This work examines the relation between Gaussian elimination and the conjugate directions algorithm [Hestenes and Steifel, 1952]. Analysis is extended to the case where the sequence of the conjugated vectors is modified, which is shown to result in reordering of the solution vector. Based on these analyses an algorithm is described which combines Gaussian elimination with a look-ahead algorithm. The purpose of the algorithm is to employ Gaussian elimination on a system of smaller order and to use this solution to approximate the solution of the original system. The algorithm was tested on a range of linear systems and performed well when the components in the solution vector varied by large magnitude
The algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic environm...
The algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic environm...
AbstractThe algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic ...
This work examines the relation between Gaussian elimination and the conjugate directions algorithm ...
This work examines the relation between Gaussian elimination and the conjugate directions algorithm ...
This work examines the relation between Gaussian elimination and the conjugate directions algorithm ...
This work examines the relation between Gaussian elimination and the conjugate directions algorithm ...
AbstractThe purpose of this paper is to show the equivalence between the well-known conjugate direct...
We describe an algorithm based on Gaussian elimination for solving an n x n system of linear equatio...
Solving a set of linear equations arises in many contexts in applied mathematics. At least until rec...
AbstractThis paper discusses a method for determining a good pivoting sequence for Gaussian eliminat...
J.H. Wilkinson put Gaussian elimination (GE) on a sound numerical footing in the 1960's when he sho...
The stability of the Gauss-Jordan algorithm with partial pivoting for the solution of general system...
AbstractThe algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic ...
This paper considers elimination methods to solve dense linear systems, in particular a variant of G...
The algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic environm...
The algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic environm...
AbstractThe algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic ...
This work examines the relation between Gaussian elimination and the conjugate directions algorithm ...
This work examines the relation between Gaussian elimination and the conjugate directions algorithm ...
This work examines the relation between Gaussian elimination and the conjugate directions algorithm ...
This work examines the relation between Gaussian elimination and the conjugate directions algorithm ...
AbstractThe purpose of this paper is to show the equivalence between the well-known conjugate direct...
We describe an algorithm based on Gaussian elimination for solving an n x n system of linear equatio...
Solving a set of linear equations arises in many contexts in applied mathematics. At least until rec...
AbstractThis paper discusses a method for determining a good pivoting sequence for Gaussian eliminat...
J.H. Wilkinson put Gaussian elimination (GE) on a sound numerical footing in the 1960's when he sho...
The stability of the Gauss-Jordan algorithm with partial pivoting for the solution of general system...
AbstractThe algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic ...
This paper considers elimination methods to solve dense linear systems, in particular a variant of G...
The algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic environm...
The algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic environm...
AbstractThe algorithm known as Gaussian elimination (GE) is fully understood in an exact-arithmetic ...