As biological organisms take in sustenance, they take in the elements in whatever ratio of isotopes is common in their environment. By feeding them water or air or something that has been enriched in a particular isotope, they can track the progress of the material through the organism and identify the steps in the metabolizing of the material by seeing where the isotope appears both in terms of its physical locations and its the molecules it shows up in. It can also be used to track how long something is retained within the organism.
Fast breeder reactors (FBRs) are a type of nuclear reactor that generate more fissile material than they consume. They achieve this by using fast neutrons to convert non-fissile isotopes, such as uranium-238, into fissile isotopes like plutonium-239. FBRs have the potential to utilize nuclear fuel more efficiently and reduce nuclear waste, making them an important aspect of advanced nuclear technology and sustainable energy strategies. However, they also present challenges in terms of safety, proliferation risk, and cost.
Nuclear power plants primarily produce radioactive pollutants, including isotopes such as cesium-137, strontium-90, and iodine-131, which can be released during accidents or leaks. Additionally, they generate thermal pollution due to the discharge of heated water used for cooling processes. Other potential pollutants include heavy metals and chemicals used in plant operations and maintenance. Proper management and containment are crucial to minimize environmental impact.
Some hazardous substances used in nuclear reactors include uranium, which serves as fuel, and plutonium, a byproduct of nuclear reactions that can be used in advanced reactors. Other hazardous materials include radioactive isotopes like cesium-137 and strontium-90, which can be produced during fission. Additionally, substances like boron and cadmium are used as neutron absorbers, and coolant chemicals can also pose hazards if improperly handled. Proper safety measures are essential to manage these substances and mitigate risks.
what are the important products of chemical technology
Provides petrol for cars!
Not all isotopes are radioactive; the radioactive isotopes are unstable and emit radiations.
Both isotopes and radioactive isotopes are pretty much the same but radioactive isotopes are better because it can be used to make medicine.
Radioactive isotopes are not stable.
Sodium has no radioactive isotopes.
All the uranium isotopes are radioactive.
All radioactive isotopes will disintegrate.
All isotopes of francium are radioactive.
radioactive isotopes! :)
Some examples are deuterium and tritium which are radioactive isotopes of hydrogen.
No, Barium has both stable and radioactive isotopes. Out of its 25 known isotopes, only 6 of them are considered radioactive. The most stable isotope of Barium is Barium-138, which is not radioactive.
Not all of the transition elements are radioactive. Many of them are, and some of them have common radioactive isotopes, but some of them have no naturally occurring radioactive isotopes. Please note that all elements have synthetic radioactive isotopes, at least.
Silver itself is not radioactive. However, certain isotopes of silver can be radioactive. For example, silver-108 and silver-110 are radioactive isotopes with long half-lives that can undergo radioactive decay. These isotopes are not commonly found in nature.