1978
DOI: 10.1016/0021-9045(78)90115-6
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On the approximation of functions and their derivatives by Hermite interpolation

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1987
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Cited by 12 publications
(4 citation statements)
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“…In the case of Hermite interpolation, a theorem on extreme nodes was established by the authors that agreed with Pottinger's results [32] and was an improvement of the results obtained in [25]. Pottinger [33] used the Chebyshev nodes to prove that the convergence condition depends on the norms of H 2n+1 . The author also proved that the growth of the operator norms is of n th order:…”
Section: Literature Review On Hermite Polynomialssupporting
confidence: 56%
“…In the case of Hermite interpolation, a theorem on extreme nodes was established by the authors that agreed with Pottinger's results [32] and was an improvement of the results obtained in [25]. Pottinger [33] used the Chebyshev nodes to prove that the convergence condition depends on the norms of H 2n+1 . The author also proved that the growth of the operator norms is of n th order:…”
Section: Literature Review On Hermite Polynomialssupporting
confidence: 56%
“…Using Theorems 1 and 2, we havehere . By (1.1) and the formula (see, Pottinger 1978, p. 272),where is the best approximation to , we haveIn view of , using Jackson’s theorem (Natanson 1965, p. 86), we havewhich completes the proof of Theorem 3. …”
Section: The Main Convergence Resultsmentioning
confidence: 57%
“…Before we state our theorem, we define where is the space of all polynomials of degree . (this definition is stated in Pottinger 1978, p. 272).…”
Section: The Main Convergence Resultsmentioning
confidence: 99%
“…( cos(2nj)0, sin(2n-j)0, Similarly, using the identity sin nora sin nOk + sin join sin jOk 3=1 k,m 1, rt, (3 6) we can prove (3 4) satisfies (3 ,5S,(.f, COSOk) ,5f(cosOk) (k 1,...,n)…”
Section: Fundamental Polynomials Of the Interpolationmentioning
confidence: 85%