noun the branch of physics that deals with the study of radiation, particularly ionizing radiation such as X-rays and gamma rays
In nuclear physics, radiation physics plays a key role in the study of radioactivity and nuclear reactions.
Radiation physics is crucial in the field of medical physics for the treatment of cancer through techniques such as radiation therapy.
The principles of radiation physics are applied in radiation protection to ensure the safety of workers and the public from ionizing radiation.
Radiation physics is essential in radiation oncology for planning and delivering precise doses of radiation to cancerous tumors.
Radiation physics is used in radiation dosimetry to measure and calculate the absorbed dose of radiation in various materials.
Radiation physics may be used by writers who specialize in science fiction or medical thrillers to create realistic scenarios involving radiation exposure and its effects on the human body.
Radiation physics is essential for radiation therapists who use ionizing radiation to treat cancer patients. They must understand how different types of radiation interact with tissues to deliver precise doses to target areas while minimizing damage to surrounding healthy tissue.
Radiologists rely on radiation physics to interpret medical imaging studies such as X-rays, CT scans, and MRIs. Understanding the principles of radiation physics helps radiologists accurately diagnose and treat various medical conditions.
Nuclear engineers apply radiation physics principles to design and operate nuclear power plants, nuclear reactors, and other nuclear technologies. They use their knowledge of radiation physics to ensure the safe and efficient production of nuclear energy.
Health physicists use radiation physics to assess and minimize radiation exposure risks in various settings, such as hospitals, research facilities, and nuclear power plants. They monitor radiation levels, develop safety protocols, and educate workers on radiation protection measures.