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Intrinsic/extrinsic embedding for functional remeshing of 3D shapes

Academic Article
Publication Date:
2020
Citation:
Intrinsic/extrinsic embedding for functional remeshing of 3D shapes / S. Melzi, R. Marin, P. Musoni, F. Bardon, M. Tarini, U. Castellani. - In: COMPUTERS & GRAPHICS. - ISSN 0097-8493. - 88(2020 May), pp. 1-12. [10.1016/j.cag.2020.02.002]
abstract:
3D acquisition pipeline delivers 3D digital models accurately representing real-world objects, improving the geometric accuracy and realism of virtual reconstructions. However, even after intensive clean-up, the captured models fall short of many of the requirements imposed by the downstream application, such as video-games, virtual reality, digital movies, etc. Often, the captured 3D model can only serve as a starting point for a cascade of subsequent phases, by either digital artists or geometry processing algorithms, such as a complete remeshing (or retopology), surface parameterization, and skinning for animation. In contrast, we propose a novel remeshing-by-matching approach, where we automatically combine the accurate 3D geometry of the captured model with the tessellation of a target pre-existing template which already satisfies all the professional requirements. At the core of this process, there is a matching strategy based on the functional mapping framework. To this end, we introduce a new set of basis functions designed for this context: termed Coordinates Manifold Harmonics (CMH). We evaluate this strategy (quantitatively and qualitatively) over models of different classes, obtaining a favourable comparison with existing methods.
IRIS type:
01 - Articolo su periodico
Keywords:
Functional maps; Geometry processing; Shape analysis; Shape modeling; Surface remeshing
List of contributors:
S. Melzi, R. Marin, P. Musoni, F. Bardon, M. Tarini, U. Castellani
Authors of the University:
TARINI MARCO ( author )
Link to information sheet:
https://air.unimi.it/handle/2434/774339
Project:
DSurf: Scalable Computational Methods for 3D Printing Surfaces
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