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Consultants' Meeting on Machine Learning for Nuclear Data


8-11 December 2020, IAEA, Vienna (virtual meeting)



Purpose of the Meeting

The purpose of this meeting is to get an overview of work already undertaken at the intersection of machine learning and nuclear physics, to explore to which extent methods of machine learning and statistics (e.g., outlier detection, quality assurance, inference of typical shapes of cross section curves, uncertainty quantification) can help us to get a better understanding of nuclear data (e.g., in databases, by meta-analyses of various experiments) and identify potential directions of development.

Agenda

The agenda is available here.

Summary Report

The summary report INDC(NDS)-0823 is available.

Presentations

#AuthorTitleLink
1G. SchnabelIntroduction to Consultancy Meeting on Machine Learning for Nuclear Datapptx
2A. GrayBayesian Calibration with Transitional MCMCpdf | pptx
3A. GrayWhen marginals or dependencies are unknown: computing with imprecise probabilitiespptx
4D. NeudeckerValidating Nuclear Data Augmented by Random Forestspdf
5D. NeudeckerHighlighting Physics Reasons for Discrepancies in Differential Experimental Data via Elastic Net and Random Forestpdf
6M. GrosskopfUsing Machine Learning to Explore, Diagnose, and Correct for Bias in Nuclear Datapdf
7F. CalivaAnomaly detection in nuclear reactors using deep learningpdf
8F. BachocGaussian processes under inequality constraintspdf
9T. KinMachine learning in radiation metrology: Neutron spectrum unfolding and Gamma-ray spectrometrypptx
10E. AlhassanTowards the inclusion of model uncertainties in nuclear data evaluationspdf
11H. SjöstrandGaussian Processes for treatment of model defects in nuclear data evaluationspptx
12V. SobesAI/ML-based evaluation in the resonance regionpdf
13G. PleissGPyTorch: Gaussian Processes for Modern Machine Learning Systemspdf
14H. IwamotoNuclear data generation using Gaussian process regression and its related topicspptx
15G. SchnabelUninformative, sparse, smooth: GP priors on second derivatives of cross sectionspdf
16N. DwivediTrees, Forests and Islands: A Machine learning approach to Nuclear Physicspptx
17D. BrownMachine Learning for Neutron Resonance Evaluationspdf
18A. LovellProbabilistic Machine Learning for Uncertainty Quantificationpdf
19D. SiefmanConstrained Bayesian Optimization of Criticality Experiments at LLNLpptx
20G. SchnabelOpening of final day of CM on ML for NDpptx

 Last Updated: 01/06/2022 09:22:04