Information-Theoretic Generalization Bounds
Overview
These bounds connect the training–test gap to information shared between a sample and a learned model, using mutual information, conditional mutual information, max-information, relative entropy, and rate-distortion; privacy and PAC-Bayes provide related approaches. Common techniques include supersample and selector arguments, entropy-flow and stability analyses, concentration, and algorithm-specific noise or compression, with applications to SGD, Markov learners, sequential decisions, generative models, and language-model post-training. Recent work considers settings where data dependence interacts with sequential data, continual learning, augmentation, sparse attention, or communication limits in expert routing. A central challenge is making bounds both informative and broadly applicable: general information bounds can be loose, while sharper results often require assumptions about losses, tails, mixing, variance, or algorithm structure, and information measures do not always track actual generalization.
Latest papers
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