Reconstructing 3D compact sets

被引:8
|
作者
Cazals, Frederic
Cohen-Steiner, David
机构
[1] INRIA Sophia-Antipolis-Méditerranée, Algorithms-Biology-Structure
[2] INRIA Sophia-Antipolis-Méditerranée, Geometrica
来源
关键词
3D reconstruction; Distance function; Voronoi diagram; Flow complex; Topological persistence; SURFACE RECONSTRUCTION; DISTANCE;
D O I
10.1016/j.comgeo.2011.07.005
中图分类号
O29 [应用数学];
学科分类号
070104 ;
摘要
Reconstructing a 3D shape from sample points is a central problem faced in medical applications, reverse engineering, natural sciences, cultural heritage projects, etc. While these applications motivated intense research on 3D surface reconstruction, the problem of reconstructing more general shapes hardly received any attention. This paper develops a reconstruction algorithm changing the 3D reconstruction paradigm as follows. First, the algorithm handles general shapes, i.e. compact sets, as opposed to surfaces. Under mild assumptions on the sampling of the compact set, the reconstruction is proved to be correct in terms of homotopy type. Second, the algorithm does not output a single reconstruction but a nested sequence of plausible reconstructions. Third, the algorithm accommodates topological persistence so as to select the most stable features only. Finally, in case of reconstruction failure, it allows the identification of under-sampled areas, so as to possibly fix the sampling. These key features are illustrated by experimental results on challenging datasets, and should prove instrumental in enhancing the processing of such datasets in the aforementioned applications. (C) 2011 Elsevier B.V. All rights reserved.
引用
收藏
页码:1 / 13
页数:13
相关论文
共 50 条
  • [1] Reconstructing a 3D world
    Connor, CE
    SCIENCE, 2002, 298 (5592) : 376 - 377
  • [2] Reconstructing a Church in 3D
    Naumann, Matthias
    Grenzdoerffer, Goerres
    GIM INTERNATIONAL-THE WORLDWIDE MAGAZINE FOR GEOMATICS, 2016, 30 (02): : 15 - 17
  • [3] On reconstructing 3D feature boundaries
    University of Ioannina, Greece
    Comput.-Aided Des. Appl., 2008, 1-4 (316-324):
  • [4] Reconstructing Hands in 3D with Transformers
    Pavlakos, Georgios
    Shan, Dandan
    Radosavovic, Ilija
    Kanazawa, Angjoo
    Fouhey, David
    Malik, Jitendra
    2024 IEEE/CVF CONFERENCE ON COMPUTER VISION AND PATTERN RECOGNITION (CVPR), 2024, : 9826 - 9836
  • [5] Ebla 3D Project Documenting and 3D reconstructing a vanishing site
    Malatesta, Saverio Giulio
    Lelia, Francesco
    Marsicano, Lucia
    Iaia, Francesco
    Casadei, Eloisa
    2015 DIGITAL HERITAGE INTERNATIONAL CONGRESS, VOL 2: ANALYSIS & INTERPRETATION THEORY, METHODOLOGIES, PRESERVATION & STANDARDS DIGITAL HERITAGE PROJECTS & APPLICATIONS, 2015, : 443 - 447
  • [6] Farman Institute 3D Point Sets - High Precision 3D Data Sets
    Dignel, Julie
    Audfray, Nicolas
    Lartigue, Claire
    Mehdi-Souzani, Charyar
    Morel, Jean-Michel
    IMAGE PROCESSING ON LINE, 2011, 1 : 281 - 291
  • [7] Reconstructing 3D subsurface salt flow
    Back, Stefan
    Amberg, Sebastian
    Sachse, Victoria
    Littke, Ralf
    SOLID EARTH, 2022, 13 (06) : 1027 - 1043
  • [8] 3D preservation of buildings - Reconstructing the past
    Fritsch, Dieter
    Klein, Michael
    MULTIMEDIA TOOLS AND APPLICATIONS, 2018, 77 (07) : 9153 - 9170
  • [9] The Sinogram Polygonizer for Reconstructing 3D Shapes
    Yamanaka, Daiki
    Ohtake, Yutaka
    Suzuki, Hiromasa
    IEEE TRANSACTIONS ON VISUALIZATION AND COMPUTER GRAPHICS, 2013, 19 (11) : 1911 - 1922
  • [10] Reconstructing evolutionary graphs: 3D parsimony
    Lake, James A.
    MOLECULAR BIOLOGY AND EVOLUTION, 2008, 25 (08) : 1677 - 1682