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Chapter 32 Applied Nucleonics
Chapter 32 Applied Nucleonics

Nuc Chem PP - Liberty Union High School District
Nuc Chem PP - Liberty Union High School District

... • They will undergo decay • The type of decay depends on the reason for the instability ...
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... types of radioactive decay, such as beta decay 7. Gamma rays are very high energy a. A gamma ray is a high-energy photon emitted by a nucleus during fission and radioactive decay 8. Neutron radioactivity may occur in unstable nucleus a. Neutron emission consists of matter that is emitted from an uns ...
Content Domain III: Chemistry—Atomic Theory and
Content Domain III: Chemistry—Atomic Theory and

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... • The third common type of radiation is gamma radiation or gamma rays. • Gamma rays are high-energy radiation that possess no mass and have no charge. • Gamma rays are denoted by the symbol 00γ. • Gamma rays usually accompany alpha and beta radiation and account for most of the energy lost during th ...
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Beyond Element 83 are very unstable (radioactive)

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Nuclear Reactions - Socastee High School

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... 19. An element that emits rays is said to be contaminated. 20. Unstable isotopes of elements are called radioisotopes. 21. The symbol represents tritium. 22. Gamma rays can be stopped by an aluminum sheet. 23. The change of an atom into a new element is called a chemical change. 24. The first artifi ...
Nuclear physics α −
Nuclear physics α −

... them were scattered through large angles, approaching 180°. So the Thomson model was wrong and a new model was needed. Rutherford supposed that the positive charge, instead of being distributed through a sphere with atomic dimensions 10−10 m radius, is all concentrated in a much smaller region 10 −1 ...
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Types of Radiation

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Radioactivity Unit - hrsbstaff.ednet.ns.ca

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printable version

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U - Earth and Environmental Sciences

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Glossary of Technical Terms - Institute for Energy and Environmental

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Chapter 21 Nuclear Chemistry - Ocean County Vocational

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Unit 5 EW Tasks (1)

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Grade 10S Physics T3W5 material

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Nuclear fission product

Nuclear fission products are the atomic fragments left after a large atomic nucleus undergoes nuclear fission. Typically, a large nucleus like that of uranium fissions by splitting into two smaller nuclei, along with a few neutrons, the release of heat energy (kinetic energy of the nuclei), and gamma rays. The two smaller nuclei are the fission products. (See also Fission products (by element)).About 0.2% to 0.4% of fissions are ternary fissions, producing a third light nucleus such as helium-4 (90%) or tritium (7%).The fission products themselves are often unstable and radioactive, due to being relatively neutron-rich for their atomic number, and many of them quickly undergo beta decay. This releases additional energy in the form of beta particles, antineutrinos, and gamma rays. Thus, fission events normally result in beta radiation and antineutrinos, even though these particles are not produced directly by the fission event itself.Many of these isotopes have a very short half-life, and therefore give off huge amounts of radiation. For instance, strontium-90, strontium-89 and strontium-94 are all fission products, they are produced in similar quantities, and each nucleus decays by shooting off one beta particle (electron). But Sr-90 has a 30-year half-life, Sr-89 a 50.5-day half-life, and Sr-94 a 75-second half-life. When freshly created, Sr-89 will spray beta particles 10,600 times faster than Sr-90, and Sr-94 will do so 915 million times faster. It is these short-half-life isotopes that make spent fuel so dangerous, in addition to generating much heat, immediately after the reactor itself has been shut down. The good news is that the most dangerous fade quickly; after 50 days, Sr-94 has had 58,000 half-lives and is therefore 100% gone; Sr-89 is at half its original quantity, but Sr-90 is still 99.99% there. As there are hundreds of different isotopes created, the initial high radiation fades quickly, but never fades out completely.
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