An incomplete factorization technique for positive definite linear systems
Author:
T. A. Manteuffel
Journal:
Math. Comp. 34 (1980), 473497
MSC:
Primary 65F10; Secondary 15A06
DOI:
https://doi.org/10.1090/S00255718198005591970
MathSciNet review:
559197
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Abstract: This paper describes a technique for solving the large sparse symmetric linear systems that arise from the application of finite element methods. The technique combines an incomplete factorization method called the shifted incomplete Cholesky factorization with the method of generalized conjugate gradients. The shifted incomplete Cholesky factorization produces a splitting of the matrix A that is dependent upon a parameter $\alpha$. It is shown that if A is positive definite, then there is some $\alpha$ for which this splitting is possible and that this splitting is at least as good as the Jacobi splitting. The method is shown to be more efficient on a set of test problems than either direct methods or explicit iteration schemes.

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© Copyright 1980
American Mathematical Society