Gamma rays from uranium-238: * 0,013 000 MeV energy and 0,088 313 probability * 0,066 376 MeV energy and 0,000 970 probability
gamma decay
Gamma decay don't affect the atomic number.
A gamma decay is simply emission of a photon. Technically, there must be a tiny mass loss of E/c2 . Decay is not reallya goodword because there is no loss of electrons, neutrons or protons so the nucleus is unchanged in its make-up. There is of course energy decay.
Yes, a gamma ray is a natural ray. It occurs as a result of changes to atomic nuclei, and we most often see them (gamma rays) appear in radioactive decay.
Gamma
The decay product of uranium 238 by alpha disintegration (not beta or gamma) is thorium 234.
Become thorium-234 after ejecting an alpha particle and gamma ray. The thorium-234 continues to decay through 13 more decay events, ultimately becoming lead-126.
the loss of gamma radiations alone from an unstable heavy metal nucleus results in no change in masss number nor the atomic number
Gamma rays typically have frequencies above 1019 Hz, exhibiting energies above 100 keV and wavelength less than 10 picometers. Some gamma radiation, such as that from radioactive decay. may have energies of a few hundred keVto less than 10 MeV. Gamma rays from astronomical sources can be over 10 TeV.
gamma decay
Gamma decay don't affect the atomic number.
gamma decay beta decay alpha decay
A gamma decay is simply emission of a photon. Technically, there must be a tiny mass loss of E/c2 . Decay is not reallya goodword because there is no loss of electrons, neutrons or protons so the nucleus is unchanged in its make-up. There is of course energy decay.
Yes, a gamma ray is a natural ray. It occurs as a result of changes to atomic nuclei, and we most often see them (gamma rays) appear in radioactive decay.
Beta and Gamma
It can't, as far as I know. "Gamma decay" doesn't refer to the decay of gamma rays; rather, it refers to a decay of ATOMS, or some other particles, which produces gamma rays in the process.
gamma