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Uncertainty Quantification-Enabled Inversion of Nuclear Euclidean Responses
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Nuclear quantum many-body methods rely on integral transform techniques to infer properties of electroweak response functions from ground-state expectation values. Retrieving the energy dependence of these responses is highly non-trivial, especially for quantum Monte Carlo methods, as it requires inverting the Laplace transform -- a notoriously ill-posed problem. In this work, we propose an artificial neural network architecture suitable for accurate response function reconstruction with precise estimation of the uncertainty of the inversion. We demonstrate the capabilities of this new architecture benchmarking it against Maximum Entropy and previously developed neural network methods designed for a similar task, paying particular attention to its robustness against increasing noise in the input Euclidean responses.
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Inference of response functions with the help of machine learning algorithms
A neural network trained on skewed-Gaussian response functions produces Chebyshev kernel coefficients that reconstruct response functions more accurately than the Gaussian integral transform when only a small number o...
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