It is widely believed that order of exactness is a good measure of the quality of an algorithm for numerical quadrature. We show that this is not the case, by exhibiting a situation in which the optimal algorithm does not even integrate constants exactly. We also show that there are situations in which the penalty for using equidistant nodes is unbounded. Finally, we show that the complexity of obtaining an ε-approximation can be an arbitrary function of ε, i.e., there is no hardest quadrature problem
Newton-Cotes quadrature rules are based on polynomial interpolation in a set of equidistant points. ...
AbstractThe Exact Geometric Computing approach requires a zero test for numbers which are built up u...
Abstract. In this survey paper it is studied the optimality in sense of Nikolski for some classes of...
AbstractThe computational cost of automatic quadrature programs is analyzed under the hypothesis of ...
AbstractThe computational cost of automatic quadrature programs is analyzed under the hypothesis of ...
Results on the error bounds of quadrature methods are well known — most state that if the method has...
The classical bounds on the truncation errorofquadrature formulas obtained by Peano's Theorem are re...
AbstractThe classical bounds on the truncation error of quadrature formulas obtained by Peano's Theo...
AbstractThe Exact Geometric Computing approach requires a zero test for numbers which are built up u...
Given a probability measure ν and a positive integer n. How to choose n knots and n weights such tha...
AbstractLet Rn be the error functional of a quadrature formula Qn on [−1,1] using n nodes. In this p...
AbstractWe consider the problem of integrating a function f : [-1,1] → R which has an analytic exten...
Newton-Cotes quadrature rules are based on polynomial interpolation in a set of equidistant points. ...
We comment on recent results in the field of information based complexity, which state (in a number ...
AbstractLower bounds for the error of quadrature formulas with positive weights are proved. We get i...
Newton-Cotes quadrature rules are based on polynomial interpolation in a set of equidistant points. ...
AbstractThe Exact Geometric Computing approach requires a zero test for numbers which are built up u...
Abstract. In this survey paper it is studied the optimality in sense of Nikolski for some classes of...
AbstractThe computational cost of automatic quadrature programs is analyzed under the hypothesis of ...
AbstractThe computational cost of automatic quadrature programs is analyzed under the hypothesis of ...
Results on the error bounds of quadrature methods are well known — most state that if the method has...
The classical bounds on the truncation errorofquadrature formulas obtained by Peano's Theorem are re...
AbstractThe classical bounds on the truncation error of quadrature formulas obtained by Peano's Theo...
AbstractThe Exact Geometric Computing approach requires a zero test for numbers which are built up u...
Given a probability measure ν and a positive integer n. How to choose n knots and n weights such tha...
AbstractLet Rn be the error functional of a quadrature formula Qn on [−1,1] using n nodes. In this p...
AbstractWe consider the problem of integrating a function f : [-1,1] → R which has an analytic exten...
Newton-Cotes quadrature rules are based on polynomial interpolation in a set of equidistant points. ...
We comment on recent results in the field of information based complexity, which state (in a number ...
AbstractLower bounds for the error of quadrature formulas with positive weights are proved. We get i...
Newton-Cotes quadrature rules are based on polynomial interpolation in a set of equidistant points. ...
AbstractThe Exact Geometric Computing approach requires a zero test for numbers which are built up u...
Abstract. In this survey paper it is studied the optimality in sense of Nikolski for some classes of...