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dc.contributor.authorKurz, Jason A.en_NZ
dc.contributor.authorSeman, Matthew G.en_NZ
dc.contributor.authorKhan, Taufiquaren_NZ
dc.contributor.authorBowman, Brett A.en_NZ
dc.contributor.authorOian, Chad A.en_NZ
dc.date.accessioned2023-09-12T03:15:59Z
dc.date.available2023-09-12T03:15:59Z
dc.date.issued2023-04-03en_NZ
dc.identifier.urihttps://hdl.handle.net/10289/16022
dc.description.abstractThis document outlines various machine learning approaches that were taken in an effort to surrogate numerical models Python Ablation Code 1-Dimension (PAC1D) and Scalable Effects Simulation Environment (SESE), with the ultimate objective of discovering the most efficient method for approximating SESE with sparse data utilization. The methods explored include; physics-informed neural networks, deep Galerkin method, deep mixed residual methods, operator network, deep operator network, Fourier neural operator, physics-informed Fourier neural operator, and physics-informed kernel neural operator. Many of the methods showed strengths and weaknesses in their performance, with the physics-informed kernel neural operator showing the most potential for approximating SESE’s behavior.
dc.format.mimetypeapplication/pdf
dc.language.isoen
dc.publisherU.S. Air Force Research Laboratoryen_NZ
dc.rights© 2023 The Authors.
dc.titleMachine Learning for PAC1D and SESEen_NZ
dc.typeReport
uow.relation.seriesAFRL-RH-FS-TM-2023-0003
dc.relation.isPartOfMachine Learning for PAC1D and SESEen_NZ
pubs.confidentialfalseen_NZ
pubs.elements-id328111
pubs.place-of-publication711th Human Performance Wing, Airman Systems Directorate, Bioeffects Division, Optical Radiation Bioeffects Branchen_NZ


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