SLIME: A new deformable surface
Author(s) -
A.J. Stoddart,
Adrian Hilton,
J. Illingworth
Publication year - 1994
Publication title -
citeseer x (the pennsylvania state university)
Language(s) - English
Resource type - Conference proceedings
DOI - 10.5244/c.8.28
Subject(s) - surface (topology) , computer science , generalization , topology (electrical circuits) , gravitational singularity , surface reconstruction , range (aeronautics) , grid , segmentation , tensor product , artificial intelligence , mathematics , geometry , mathematical analysis , pure mathematics , engineering , combinatorics , aerospace engineering
Deformable surfaces have many applications in surface reconstruction, tracking and segmentation of range or volumetric data. Many existing deformable surfaces connect control points in a predefined and inflexible way. This means that the surface topology is fixed in advance, and also imposes severe limitations on how a surface can be described. For example a rectangular grid of control points cannot be evenly distributed over a sphere, and singularities occur at the poles. In this paper we introduce a new (G continuous) deformable surface. In contrast to other methods this method can represent a surface of arbitrary topology, and do so in an efficient way. The method is based on a generalization of biquadratic B-splines, and has a comparable computational cost to methods based on traditional tensor product B-splines.
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