Advancing Continual Learning: Strategies for Efficient Knowledge Retention

The field of continual learning is witnessing significant advancements aimed at addressing the challenges of catastrophic forgetting and efficient knowledge retention. Recent developments emphasize innovative strategies that balance the stability-plasticity dilemma, enhance knowledge transfer, and optimize computational efficiency. Key approaches include leveraging pre-trained models with task-specific adapters, adaptive prompt learning, and novel architectural strategies that exploit model sparsity and weight sharing. These methods are designed to mitigate catastrophic forgetting, improve model capacity utilization, and reduce computational costs. Notably, advancements in semantic segmentation and class-incremental learning showcase the integration of adaptive prototypes, uncertainty-aware constraints, and balanced gradient sample retrieval to enhance knowledge retention and task performance. Overall, the field is progressing towards more efficient, adaptable, and robust continual learning frameworks.

Sources

Linked Adapters: Linking Past and Future to Present for Effective Continual Learning

SegACIL: Solving the Stability-Plasticity Dilemma in Class-Incremental Semantic Segmentation

PEARL: Input-Agnostic Prompt Enhancement with Negative Feedback Regulation for Class-Incremental Learning

TinySubNets: An efficient and low capacity continual learning strategy

Adapter-Enhanced Semantic Prompting for Continual Learning

Adaptive Prototype Replay for Class Incremental Semantic Segmentation

Balanced Gradient Sample Retrieval for Enhanced Knowledge Retention in Proxy-based Continual Learning

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