2006
DOI: 10.1016/j.amc.2005.11.152
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Gauss quadrature rules for a generalized Hermite weight function

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Cited by 6 publications
(3 citation statements)
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“…But as far as we know these coefficients are not available analytically; hence one has to use a suitable method to compute them approximately to sufficient accuracy. There are mainly two approaches for this purpose: the first approach is based on the discretization methods (Stieltjes procedure, Lanczos-type algorithm) and the second one is based on the moments (moment based methods); see [12,Chapter 2] and the references therein, and see also [15] for an application of the Lanczos algorithm. Although the first approach is numerically more stable than the second one, our numerical experiments show that neither the Stieltjes procedure nor the Lanczos algorithm is suitable for the weight functions considered here.…”
Section: Computation Of the Recurrence Coefficientsmentioning
confidence: 99%
“…But as far as we know these coefficients are not available analytically; hence one has to use a suitable method to compute them approximately to sufficient accuracy. There are mainly two approaches for this purpose: the first approach is based on the discretization methods (Stieltjes procedure, Lanczos-type algorithm) and the second one is based on the moments (moment based methods); see [12,Chapter 2] and the references therein, and see also [15] for an application of the Lanczos algorithm. Although the first approach is numerically more stable than the second one, our numerical experiments show that neither the Stieltjes procedure nor the Lanczos algorithm is suitable for the weight functions considered here.…”
Section: Computation Of the Recurrence Coefficientsmentioning
confidence: 99%
“…As a first attempt to solve this problem, one could consider using numerical integration techniques. In the scalar case (n = n y = 1) and if the function f is well approximated by a polynomial of order 2N 1, the Gaussian quadrature methods give approximate solutions for (14) of the form (see [5], [51]- [54])…”
Section: G Conclusion Of the Literature Reviewmentioning
confidence: 99%
“…As a first attempt to solve this problem, we could consider using numerical integration techniques. In the scalar case (n = n y = 1) and if the function f is well approximated by a polynomial of order 2N − 1 for a N ∈ N, Gaussian quadrature methods give approximate solutions for (3.1) of the form (see [78,[99][100][101][102])…”
Section: Estimating a Posterior Expected Valuementioning
confidence: 99%