On structured SNOMED-derived memorization tasks, small transformers memorize most when embedding size is large and depth is kept low.
The Disharmony between BN and ReLU Causes Gradient Explosion, but is Offset by the Correlation between Activations
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abstract
Deep neural networks, which employ batch normalization and ReLU-like activation functions, suffer from instability in the early stages of training due to the high gradient induced by temporal gradient explosion. In this study, we analyze the occurrence and mitigation of gradient explosion both theoretically and empirically, and discover that the correlation between activations plays a key role in preventing the gradient explosion from persisting throughout the training. Finally, based on our observations, we propose an improved adaptive learning rate algorithm to effectively control the training instability.
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cs.CL 1years
2025 1verdicts
CONDITIONAL 1representative citing papers
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Capacity Matters: a Proof-of-Concept for Transformer Memorization on Real-World Data
On structured SNOMED-derived memorization tasks, small transformers memorize most when embedding size is large and depth is kept low.