A piecewise asymmetric variance penalty added to EVCL yields marginal accuracy gains on MNIST-family benchmarks, with several ties and no reported uncertainty.
Practical Deep Learning with Bayesian Principles
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abstract
Bayesian methods promise to fix many shortcomings of deep learning, but they are impractical and rarely match the performance of standard methods, let alone improve them. In this paper, we demonstrate practical training of deep networks with natural-gradient variational inference. By applying techniques such as batch normalisation, data augmentation, and distributed training, we achieve similar performance in about the same number of epochs as the Adam optimiser, even on large datasets such as ImageNet. Importantly, the benefits of Bayesian principles are preserved: predictive probabilities are well-calibrated, uncertainties on out-of-distribution data are improved, and continual-learning performance is boosted. This work enables practical deep learning while preserving benefits of Bayesian principles. A PyTorch implementation is available as a plug-and-play optimiser.
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Adaptive Variance-Penalized Continual Learning with Fisher Regularization
A piecewise asymmetric variance penalty added to EVCL yields marginal accuracy gains on MNIST-family benchmarks, with several ties and no reported uncertainty.