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Main Authors: Manogue, Kevin, Schang, Tomasz M, Kuş, Dilara, Müller, Jonas, Zachow, Stefan, Sengupta, Agniva
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2511.03459
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author Manogue, Kevin
Schang, Tomasz M
Kuş, Dilara
Müller, Jonas
Zachow, Stefan
Sengupta, Agniva
author_facet Manogue, Kevin
Schang, Tomasz M
Kuş, Dilara
Müller, Jonas
Zachow, Stefan
Sengupta, Agniva
contents Reconstructing the surfaces of deformable objects from correspondences between a 3D template and a 2D image is well studied under Shape-from-Template (SfT) methods; however, existing approaches break down when topological changes accompany the deformation. We propose a principled extension of SfT that enables reconstruction in the presence of such changes. Our approach is initialized with a classical SfT solution and iteratively adapts the template by partitioning its spatial domain so as to minimize an energy functional that jointly encodes physical plausibility and reprojection consistency. We demonstrate that the method robustly captures a wide range of practically relevant topological events including tears and cuts on bounded 2D surfaces, thereby establishing the first general framework for topological-change-aware SfT. Experiments on both synthetic and real data confirm that our approach consistently outperforms baseline methods.
format Preprint
id arxiv_https___arxiv_org_abs_2511_03459
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Generalizing Shape-from-Template to Topological Changes
Manogue, Kevin
Schang, Tomasz M
Kuş, Dilara
Müller, Jonas
Zachow, Stefan
Sengupta, Agniva
Computer Vision and Pattern Recognition
Reconstructing the surfaces of deformable objects from correspondences between a 3D template and a 2D image is well studied under Shape-from-Template (SfT) methods; however, existing approaches break down when topological changes accompany the deformation. We propose a principled extension of SfT that enables reconstruction in the presence of such changes. Our approach is initialized with a classical SfT solution and iteratively adapts the template by partitioning its spatial domain so as to minimize an energy functional that jointly encodes physical plausibility and reprojection consistency. We demonstrate that the method robustly captures a wide range of practically relevant topological events including tears and cuts on bounded 2D surfaces, thereby establishing the first general framework for topological-change-aware SfT. Experiments on both synthetic and real data confirm that our approach consistently outperforms baseline methods.
title Generalizing Shape-from-Template to Topological Changes
topic Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2511.03459