Integrating Bayesian neural networks into differentiable hybrid PIML architectures yields uncertainty estimates with accuracy slightly worse than or equal to deterministic baselines.
Uncertainty Decomposition in Bayesian Neural Networks with Latent Variables
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abstract
Bayesian neural networks (BNNs) with latent variables are probabilistic models which can automatically identify complex stochastic patterns in the data. We describe and study in these models a decomposition of predictive uncertainty into its epistemic and aleatoric components. First, we show how such a decomposition arises naturally in a Bayesian active learning scenario by following an information theoretic approach. Second, we use a similar decomposition to develop a novel risk sensitive objective for safe reinforcement learning (RL). This objective minimizes the effect of model bias in environments whose stochastic dynamics are described by BNNs with latent variables. Our experiments illustrate the usefulness of the resulting decomposition in active learning and safe RL settings.
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Exploring Efficient Quantification of Modeling Uncertainties with Differentiable Physics-Informed Machine Learning Architectures
Integrating Bayesian neural networks into differentiable hybrid PIML architectures yields uncertainty estimates with accuracy slightly worse than or equal to deterministic baselines.