AbstractThe classical bounds on the truncation error of quadrature formulas obtained by Peano's Theorem are revisited, by assuming slightly stronger regularity conditions on the integrand function. The resulting series expansion of the error can be useful when studying the asymptotic complexity of automatic quadrature algorithms. New constants, related to the classical error coefficients are tabulated for the most common symmetric interpolatory rules
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
AbstractThe classical bounds on the truncation error of quadrature formulas obtained by Peano's Theo...
The classical bounds on the truncation errorofquadrature formulas obtained by Peano's Theorem are re...
AbstractFor symmetric quadrature formulas, sharper error bounds are generated by a formulation of th...
AbstractPointwise error estimates are obtained for polynomial interpolants in the roots and extrema ...
AbstractIn the univariate case, there is a well-developed theory on the error estimation of the quad...
We present a unified way to obtain optimal error bounds for general interpolatory integration rules....
AbstractFor the Hermite (osculatory) polynomial interpolation of a function on the interval [a, b] w...
AbstractWe treat the theory of numerical quadrature over a square using an m2 copy Q(m)ƒ of a one-po...
AbstractEhrenmark (this journal, 1988) and Vanden Berghe et al. (this journal, 1990) introduced quad...
The corrected quadrature rules are considered and the estimations of error involving the second deri...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
We consider the well known Micchelli-Rivlin quadrature formula, of highest algebraic degree of preci...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
AbstractThe classical bounds on the truncation error of quadrature formulas obtained by Peano's Theo...
The classical bounds on the truncation errorofquadrature formulas obtained by Peano's Theorem are re...
AbstractFor symmetric quadrature formulas, sharper error bounds are generated by a formulation of th...
AbstractPointwise error estimates are obtained for polynomial interpolants in the roots and extrema ...
AbstractIn the univariate case, there is a well-developed theory on the error estimation of the quad...
We present a unified way to obtain optimal error bounds for general interpolatory integration rules....
AbstractFor the Hermite (osculatory) polynomial interpolation of a function on the interval [a, b] w...
AbstractWe treat the theory of numerical quadrature over a square using an m2 copy Q(m)ƒ of a one-po...
AbstractEhrenmark (this journal, 1988) and Vanden Berghe et al. (this journal, 1990) introduced quad...
The corrected quadrature rules are considered and the estimations of error involving the second deri...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
We consider the well known Micchelli-Rivlin quadrature formula, of highest algebraic degree of preci...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson'...