Counting Cases in Marching Cubes: Towards a Generic Algorithm for Producing Substitopes
- Published in 2003
- Added on
In the collection
We describe how to count the cases that arise in a family of visualization techniques, including marching cubes, sweeping simplices, contour meshing, interval volumes, and separating surfaces. Counting the cases is the first step toward developing a generic visualization algorithm to produce substitopes (geometric substitution of polytopes). We demonstrate the method using a software system ("GAP") for computational group theory. The case-counts are organized into a table that provides taxonomy of members of the family; numbers in the table are derived from actual lists of cases, which are computed by our methods. The calculation confirms previously reported case-counts for large dimensions that are too large to check by hand, and predicts the number of cases that will arise in algorithms that have not yet been invented.
Links
- https://www.evl.uic.edu/cavern/rg/20040525_renambot/Visualization-papers/papers/03/01250354.pdf
- http://ieeexplore.ieee.org/document/1250354
Other information
- key
- CountingCasesInMarchingCubes
- type
- article
- date_added
- 2016-09-28
- date_published
- 2003-12-07
BibTeX entry
@article{CountingCasesInMarchingCubes, key = {CountingCasesInMarchingCubes}, type = {article}, title = {Counting Cases in Marching Cubes: Towards a Generic Algorithm for Producing Substitopes}, author = {David C. Banks and Stephen Linton}, abstract = {We describe how to count the cases that arise in a family of visualization techniques, including marching cubes, sweeping simplices, contour meshing, interval volumes, and separating surfaces. Counting the cases is the first step toward developing a generic visualization algorithm to produce substitopes (geometric substitution of polytopes). We demonstrate the method using a software system ("GAP") for computational group theory. The case-counts are organized into a table that provides taxonomy of members of the family; numbers in the table are derived from actual lists of cases, which are computed by our methods. The calculation confirms previously reported case-counts for large dimensions that are too large to check by hand, and predicts the number of cases that will arise in algorithms that have not yet been invented.}, comment = {}, date_added = {2016-09-28}, date_published = {2003-12-07}, urls = {https://www.evl.uic.edu/cavern/rg/20040525{\_}renambot/Visualization-papers/papers/03/01250354.pdf,http://ieeexplore.ieee.org/document/1250354}, collections = {Basically computer science}, url = {https://www.evl.uic.edu/cavern/rg/20040525{\_}renambot/Visualization-papers/papers/03/01250354.pdf http://ieeexplore.ieee.org/document/1250354}, urldate = {2016-09-28}, year = 2003 }