Neural Network Generalization

Overview

The field studies how neural networks move beyond fitting their training examples, including when overparameterized models can memorize data yet still perform well on new examples or shifted distributions. Theoretical approaches use Rademacher complexity, PAC-Bayes bounds, algorithmic stability, kernel and mean-field analyses, and high-dimensional statistics to relate model structure and training to test error. Empirical work examines implicit regularization from optimizers and architectures, representation learning, double descent, grokking, and robustness across settings such as images, language, graphs, and scientific models. A central open tension is that bounds and measures such as flatness do not reliably predict performance in every regime, which depends strongly on data structure, learned features, and distribution shift.

Latest papers

CardsList

311 papers35 papers in the last four weeks, up 35% on the four weeks before. 0.2% of all new papers.

  1. Understanding the geometry of deep learning with decision boundary volume

    Mar 16, 2026Matthew Burfitt, Jacek Brodzki, Pawel DłotkoDecision Boundary AnalysisNeural Network Generalization

  2. Ternary Gamma Semirings: From Neural Implementation to Categorical Foundations

    Mar 15, 2026Ruoqi SunNeural Network GeneralizationCompositional Representation Learning

  3. On Interpolation Formulas Describing Neural Network Generalization

    Mar 14, 2026Jin Guo, Roy Y. He, Jean-Michel MorelNeural Network GeneralizationNeural Tangent Kernel

  4. Preventing overfitting in deep learning using differential privacy

    Mar 12, 2026Alizishaan Anwar Hussein KhatriNeural Network GeneralizationDifferential Privacy

  5. GPrune-LLM: Generalization-Aware Structured Pruning for Large Language Models

    Mar 12, 2026Xiaoyun Liu, Divya Saxena, Jiannong Cao +3LLM PruningStructured Pruning

  6. Upper Generalization Bounds for Neural Oscillators

    Mar 10, 2026Zifeng Huang, Konstantin M. Zuev, Yong Xia +1Generalization BoundsNeural Network Generalization

  7. An accurate flatness measure to estimate the generalization performance of CNN models

    Mar 9, 2026Rahman Taleghani, Maryam Mohammadi, Francesco MarchettiNeural Network GeneralizationConvolutional Neural Networks

  8. Combining Adam and its Inverse Counterpart to Enhance Generalization of Deep Learning Optimizers

    Mar 7, 2026Tao Shi, Liangming Chen, Long Jin +1Neural Network OptimizationAdaptive Gradient Methods

  9. The Norm-Separation Delay Law of Grokking: A First-Principles Theory of Delayed Generalization

    Mar 5, 2026Truong Xuan Khanh, Truong Quynh Hoa, Luu Duc Trung +1GrokkingNeural Network Generalization

  10. Asymptotic Behavior of Multi--Task Learning: Implicit Regularization and Double Descent Effects

    Mar 5, 2026Ayed M. Alrashdi, Oussama Dhifallah, Houssem SifaouDouble DescentNeural Network Generalization

  11. Why the Brain Consolidates: Predictive Forgetting for Optimal Generalisation

    Mar 5, 2026Zafeirios Fountas, Adnan Oomerjee, Haitham Bou-Ammar +2Memory ConsolidationNeural Network Generalization

  12. Biased Generalization in Diffusion Models

    Mar 3, 2026Jerome Garnier-Brun, Luca Biggio, Davide Beltrame +2Neural Network GeneralizationDiffusion Models

  13. Guiding Sparse Neural Networks with Neurobiological Principles to Elicit Biologically Plausible Representations

    Mar 3, 2026Patrick Inoue, Florian Röhrbein, Andreas KnoblauchBiologically Plausible LearningSparse Neural Networks

  14. Joint Training Across Multiple Activation Sparsity Regimes

    Mar 3, 2026Haotian WangNeural Network GeneralizationActivation Sparsity

  15. HomeAdam: Adam and AdamW Algorithms Sometimes Go Home to Obtain Better Provable Generalization

    Mar 3, 2026Feihu Huang, Guanyi Zhang, Songcan ChenAdaptive Gradient MethodsNeural Network Generalization

  16. Diagnosing Generalization Failures from Representational Geometry Markers

    Mar 2, 2026Chi-Ning Chou, Artem Kirsanov, Yao-Yuan Yang +1Neural Network GeneralizationOOD Generalization

  17. One Operator to Rule Them All? On Boundary-Indexed Operator Families in Neural PDE Solvers

    Mar 2, 2026Lennon J. ShikhmanPDE Operator LearningNeural Operators

  18. To Use or not to Use Muon: How Simplicity Bias in Optimizers Matters

    Feb 28, 2026Sara Dragutinović, Yedi Zhang, Rajesh RanganathNeural Network GeneralizationMuon Optimizer

  19. Improving Full Waveform Inversion in Large Model Era

    Feb 27, 2026Yinan Feng, Peng Jin, Yuzhe Guo +2Inverse ProblemsOOD Generalization

  20. NNiT: Width-Agnostic Neural Network Generation with Structurally Aligned Weight Spaces

    Feb 26, 2026Jiwoo Kim, Swarajh Mehta, Hao-Lun Hsu +3Diffusion TransformerNeural Network Generalization

  21. Takeuchi's Information Criteria as Generalization Measures for DNNs Close to NTK Regime

    Feb 26, 2026Hiroki Naganuma, Taiji Suzuki, Rio Yokota +3Neural Network GeneralizationModel Selection

  22. The Error of Deep Operator Networks Is the Sum of Its Parts: Branch-Trunk and Mode Error Decompositions

    Feb 25, 2026Alexander Heinlein, Johannes TarazDeep Operator NetworksNeural Operators

  23. Neural network optimization strategies and the topography of the loss landscape

    Feb 24, 2026Jianneng Yu, Alexandre V. MorozovNeural Network OptimizationStochastic Gradient Descent

  24. On the Generalization Behavior of Deep Residual Networks From a Dynamical System Perspective

    Feb 24, 2026Jinshu Huang, Mingfei Sun, Chunlin WuNeural Network GeneralizationGeneralization Bounds

  25. Understanding the Role of Rehearsal Scale in Continual Learning under Varying Model Capacities

    Feb 24, 2026JinLi He, Liang Bai, Xian YangContinual LearningReplay-Based Continual Learning

  26. A Theory of How Pretraining Shapes Inductive Bias in Fine-Tuning

    Feb 23, 2026Nicolas Anguita, Francesco Locatello, Andrew M. Saxe +4Neural Network GeneralizationRepresentation Learning