This process is called alpha decay.
Radium is a decay product of uranium, thorium or neptunium.
Yes, radon is a decay product in the uranium, thorium and actinium decay series.
Radium-226 does not decay by beta decay. It decays by alpha decay to radon-222.
232U alpha decays to 228Th. Thorium-228 is the daughter product of the alpha decay of uranium-232.
It is thorium 234.
The decay of thorium by alpha decay the resultant nuclide is the element radium. The specific nuclide of radium cannot be determined unless we know which specific nuclide of thorium underwent alpha decay.
Radium is a decay product of uranium, thorium or neptunium.
Yes, radon is a decay product in the uranium, thorium and actinium decay series.
This isotope is radium-226.
Radium is a white metal that does not occur in a free state; it must be refined from pitchblende and occurs naturally only as a disintegration product in the radioactive decay of thorium, uranium, or actinium.
Radium 226 (the most stable isotope) is a radioactive decay product of uranium; other isotopes of radium with short half lives exist in the thorium, actinium and neptunium decay series. See the link.
Radium-226 does not decay by beta decay. It decays by alpha decay to radon-222.
Because radium is a decay product of uranium or thorium.
Thorium 234: Beta decay. Atomic number increases by 1.
Protactinium 234 is a decay product of thorium 234; the nuclear reaction is: 23490Th-----------beta rays-------------23491Pa
You'd have to specify the isotope of thorium for us to definitively identify the isotope produced. A thorium atom that undergoes alpha decay will become a radium atom. However, we can't identify the specific isotope of radium without knowing the number of neutrons in the original thorium atom.
This noble gas is radon.