I don't know if you mean the chemical processing of spent nuclear fuel, if so the Wikipedia article on PUREX will give you more information. This is an extract:
PUREX is an acronym standing for Plutonium - URanium EXtraction. The spent nuclear fuel to which this process is applied consists primarily of certain very high atomic-weight (actinoid or "actinide") elements (e.g., uranium) along with smaller amounts of material composed of lighter atoms, notably the so-called fission products. In addition to the materials intentionally placed into it (which include elements other than strictly fuel elements), the reactor environment is a veritable "alchemist's stew", inevitably "breeding" smaller amounts of many other elements and isotopes of those elements through processes like nuclear transmutation and decay. The actinoid elements in this case consist primarily of the largely unconsumed remains of the original fuel (typically U-238 and other isotopes of uranium). In addition there are smaller quantities of other actinoids, created when one isotope is transmuted into another by a reaction involving neutron capture. Plutonium-239 is the leading example. Another term sometimes seen in relation to this secondary material (and other material produced similarly) is activation products. In response to the PUREX process' ability to extract nuclear weapons materials from the spent fuel, trade in the relevant chemicals is monitored. In brief, the PUREX process is a liquid-liquid extraction ion-exchange method used to reprocess spent nuclear fuel, in order to extract primarily uranium and plutonium, independent of each other, from the other constituents.
Nuclear chemistry refers to the separation and identification of radioactive nuclides through the use of chemical reactions rather than physics methods such as mass spectrometers. When Ernest Rutherford and Marie Curie were doing their work with radioactive substances they were using a lot of chemistry to identify which elements they had. Glenn Seaborg, in the mid twentieth century used chemical techniques to identify and purify new elements with more than 92 protons. These techniques were based on the expected chemical reaction (not nuclear reaction) properties from the Periodic Table of elements. These days, most element identification of radionuclides is done using x-ray, gamma-ray, half-life, and mass-spectrometer techniques.
The term nuclear chemistry is not used widely because chemistry deals with nucleus only for number of nucleons and their masses, the interaction of these particles, their binding forces and radioactivity are the topics of Nuclear physics so Nuclear physics overcomes the nuclear chemistry.
Nuclear chemistry refers to the separation and identification of radioactive nuclides through the use of chemical reactions rather than physics methods such as mass spectrometers. When Ernest Rutherford and Marie Curie were doing their work with radioactive substances they were using a lot of chemistry to identify which elements they had. Glenn Seaborg, in the mid twentieth century used chemical techniques to identify and purify new elements with more than 92 protons. These techniques were based on the expected chemical reaction (not nuclear reaction) properties from the periodic table of elements. These days, most element identification of radionuclides is done using x-ray, gamma-ray, half-life, and mass-spectrometer techniques.
Examples: study of radioactive decay products, preparation of compounds containing radioisotopes, radiolysis, study of radioactive elements and isotopes, study of chemical processes in nuclear reactors, pollution with radioactive isotopes etc.
The term nuclear chemistry is not used widely because chemistry deals with nucleus only for number of nucleons and their masses, the interaction of these particles, their binding forces and radioactivity are the topics of Nuclear physics so Nuclear physics overcomes the nuclear chemistry.
Atoms can be the source of both nuclear and chemical energy. Isotopes are different forms of an atom of the same chemical element.
Doctors do many tests on their patients that include observations, procedures, and experiments. Medicine also plays a big role in Chemistry.
Nuclear chemistry is the chemistry of radioactivity, nuclear processes and nuclear properties.nuclear chemistry is the chemistry of substances which are radioactive.
Nuclear chemistry is a branch of chemistry related to chemical processes involved in nuclear reactions.
Nuclear chemistry is the chemistry involved in nuclear processes; in a large sense may be considered also the chemistry of radioactive elements. Sometimes radiation chemistry (radiochemistry) is considered a chapter of nuclear chemistry.
Nuclear chemistry study nuclear materials and elements, isotopes, chemical processes involved in nuclear energy, some radioactivity applications, etc.
This is the essentially the chemistry of fission products.
It is inverse; chemistry is very important for medicine; all drugs, for ex. are chemicals.
All drug research and maufacture is chemistry
Nuclear chemistry has changed medicine and made it more efficient. Radiation controls have been used to change the chemical properties of various aspects of the medicine industry.
Nuclear chemistry is a branch of chemistry related to chemical processes involved in nuclear reactions.
Nuclear chemistry is the chemistry involved in nuclear processes; in a large sense may be considered also the chemistry of radioactive elements. Sometimes radiation chemistry (radiochemistry) is considered a chapter of nuclear chemistry.
Leonard M. Freeman has written: 'Nuclear Medicine Annual 1999 (Nuclear Medicine Annual)' 'Nuclear Medicine Annual 1995 (Nuclear Medicine Annual)' 'Nuclear Medicine Annual, 1991' 'Nuclear Medicine Annual, 1983' 'Radionuclide studies in evaluation of trauma' -- subject(s): Radioisotopes in medical diagnosis, Traumatology 'Nuclear Medicine Annual, 1990 (Nuclear Medicine Annual)' 'Nuclear Medicine Annual 1996 (Nuclear Medicine Annual)' 'Nuclear Medicine Annual, 1993' 'Nuclear Medicine Annual, 1982'
The object of nuclear chemistry is the study of radioactive materials, nuclear wastes, chemical reactions in a nuclear reactor etc.
qualified nuclear medicine physicians with certification from Eu board of nuclear medicine or equivilen.
Thorium is not used in nuclear medicine.
radiologic technologist studies the nuclear medicine == ==
Nuclear chemistry study nuclear materials and elements, isotopes, chemical processes involved in nuclear energy, some radioactivity applications, etc.
Radiographers and radiologists, and scientists.
Michael S. Feld has written: 'History of nuclear medicine in Europe' -- subject(s): History, History of Medicine, 20th Cent, Nuclear medicine, Nuclear medicine physicians 'Geschichte der Nuklearmedizin in Europa' -- subject(s): History, Nuclear medicine, Nuclear medicine physicians