Contrastive Continual Learning with Importance Sampling and Prototype-Instance Relation Distillation
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Abstract (arXiv)
Recently, because of the high-quality representations of contrastive learning methods, rehearsal-based contrastive continual learning has been proposed to explore how to continually learn transferable representation embeddings to avoid the catastrophic forgetting issue in traditional continual settings. Based on this framework, we propose Contrastive Continual Learning via Importance Sampling (CCLIS) to preserve knowledge by recovering previous data distributions with a new strategy for Replay Buffer Selection (RBS), which minimize estimated variance to save hard negative samples for representation learning with high quality. Furthermore, we present the Prototype-instance Relation Distillation (PRD) loss, a technique designed to maintain the relationship between prototypes and sample representations using a self-distillation process. Experiments on standard continual learning benchmarks reveal that our method notably outperforms existing baselines in terms of knowledge preservation and thereby effectively counteracts catastrophic forgetting in online contexts. The code is available at https://github.com/lijy373/CCLIS.
Key facts. Cited by 11 papers in the map (data through 7 Oct 2026). Builds on 27 of its 40 references that are in the map. First posted on arXiv 7 Mar 2024.
Builds on
27 of 40 references.
References · 27
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15 more
- 2020Dark Experience for General Continual Learning: a Strong, Simple Baselinecited by 895
- 2018Riemannian Walk for Incremental Learning: Understanding Forgetting and Intransigencecited by 734
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- 2021Co2L: Contrastive Continual Learningcited by 243
- 2021Self-Supervised Models are Continual Learnerscited by 149
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- 2021Online Coreset Selection for Rehearsal-based Continual Learningcited by 114
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Built on by
Citing papers per year: 2024: 2; 2025: 5; 2026: 4.
11 papers.
- 2024Memory-efficient Continual Learning with Neural Collapse Contrastivecited by 8
- 2026Contrastive Continual Learning for Model Adaptability in Internet of Thingscited by 4
- 2024Parameter-Efficient Fine-Tuning for Continual Learning: A Neural Tangent Kernel Perspectivecited by 2
- 2025Sample Compression for Self Certified Continual Learningcited by 1
- 2025SAMix: Calibrated and Accurate Continual Learning via Sphere-Adaptive Mixup and Neural Collapsecited by 1
- 2025Prototype Augmented Hypernetworks for Continual Learningcited by 0
- 2025Empirical Evidences for the Effects of Feature Diversity in Open Set Recognition and Continual Learningcited by 0
- 2025Global Pre-fixing, Local Adjusting: A Simple yet Effective Contrastive Strategy for Continual Learningcited by 0
- 2026Backdoor Attacks on Contrastive Continual Learning for IoT Systemscited by 0
- 2026Intrinsic Mutual Information as a Modulator for Preference Optimizationcited by 0
- 2026Memory-Efficient Continual Learning with CLIP Modelscited by 0
- 2026Memory-Efficient Continual Learning with CLIP Models5 May 2026
- 2026Intrinsic Mutual Information as a Modulator for Preference Optimization27 Apr 2026
- 2026Backdoor Attacks on Contrastive Continual Learning for IoT Systems13 Feb 2026
- 2026Contrastive Continual Learning for Model Adaptability in Internet of Things4 Feb 2026
- 2025SAMix: Calibrated and Accurate Continual Learning via Sphere-Adaptive Mixup and Neural Collapse17 Oct 2025
- 2025Global Pre-fixing, Local Adjusting: A Simple yet Effective Contrastive Strategy for Continual Learning18 Sep 2025
- 2025Empirical Evidences for the Effects of Feature Diversity in Open Set Recognition and Continual Learning18 Aug 2025
- 2025Prototype Augmented Hypernetworks for Continual Learning12 May 2025
- 2025Sample Compression for Self Certified Continual Learning13 Mar 2025
- 2024Memory-efficient Continual Learning with Neural Collapse Contrastive3 Dec 2024
- 2024Parameter-Efficient Fine-Tuning for Continual Learning: A Neural Tangent Kernel Perspective24 Jul 2024