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Linac_Gen: integrating machine learning and particle-in-cell methods for enhanced beam dynamics at Fermilab

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arxiv 2406.16630 v1 pith:DLJQFG32 submitted 2024-06-24 physics.acc-ph

classification physics.acc-ph
keywords linacbeamdynamicsmethodsacceleratoralgorithmsfermilabadvancement
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Here, we introduce Linac_Gen, a tool developed at Fermilab, which combines machine learning algorithms with Particle-in-Cell methods to advance beam dynamics in linacs. Linac_Gen employs techniques such as Random Forest, Genetic Algorithms, Support Vector Machines, and Neural Networks, achieving a tenfold increase in speed for phase-space matching in linacs over traditional methods through the use of genetic algorithms. Crucially, Linac_Gen's adept handling of 3D field maps elevates the precision and realism in simulating beam instabilities and resonances, marking a key advancement in the field. Benchmarked against established codes, Linac_Gen demonstrates not only improved efficiency and precision in beam dynamics studies but also in the design and optimization of linac systems, as evidenced in its application to Fermilab's PIP-II linac project. This work represents a notable advancement in accelerator physics, marrying ML with PIC methods to set new standards for efficiency and accuracy in accelerator design and research. Linac_Gen exemplifies a novel approach in accelerator technology, offering substantial improvements in both theoretical and practical aspects of beam dynamics.

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  1. A Supervised Machine Learning Framework for Multipactor Breakdown Prediction in High-Power Radio Frequency Devices and Accelerator Components: A Case Study in Planar Geometry

    physics.acc-ph 2025-07 conditional novelty 6.0 of 10

    Random Forest and Extra Trees trained on PIC data predict planar multipactor susceptibility maps about as well as a Monte Carlo benchmark, while neural networks generalize more poorly to unseen materials.

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