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Recent measurements for hadrontherapy and space radiation: nuclear physics
1Life Sciences Division, Lawrence Berkeley Laboratory, Berkeley, California 94720, USA.
Summary
Hadron therapy and space radiation research share common particle and energy ranges. Nuclear interactions are crucial for both, with methods from heavy ion physics advancing radiotherapy and space radiation studies.
Area of Science:
- Physics
- Radiotherapy
- Space Radiation
Background:
- Hadron therapy and space radiation applications utilize overlapping particle and energy ranges (Z=1-26, ~100-1000 MeV/nucleon).
- Nuclear interactions of incident ions are critical for both treatment planning and understanding space radiation effects on humans.
- Historically, nuclear physics and hadron therapy drove research on nuclear fragmentation and transport.
Purpose of the Study:
- To review recent experimental data on nuclear fragmentation and transport.
- To discuss the implications of these measurements for radiotherapy, radiobiology, and space radiation research.
- To highlight the applicability of heavy ion nuclear physics methods to space radiation studies.
Main Methods:
- Review of recently acquired experimental data from various accelerators.
- Application of experimental and theoretical methods from heavy ion nuclear physics.
- Analysis of nuclear fragmentation and transport in matter.
Main Results:
- Data from recent accelerator experiments are relevant to both fields.
- Established methods in heavy ion physics are directly applicable to radiotherapy and space radiation.
- Understanding nuclear interactions is key for accurate modeling in both domains.
Conclusions:
- There is significant synergy between hadron therapy and space radiation research due to overlapping physical parameters.
- Advancements in heavy ion nuclear physics provide valuable tools for space radiation protection and radiotherapy.
- Further research integrating these fields can enhance safety and efficacy in both areas.