Simulation of absorbed dose, in molecular therapy, by means of Monte Carlo method using free software GEANT4: GATE

被引:0
|
作者
Echevarria Torres, Waldo Jose [1 ]
Manso Nobrega, Weiner [2 ]
Gonzalez Gonzalez, Joaquin [3 ]
Fragoso Negrin, Jose Alejandro [4 ]
机构
[1] Univ Cent Las Villas, Santa Clara, Villa Clara, Cuba
[2] Inst Tecnol Aguascalientes, Aguascalientes, Aguascalientes, Mexico
[3] Inst Nacl Oncol & Radiobiol, Havana, La Habana, Cuba
[4] Inst Super Tecnol & Ciencias Aplicadas, Havana, La Habana, Cuba
来源
关键词
radiotherapy; radiation dosage; absorption; radiation; simulation technique; Monte Carlo Method;
D O I
暂无
中图分类号
R5 [内科学];
学科分类号
1002 ; 100201 ;
摘要
Background: there is still no optimal way to determine the dose absorbed by tumors; this lack of knowledge is the reason why the final dose of treatment is unpredictable. For this reason, patients may be receiving doses greater than the minimum required for their correct diagnosis. Objective: to create a source code for an application project of the GATE program in the simulation of absorbed dose in molecular radiotherapy, by Monte Carlo method, for a Giap phantom. Methods: the simulation was carried out by the Montecarlo method from modeling the Giap phantom, using the GATE simulation platform. The results obtained were compared with the information reflected in the bibliography on standardized best practices. Results: a source code implemented in GATE was prepared for the determination of the absorbed dose in molecular radiotherapy. Non-uniform distribution of doses was obtained in a medium with uniform activity and an approximate 2% uncertainty (in correspondence with the values reported in the literature), the results allow to affirm that the dose simulation through the GATE platform is reliable, of little computational expense and highly recommended. Conclusions: it is advisable to use the GATE platform for the simulation of the calculation of the absorbed dose because it is fast, of low computational cost and reliable.
引用
收藏
页码:222 / 231
页数:10
相关论文
共 50 条
  • [31] Dosimetric Comparison of Radiation Therapy and Proton Therapy in Prostate Cancer Using the Monte Carlo Simulation Platform GEANT4
    Ghazi, Ismail
    Sobhy, Zineb
    Krim, Mustapha
    Kaanouch, Othmane
    Tantaoui, Meriem
    Kartouni, Abdelkrim
    Inchaouh, Jamal
    Chakir, Hamid
    Ouaskit, Said
    MOSCOW UNIVERSITY PHYSICS BULLETIN, 2021, 76 (05) : 326 - 332
  • [32] Monte Carlo simulation of laser beams interaction with the human eye using Geant4
    Diogo Tendeiro
    Gonçalo Lopes
    Pedro Vieira
    José Paulo Santos
    BioMedical Engineering OnLine, 13
  • [33] Monte Carlo simulation of laser beams interaction with the human eye using Geant4
    Tendeiro, Diogo
    Lopes, Goncalo
    Vieira, Pedro
    Santos, Jose Paulo
    BIOMEDICAL ENGINEERING ONLINE, 2014, 13
  • [34] Monte Carlo simulation of MOSFET dosimeter for electron backscatter using the GEANT4 code
    Chow, James C. L.
    Leung, Michael K. K.
    MEDICAL PHYSICS, 2008, 35 (06) : 2383 - 2390
  • [35] Monte Carlo Simulation of a Special Phantom with Geant4 Application for Tomography
    Bardane, Adil
    Tajmouaati, Jaouad
    Maghnouj, Abdelmajid
    MOSCOW UNIVERSITY PHYSICS BULLETIN, 2020, 75 (01) : 58 - 62
  • [36] The evaluation of the CUSP scientific performance by a GEANT4 Monte Carlo simulation
    De Cesare, Giovanni
    Fabiani, Sergio
    Campana, Riccardo
    Lombardi, Giovanni
    Del Monte, Ettore
    Costa, Enrico
    Baffo, Ilaria
    Bonomo, Sergio
    Brienza, Daniele
    Centrone, Mauro
    Contini, Gessica
    Cucinella, Giovanni
    Curatolo, Andrea
    De Angelis, Nicolas
    Del Re, Andrea
    Di Cosimo, Sergio
    Di Filippo, Simone
    Di Marco, Alessandro
    Di Persio, Giuseppe
    Donnarumma, Immacolata
    Fanelli, Pierluigi
    Leonetti, Paolo
    Locarini, Alfredo
    Loffredo, Pasqualino
    Minervini, Gabriele
    Modenini, Dario
    Muleri, Fabio
    Natalucci, Silvia
    Negri, Andrea
    Perolli, Massimo
    Rossi, Monia
    Rubini, Alda
    Scalise, Emanuele
    Soffitta, Paolo
    Terraciano, Andrea
    Tortora, Paolo
    Zaccagnino, Emauele
    Zambardi, Alessandro
    SPACE TELESCOPES AND INSTRUMENTATION 2024: ULTRAVIOLET TO GAMMA RAY, PT 1, 2024, 13093
  • [37] A GEANT4 Monte-Carlo simulation code for precision β spectroscopy
    Wauters, F.
    Kraev, I.
    Zakoucky, D.
    Beck, M.
    Golovko, V. V.
    Kozlov, V. Yu.
    Phalet, T.
    Tandecki, M.
    Traykov, E.
    Van Gorp, S.
    Severijns, N.
    NUCLEAR INSTRUMENTS & METHODS IN PHYSICS RESEARCH SECTION A-ACCELERATORS SPECTROMETERS DETECTORS AND ASSOCIATED EQUIPMENT, 2009, 609 (2-3): : 156 - 164
  • [38] Monte Carlo Simulation of a Special Phantom with Geant4 Application for Tomography
    Adil Bardane
    Jaouad Tajmouaati
    Abdelmajid Maghnouj
    Moscow University Physics Bulletin, 2020, 75 : 58 - 62
  • [39] SIMULATION OF THE NEUTRON SPECTRA EVOLUTION WITH GEANT4 MONTE CARLO CODE
    Smolyar, V. P.
    Mileva, A. O.
    Tarasov, V. O.
    Neboha, H. H.
    Rusov, V. D.
    JOURNAL OF PHYSICAL STUDIES, 2021, 25 (02):
  • [40] Cellular Dosimetry Using the Geant4 Monte Carlo Toolkit
    Freudenberg, Robert
    Kotzerke, Jorg
    JOURNAL OF NUCLEAR MEDICINE, 2010, 51 (09) : 1488 - 1489