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Super-Resolution Surface Reconstruction from Few Low-Resolution Slices

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arxiv 2309.05071 v2 pith:HSYJZKMQ submitted 2023-09-10 math.AP cs.CV

classification math.APcs.CV
keywords modelnumericalcurvaturesfurthermethodsolvingsurfacesvariational
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In many imaging applications where segmented features (e.g. blood vessels) are further used for other numerical simulations (e.g. finite element analysis), the obtained surfaces do not have fine resolutions suitable for the task. Increasing the resolution of such surfaces becomes crucial. This paper proposes a new variational model for solving this problem, based on an Euler-Elastica-based regulariser. Further, we propose and implement two numerical algorithms for solving the model, a projected gradient descent method and the alternating direction method of multipliers. Numerical experiments using real-life examples (including two from outputs of another variational model) have been illustrated for effectiveness. The advantages of the new model are shown through quantitative comparisons by the standard deviation of Gaussian curvatures and mean curvatures from the viewpoint of discrete geometry.

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  1. Variational volume reconstruction with the Deep Ritz Method

    eess.IV 2025-08 unverdicted novelty 6.0 of 10

    A Deep Ritz variational method with a modified Cahn-Hilliard regularizer reconstructs volumes from sparse noisy slices without segmentation.

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