You don't give the list of "the following elements". Suggest you look up Wikipedia entry for "Fission Products"
1. Fission products (lighter elements) 2. Energy from the loss of mass, appears initially as kinetic energy which is absorbed in the fuel bulk and transformed to thermal energy (heat) 3. Free neutrons-average 2.5 per fission 4. Gamma radiation
One of the particles released during the fission of uranium-235 is a neutron. When uranium-235 undergoes fission, it splits into two smaller atoms along with several neutrons. These neutrons can then go on to initiate additional fission reactions in a chain reaction.
The energy produced from splitting uranium nuclei in a fission reaction is primarily in the form of heat. This heat is used to generate steam, which drives turbines to produce electricity in nuclear power plants.
A stable nuclear fission reaction will be sustained if every fission produces one additional fission reaction.
Neutrons are required to start a fission reaction as they can initiate the splitting of uranium or plutonium atoms. In the process, additional neutrons are released which can go on to trigger more fission events. So, while neutrons are necessary to begin a fission reaction, they are not typically produced as a product of the reaction.
The reaction produces more neutrons than were needed to start it.
1. Fission products (lighter elements) 2. Energy from the loss of mass, appears initially as kinetic energy which is absorbed in the fuel bulk and transformed to thermal energy (heat) 3. Free neutrons-average 2.5 per fission 4. Gamma radiation
The first time a fission chain reaction was produced was in 1942
One of the particles released during the fission of uranium-235 is a neutron. When uranium-235 undergoes fission, it splits into two smaller atoms along with several neutrons. These neutrons can then go on to initiate additional fission reactions in a chain reaction.
neutrons
Non-radioactive elements can undergo fission reactions, but they are typically not used in nuclear power plants because their fission tends to require high-energy neutrons, which are more easily produced in reactions involving radioactive elements. However, non-radioactive elements like uranium-238 can undergo fission in certain reactor designs.
The excess of neutrons produced.
Atomic energy is produced when atoms of uranium235 or other fissile material split, or undergo fission. It is nothing to do with fluorescence, and I don't understand 'heat mass'
Nuclear energy as used in power plants results from fission of uranium235 and plutonium239
High neutron capture elements (e.g Boron, Cadmium ) are used to control fission reaction.
Products of a nuclear fission reaction typically include smaller atomic nuclei (fission fragments), neutrons, and a release of energy. However, products that are not generated in a fission reaction include unchanged parent nuclei, as they undergo transformation, and stable isotopes that do not result from fission. Additionally, elements heavier than uranium, such as some transuranic elements, are not direct products of fission but may be formed from neutron capture processes.
Fission is the opposite reaction to fusion. Fission involves the splitting of a heavy atomic nucleus into lighter elements, releasing a large amount of energy in the process.