State of the art of geometric modeling
Geometric Modeling and Scientific Visualization are both established disciplines, each with their own series of workshops, conferences and journals. But clearly both disciplines overlap; this observation led to the idea of composing a book on Geometric Modeling for Scientific Visualization.
Experts in both fields from all over the world have been invited to participate in the book. We received 39 submissions of high-quality research and survey papers, from which we could only allow the 27 strongest to be published in this book. All papers underwent a strict refereeing process.
The topics covered in this collection include
- Surface Reconstruction and Interpolation
- Surface Interrogation and Modeling
- Wavelets and Compression on Surfaces
- Topology, Distance Fields and Solid Modeling
- Multiresolution Data Representation
- Biomedical and Physical Applications
1. Surface Reconstruction and Interpolation Marietta E. Cameron, Kenneth R. Sloan, and Ying Sun: Reconstruction from Unorganized Point Sets using Gamma Shapes Ingrid Hotz and Hans Hagen: Isometric embedding for a discrete metric David Levin: Mesh-Independent Surface Interpolation Robert Mencl and Heinrich Mueller: Empirical Analysis of Surface Interpolation by Spatial Environment Graphs 2. Surface Interrogation and Modeling Georges-Pierre Bonneau and Stefanie Hahmann: Smooth Polylines on Polygon Meshes Mark A. Duchaineau and Kenneth I. Joy: Progressive Precision Surface Design Helwig Hauser, Thomas Theußl, Andreas König, and Eduard Gröller: Smart Surface Interrogation for Advanced Visualization Techniques Yootai Kim, Raghu Machiraju, and David Thompson: Modeling Rough Surfaces Georgios Stylianou: A Feature Based Method for Rigid Registration of Anatomical Surfaces 3. Wavelets and Compression on Surfaces Martin Bertram: Lifting Biorthogonal B-spline Wavelets Ioannis Ivrissimtzis, Christian Roessl, and Hans-Peter Seidel: Tree-based Data Structures for Triangle Mesh Connectivity Encoding Andrei Khodakovsky and Igor Guskov: Compression of Normal Meshes Gabriel Taubin: New Results in Signal Processing and Compression of Polygon Meshes 4. Topology, Distance Fields and Solid Modeling Jian Huang and Roger Crawfis: Adaptively Refined Complete Distance Fields of Polygonal Models Marcelo Kallmann, Hanspeter Bieri, and Daniel Thalmann: Fully Dynamic Constrained Delaunay Triangulations Jorge Rodríguez, Dolors Ayala, and Antonio Aguilera: EVM: A Complete Solid Model for Surface Rendering Xavier Tricoche and Gerik Scheuermann: Topology Simplification of Symmetric, Second-Order 2D Tensor
Geometric Modeling and Scientific Visualization are both established disciplines, each with their own series of workshops, conferences and journals. But clearly both disciplines overlap, which led to the idea of composing a book on Geometric Modeling for Scientific Visualization. The editors received 39 submissions of high-quality research and survey papers, from which the 27 strongest are published in this book. All papers underwent a strict refereeing process. Topics covered include: Surface Reconstruction and Interpolation; Surface Interrogation and Modeling; Wavelets and Compression on Surfaces; Topology, Distance Fields and Solid Modeling; and others.
