
Abstract: Few realize that, for large matrices, many dense matrix computations achieve nearly the sa...
International audienceModern computers keep following the traditional model of addressing memory lin...
AbstractAn approach to preconditioning linear systems is presented, which is well suitable for paral...
Issues controlling efficient parallel implementations of a popular direct search inversion algorithm...
In this paper, we tackle the inversion of large-scale dense matrices via conventional matrix factori...
The performance of a parallel Gauss-Jordan matrix inversion algorithm on the Mark II hypercube3 at C...
International audienceIn this paper we present a performance evaluation of large scale matrix algebr...
In this paper, we describe the design and implementation of the Platform Independent Parallel Solver...