This article describes a parallel algorithm for the Structured Gauss-ian Elimination step of the Number Field Sieve (NFS). NFS is the best known method for factoring large integers and computing discrete logarithms. State-of-the-art algorithms for this kind of partial sparse elimination , as implemented in the CADO-NFS software tool, were unamenable to parallel implementations. We therefore designed a new algorithm from scratch with this objective and implemented it using OpenMP. The result is not only faster sequentially, but scales reasonably well: using 32 cores, the time needed to process two landmark instances went down from 38 minutes to 20 seconds and from 6.7 hours to 2.3 minutes, respectively
AbstractThis paper uses a graph-theoretic approach to derive asymptotically optimal algorithms for p...
As the standard method for solving systems of linear equations, Gaussian elimination (GE) is one of ...
The general number field sieve is the asymptotically fastest—and by far most complex—factoring algor...
The Number Field Sieve (NFS) is the fastest known general method for factoring integers having more ...
textabstractThe Number Field Sieve (NFS) is the asymptotically fastest known factoring algorithm for...
International audienceThis paper considers elimination algorithms for sparse matrices over finite fi...
We propose several techniques as alternatives to partial pivoting to stabilize sparse Gaussian elimi...
International audienceThe Number Field Sieve (NFS) algorithm is the best known method to compute dis...
Although Gaussian elimination with partial pivoting is a robust algorithm to solve unsymmetric spars...
The Number Field Sieve is currently the fastest algorithm for factor-ing. This paper covers each ste...
It was shown in [2] that under reasonable assumptions the general number field sieve (GNFS) is the ...
AbstractIn this paper, a variant of Gaussian Elimination (GE) called Successive Gaussian Elimination...
In my last paper, I described the Quadratic Sieve (QS) and it’s variants, including a very abbreviat...
GNFS (general number field sieve) algorithm is currently the fastest known algorithm for factoring l...
The use of threshold pivoting with the purpose to reduce fill-in during sparse Gaussian elimination ...
AbstractThis paper uses a graph-theoretic approach to derive asymptotically optimal algorithms for p...
As the standard method for solving systems of linear equations, Gaussian elimination (GE) is one of ...
The general number field sieve is the asymptotically fastest—and by far most complex—factoring algor...
The Number Field Sieve (NFS) is the fastest known general method for factoring integers having more ...
textabstractThe Number Field Sieve (NFS) is the asymptotically fastest known factoring algorithm for...
International audienceThis paper considers elimination algorithms for sparse matrices over finite fi...
We propose several techniques as alternatives to partial pivoting to stabilize sparse Gaussian elimi...
International audienceThe Number Field Sieve (NFS) algorithm is the best known method to compute dis...
Although Gaussian elimination with partial pivoting is a robust algorithm to solve unsymmetric spars...
The Number Field Sieve is currently the fastest algorithm for factor-ing. This paper covers each ste...
It was shown in [2] that under reasonable assumptions the general number field sieve (GNFS) is the ...
AbstractIn this paper, a variant of Gaussian Elimination (GE) called Successive Gaussian Elimination...
In my last paper, I described the Quadratic Sieve (QS) and it’s variants, including a very abbreviat...
GNFS (general number field sieve) algorithm is currently the fastest known algorithm for factoring l...
The use of threshold pivoting with the purpose to reduce fill-in during sparse Gaussian elimination ...
AbstractThis paper uses a graph-theoretic approach to derive asymptotically optimal algorithms for p...
As the standard method for solving systems of linear equations, Gaussian elimination (GE) is one of ...
The general number field sieve is the asymptotically fastest—and by far most complex—factoring algor...