TY - GEN
T1 - Stable semi-local features for non-rigid shapes
AU - Litman, Roee
AU - Bronstein, Alexander M.
AU - Bronstein, Michael M.
N1 - Publisher Copyright:
© Springer-Verlag Berlin Heidelberg 2013.
PY - 2013
Y1 - 2013
N2 - Feature-based analysis is becoming a very popular approach for geometric shape analysis. Following the success of this approach in image analysis, there is a growing interest in finding analogous methods in the 3D world. Maximally stable component detection is a low computation cost and high repeatability method for feature detection in images.In this study, a diffusion-geometry based framework for stable component detection is presented, which can be used for geometric feature detection in deformable shapes. The vast majority of studies of deformable 3D shapes models them as the two-dimensional boundary of the volume of the shape. Recent works have shown that a volumetric shape model is advantageous in numerous ways as it better captures the natural behavior of non-rigid deformations. We show that our framework easily adapts to this volumetric approach, and even demonstrates superior performance. A quantitative evaluation of our methods on the SHREC’10 and SHREC’11 feature detection benchmarks as well as qualitative tests on the SCAPE dataset show its potential as a source of high-quality features. Examples demonstrating the drawbacks of surface stable components and the advantage of their volumetric counterparts are also presented.
AB - Feature-based analysis is becoming a very popular approach for geometric shape analysis. Following the success of this approach in image analysis, there is a growing interest in finding analogous methods in the 3D world. Maximally stable component detection is a low computation cost and high repeatability method for feature detection in images.In this study, a diffusion-geometry based framework for stable component detection is presented, which can be used for geometric feature detection in deformable shapes. The vast majority of studies of deformable 3D shapes models them as the two-dimensional boundary of the volume of the shape. Recent works have shown that a volumetric shape model is advantageous in numerous ways as it better captures the natural behavior of non-rigid deformations. We show that our framework easily adapts to this volumetric approach, and even demonstrates superior performance. A quantitative evaluation of our methods on the SHREC’10 and SHREC’11 feature detection benchmarks as well as qualitative tests on the SCAPE dataset show its potential as a source of high-quality features. Examples demonstrating the drawbacks of surface stable components and the advantage of their volumetric counterparts are also presented.
UR - http://www.scopus.com/inward/record.url?scp=85033610334&partnerID=8YFLogxK
U2 - 10.1007/978-3-642-34141-0_8
DO - 10.1007/978-3-642-34141-0_8
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AN - SCOPUS:85033610334
SN - 9783319912738
SN - 9783540250326
SN - 9783540250760
SN - 9783540332749
SN - 9783540886051
SN - 9783642150135
SN - 9783642216077
SN - 9783642231742
SN - 9783642273421
SN - 9783642341403
SN - 9783642341403
SN - 9783642543005
T3 - Mathematics and Visualization
SP - 161
EP - 189
BT - Mathematics and Visualization
A2 - BreuB, Michael
A2 - Maragos, Petros
A2 - Bruckstein, Alfred
PB - Springer Heidelberg
T2 - Dagstuhl Workshop on Innovations for Shape Analysis: Models and Algorithms, 2011
Y2 - 3 April 2011 through 8 April 2011
ER -