Advanced Modeling of Conventional Particle Accelerators

Vay, J.-L.; Formenti, A.; Garten, M.; Huebl, A.; Lehe, R.; Mitchell, C.; Qiang, J.; Sandberg, R.; Shapoval, O.; Zoni, E.; Stern, E.; St. John, J. M.; Ali, S.; Edelen, A.; Roussel, R.; Mori, W.; Alves, P.; Dalichaouch, T.; Tsung, F.; Almgren, A.; Gu, J.; Myers, A.; Wu, J.; Zhang, W.; Larson, J.; Hudson, S.; Podhorszki, N.

doi:10.2172/2204984

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DOE OSTI · 2204984

Advanced Modeling of Conventional Particle Accelerators

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Abstract

SciDAC-5 goals: Deliver particle accelerator and beam simulations tools that go beyond the current state of the art, up to the realization of virtual twins of particle accelerators, enabling design and modeling of particle accelerators at unprecedented speed, levels of accuracy, and realism; and apply these tools to key accelerator facilities relevant to DOE HEP (such as PIP-II/DUNE, FACET-II).

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43 PARTICLE ACCELERATORS 72 PHYSICS OF ELEMENTARY PARTICLES AND FIELDS

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Vay, J.-L., Formenti, A., Garten, M., Huebl, A., Lehe, R., Mitchell, C., Qiang, J., Sandberg, R., Shapoval, O., Zoni, E., Stern, E., St. John, J. M., Ali, S., Edelen, A., Roussel, R., Mori, W., Alves, P., Dalichaouch, T., Tsung, F., Almgren, A., Gu, J., Myers, A., Wu, J., Zhang, W., Larson, J., Hudson, S., Podhorszki, N.. 2023-11-06. Advanced Modeling of Conventional Particle Accelerators. https://doi.org/10.2172/2204984

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