Paper
23 August 1995 Robust algebraic invariant methods with applications in geometry and imaging
Eamon B. Barrett, Paul Max Payton, Gregory O. Gheen
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Abstract
We introduce non-standard methods of deriving algebraic invariants and demonstrated two types of applications of these invariants. In model transfer a collection of conjugate points are determined on a set of reference images, and `transferred' to the matching conjugate points on a new view of the 3D object, without prior computation of camera geometry or scene reconstruction. In object reconstruction, general 3D object points are represented as functions of non-coplanar fiducial points and corresponding conjugate points across multiple images. In this application the object points are `reconstructed' once quantitative values are specified for the fiducial points. The methods we introduce for deriving these invariant algorithms are extensible from the linear fractional central projection camera model to weak perspective and certain non-central projection camera models. Stability to adverse geometries and measurement error can be enhanced by using redundant fiducial points and images to determine the transfer and reconstruction functions. Extensibility and stability are indications of the robustness of these methods.
© (1995) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Eamon B. Barrett, Paul Max Payton, and Gregory O. Gheen "Robust algebraic invariant methods with applications in geometry and imaging", Proc. SPIE 2572, Remote Sensing and Reconstruction for Three-Dimensional Objects and Scenes, (23 August 1995); https://doi.org/10.1117/12.216941
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CITATIONS
Cited by 8 scholarly publications.
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KEYWORDS
Reconstruction algorithms

Cameras

Imaging systems

3D image processing

Detection and tracking algorithms

3D modeling

Computer simulations

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