DocumentCode
3331985
Title
Learning Structured Hough Voting for Joint Object Detection and Occlusion Reasoning
Author
Tao Wang ; Xuming He ; Barnes, Nick
Author_Institution
NICTA, Australian Nat. Univ., Canberra, ACT, Australia
fYear
2013
fDate
23-28 June 2013
Firstpage
1790
Lastpage
1797
Abstract
We propose a structured Hough voting method for detecting objects with heavy occlusion in indoor environments. First, we extend the Hough hypothesis space to include both object location and its visibility pattern, and design a new score function that accumulates votes for object detection and occlusion prediction. In addition, we explore the correlation between objects and their environment, building a depth-encoded object-context model based on RGB-D data. Particularly, we design a layered context representation and allow image patches from both objects and backgrounds voting for the object hypotheses. We demonstrate that using a data-driven 2.1D representation we can learn visual codebooks with better quality, and more interpretable detection results in terms of spatial relationship between objects and viewer. We test our algorithm on two challenging RGB-D datasets with significant occlusion and intraclass variation, and demonstrate the superior performance of our method.
Keywords
Hough transforms; image coding; image representation; object detection; Hough hypothesis space; RGB-D data; data-driven 2.1D representation; depth-encoded object-context model; image patches; indoor environments; intraclass variation; joint object detection; layered context image representation; object hypotheses; object location; occlusion prediction; occlusion reasoning; score function design; structured Hough voting learning method; visibility pattern; visual codebooks; Context; Context modeling; Image segmentation; Joints; Object detection; Solid modeling; Three-dimensional displays; depth-encoded object-context model; object detection; occlusion reasoning; structured Hough voting;
fLanguage
English
Publisher
ieee
Conference_Titel
Computer Vision and Pattern Recognition (CVPR), 2013 IEEE Conference on
Conference_Location
Portland, OR
ISSN
1063-6919
Type
conf
DOI
10.1109/CVPR.2013.234
Filename
6619078
Link To Document