
TL;DR
This paper demonstrates that for symmetric matrices, the Cholesky decomposition can be derived directly from Gaussian elimination without pivoting, without requiring the matrix to be positive definite.
Contribution
It shows a novel way to obtain Cholesky decomposition from Gaussian elimination for symmetric matrices without assuming positive definiteness.
Findings
Cholesky decomposition can be derived from Gaussian elimination for symmetric matrices.
No positive definiteness proof is needed for this derivation.
The method simplifies the process of obtaining Cholesky factors for symmetric matrices.
Abstract
In this paper, we prove that if the matrix of the linear system is symetric, the Cholesky decomposition can be obtained from the Gauss elimination method without pivoting, without proving that the matrix of the system is positive definite.
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Taxonomy
TopicsMatrix Theory and Algorithms · Polynomial and algebraic computation · Advanced Optimization Algorithms Research
