Radioactive Beams in Particle Therapy: Past, Present, and Future

被引:30
|
作者
Durante, Marco [1 ,2 ]
Parodi, Katia [3 ]
机构
[1] GSI Helmholtzzentrum Schwerionenforsch, Biophys Dept, Darmstadt, Germany
[2] Tech Univ Darmstadt, Inst Condensed Matter Phys, Darmstadt, Germany
[3] Ludwig Maximilians Univ Munchen, Dept Expt Phys Med Phys, Munich, Germany
关键词
particle therapy; radioactive ion beams; carbon ions; oxygen ions; PET; PROTON THERAPY; ION-BEAM; RANGE VERIFICATION; RADIATION-THERAPY; C-11; BEAM; CANCER; ENERGY; RADIOTHERAPY; SYSTEM; IMPLEMENTATION;
D O I
10.3389/fphy.2020.00326
中图分类号
O4 [物理学];
学科分类号
0702 ;
摘要
Heavy ion therapy can deliver high doses with high precision. However, image guidance is needed to reduce range uncertainty. Radioactive ions are potentially ideal projectiles for radiotherapy because their decay can be used to visualize the beam. Positron-emitting ions that can be visualized with PET imaging were already studied for therapy application during the pilot therapy project at the Lawrence Berkeley Laboratory, and later within the EULIMA EU project, the GSI therapy trial in Germany, MEDICIS at CERN, and at HIMAC in Japan. The results show that radioactive ion beams provide a large improvement in image quality and signal-to-noise ratio compared to stable ions. The main hindrance toward a clinical use of radioactive ions is their challenging production and the low intensities of the beams. New research projects are ongoing in Europe and Japan to assess the advantages of radioactive ion beams for therapy, to develop new detectors, and to build sources of radioactive ions for medical synchrotrons.
引用
收藏
页数:13
相关论文
共 50 条
  • [1] Particle therapy: past, present, and future
    Imoto, Issei
    [J]. ANNALS OF ONCOLOGY, 2022, 33 : S415 - S415
  • [2] NCI SUPPORT FOR PARTICLE THERAPY: PAST, PRESENT, FUTURE
    Deye, James A.
    [J]. HEALTH PHYSICS, 2012, 103 (05): : 662 - 666
  • [3] Particle therapy for prostate cancer: The past, present and future
    Ishikawa, Hitoshi
    Tsuji, Hiroshi
    Murayama, Shigeyuki
    Sugimoto, Mikio
    Shinohara, Nobuo
    Maruyama, Satoru
    Murakami, Motohiro
    Shirato, Hiroki
    Sakurai, Hideyuki
    [J]. INTERNATIONAL JOURNAL OF UROLOGY, 2019, 26 (10) : 971 - 979
  • [4] Past, present and future of radioactive ion beams produced In-Flight at LNS
    De Napoli, M.
    Raciti, G.
    Agodi, C.
    Calabretta, L.
    Cardella, G.
    Giacoppo, F.
    Rapisarda, E.
    Sfienti, C.
    [J]. NUOVO CIMENTO C-COLLOQUIA AND COMMUNICATIONS IN PHYSICS, 2011, 34 (06): : 350 - 354
  • [5] Studies with radioactive beams, past and future
    Tanihata, I
    [J]. PROGRESS OF THEORETICAL PHYSICS SUPPLEMENT, 2002, (146): : 1 - 5
  • [6] Radioactive nuclear beams: Present and future
    Yu. E. Penionzhkevich
    [J]. Physics of Atomic Nuclei, 2014, 77 : 1400 - 1414
  • [7] Radioactive nuclear beams: Present and future
    Penionzhkevich, Yu. E.
    [J]. PHYSICS OF ATOMIC NUCLEI, 2014, 77 (11) : 1400 - 1414
  • [8] Proton therapy and the European Particle Therapy Network: The past, present and future
    Weber, D. C.
    Langendijk, J. A.
    Grau, C.
    Thariat, J.
    [J]. CANCER RADIOTHERAPIE, 2020, 24 (6-7): : 687 - 690
  • [9] THE PHYSICS OF BEAMS - PAST, PRESENT, FUTURE
    SESSLER, AM
    [J]. PHYSICS TODAY, 1990, 43 (06) : 69 - 70
  • [10] RADIOACTIVE BEAMS AT TRIUMF - PRESENT AND FUTURE STUDIES
    DAURIA, JM
    [J]. HYPERFINE INTERACTIONS, 1993, 81 (1-4): : 275 - 284