A scintillation-fiber cube spectrometer measures proton energies from 6-93 MeV with 0.6% uncertainty at 80 MeV and 0.5 mm spatial resolution, demonstrated on complex beams generated with an energy degrader.
Proton therapy – Present and future.Advanced Drug Delivery Reviews109 (2017) 26–44
4 Pith papers cite this work, alongside 571 external citations. Polarity classification is still indexing.
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A clinical synchrotron can extract proton beams 35 MeV apart in one cycle, in either direction, opening a path to combine proton imaging with therapy.
A review of large energy acceptance beam delivery systems for proton therapy, arguing they could eliminate the energy layer switching bottleneck and enable ultra-fast, higher-quality treatments.
Upgrades beam model with double-Gaussian distributions for spatial and angular particle distributions to improve phase space accuracy in a GPU-based proton therapy Monte Carlo engine.
citing papers explorer
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A Spatial-Resolved Proton Energy Spectrometer Based on a Scintillation-Fiber Cube
A scintillation-fiber cube spectrometer measures proton energies from 6-93 MeV with 0.6% uncertainty at 80 MeV and 0.5 mm spatial resolution, demonstrated on complex beams generated with an energy degrader.
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Dual-energy extraction for proton therapy and imaging: validation on a clinical synchrotron-based facility
A clinical synchrotron can extract proton beams 35 MeV apart in one cycle, in either direction, opening a path to combine proton imaging with therapy.
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Toward Ultra-fast Treatments: Large Energy Acceptance Beam Delivery Systems and Opportunities for Proton Beam Therapy
A review of large energy acceptance beam delivery systems for proton therapy, arguing they could eliminate the energy layer switching bottleneck and enable ultra-fast, higher-quality treatments.
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Beam modelling of Hitachi PROBEAT proton therapy system for a GPU-based Fast Monte Carlo dose engine
Upgrades beam model with double-Gaussian distributions for spatial and angular particle distributions to improve phase space accuracy in a GPU-based proton therapy Monte Carlo engine.