I Surface Reconstruction and Interpolation.- Reconstruction from Unorganized Point Sets Using Gamma Shapes.- Isometric Embedding for a Discrete Metric.- Mesh-Independent Surface Interpolation.- Empirical Analysis of Surface Interpolation by Spatial Environment Graphs.- II Surface Interrogation and Modeling.- Smooth Polylines on Polygon Meshes.- Progressive Precision Surface Design.- Access to Surface Properties up to Order Two for Visualization Algorithms.- Modeling Rough Surfaces.- A Feature Based Method for Rigid Registration of Anatomical Surfaces.- III Wavelets and Compression on Surfaces.- Lifting Biorthogonal B-spline Wavelets.- Tree-based Data Structures for Triangle Mesh Connectivity Encoding.- Compression of Normal Meshes.- New Results in Signal Processing and Compression of Polygon Meshes.- IV Topology, Distance Fields, and Solid Modeling.- Adaptively Represented Complete Distance Fields of Polygonal Models.- Fully Dynamic Constrained Delaunay Triangulations.- EVM: A Complete Solid Model for Surface Rendering.- Topology Simplification of Symmetric, Second-Order 2D Tensor Fields.- Automating Transfer Function Design Based on Topology Analysis.- V Multiresolution Data Representation.- Simplicial-based Multiresolution Volume Datasets Management: An Overview.- Selective Refinement on Nested Tetrahedral Meshes.- Divisive Parallel Clustering for Multiresolution Analysis.- Hierarchical Large-scale Volume Representation with % MathType!MTEF!2!1!+-% feaagCart1ev2aaatCvAUfeBSjuyZL2yd9gzLbvyNv2CaerbuLwBLn% hiov2DGi1BTfMBaeXatLxBI9gBaerbd9wDYLwzYbItLDharqqtubsr% 4rNCHbGeaGqiVu0Je9sqqrpepC0xbbL8F4rqqrFfpeea0xe9Lq-Jc9% vqaqpepm0xbba9pwe9Q8fs0-yqaqpepae9pg0FirpepeKkFr0xfr-x% fr-xb9adbaqaaeGaciGaaiaabeqaamaabaabaaGcbaWaaOqaaeaaca% aIYaaaleaacaaIZaaaaaaa!3788!$$sqrt[3]{2}$$Subdivision and Trivariate B-spline Wavelets.- Multiresolution Surface and Volume Representations.- VI Biomedical and Physical Applications.- Geometric Methods for Vessel Visualization and Quantification - A Survey.- An Application for Dealing with Missing Data in Medical Images, with Application to Left Ventricle SPECT Data.- Constraint-Based Astronometric Modeling Tools.- Geometric Modelling for Virtual Colon Unfolding.- Appendix: Color Plates.
Inhaltsverzeichnis
1. Surface Reconstruction and Interpolation Marietta E. Cameron, Kenneth R. Sloan, and Ying Sun:
Reconstruction from Unorganized Point Sets using Gamma Shapes Ingrid Hotz and Hans Hagen:
Isometric embedding for a discrete metric David Levin:
Mesh-Independent Surface Interpolation Robert Mencl and Heinrich Mueller:
Empirical Analysis of Surface Interpolation by Spatial Environment Graphs 2. Surface Interrogation and Modeling Georges-Pierre Bonneau and Stefanie Hahmann:
Smooth Polylines on Polygon Meshes Mark A. Duchaineau and Kenneth I. Joy:
Progressive Precision Surface Design Helwig Hauser, Thomas Theußl, Andreas König, and Eduard Gröller:
Smart Surface Interrogation for Advanced Visualization Techniques Yootai Kim, Raghu Machiraju, and David Thompson:
Modeling Rough Surfaces Georgios Stylianou:
A Feature Based Method for Rigid Registration of Anatomical
Surfaces
3. Wavelets and Compression on Surfaces Martin Bertram:
Lifting Biorthogonal B-spline Wavelets Ioannis Ivrissimtzis, Christian Roessl, and Hans-Peter Seidel:
Tree-based Data Structures for Triangle Mesh Connectivity Encoding
Andrei Khodakovsky and Igor Guskov:
Compression of Normal Meshes Gabriel Taubin:
New Results in Signal Processing and Compression of Polygon Meshes
4. Topology, Distance Fields and Solid Modeling Jian Huang and Roger Crawfis:
Adaptively Refined Complete Distance Fields of Polygonal Models Marcelo Kallmann, Hanspeter Bieri, and Daniel Thalmann:
Fully Dynamic Constrained Delaunay Triangulations Jorge Rodríguez, Dolors Ayala, and Antonio Aguilera:
EVM: A Complete Solid Model for Surface Rendering Xavier Tricoche and Gerik Scheuermann:
Topology Simplification of Symmetric, Second-Order 2D Tensor
Klappentext
Geometric Modeling and Scientific Visualization are both established disciplines, each with their own series of workshops, conferences and journals. But clearly both disciplines overlap, which led to the idea of composing a book on Geometric Modeling for Scientific Visualization. The editors received 39 submissions of high-quality research and survey papers, from which the 27 strongest are published in this book. All papers underwent a strict refereeing process. Topics covered include: Surface Reconstruction and Interpolation; Surface Interrogation and Modeling; Wavelets and Compression on Surfaces; Topology, Distance Fields and Solid Modeling; and others.
State of the art of geometric modeling
