Monte Carlo/Dynamic Code: Performant and Portable

Monte Carlo/Dynamic Code: Performant and Portable
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Monte CarloDynamic Code: Performant and Portable High-Performance Computing at Scale via Python and Numba Joanna Piper Morgan Kyle E. Niemeyer The Center for Exascale Monte Carlo Neutron Transport (CEMeNT) at Oregon State University

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Monte Carlo/Dynamic Code: Performant and Portable High-Performance Computing at Scale via Python and Numba Joanna Piper Morgan* & Kyle E. Niemeyer
The Center for Exascale Monte Carlo Neutron Transport (CEMeNT) † at Oregon State University
*morgajoa@oregonstate.edu
†https://cement-psaap.github.io/ 23rd Conference on Scientific Computing in Python (SciPy 2024)
Tacoma, WA, USA
Wednesday, July 9th, 2024 This work was supported by the Center for Exascale Monte Carlo Neutron Transport (CEMeNT) a PSAAP-III project funded by the Department of Energy, grant number: DE NA003967.<br>
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Advancing the state of the art of Monte Carlo neutronics calculations particularly for solving time-dependent transport problems on exascale computer architectures in a sustainable open-source community 2<br>
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Dragon Burst Experiment 3 Kimpland, Robert, et al. "Critical assemblies: Dragon burst assembly and solution assemblies." Nuclear Technology207.sup1 (2021) Slides courtesy of Ilham Variansyah<br>