Shape Continuity-Driven 3D Surface Reconstruction from Parallel Cross Sections

3D shape reconstruction from parallel cross sections is central in medical imaging, computer-aided design, computer graphics, and other fields. Existing methods, e.g., NUAGES, are based on the identification of 2D Delone–Voronoi and medial axis complexes in levels i and i+1, which are used to construct a set of tetrahedra that fill the 3D space between the cross sections. To improve this process, our method, named NUAGES+, directly uses 3D Delone tetrahedra to materialize the evolution between consecutive cross sections by benefiting from a denser sampling of the original data. This combination produces more robust results, stemming from better shape ratios of the Delone tetrahedra. In addition, we use a 2D shape similarity filter that eliminates improbable solid connections, which originate in geometric overlaps between consecutive cross sections. Future work is needed in the algorithmic support for synthesis of 0-, and 2-handles to materialize the topological changes between consecutive sections.

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Publication Details

Journal
Mathematics
Published
2026-11-10
DOI
https://doi.org/10.3390/math14224123
Primary Topic
3D Shape Modeling and Analysis
Type
article
Field-Weighted Citation Impact
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article

Shape Continuity-Driven 3D Surface Reconstruction from Parallel Cross Sections

Oscar Ruiz-Salguero, Carlos Alberto Cadavid, Juan Pareja-Corcho, Jefferson Salcedo-Chavez
Mathematics
3D Shape Modeling and Analysis
article

Shape Continuity-Driven 3D Surface Reconstruction from Parallel Cross Sections

Oscar Ruiz-Salguero, Carlos Alberto Cadavid, Juan Pareja-Corcho, Jefferson Salcedo-Chavez
article en

Abstract

3D shape reconstruction from parallel cross sections is central in medical imaging, computer-aided design, computer graphics, and other fields. Existing methods, e.g., NUAGES, are based on the identification of 2D Delone–Voronoi and medial axis complexes in levels i and i+1, which are used to construct a set of tetrahedra that fill the 3D space between the cross sections. To improve this process, our method, named NUAGES+, directly uses 3D Delone tetrahedra to materialize the evolution between consecutive cross sections by benefiting from a denser sampling of the original data. This combination produces more robust results, stemming from better shape ratios of the Delone tetrahedra. In addition, we use a 2D shape similarity filter that eliminates improbable solid connections, which originate in geometric overlaps between consecutive cross sections. Future work is needed in the algorithmic support for synthesis of 0-, and 2-handles to materialize the topological changes between consecutive sections.

MathematicsVol. 14(22)
University of the Basque Country (ES), Vicomtech (ES), Universidad EAFIT (CO)
3D Shape Modeling and Analysis
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