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Radioactivity and Nuclear Physics
Radioactivity and Nuclear Physics

Radioactivity
Radioactivity

Radioactivity
Radioactivity

Nuclear Reactions and Their Applications
Nuclear Reactions and Their Applications

Chapter 9 Nuclear Radiation 9.1 Natural Radioactivity Radioactive
Chapter 9 Nuclear Radiation 9.1 Natural Radioactivity Radioactive

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... Which of the following radioisotopes are most likely to be used in nuclear medicine? Radioisotopes with short half-lives are used in nuclear medicine. ...
The Band of Stability
The Band of Stability

... Introduction: Radioactivity is the spontaneous emission of radiation by nuclei. Radioactive decay changes the nature and identity of an atom’s nucleus. This occurs for a specific reason. Elements from hydrogen to lead (atomic numbers 1-82) have stable isotopes in which the tendency of protons to rep ...
Chapter 26
Chapter 26

... to add to the nucleus to break it apart into separated protons and neutrons ...
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3 Background radiation

... A high energy electron given off by a radioactive atom Radioactive tracers are used to investigate a patient's body without the need for surgery. Gamma emitters and sometimes beta emitters are used. This is because gamma rays and beta particles can pass through skin, whereas alpha particles cannot. ...
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I Examen II trim Science

... Protons (P+): Positively charged sub-particles that are located in the nucleus (central part of the atom). Electrons: (e-): Negatively charged sub-particles that move around the nucleus in energy levels. Electrons are found likely in the electron clouds. Neutrons: (n): Sub-particles located in the n ...
(or radioactive isotopes).
(or radioactive isotopes).

nuclear fission
nuclear fission

Chapter 16 Notes - Mr. Julien`s Homepage
Chapter 16 Notes - Mr. Julien`s Homepage

Nuclear Notes
Nuclear Notes

Understanding Nuclear Power
Understanding Nuclear Power

Nuclear Decay
Nuclear Decay

atomic number.
atomic number.

... Radioactive Atoms mutate by fission or fusion until they have maximum Binding Energy per nucleon which occurs at Iron. ...
Nuclear Chemistry - HCC Learning Web
Nuclear Chemistry - HCC Learning Web

Santee Education Complex Chemistry Mini Assessment 11
Santee Education Complex Chemistry Mini Assessment 11

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Mass of individual atoms

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Nuclear Chemistry I: Radioactivity Reading: Moore chapter 20

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Nuclear Chemistry powerpoint

Radioactivity
Radioactivity

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Nuclear Chemistry powerpoint

Nuclear Chemistry powerpoint
Nuclear Chemistry powerpoint

... minutes. If you start with 20.0 g, how long will it take before only 1.25 g remains? ______________ ...
< 1 ... 4 5 6 7 8 9 10 11 12 ... 19 >

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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