2006
DOI: 10.1098/rspa.2006.1714
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A representation of the Peano kernel for some quadrature rules and applications

Abstract: A general interpolating formula is established. From this formula all Newton–Cotes quadrature rules of the closed type can be derived. Some corrected interpolating polynomials are also derived and used for obtaining corresponding quadrature rules. A new effective representation of the Peano kernel is derived. Estimation of errors for these quadrature rules is established.

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Cited by 6 publications
(5 citation statements)
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“…The corrected trapezoidal rule given in Theorem 3.2 is not the usual one that has traditionally appeared in the literature. For example, in Conte and De Boor [6], Davis and Rabinowitz [9], Dragomir, et al [12], Pečaric and Ujevic [28], and Squire [34], the coefficient is 1/12 in place of our 3/32 in (3.1). The error estimate (b − a) 5 f (4) ∞ /720 is obtained by polynomial interpolation by Conte and De Boor in [6] and with a two-point Taylor expansion by Davis and Rabinowitz in [9].…”
Section: Corrected Trapezoidal Rulementioning
confidence: 93%
See 1 more Smart Citation
“…The corrected trapezoidal rule given in Theorem 3.2 is not the usual one that has traditionally appeared in the literature. For example, in Conte and De Boor [6], Davis and Rabinowitz [9], Dragomir, et al [12], Pečaric and Ujevic [28], and Squire [34], the coefficient is 1/12 in place of our 3/32 in (3.1). The error estimate (b − a) 5 f (4) ∞ /720 is obtained by polynomial interpolation by Conte and De Boor in [6] and with a two-point Taylor expansion by Davis and Rabinowitz in [9].…”
Section: Corrected Trapezoidal Rulementioning
confidence: 93%
“…In their Lemma 2, the error is given with f ′′ ∞ replaced by sup [a,b] f ′′ − inf [a,b] f ′′ . Pečaric and Ujevic [28] give the error estimate as √ 3 (b − a) 3 f ′′ ∞ /54 in their equation (3.3). This also appears in Dedic, et al [10].…”
Section: Corrected Trapezoidal Rulementioning
confidence: 99%
“…Newton's method is the most well-known method for solving nonlinear equations. Various numerical methods have been developed using different techniques including finite differences [1][2][3][4], quadrature rules ,QiaolingXue, JianZhu [5], Nenad Ujevic 2006 [6], Taylor's series, decomposition methods, homotopy techniques, Newton theorem (Nasr Al Din IDE, 2013), (Shijun Liao., 1997 [7]) etc., in order to carry out the solution of non-linear equations with different convergence rates. Most commonly used numerical methods for root location of non-linear equations includes, Bisection/interval halving method, Regula-falsi/false position method.…”
Section: Introductionmentioning
confidence: 99%
“…Liu [16] assumes the condition f (n−1) ∈ C([a, b]) ∩ BV ([a, b]) and has a quadrature formula with degree of exactness equal to n−1. The problem is tackled using the Peano kernel by Dubeau [9] and Pečarić and Ujević [20]. Ding, Ye and Yang [8] estimate the remainder when f ′′ is Henstock-Kurzweil integrable.…”
Section: Introductionmentioning
confidence: 99%