2000
DOI: 10.1016/s0167-8396(00)00021-2
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Triangular G1 interpolation by 4-splitting domain triangles

Abstract: A piecewise quintic G 1 spline surface interpolating the vertices of a triangular surface mesh of arbitrary topological type is presented. The surface has an explicit triangular B ezier representation, is a ne invariant and has local support. The twist compatibility problem which arises when joining an even number of polynomial patches G 1 continuously around a common vertex is solved by constructing C 2-consistent boundary curves. Piecewise C 1 boundary curves and a regular 4-split of the domain triangle make… Show more

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Cited by 41 publications
(35 citation statements)
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“…Hahmann and Bonneau [12] presented a piecewise quintic G 1 spline surface interpolating the vertices of a triangular surface mesh of arbitrary topological type. They further improved the method without imposing any constraint on the first derivatives and thus avoid any unwanted undulations when interpolating irregular triangulations [13].…”
Section: Interpolatory Splinementioning
confidence: 99%
“…Hahmann and Bonneau [12] presented a piecewise quintic G 1 spline surface interpolating the vertices of a triangular surface mesh of arbitrary topological type. They further improved the method without imposing any constraint on the first derivatives and thus avoid any unwanted undulations when interpolating irregular triangulations [13].…”
Section: Interpolatory Splinementioning
confidence: 99%
“…The methods also attempt to use patches of the lowest possible polynomial degree, sometimes even admitting isolated singular points on patch boundaries; see, e.g., Peters [1991] and Loop [1994]. On the other hand, G 1 methods handle patch configurations of any topological type, requiring no modification for different classes of global topology; see also Hahmann and Bonneau [2000].…”
Section: Alternatives To the Single Planar Domainmentioning
confidence: 99%
“…One alternative solution to the "twist compatibility" problem, or "vertex consistency" problem, was invented by Loop, who designed a scheme using sextic triangular Bézier patches in a one-to-one correspondence with data triangles [Loop 1994]. Hahmann used a similar approach as Loop's scheme to construct the tangents of the boundary curves, then fit four quintic patches to each data triangle to create a G 1 continuous surface [Hahmann and Bonneau 2000]. In all these schemes, control points are set to meet the constraints imposed by having G 1 continuity along the patch boundaries.…”
Section: Introductionmentioning
confidence: 99%