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Monitoring Proton Therapy Through in-Beam PET: An Experimental Phantom Study

In this paper, we investigate the use of a positron emission tomography (PET) system to monitor the proton therapy. The monitoring procedure is based on the comparison between the β+ activity generated in the irradiated volume during the treatment, with the β+ activity distribution obtained with Mon...

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Detalles Bibliográficos
Autores principales: Topi, A, Muraro, S, Battistoni, G, Belcari, N, Bisogni, M G, Camarlinghi, N, Del Guerra, A, Ferrari, A, Kopec, R, Kraan, A C, Krzempek, D, Krzempek, K, Morrocchi, M, Olko, P, Sala, P, Sportelli, G, Rosso, V
Lenguaje:eng
Publicado: 2020
Materias:
Acceso en línea:https://dx.doi.org/10.1109/trpms.2019.2924036
http://cds.cern.ch/record/2759043
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author Topi, A
Muraro, S
Battistoni, G
Belcari, N
Bisogni, M G
Camarlinghi, N
Del Guerra, A
Ferrari, A
Kopec, R
Kraan, A C
Krzempek, D
Krzempek, K
Morrocchi, M
Olko, P
Sala, P
Sportelli, G
Rosso, V
author_facet Topi, A
Muraro, S
Battistoni, G
Belcari, N
Bisogni, M G
Camarlinghi, N
Del Guerra, A
Ferrari, A
Kopec, R
Kraan, A C
Krzempek, D
Krzempek, K
Morrocchi, M
Olko, P
Sala, P
Sportelli, G
Rosso, V
author_sort Topi, A
collection CERN
description In this paper, we investigate the use of a positron emission tomography (PET) system to monitor the proton therapy. The monitoring procedure is based on the comparison between the β+ activity generated in the irradiated volume during the treatment, with the β+ activity distribution obtained with Monte Carlo (MC) simulation. The dedicated PET system is a dual head detection system; each head is composed of nine scintillating LYSO crystal matrices read out independently with a custom modularized acquisition system. Our experimental data were acquired at the Cyclotron Centre Bronowice, Institute Nuclear Physics in Kraków, Poland, and were simulated with the FLUKA MC code. Homogeneous and heterogeneous plastic phantoms were irradiated with monoenergetic 130 MeV protons. The capabilities of our PET system to distinguish different irradiated materials were investigated, and the proton pencil-beams were used as probes. Our focus was to analyze the activity width and the total activity event number in several cases. Irradiations were performed using either single pencil-beams one at a time, or two pencil-beams during the same data taking. The comparison of 1-D activity profile for experimental data and MC simulation were always in good agreement showing that, the treatment quality assessment in proton therapy can be based on β+ activity measurements.
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institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2020
record_format invenio
spelling oai-inspirehep.net-18505062021-05-11T13:18:27Zdoi:10.1109/trpms.2019.2924036http://cds.cern.ch/record/2759043engTopi, AMuraro, SBattistoni, GBelcari, NBisogni, M GCamarlinghi, NDel Guerra, AFerrari, AKopec, RKraan, A CKrzempek, DKrzempek, KMorrocchi, MOlko, PSala, PSportelli, GRosso, VMonitoring Proton Therapy Through in-Beam PET: An Experimental Phantom StudyOtherNuclear Physics - ExperimentIn this paper, we investigate the use of a positron emission tomography (PET) system to monitor the proton therapy. The monitoring procedure is based on the comparison between the β+ activity generated in the irradiated volume during the treatment, with the β+ activity distribution obtained with Monte Carlo (MC) simulation. The dedicated PET system is a dual head detection system; each head is composed of nine scintillating LYSO crystal matrices read out independently with a custom modularized acquisition system. Our experimental data were acquired at the Cyclotron Centre Bronowice, Institute Nuclear Physics in Kraków, Poland, and were simulated with the FLUKA MC code. Homogeneous and heterogeneous plastic phantoms were irradiated with monoenergetic 130 MeV protons. The capabilities of our PET system to distinguish different irradiated materials were investigated, and the proton pencil-beams were used as probes. Our focus was to analyze the activity width and the total activity event number in several cases. Irradiations were performed using either single pencil-beams one at a time, or two pencil-beams during the same data taking. The comparison of 1-D activity profile for experimental data and MC simulation were always in good agreement showing that, the treatment quality assessment in proton therapy can be based on β+ activity measurements.oai:inspirehep.net:18505062020
spellingShingle Other
Nuclear Physics - Experiment
Topi, A
Muraro, S
Battistoni, G
Belcari, N
Bisogni, M G
Camarlinghi, N
Del Guerra, A
Ferrari, A
Kopec, R
Kraan, A C
Krzempek, D
Krzempek, K
Morrocchi, M
Olko, P
Sala, P
Sportelli, G
Rosso, V
Monitoring Proton Therapy Through in-Beam PET: An Experimental Phantom Study
title Monitoring Proton Therapy Through in-Beam PET: An Experimental Phantom Study
title_full Monitoring Proton Therapy Through in-Beam PET: An Experimental Phantom Study
title_fullStr Monitoring Proton Therapy Through in-Beam PET: An Experimental Phantom Study
title_full_unstemmed Monitoring Proton Therapy Through in-Beam PET: An Experimental Phantom Study
title_short Monitoring Proton Therapy Through in-Beam PET: An Experimental Phantom Study
title_sort monitoring proton therapy through in-beam pet: an experimental phantom study
topic Other
Nuclear Physics - Experiment
url https://dx.doi.org/10.1109/trpms.2019.2924036
http://cds.cern.ch/record/2759043
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