Self-regulation for semantic segmentation
In this paper, we seek reasons for the two major failure cases in Semantic Segmentation (SS): 1) missing small objects or minor object parts, and 2) mislabeling minor parts of large objects as wrong classes. We have an interesting finding that Failure-1 is due to the underuse of detailed features an...
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sg-smu-ink.sis_research-72332021-10-22T05:57:13Z Self-regulation for semantic segmentation ZHANG, Dong ZHANG, Hanwang TANG, Jinhui HUA, Xian-Sheng SUN, Qianru In this paper, we seek reasons for the two major failure cases in Semantic Segmentation (SS): 1) missing small objects or minor object parts, and 2) mislabeling minor parts of large objects as wrong classes. We have an interesting finding that Failure-1 is due to the underuse of detailed features and Failure-2 is due to the underuse of visual contexts. To help the model learn a better trade-off, we introduce several Self-Regulation (SR) losses for training SS neural networks. By “self”, we mean that the losses are from the model per se without using any additional data or supervision. By applying the SR losses, the deep layer features are regulated by the shallow ones to preserve more details; meanwhile, shallow layer classification logits are regulated by the deep ones to capture more semantics. We conduct extensive experiments on both weakly and fully supervised SS tasks, and the results show that our approach consistently surpasses the baselines. We also validate that SR losses are easy to implement in various state-of-the-art SS models, e.g., SPGNet [7] and OCRNet [62], incurring little computational overhead during training and none for testing. 2021-10-01T07:00:00Z text application/pdf https://ink.library.smu.edu.sg/sis_research/6230 https://ink.library.smu.edu.sg/context/sis_research/article/7233/viewcontent/Zhang_Self_Regulation_for_Semantic_Segmentation_ICCV_2021_paper.pdf http://creativecommons.org/licenses/by-nc-nd/4.0/ Research Collection School Of Computing and Information Systems eng Institutional Knowledge at Singapore Management University Graphics and Human Computer Interfaces |
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Graphics and Human Computer Interfaces ZHANG, Dong ZHANG, Hanwang TANG, Jinhui HUA, Xian-Sheng SUN, Qianru Self-regulation for semantic segmentation |
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In this paper, we seek reasons for the two major failure cases in Semantic Segmentation (SS): 1) missing small objects or minor object parts, and 2) mislabeling minor parts of large objects as wrong classes. We have an interesting finding that Failure-1 is due to the underuse of detailed features and Failure-2 is due to the underuse of visual contexts. To help the model learn a better trade-off, we introduce several Self-Regulation (SR) losses for training SS neural networks. By “self”, we mean that the losses are from the model per se without using any additional data or supervision. By applying the SR losses, the deep layer features are regulated by the shallow ones to preserve more details; meanwhile, shallow layer classification logits are regulated by the deep ones to capture more semantics. We conduct extensive experiments on both weakly and fully supervised SS tasks, and the results show that our approach consistently surpasses the baselines. We also validate that SR losses are easy to implement in various state-of-the-art SS models, e.g., SPGNet [7] and OCRNet [62], incurring little computational overhead during training and none for testing. |
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ZHANG, Dong ZHANG, Hanwang TANG, Jinhui HUA, Xian-Sheng SUN, Qianru |
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ZHANG, Dong ZHANG, Hanwang TANG, Jinhui HUA, Xian-Sheng SUN, Qianru |
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ZHANG, Dong |
title |
Self-regulation for semantic segmentation |
title_short |
Self-regulation for semantic segmentation |
title_full |
Self-regulation for semantic segmentation |
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Self-regulation for semantic segmentation |
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Self-regulation for semantic segmentation |
title_sort |
self-regulation for semantic segmentation |
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Institutional Knowledge at Singapore Management University |
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2021 |
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https://ink.library.smu.edu.sg/sis_research/6230 https://ink.library.smu.edu.sg/context/sis_research/article/7233/viewcontent/Zhang_Self_Regulation_for_Semantic_Segmentation_ICCV_2021_paper.pdf |
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