It is thorium 234.
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∙ 7y ago232U alpha decays to 228Th. Thorium-228 is the daughter product of the alpha decay of uranium-232.
The daughter nuclide resulting from the decay of uranium-235 through an alpha decay followed by a beta decay is thorium-231.
Uranium can undergo both alpha decay and beta decay. In alpha decay, the nucleus emits an alpha particle composed of two protons and two neutrons. In beta decay, the nucleus emits a beta particle (electron or positron) to move towards a more stable configuration.
The existence of alpha decay in radioactive uranium was first discovered by Ernest Rutherford and Frederick Soddy in 1899. They observed that uranium was emitting a new type of radiation that was later identified as alpha particles.
The first radioactive element formed when uranium-238 decays is thorium-234. Uranium-238 undergoes alpha decay to form thorium-234.
232U alpha decays to 228Th. Thorium-228 is the daughter product of the alpha decay of uranium-232.
The first step is an alpha decay to (guess what!) uranium 235. You can probably take it from there.
Uranium can undergo both alpha decay and beta decay. In alpha decay, the nucleus emits an alpha particle composed of two protons and two neutrons. In beta decay, the nucleus emits a beta particle (electron or positron) to move towards a more stable configuration.
The daughter nuclide resulting from the decay of uranium-235 through an alpha decay followed by a beta decay is thorium-231.
The existence of alpha decay in radioactive uranium was first discovered by Ernest Rutherford and Frederick Soddy in 1899. They observed that uranium was emitting a new type of radiation that was later identified as alpha particles.
The decay product of uranium-238 is thorium-234, which undergoes further decay into other isotopes through a series known as the uranium-238 decay chain. This decay process eventually leads to the stable isotope lead-206.
The first radioactive element formed when uranium-238 decays is thorium-234. Uranium-238 undergoes alpha decay to form thorium-234.
Uranium-238 undergoes alpha decay, emitting an alpha particle to form Thorium-234. This is a natural radioactive process that continues until a stable nuclide is reached.
The beta decay of uranium-237 can be represented by the equation: (^{237}{92}U \to ^{237}{93}Np + e^- + \bar{\nu_e}) where (^{237}{92}U) decays into (^{237}{93}Np), an electron (e^-), and an electron antineutrino (\bar{\nu_e}).
Uranium naturally decays into thorium-230 through a process called alpha decay. It emits an alpha particle during this decay, reducing the atomic number by 2 and the atomic mass by 4.
When uranium-238 (atomic number 92) decays by emitting an alpha particle, it transforms into thorium-234 (atomic number 90) because an alpha particle contains two protons and two neutrons, reducing the atomic number by two.
First off, it's better to be more careful in regards to the word element. What you actually mean is isotope. The difference is subtle, but important. If I had a large rock of Uranium ore that was just mined, you could say I had the element Uranium. However, the element is made up of a certain percentage of isotopes, those being a nucleus that has the same number of protons, 92 in this case, but different numbers of neutrons.Secondly, alpha decay is defined as the spontaneous emission of a helium 4 nucleus from an isotope, so one of your two resulting elements when alpha decay is involved is always going to be helium. The other element is found by simply subtracting 2 from Pu's atomic number, which is 94, giving you the resulting element's atomic number, which is 92, otherwise known as uranium, specifically, the isotope U 234.