Self-supervised Pre-training with Hard Examples Improves Visual Representations
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Abstract (arXiv)
Self-supervised pre-training (SSP) employs random image transformations to generate training data for visual representation learning. In this paper, we first present a modeling framework that unifies existing SSP methods as learning to predict pseudo-labels. Then, we propose new data augmentation methods of generating training examples whose pseudo-labels are harder to predict than those generated via random image transformations. Specifically, we use adversarial training and CutMix to create hard examples (HEXA) to be used as augmented views for MoCo-v2 and DeepCluster-v2, leading to two variants HEXA_{MoCo} and HEXA_{DCluster}, respectively. In our experiments, we pre-train models on ImageNet and evaluate them on multiple public benchmarks. Our evaluation shows that the two new algorithm variants outperform their original counterparts, and achieve new state-of-the-art on a wide range of tasks where limited task supervision is available for fine-tuning. These results verify that hard examples are instrumental in improving the generalization of the pre-trained models.
Key facts. Cited by 12 papers in the map (data through 7 Oct 2026). First posted on arXiv 25 Dec 2020.
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Citing papers per year: 2021: 6; 2022: 3; 2023: 1; 2024: 2.
12 papers.
- 2021On Feature Decorrelation in Self-Supervised Learningcited by 160
- 2021Efficient Self-supervised Vision Transformers for Representation Learningcited by 149
- 2021Recent advances and clinical applications of deep learning in medical image analysiscited by 104
- 2023Know Your Self-supervised Learning: A Survey on Image-based Generative and Discriminative Trainingcited by 39
- 2022A Simple Data Mixing Prior for Improving Self-Supervised Learningcited by 27
- 2021Contrastive Attraction and Contrastive Repulsion for Representation Learningcited by 13
- 2021Improving Self-supervised Learning with Hardness-aware Dynamic Curriculum Learning: An Application to Digital Pathologycited by 13
- 2024Understanding Hyperbolic Metric Learning through Hard Negative Samplingcited by 10
- 2022Learning crop type mapping from regional label proportions in large-scale SAR and optical imagerycited by 5
- 2021Bootstrapping Your Own Positive Sample: Contrastive Learning With Electronic Health Record Datacited by 3
- 2024LeOCLR: Leveraging Original Images for Contrastive Learning of Visual Representationscited by 3
- 2022Contrastive pretraining for semantic segmentation is robust to noisy positive pairscited by 0
- 2024Understanding Hyperbolic Metric Learning through Hard Negative Sampling23 Apr 2024
- 2024LeOCLR: Leveraging Original Images for Contrastive Learning of Visual Representations11 Mar 2024
- 2023Know Your Self-supervised Learning: A Survey on Image-based Generative and Discriminative Training23 May 2023
- 2022Contrastive pretraining for semantic segmentation is robust to noisy positive pairs24 Nov 2022
- 2022Learning crop type mapping from regional label proportions in large-scale SAR and optical imagery24 Aug 2022
- 2022A Simple Data Mixing Prior for Improving Self-Supervised Learning15 Jun 2022
- 2021Improving Self-supervised Learning with Hardness-aware Dynamic Curriculum Learning: An Application to Digital Pathology16 Aug 2021
- 2021Efficient Self-supervised Vision Transformers for Representation Learning17 Jun 2021
- 2021Recent advances and clinical applications of deep learning in medical image analysis27 May 2021
- 2021Contrastive Attraction and Contrastive Repulsion for Representation Learning8 May 2021
- 2021On Feature Decorrelation in Self-Supervised Learning2 May 2021
- 2021Bootstrapping Your Own Positive Sample: Contrastive Learning With Electronic Health Record Data7 Apr 2021