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Published October 2000 | Published
Book Section - Chapter Open

Semi-regular mesh extraction from volumes

Abstract

We present a novel method to extract iso-surfaces from distance volumes. It generates high quality semi-regular multiresolution meshes of arbitrary topology. Our technique proceeds in two stages. First, a very coarse mesh with guaranteed topology is extracted. Subsequently an iterative multi-scale force-based solver refines the initial mesh into a semi-regular mesh with geometrically adaptive sampling rate and good aspect ratio triangles. The coarse mesh extraction is performed using a new approach we call surface wavefront propagation. A set of discrete iso-distance ribbons are rapidly built and connected while respecting the topology of the iso-surface implied by the data. Subsequent multi-scale refinement is driven by a simple force-based solver designed to combine good iso-surface fit and high quality sampling through reparameterization. In contrast to the Marching Cubes technique our output meshes adapt gracefully to the iso-surface geometry, have a natural multiresolution structure and good aspect ratio triangles, as demonstrated with a number of examples.

Additional Information

© 2000 IEEE. This work was supported in part by NSF (ACI-9624957, ACI-9721349, ACI-9982273, DMS-9874082), the NSF STC for Computer Graphics and Scientific Visualization, Alias|Wavefront, and a Packard Fellowship. A very special thanks to Eitan Grinspun, Mark Meyer, and Khrysaundt Koenig for their support and assistance. Thanks to Sean Mauch for an implementation of the Fast Marching Method, Ross Whitaker for the level set segmentation, and Ken Museth for dataset conversion. Thanks to Martin Nguyen for assistance with testing some related ideas. The head MRI data is courtesy the University of Utah's Scientific Computing and Imaging Institute, the MRI dataset of the mouse embryo courtesy the Caltech Biological Imaging Center, and the feline scan courtesy Stanford's Computer Graphics Group.

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August 19, 2023
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