mlsanityData to 14 Oct 2026

Time Matters in Regularizing Deep Networks: Weight Decay and Data Augmentation Affect Early Learning Dynamics, Matter Little Near Convergence

arXiv 1905.13277 ↗First posted 30 May 2019cs.LG cs.AI stat.MLcited by 54

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Abstract (arXiv)

Regularization is typically understood as improving generalization by altering the landscape of local extrema to which the model eventually converges. Deep neural networks (DNNs), however, challenge this view: We show that removing regularization after an initial transient period has little effect on generalization, even if the final loss landscape is the same as if there had been no regularization. In some cases, generalization even improves after interrupting regularization. Conversely, if regularization is applied only after the initial transient, it has no effect on the final solution, whose generalization gap is as bad as if regularization never happened. This suggests that what matters for training deep networks is not just whether or how, but when to regularize. The phenomena we observe are manifest in different datasets (CIFAR-10, CIFAR-100), different architectures (ResNet-18, All-CNN), different regularization methods (weight decay, data augmentation), different learning rate schedules (exponential, piece-wise constant). They collectively suggest that there is a ``critical period'' for regularizing deep networks that is decisive of the final performance. More analysis should, therefore, focus on the transient rather than asymptotic behavior of learning.

Key facts. Cited by 54 papers in the map (data through 14 Oct 2026). First posted on arXiv 30 May 2019.

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Citing papers per year: 2021: 13; 2022: 14; 2023: 12; 2024: 5; 2025: 5; 2026: 5.

54 papers.

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  12. 2023Tangent Transformers for Composition, Privacy and Removalcited by 13
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  11. 2021Intraclass clustering: an implicit learning ability that regularizes DNNscited by 6
  12. 2021One-Cycle Pruning: Pruning ConvNets Under a Tight Training Budgetcited by 6
  13. 2022General Cyclical Training of Neural Networkscited by 5
  14. 2022Fast Benchmarking of Accuracy vs. Training Time with Cyclic Learning Ratescited by 5
  15. 2023On the special role of class-selective neurons in early trainingcited by 5
  16. 2022Data-Efficient Augmentation for Training Neural Networkscited by 4
  17. 2021Efficient Scheduling of Data Augmentation for Deep Reinforcement Learningcited by 3
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  19. 2023DOMINO++: Domain-aware Loss Regularization for Deep Learning Generalizabilitycited by 3
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  21. 2021Weight Rescaling: Effective and Robust Regularization for Deep Neural Networks with Batch Normalizationcited by 1
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  23. 2023Automatic Data Augmentation Learning using Bilevel Optimization for Histopathological Imagescited by 1
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  26. 2024Better Schedules for Low Precision Training of Deep Neural Networkscited by 1
  27. 2024Early Period of Training Impacts Adaptation for Out-of-Distribution Generalization: An Empirical Studycited by 1
  28. 2025Carpe Diem: Critical Learning Period-Aware Contract-Based Incentives for Federated Learningcited by 1
  29. 2025One Period to Rule Them All: Identifying Critical Learning Periods in Deep Networkscited by 1
  30. 2026Critical Windows of Complexity Control: When Transformers Decide to Reason or Memorizecited by 1
  31. 2026Does Weight Decay Enhance Training Stability?cited by 1
  32. 2026Unveiling Multi-regime Patterns in SciML: Distinct Failure Modes and Regime-specific Optimizationcited by 1
  33. 2026Mapping the Emergence of Regularization-Driven Dynamics in Grokkingcited by 1
  34. 2021Advances in Electron Microscopy with Deep Learningcited by 0
  35. 2021Training With Data Dependent Dynamic Learning Ratescited by 0
  36. 2022PRUNIX: Non-Ideality Aware Convolutional Neural Network Pruning for Memristive Acceleratorscited by 0
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  38. 2022Efficient Scheduling of Data Augmentation for Deep Reinforcement Learningcited by 0

50 most cited of 54 All 54 (JSON)