Multiscale Inverse Compositional Alignment for Subdivision Surface Maps 1st editon by Igor Guskov – Ebook PDF Instant Download/Delivery. 3540219842, 978-3540219842
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Product details:
ISBN 10: 3540219842
ISBN 13: 978-3540219842
Author: Igor Guskov
We propose an efficient alignment method for textured Doo-Sabin subdivision surface templates. A variation of the inverse compositional image alignment is derived by introducing smooth adjustments in the parametric space of the surface and relating them to the control point increments. The convergence properties of the proposed method are improved by a coarse-to-fine multiscale matching. The method is applied to real-time tracking of specially marked surfaces from a single camera view.
Multiscale Inverse Compositional Alignment for Subdivision Surface Maps 1st Table of contents:
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Introduction
- 1.1 Background and Motivation
- 1.2 Subdivision Surfaces and Their Role in Computer Graphics
- 1.3 Inverse Compositional Alignment: Concept and Significance
- 1.4 Multiscale Approaches for Alignment Tasks
- 1.5 Contributions and Scope of the Paper
- 1.6 Structure of the Paper
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Related Work
- 2.1 Overview of Subdivision Surfaces and Their Applications
- 2.2 Existing Alignment Techniques in Computer Vision and Graphics
- 2.3 Inverse Compositional Algorithms in Image and Surface Alignment
- 2.4 Multiscale Methods in Geometric Alignment
- 2.5 Limitations of Current Methods and Need for Improved Techniques
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Subdivision Surfaces and Their Mathematical Foundations
- 3.1 Introduction to Subdivision Surfaces
- 3.2 Refinement Schemes: Catmull-Clark and Other Variants
- 3.3 Mathematical Representation of Subdivision Surfaces
- 3.4 Properties of Subdivision Surfaces for Geometric Modeling
- 3.5 Challenges in Aligning Subdivision Surfaces
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Inverse Compositional Alignment Algorithm
- 4.1 Overview of the Inverse Compositional Approach
- 4.2 Derivation of the Inverse Compositional Algorithm
- 4.3 Optimization Criteria and Cost Functions
- 4.4 Benefits of Inverse Compositional Methods in Alignment
- 4.5 Comparison with Other Alignment Techniques (e.g., Direct Composition, Gradient Descent)
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Multiscale Approaches for Alignment
- 5.1 The Concept of Multiscale Representation
- 5.2 Why Multiscale Methods Improve Alignment Efficiency and Accuracy
- 5.3 Multiscale Image and Surface Pyramid Construction
- 5.4 Pyramid-Based Alignment for Subdivision Surfaces
- 5.5 Integration of Multiscale Inverse Compositional Alignment
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Multiscale Inverse Compositional Alignment for Subdivision Surface Maps
- 6.1 Overview of the Proposed Method
- 6.2 Step 1: Surface Map Representation and Preprocessing
- 6.3 Step 2: Alignment at Coarse Scales
- 6.4 Step 3: Refinement at Finer Scales
- 6.5 Step 4: Final Surface Alignment and Post-Processing
- 6.6 Handling Non-Rigid Deformations and Transformations
- 6.7 Computational Complexity and Performance Considerations
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Experimental Setup and Evaluation
- 7.1 Datasets and Surface Map Types Used for Evaluation
- 7.2 Setup for Alignment Experiments
- 7.3 Evaluation Metrics for Alignment Accuracy and Speed
- 7.4 Comparative Analysis: Multiscale vs. Traditional Alignment
- 7.5 Sensitivity Analysis of Parameters and Scalability
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Results and Discussion
- 8.1 Visual Results of Multiscale Alignment on Subdivision Surfaces
- 8.2 Quantitative Evaluation: Alignment Accuracy and Convergence
- 8.3 Comparative Analysis with Other Alignment Algorithms
- 8.4 Impact of Multiscale Methods on Speed and Robustness
- 8.5 Case Studies and Real-World Applications
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Applications
- 9.1 3D Shape Matching and Alignment in Computer Graphics
- 9.2 Animation and Morphing of Subdivision Surfaces
- 9.3 Medical Imaging and Surface Registration
- 9.4 Reverse Engineering and 3D Reconstruction
- 9.5 Augmented Reality and Virtual Reality
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Challenges and Future Directions
- 10.1 Handling Complex Geometries and Large-Scale Data
- 10.2 Improving Robustness Against Noise and Missing Data
- 10.3 Real-Time Performance and Implementation in Interactive Systems
- 10.4 Extending Multiscale Inverse Compositional Alignment to Non-Rigid Surfaces
- 10.5 Future Directions in Multiscale Alignment Algorithms
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Conclusion
- 11.1 Summary of Contributions
- 11.2 Practical Implications of Multiscale Inverse Compositional Alignment
- 11.3 Concluding Remarks and Future Work
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