In the nonsymmetric eigenvalue problem, work has focused on the Hessenberg reduction and QR iteration, using efficient algorithms and fast, Level 3 BLAS routines. Comparatively, computation of eigenvectors performs poorly, limited to slow, Level 2 BLAS performance with little speedup on multi-core systems. It has thus become a dominant cost in the eigenvalue problem. To address this, we present improvements for the eigenvector computation to use Level 3 BLAS where applicable and parallelize the remaining triangular solves, achieving good parallel scaling and accelerating the overall eigenvalue problem more than three-fold.
This report demonstrates parallel versions of the Eispack functions TRED2 and TQL2 for finding all...
The popular QR algorithm for solving all eigenvalues of an unsymmetric matrix is reviewed. Among the...
One approach to solving the nonsymmetric eigenvalue problem in parallel is to parallelize the QR alg...
Communicated by Yasuaki Ito Solution of large-scale dense nonsymmetric eigenvalue problem is require...
We describe two techniques for speeding up eigenvalue and singular value computations on shared memo...
A standard approach for computing eigenvectors of a non-symmetric matrix reduced to real Schurform r...
We present and discuss algorithms and library software for solving the generalized non-symmetric eig...
An effective strategy in dense linear algebra is the design of algorithms as tiled algorithms. Tiled...
In Part I of this report [2], we proposed to build a toolbox for solving the dense nonsymmetric eig...
. This paper describes programs to reduce a nonsymmetric matrix to tridiagonal form, compute the eig...
We investigate a method for efficiently solving a complex symmetric (non-Hermitian) generalized eige...
We investigate the performance of the routines in LAPACK and the Successive Band Reduction (SBR) too...
AbstractIn the year 2000 the dominant method for solving matrix eigenvalue problems is still the QR ...
In many scientific applications the solution of non-linear differential equations are obtained throu...
Eigenvalue computations are ubiquitous in science and engineering. John Francis's implicitly shifted...
This report demonstrates parallel versions of the Eispack functions TRED2 and TQL2 for finding all...
The popular QR algorithm for solving all eigenvalues of an unsymmetric matrix is reviewed. Among the...
One approach to solving the nonsymmetric eigenvalue problem in parallel is to parallelize the QR alg...
Communicated by Yasuaki Ito Solution of large-scale dense nonsymmetric eigenvalue problem is require...
We describe two techniques for speeding up eigenvalue and singular value computations on shared memo...
A standard approach for computing eigenvectors of a non-symmetric matrix reduced to real Schurform r...
We present and discuss algorithms and library software for solving the generalized non-symmetric eig...
An effective strategy in dense linear algebra is the design of algorithms as tiled algorithms. Tiled...
In Part I of this report [2], we proposed to build a toolbox for solving the dense nonsymmetric eig...
. This paper describes programs to reduce a nonsymmetric matrix to tridiagonal form, compute the eig...
We investigate a method for efficiently solving a complex symmetric (non-Hermitian) generalized eige...
We investigate the performance of the routines in LAPACK and the Successive Band Reduction (SBR) too...
AbstractIn the year 2000 the dominant method for solving matrix eigenvalue problems is still the QR ...
In many scientific applications the solution of non-linear differential equations are obtained throu...
Eigenvalue computations are ubiquitous in science and engineering. John Francis's implicitly shifted...
This report demonstrates parallel versions of the Eispack functions TRED2 and TQL2 for finding all...
The popular QR algorithm for solving all eigenvalues of an unsymmetric matrix is reviewed. Among the...
One approach to solving the nonsymmetric eigenvalue problem in parallel is to parallelize the QR alg...