We present a unified way to obtain optimal error bounds for general interpolatory integration rules. The method is based on the Peano form of the error term when we use Taylor’s expansion. These bounds depend on the regularity of the integrand. The method of integration by parts “backwards” to obtain bounds is also discussed. The analysis includes quadrature rules with nodes outside the interval of integration. Best error bounds for composite integration rules are also obtained. Some consequences of symmetry are discussed
AbstractFor symmetric quadrature formulas, sharper error bounds are generated by a formulation of th...
AbstractTheoretical error estimates for quadrature rules involve quantities that are usually difficu...
AbstractFour types of quadratic spline interpolants are considered for which we obtain error bounds ...
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...
We analyze the behavior of Euler-Maclaurin-based integrationschemes with the intention of deriving ...
AbstractThe classical bounds on the truncation error of quadrature formulas obtained by Peano's Theo...
AbstractBased on Peano kernel technique, explicit error bounds (optimal for the highest order deriva...
In this research, some new and efficient quadrature rules are proposed involving the combination of ...
Exact error estimates for evaluating multi-dimensional integrals are considered. An estimate is call...
AbstractWe describe methods for the numerical calculation of integrals with verified error bounds. T...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson’...
For the numerical approximation of Cauchy principal value integrals, we consider so-called modified ...
AbstractFor the derivatives of the Hermite polynomial interpolation of a function on the interval [a...
The corrected quadrature rules are considered and the estimations of error involving the second deri...
AbstractFor symmetric quadrature formulas, sharper error bounds are generated by a formulation of th...
AbstractTheoretical error estimates for quadrature rules involve quantities that are usually difficu...
AbstractFour types of quadratic spline interpolants are considered for which we obtain error bounds ...
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...
We analyze the behavior of Euler-Maclaurin-based integrationschemes with the intention of deriving ...
AbstractThe classical bounds on the truncation error of quadrature formulas obtained by Peano's Theo...
AbstractBased on Peano kernel technique, explicit error bounds (optimal for the highest order deriva...
In this research, some new and efficient quadrature rules are proposed involving the combination of ...
Exact error estimates for evaluating multi-dimensional integrals are considered. An estimate is call...
AbstractWe describe methods for the numerical calculation of integrals with verified error bounds. T...
A straightforward three-point quadrature formula of closed type is derived that improves on Simpson’...
For the numerical approximation of Cauchy principal value integrals, we consider so-called modified ...
AbstractFor the derivatives of the Hermite polynomial interpolation of a function on the interval [a...
The corrected quadrature rules are considered and the estimations of error involving the second deri...
AbstractFor symmetric quadrature formulas, sharper error bounds are generated by a formulation of th...
AbstractTheoretical error estimates for quadrature rules involve quantities that are usually difficu...
AbstractFour types of quadratic spline interpolants are considered for which we obtain error bounds ...