Physics in Medicine and Biology · 2004 · 80 citations · 19 references
MedicineOncologyRadiation OncologyRadiation DosimetryRadiation MeasurementTreatment PlanningExternal Beam DosimetryExternal Beam RadiotherapyPatient-specific DosimetryPhantom DosimetryRadiation Dose MeasurementRadiation TherapyBeam Range VerificationEquivalent Dose DeterminationExternal Beam Radiotherapy Phantom DosimetryHeavy Ion RadiationParticle Beam DosimetryParticle Beam IrradiationRadiation Dose VerificationRange Uncertainty Analysis
It is desirable to reduce range ambiguities in treatment planning for making full use of the major advantage of heavy-ion radiotherapy, that is, good dose localization. A range verification system using positron emitting beams has been developed to verify the ranges in patients directly. The performance of the system was evaluated in beam experiments to confirm the designed properties. It was shown that a 10C beam could be used as a probing beam for range verification when measuring beam properties. Parametric measurements indicated the beam size and the momentum acceptance and the target volume did not influence range verification significantly. It was found that the range could be measured within an analysis uncertainty of +/-0.3 mm under the condition of 2.7 x 10(5) particle irradiation, corresponding to a peak dose of 96 mGyE (gray-equivalent dose), in a 150 mm diameter spherical polymethyl methacrylate phantom which simulated a human head.
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The Synergistic Effects of Different Radiations
Marco Zaider, H. H. Rossi · Radiation Research · 1980 · 164 citations
Washout measurement of radioisotope implanted by radioactive beams in the rabbit
Hideyuki Mizuno, T. Tomitani, M. Kanazawa et al. · Physics in Medicine and Biology · 2003 · 113 citations · Full text