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The Next Generation of MeV Energy X-ray Sources for use in the Inspection of Additively Manufactured Parts for Industry

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arxiv 2404.09270 v1 pith:K7PX3QTN submitted 2024-04-14 physics.acc-ph physics.plasm-ph

C. Thornton , S. Karimi , S. Glenn , W. D. Brown , N. Draganic , M. Skeate , M. Ferrucci , Q. Chen
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R. Jacob K. Nakamura T. Ostermayr J. van Tilborg C. Armstrong O. J. Finlay N. Turner S. Glanvill H. Martz C. Geddes
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classification physics.acc-phphysics.plasm-ph
keywords additivelymanufacturedx-raycomptondrivenenergyimageinverse
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For the first time, we demonstrate the application of an inverse Compton scattering X-ray Source, driven by a laser-plasma accelerator, to image an additively manufactured component. X-rays with a mean energy of 380 keV were produced and used to image an additively manufactured part made of an Inconel (Nickel 718) alloy. Because inverse Compton scattering driven by laser-plasma acceleration produces high-energy X-rays while maintaining a focal spot size on the order of a micron, the source can provide several benefits over conventional X-ray production methods, particularly when imaging superalloy parts, with the potential to revolutionise what can be inspected.

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  1. Machine learning methods for spectroscopic information recovery under ultrafast photon pileup

    physics.ins-det 2026-08 conditional novelty 5.0 of 10

    Neural networks trained on 3D energy deposition maps recover signal fraction and photon multiplicity from simulated ultrafast pileup, outperforming depth-ratio baselines.

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