Pose estimation

3D Object Pose Estimation and Recognition

PACO-PLUS Part of the EU project PACO-PLUS.

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This work introduces a generative object model for 6D pose estimation in stereo views of cluttered scenes [detry2009a]. We model an object as a hierarchy of increasingly expressive object parts, where parts represent the 3D geometry and appearance of object edges. At the bottom of the hierarchy, each part encodes the spatial distribution of short segments of object edges of a specific color. Higher-level parts are formed by recursively combining more elementary parts together, the top-level part representing the whole object. The hierarchy is encoded in a Markov random field whose edges parametrize relative part configurations.

Pose inference is implemented with generic probability and machine learning techniques including belief propagation, Monte Carlo integration, and kernel density estimation. The model is learned autonomously from a set of segmented views of an object. A 3D object model is a useful asset in the context of robotic grasping, as it allows for aligning a grasp model to arbitrary object positions and orientations. Several aspects of this work are inspired by biological examples, which makes it a good building block for cognitive robotic platforms.

Scene    Pose estimate

Pose estimation. The right image shows the maximum-likelihood pose for the toy pan, which is extracted from the largest mode of the pose distribution over the scene shown on the left.

PACO-PLUS Part of the EU project PACO-PLUS.

FNRS Supported by the Belgian National Fund for Scientific Research (FNRS).

Nuklei Code based on the Nuklei library.

Main references:

detry2009a 
R. Detry, N. Pugeault and J. Piater, A Probabilistic Framework for 3D Visual Object Representation. In IEEE Trans. Pattern Anal. Mach. Intell., 31 (10): 1790–1803, 2009.
doidoi; pdfpdf; bibtexshow/hide bibtex
detry2010c 
R. Detry and J. Piater, Continuous Surface-point Distributions for 3D Object Pose Estimation and Recognition. In Asian Conference on Computer Vision, pages 572–585, 2010.
doidoi; pdfpdf; bibtexshow/hide bibtex

Papers covering this topic:

detry2007a 
R. Detry and J. H. Piater, Hierarchical Integration of Local 3D Features for Probabilistic Pose Recovery. In Robot Manipulation: Sensing and Adapting to the Real World (Workshop at Robotics, Science and Systems), 2007.
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detry2008a 
R. Detry, N. Pugeault and J. H. Piater, Probabilistic Pose Recovery Using Learned Hierarchical Object Models. In International Cognitive Vision Workshop (Workshop at the 6th International Conference on Vision Systems), pages 107–120, Springer-Verlag, Berlin, Heidelberg, 2008.
doidoi; pdfpdf; bibtexshow/hide bibtex
detry2009a 
R. Detry, N. Pugeault and J. Piater, A Probabilistic Framework for 3D Visual Object Representation. In IEEE Trans. Pattern Anal. Mach. Intell., 31 (10): 1790–1803, 2009.
doidoi; pdfpdf; bibtexshow/hide bibtex
detry2010c 
R. Detry and J. Piater, Continuous Surface-point Distributions for 3D Object Pose Estimation and Recognition. In Asian Conference on Computer Vision, pages 572–585, 2010.
doidoi; pdfpdf; bibtexshow/hide bibtex
detry2010d 
R. Detry, Learning of Multi-Dimensional, Multi-Modal Features for Robotic Grasping. Ph.D. Thesis, University of Liège, 2010.
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piater2008a 
J. Piater, F. Scalzo and R. Detry, Vision as Inference in a Hierarchical Markov Network. In International Conference on Cognitive and Neural Systems, 2008.
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piater2008b 
J. Piater and R. Detry, 3D Probabilistic Representations for Vision and Action. In Robotics Challenges for Machine Learning II (Workshop at the IEEE/RSJ International Conference on Intelligent Robots and Systems), 2008.
pdfpdf; bibtexshow/hide bibtex
piater2009a 
J. Piater, S. Jodogne, R. Detry, D. Kraft, N. Krüger, O. Kroemer and J. Peters, Learning Visual Representations for Interactive Systems. In International Symposium on Robotics Research, 2009.
doidoi; pdfpdf; bibtexshow/hide bibtex

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