1998
DOI: 10.1006/jath.1997.3137
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Error Estimates for Interpolation by Compactly Supported Radial Basis Functions of Minimal Degree

Abstract: We consider error estimates for interpolation by a special class of compactly supported radial basis functions. These functions consist of a univariate polynomial within their support and are of minimal degree depending on space dimension and smoothness. Their associated``native'' Hilbert spaces are shown to be normequivalent to Sobolev spaces. Thus we can derive approximation orders for functions from Sobolev spaces which are comparable to those of thin-plate-spline interpolation. Finally, we investigate the … Show more

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Cited by 315 publications
(162 citation statements)
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“…We describe several strategies for specifying the modulating function K. The first is to use a tapering function, the result is referred to as FSA-Taper, which sets the correlation of distant spatio-temporal pairs to zero. In the univariate spatial case, a number of compactly supported covariance functions have been used for covariance tapering, for example the spherical covariance function, the family of Wendland covariance functions, and the bisquare function, to name a few (Wendland (1995(Wendland ( , 1998Gneiting (2002); Cressie and Johannesson (2008)). In the spatio-temporal context, we consider tapering functions as Schur products of a purely spatial and a purely temporal tapering function.…”
Section: Covariance Approximation For Large Computation Of Spatiotempmentioning
confidence: 99%
“…We describe several strategies for specifying the modulating function K. The first is to use a tapering function, the result is referred to as FSA-Taper, which sets the correlation of distant spatio-temporal pairs to zero. In the univariate spatial case, a number of compactly supported covariance functions have been used for covariance tapering, for example the spherical covariance function, the family of Wendland covariance functions, and the bisquare function, to name a few (Wendland (1995(Wendland ( , 1998Gneiting (2002); Cressie and Johannesson (2008)). In the spatio-temporal context, we consider tapering functions as Schur products of a purely spatial and a purely temporal tapering function.…”
Section: Covariance Approximation For Large Computation Of Spatiotempmentioning
confidence: 99%
“…It is shown in [28,Corollary 2.3] that Ψ n+1,m ∈ C 2m (R n+1 ). For any given N and any set of N pairwise distinct points {x 1 , .…”
Section: Spherical Basis Functionsmentioning
confidence: 99%
“…In order to illustrate how a suitable choice of a trust radius can be found experimentally we consider the following Example 4.7. Let ψ be the multiple of Wendland's function φ 1,3 (see [15]), given by…”
Section: Proposition 43 Leads Immediately To the Followingmentioning
confidence: 99%