Because the fragments' binding energies per nucleon (the energy required to overcome electrostatic repulsion) is too low for stability. Subsequent decays eventually form stable lead
During fission, products created include smaller fission fragments (such as xenon and krypton), neutrons, and energy in the form of gamma rays. These fission fragments are highly radioactive and give rise to nuclear waste.
When an atomic nucleus fissions, it splits into smaller atomic nuclei. These smaller atomic nuclei are referred to as "fission fragments." The unstable nucleus of a radioactive element can fission (split) into smaller nuclei, i.e. those of lighter elements. This can also release other atomic particles, as well as energy. In nuclear power and atomic weapons, the fission process is initiated to release the nuclear energy. Natural fission is a much rarer occurrence than radioactive decay.
Nuclear fission typically produces more radioactive by-products compared to nuclear fusion. This is because fission involves the splitting of large atoms into smaller, unstable fragments which can emit radiation. Fusion, on the other hand, involves the combining of light atoms to form a heavier nucleus with less unstable by-products.
When the nucleus of an atom is split apart in the process of nuclear fission, it creates two or more smaller nuclei, known as fission fragments. This reaction also releases a significant amount of energy, along with additional neutrons, which can further propagate the fission process in a chain reaction. The resulting fission fragments are typically radioactive and may undergo further decay.
Nuclear fission reactions primarily produce two main elements: fission fragments (such as cesium, strontium, and xenon) and neutrons. These fission fragments can further undergo radioactive decay and produce additional elements.
During fission, atoms split into smaller fragments, releasing energy and neutrons. Some of these fragments are radioactive isotopes, which emit radiation and decay over time, creating radioactive waste.
During fission, products created include smaller fission fragments (such as xenon and krypton), neutrons, and energy in the form of gamma rays. These fission fragments are highly radioactive and give rise to nuclear waste.
When an atomic nucleus fissions, it splits into smaller atomic nuclei. These smaller atomic nuclei are referred to as "fission fragments." The unstable nucleus of a radioactive element can fission (split) into smaller nuclei, i.e. those of lighter elements. This can also release other atomic particles, as well as energy. In nuclear power and atomic weapons, the fission process is initiated to release the nuclear energy. Natural fission is a much rarer occurrence than radioactive decay.
Fission weapons use either uranium or plutonium. Both of these elements are radioactive, though the radiation is not what precipitates the nuclear reaction. So to answer the question, very little.
Yes, radioactive isotopes are produced in a nuclear reactor through the process of nuclear fission, where heavy atomic nuclei are split into smaller fragments. These fragments, some of which are unstable and radioactive, can be used for various purposes such as medical imaging, cancer treatment, and scientific research.
Nuclear fission typically produces more radioactive by-products compared to nuclear fusion. This is because fission involves the splitting of large atoms into smaller, unstable fragments which can emit radiation. Fusion, on the other hand, involves the combining of light atoms to form a heavier nucleus with less unstable by-products.
smaller then the original atom and possibly radioative
Yes, the process of fission produces radioactive waste.
Nuclear fission reactions primarily produce two main elements: fission fragments (such as cesium, strontium, and xenon) and neutrons. These fission fragments can further undergo radioactive decay and produce additional elements.
Fission products are the fragments resulting from the fission of heavy nuclids during nuclear fission process
Fission fragments, neutrons, gamma radiations; and all the radiations emitted by these fission fragments.
Probably around 50 to 60 as most of the fallout is fission fragments from fissions of the uranium-238 radiation casing surrounding the fusion stage due to 15MeV fission neutrons generated. About 90% of the bomb yield is from this fission also.