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About this paper
Md Yousuf Harun, Christopher Kanan
Researchers from Rochester Institute of Technology and the University of Rochester introduced Stability Gap Mitigation (SGM), a method that addresses the temporary performance drop on old tasks (stability gap) during continual learning with large pre-trained deep neural networks. The SGM method achieved 20 times greater stability and a 16.7 times speedup in network updates compared to baseline continual learning and full retraining, respectively, while also maintaining or improving performance on the original pre-training dataset.
Key insights
- The stability gap is primarily caused by large initial loss signals for new classes and excessive network plasticity during updates to pre-trained models.
- Strategically reducing the initial loss via informed output unit initialization and dynamic soft targets, alongside controlled parameter updates via LoRA and OOCF, effectively mitigates the stability gap.
- Continual learning with pre-trained models can maintain or even improve performance on original pre-training datasets while efficiently acquiring new knowledge, offering substantial computational benefits over traditional retraining.
Summary by alphaXiv.
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