AbstractRecently, special attention has been given, in the mathematical literature, to the problems of accurately computing the least-squares solutions of very large-scale overdetermined systems of linear equations, such as those arising in geodetical network problems. In particular, it has been suggested that one solve such problems, iteratively by applying the block-SOR (successive overrelaxation) iterative method to a consistently ordered block-Jacobi matrix that is weakly cyclic of index 3. Here, we obtain new results (Theorem 1), giving the exact convergence and divergence domains for such iterative applications. It is then shown how these results extend, and correct, the literature on such applications. In addition, analogous results ...
AbstractThe aim of this paper is to establish the convergence of the block iteration methods such as...
AbstractLet A be a (k−l, l)-generalized consistently ordered matrix with T and Lω its associated Jac...
AbstractFor the solution of the linear system Ax=(I−T)x=c (1), where T is a weakly cyclic of index p...
AbstractRecently, special attention has been given, in the mathematical literature, to the problems ...
AbstractIn 1975 Chen and Gentleman suggested a 3-block SOR method for solving least-squares problems...
AbstractThe problem of determining the optimal values of extrapolated iterative schemes, as they app...
AbstractFor the solution of the linear system Ax = b, where A is block p-cyclic, the block SOR itera...
AbstractCovering the last half of the 20th century, we present some of the basic and well-known resu...
Summarization: The problem of accelerating the convergence rate of iterative schemes, as they apply ...
AbstractWe develop successive overrelaxation (SOR) methods for finding the least squares solution of...
AbstractIn this article, we develop symmetric block successive overrelaxation (S-block-SOR) methods ...
AbstractWe compare two recently proposed block-SOR methods for the solution of large least squares p...
AbstractWe compare the convergence properties of two iterative algorithms for solving equality-const...
AbstractD. Young's results from 1954 concerning the application of the successive-overrelaxation (SO...
AbstractWe consider the general sparse block factorization iterative methods as Beauwens and Ben Bou...
AbstractThe aim of this paper is to establish the convergence of the block iteration methods such as...
AbstractLet A be a (k−l, l)-generalized consistently ordered matrix with T and Lω its associated Jac...
AbstractFor the solution of the linear system Ax=(I−T)x=c (1), where T is a weakly cyclic of index p...
AbstractRecently, special attention has been given, in the mathematical literature, to the problems ...
AbstractIn 1975 Chen and Gentleman suggested a 3-block SOR method for solving least-squares problems...
AbstractThe problem of determining the optimal values of extrapolated iterative schemes, as they app...
AbstractFor the solution of the linear system Ax = b, where A is block p-cyclic, the block SOR itera...
AbstractCovering the last half of the 20th century, we present some of the basic and well-known resu...
Summarization: The problem of accelerating the convergence rate of iterative schemes, as they apply ...
AbstractWe develop successive overrelaxation (SOR) methods for finding the least squares solution of...
AbstractIn this article, we develop symmetric block successive overrelaxation (S-block-SOR) methods ...
AbstractWe compare two recently proposed block-SOR methods for the solution of large least squares p...
AbstractWe compare the convergence properties of two iterative algorithms for solving equality-const...
AbstractD. Young's results from 1954 concerning the application of the successive-overrelaxation (SO...
AbstractWe consider the general sparse block factorization iterative methods as Beauwens and Ben Bou...
AbstractThe aim of this paper is to establish the convergence of the block iteration methods such as...
AbstractLet A be a (k−l, l)-generalized consistently ordered matrix with T and Lω its associated Jac...
AbstractFor the solution of the linear system Ax=(I−T)x=c (1), where T is a weakly cyclic of index p...