In this paper, we consider the Gauss-Kronrod quadrature formulas for a modified Chebyshev weight. Efficient estimates of the error of these Gauss-Kronrod formulae for analytic functions are obtained, using techniques of contour integration that were introduced by Gautschi and Varga (cf. Gautschi and Varga SIAM J. Numer. Anal. 20, 1170-1186 1983). Some illustrative numerical examples which show both the accuracy of the Gauss-Kronrod formulas and the sharpness of our estimations are displayed. Though for the sake of brevity we restrict ourselves to the first kind Chebyshev weight, a similar analysis may be carried out for the other three Chebyshev type weights; part of the corresponding computations are included in a final appendix
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AbstractUsing best interpolation function based on a given function information, we present a best q...
Anti-Gauss quadrature formulae associated with four classical Chebyshev weight functions are conside...
AbstractWe investigate the behaviour of the maximum error in applying Gaussian quadrature to the Che...
AbstractMaking use of the connection between quadrature formulas on the unit circle and the interval...
AbstractWe study the Kronrod extensions of Gaussian quadrature rules whose weight functions on [−1, ...
In two BIT papers error expansions in the Gauss and Gauss-Turan quadrature formulas with the Chebysh...
AbstractAnti-Gauss quadrature formulae associated with four classical Chebyshev weight functions are...
For analytic functions the remainder term of Gauss–Radau quadrature formulae can be represented as a...
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We study the kernels in the remainder terms of the Gauss-Turán quadrature formulae for analyti...
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We consider the Gauss-Kronrod quadrature formulae for the Bernstein-SzegoIi weight functions consist...
AbstractThis paper shows that the Chebyshev weightw(x)=(1−x2)−1/2is the only weight having the prope...
AbstractIn this note, interpolatory quadrature formulas with nodes xj being the zeros of Tn(x) + C w...
For analytic functions we study the kernel of the remainder terms of Gaussian quadrature rules with ...
AbstractUsing best interpolation function based on a given function information, we present a best q...