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Mgs-Stereo: Multi-Scale Geometric-Structure-Enhanced Stereo Matching for Complex Real-World Scenes.
Summary
This study introduces a novel multi-scale stereo matching model that uses geometric information to improve accuracy in complex scenes. The enhanced model excels in challenging areas like occlusions and reflective surfaces.
Area of Science:
- Computer Vision
- Artificial Intelligence
- Geometric Deep Learning
Background:
- Stereo matching is crucial for 3D reconstruction but struggles with complex real-world scenes.
- Challenges include non-Lambertian surfaces, textureless regions, and occlusions, hindering accurate pixel matching.
- Existing methods often fail to robustly handle geometric complexities in diverse environments.
Purpose of the Study:
- To develop a multi-scale stereo matching model that leverages scene geometry for improved accuracy.
- To enhance robustness in challenging regions like edges, occlusions, and reflective surfaces.
- To provide a more reliable stereo matching solution for complex, real-world imaging conditions.
Main Methods:
- A geometric structure perception module extracts scene geometric information.
- A geometric structure-adaptive embedding module fuses geometric and similarity features for disparity residual prediction.
- A geometric-based normalized disparity correction module refines matching in difficult areas.
Main Results:
- The proposed model achieves competitive performance on standard stereo matching benchmarks.
- Demonstrates robust and accurate disparity predictions in challenging scenarios.
- Outperforms leading approaches, particularly in regions with complex geometric and surface properties.
Conclusions:
- The multi-scale geometrically enhanced stereo matching model effectively addresses limitations of existing methods.
- Geometric information integration significantly improves robustness and accuracy in complex scenes.
- The model offers a promising advancement for real-world stereo vision applications.

