The radioactive isotopes used in medicine are mostly prepared in a couple of different ways. It is possible to extract a useful radionuclide form the spent fuel of a nuclear power plant; iodine-131 and molybdenum-99 are examples of isotopes prepared in this manner. Cyclotrons are used for other isotopes, an example being Fluoron-18, which is made by bombarding natural, stable, oxygen-18 with protons from a cyclotron. The radioactive atoms are often bound in molecules designed for particular jobs.
Nuclear medicine uses the radioactive materials for diagnostic purposes, since they can image things x-rays cannot detect or with smaller amounts of damaging radiation. Other radioactive materials are designed to be used therapeutically, for example to destroy cancer cells selectively.
Radiologists work with these.
Radiographers and radiologists, and scientists.
The Bureau of Labor Statistics online discusses what a Nuclear Medicine Technician does. They discuss the work environment, how to become a Nuclear Medicine Technician, the pay and the job outlook. There is more information at Explore Health Careers which includes a video.
No, radioactive isotopes are not good for any diet. Radioactive isotopes are radioactive, which means they have unstable atomic nuclei. These unstable nuclei will, sooner or later, decay, and they will emit some kind(s) of radiation in the process. Radiation can damage biological material, and that's not good for any living thing. We generally are subject to a bit of natural radiation all the time. It's the natural background radiation. But we work to avoid any "extra" exposure because it can be hazardous to our health. We do use radioactive isotopes in nuclear medicine and associated procedures. But in these cases, the benefit is worth any small risk. Exposure to radiation in medicine is carefully calculated and monitored by the professionals who work with it.
Arturo Alcaraz was a prominent Filipino scientist known for his contributions to nuclear chemistry and radiopharmacy. He established the first nuclear research reactor in the Philippines and played a key role in the development of nuclear medicine in the country. Alcaraz's work has significantly impacted the fields of nuclear science, medicine, and research in the Philippines.
any where from 20,000 to 100,000 a year dependig on where you live.
The aims of specialization in nuclear physics are the same as that for every field of work: to focus the efforts within a given field into solving the most pressing questions, concerns, and issues that are currently around. Some current specializations within nuclear physics include radioactive decay, nuclear fusion, nuclear fission, and the production of new elements and isotopes.
Most commonly are blood glucose levels and metabolic tests related to glucose level, and nuclear medicine cardiac studies.
Careers that involve radioisotopes include nuclear medicine technologist, radiation therapist, health physicist, and nuclear engineer. These professionals work with radioisotopes in various ways, such as in medical imaging, cancer treatment, radiation safety, and nuclear power generation.
One good reason-it has not been made to work yet! We do of course use solar energy which is produced by nuclear fusion
Nuclear medicine techniques depend on detecting gamma rays emitted by the radioisotope injected into the body. The radioisotope is attached to a specific drug that targets particular organs or tissues. By monitoring the distribution of the radioisotope, healthcare providers can diagnose and treat various medical conditions.
No, nuclear energy is not renewable nor sustainable. For nuclear fission to work, it requires a special type (isotope) of uranium. There is a finite amount of uranium on the planet, therefore this is not renewable. Also, the nuclear waste produced is not sustainable. An example of renewable energy would be a wind turbine.