Introducing the Taubin-Weingarten algorithm to compute second-order geometric descriptors in 3D point clouds

We propose the Taubin-Weingarten algorithm to compute second-order geometric features in 3D point clouds. This method is well-suited for working with large-scale 3D datasets due to its embarrassingly parallel nature. The speedup of our open-source C++ implementation is systematically above 30 for a high-performance CPU with 32 cores. It provides reliable estimates for standard quantifications in differential geometry, such as the Gaussian and mean curvatures of a surface, when compared to other approaches. Additionally, it achieves improvements of between 1.6 % and 10 % in F1-score compared to the standard first-order approach in point-wise classification tasks, such as object part segmentation and large-scale semantic scene segmentation. The results demonstrate that the Taubin-Weingarten algorithm is both efficient and robust, enabling consistent improvements in machine learning performance across various tasks.

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Publication Details

Journal
Journal of Computational and Applied Mathematics
Published
2026-03-17
DOI
https://doi.org/10.1016/j.cam.2026.117569
Primary Topic
3D Shape Modeling and Analysis
Type
article
Field-Weighted Citation Impact
0.00
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article

Introducing the Taubin-Weingarten algorithm to compute second-order geometric descriptors in 3D point clouds

Francisco F. Rivera, M. Ladra, José C. Cabaleiro, Alberto M. Esmorís et al.
Journal of Computational and Applied Mathematics
3D Shape Modeling and Analysis
article

Introducing the Taubin-Weingarten algorithm to compute second-order geometric descriptors in 3D point clouds

Francisco F. Rivera, M. Ladra, José C. Cabaleiro, Alberto M. Esmorís, Xabier García-Martínez
article en

Abstract

We propose the Taubin-Weingarten algorithm to compute second-order geometric features in 3D point clouds. This method is well-suited for working with large-scale 3D datasets due to its embarrassingly parallel nature. The speedup of our open-source C++ implementation is systematically above 30 for a high-performance CPU with 32 cores. It provides reliable estimates for standard quantifications in differential geometry, such as the Gaussian and mean curvatures of a surface, when compared to other approaches. Additionally, it achieves improvements of between 1.6 % and 10 % in F1-score compared to the standard first-order approach in point-wise classification tasks, such as object part segmentation and large-scale semantic scene segmentation. The results demonstrate that the Taubin-Weingarten algorithm is both efficient and robust, enabling consistent improvements in machine learning performance across various tasks.

Journal of Computational and Applied MathematicsVol. 485
Universidade de Santiago de Compostela (ES), Heidelberg University (DE), Center for Research in Molecular Medicine and Chronic Diseases (ES)
Openalex Percentile: Top 16%
3D Shape Modeling and Analysis
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