Recent measurements for hadrontherapy and space radiation: nuclear physics.
The particles and energies commonly used for hadron therapy overlap the low end of the charge and energy range of greatest interest for space radiation applications, Z=1-26 and approximately 100-1000 MeV/nucleon. It has been known for some time that the nuclear interactions of the incident ions must be taken into account both in treatment planning and in understanding and addressing the effects of galactic cosmic ray ions on humans in space. Until relatively recently, most of the studies of nuclear fragmentation and transport in matter were driven by the interests of the nuclear physics and later, the hadron therapy communities. However, the experimental and theoretical methods and the accelerator facilities developed for use in heavy ion nuclear physics are directly applicable to radiotherapy and space radiation studies. I will briefly review relevant data taken recently at various accelerators, and discuss the implications of the measurements for radiotherapy, radiobiology and space radiation research.
Miller
J
J
Life Sciences Division, Lawrence Berkeley Laboratory, Berkeley, California 94720, USA.
D003359:Cosmic Radiation; D019471:Elementary Particle Interactions; D020450:Heavy Ions; D006801:Humans; D007477:Ions; D007501:Iron; D008962:Models, Theoretical; D009502:Neutrons; D009686:Nuclear Physics; D010315:Particle Accelerators; D011835:Radiation Protection; D011853:Radiobiology; D011874:Radiometry; D011878:Radiotherapy
D007477:Ions; D007501:Iron