Object Recognition and Segmentation by Association
Description
Many object recognition systems train a different classifier for each object category and use the sliding window approach to classify image regions. In this talk, we pose the object recognition problem as data association where a novel object is explained solely in terms of a small set of exemplar objects to which it is visually similar. We learn a different distance function for each exemplar such that the returned distances can be interpreted to detect the presence of an object. Our exemplars are represented as image regions and the learned distances capture the relative importance of shape, color, texture, and position features for that region. We use the distance functions to detect and segment objects in novel images by associating the bottom-up segments obtained from multiple image segmentations with the exemplar regions. We evaluate the detection and segmentation performance of our algorithm on real-world outdoor scenes from the LabelMe dataset and also show some qualitative image parsing results.
| Slides | |
| 0:00 | Recognition by Association |
| 1:12 | Goal and Approach |
| 2:00 | Understanding an Image |
| 2:18 | Object naming |
| 2:56 | Object naming / Object categorization part1 |
| 2:58 | Object naming / Object categorization part2 |
| 3:17 | Different way of looking at recognition part1 |
| 3:38 | Different way of looking at recognition part2 |
| 4:14 | Different way of looking at recognition part3 |
| 4:46 | Our Contributions part1 |
| 5:26 | Our Contributions part2 |
| 5:50 | Our Contributions part3 |
| 6:25 | Object Exemplars |
| 8:03 | Measuring Similarity part1 |
| 8:08 | Measuring Similarity part2 |
| 8:40 | Measuring Similarity part3 |
| 9:12 | Measuring Similarity part4 |
| 9:13 | Measuring Similarity part5 |
| 9:31 | Exemplar Representation |
| 11:12 | Learning a Per-Exemplar Similarity Measure |
| 12:04 | Learning Distance Functions part1 |
| 12:59 | Learning Distance Functions part2 |
| 14:05 | Learning Distance Functions part3 |
| 15:00 | Learning Distance Functions part4 |
| 15:51 | Learning Distance Functions part5 |
| 17:43 | Non-parametric density estimation part1 |
| 17:50 | Learning Distance Functions part5 |
| 18:54 | Non-parametric density estimation part1 |
| 19:03 | Non-parametric density estimation part2 |
| 19:14 | Non-parametric density estimation part3 |
| 20:01 | Exemplar Graph |
| 20:04 | Non-parametric density estimation part3 |
| 20:15 | Exemplar Graph |
| 20:23 | Real “Car” Exemplar Graph |
| 21:24 | Visualizing Distance Functions (Training Set) part1 |
| 22:14 | Visualizing Distance Functions (Training Set) part2 |
| 23:05 | Visualizing Distance Functions (Training Set) part3 |
| 23:34 | Recognition Time part1 |
| 23:56 | Recognition Time part2 |
| 24:11 | Recognition Time part3 |
| 24:15 | Recognition Time part4 |
| 24:42 | Recognition Time part5 |
| 25:20 | Object Segmentation via Recognition |
| 27:39 | Top Object Hypotheses in Test Set |
| 28:46 | Toward Image Parsing part1 |
| 28:57 | Toward Image Parsing part2 |
| 30:07 | Toward Image Parsing part3 |
| 30:41 | Observations + Conclusions |
| 32:41 | - Questions |
| 33:45 | - Questions |
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