Adaptive hybrid interpolation techniques for direct Haptic rendering of isosurfaces.
Identifieur interne : 001A41 ( PubMed/Checkpoint ); précédent : 001A40; suivant : 001A42Adaptive hybrid interpolation techniques for direct Haptic rendering of isosurfaces.
Auteurs : Ganesh Sankaranarayanan [États-Unis] ; Venkat Devarajan ; Robert Eberhart ; Daniel B. JonesSource :
- Studies in health technology and informatics [ 0926-9630 ] ; 2002.
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- MESH :
Abstract
Direct Haptic rendering of voxels from an anatomical dataset provides patient specific haptic feedback vital for diagnosis and surgical planning. Our algorithm uses zero sets of scalar trivariate function for polynomial interpolation with sixty-four neighborhood points to generate isosurfaces on the fly for haptic rendering. This approach gives continuity in surfaces as well as better capture of isosurface features of the medical dataset. The detailed algorithm is presented along with the description of results from haptically rendering medical datasets.
PubMed: 15458131
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pubmed:15458131Le document en format XML
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<front><div type="abstract" xml:lang="en">Direct Haptic rendering of voxels from an anatomical dataset provides patient specific haptic feedback vital for diagnosis and surgical planning. Our algorithm uses zero sets of scalar trivariate function for polynomial interpolation with sixty-four neighborhood points to generate isosurfaces on the fly for haptic rendering. This approach gives continuity in surfaces as well as better capture of isosurface features of the medical dataset. The detailed algorithm is presented along with the description of results from haptically rendering medical datasets.</div>
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<Abstract><AbstractText>Direct Haptic rendering of voxels from an anatomical dataset provides patient specific haptic feedback vital for diagnosis and surgical planning. Our algorithm uses zero sets of scalar trivariate function for polynomial interpolation with sixty-four neighborhood points to generate isosurfaces on the fly for haptic rendering. This approach gives continuity in surfaces as well as better capture of isosurface features of the medical dataset. The detailed algorithm is presented along with the description of results from haptically rendering medical datasets.</AbstractText>
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