Proton beam characterization in the experimental room of the Trento Proton Therapy facility
F Tommasino, M Rovituso, S Fabiano, S Piffer… - Nuclear Instruments and …, 2017 - Elsevier
F Tommasino, M Rovituso, S Fabiano, S Piffer, C Manea, S Lorentini, S Lanzone, Z Wang…
Nuclear Instruments and Methods in Physics Research Section A: Accelerators …, 2017•ElsevierAs proton therapy is becoming an established treatment methodology for cancer patients,
the number of proton centres is gradually growing worldwide. The economical effort for
building these facilities is motivated by the clinical aspects, but might be also supported by
the potential relevance for the research community. Experiments with high-energy protons
are needed not only for medical physics applications, but represent also an essential part of
activities dedicated to detector development, space research, radiation hardness tests, as …
the number of proton centres is gradually growing worldwide. The economical effort for
building these facilities is motivated by the clinical aspects, but might be also supported by
the potential relevance for the research community. Experiments with high-energy protons
are needed not only for medical physics applications, but represent also an essential part of
activities dedicated to detector development, space research, radiation hardness tests, as …
Abstract
As proton therapy is becoming an established treatment methodology for cancer patients, the number of proton centres is gradually growing worldwide. The economical effort for building these facilities is motivated by the clinical aspects, but might be also supported by the potential relevance for the research community. Experiments with high-energy protons are needed not only for medical physics applications, but represent also an essential part of activities dedicated to detector development, space research, radiation hardness tests, as well as of fundamental research in nuclear and particle physics.
Here we present the characterization of the beam line installed in the experimental room of the Trento Proton Therapy Centre (Italy). Measurements of beam spot size and envelope, range verification and proton flux were performed in the energy range between 70 and 228 MeV. Methods for reducing the proton flux from typical treatments values of 106–109 particles/s down to 101–105 particles/s were also investigated. These data confirm that a proton beam produced in a clinical centre build by a commercial company can be exploited for a broad spectrum of experimental activities. The results presented here will be used as a reference for future experiments.
Elsevier
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