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About this paper
Akrit Mudvari, Antero Vainio, Iason Ofeidis, Sasu Tarkoma, Leandros Tassiulas
Researchers from Yale University and the University of Helsinki developed an adaptive compression-aware split learning framework that dynamically adjusts compression levels for deep learning models at the wireless edge. This framework, using `deprune` and `prune` methods, significantly reduces network usage during distributed training and accelerates the generation of models for efficient inference.
Key insights
- A novel loss function allows parallel optimization of model accuracy and communication budget through a single learnable filter parameter `f`, enabling fine-grained control over compression.
- Dynamic adjustment of the communication budget during distributed training, coupled with temporary learning rate boosts, enables efficient distributed training with reduced network load and improved end-to-end latency.
- Transfer learning from a higher-fidelity, fully trained model allows for rapid generation of lower-fidelity (higher compression) models suitable for diverse inference scenarios, avoiding costly retraining from scratch.
Summary by alphaXiv.
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