Yes, we can get more electricity from thorium, if you are asking about the supply.
When 232Th is used in a nuclear reactor, it is bred to become 233U. This isotope of uranium has about as much energy available as 235U, so the amount of energy per fission event is about the same for thorium as it is for uranium.
Aside from that, however, there are important differences. Thorium does not need to be enriched, so all of it can be used. The amount of thorium we have is a multiple of the amount of uranium. The combination means that, where we only have a few decades supply of uranium, we have enough thorium to last thousands of years.
Uranium-235 decays primarily through alpha decay, where it emits an alpha particle (helium nucleus) and transforms into thorium-231.
Uranium-235, found in natural Uranium at a level of 0.72%Uranium-233, produced in breeder reactors from Thorium-232
Uranium minerals like uraninite and pitchblende are known to contain radon gas. These minerals release radon as they decay and break down. Radon is a radioactive gas that is invisible, odorless, and tasteless, and can be harmful if inhaled in high concentrations.
Uranium. There is some interest in using thorium in the future. Thorium cannot be used directly as fuel in a reactor as it does not fission, it requires a fast breeder reactor to convert it to Uranium-233 which does fission.
In a pure sample, one (uranium itself). In ores, traces of lead, thorium and rare earth elements are usually present.
No it is not found . Monazite sand usually contains thorium.
Thorium (Th).
Uranium-235 decays primarily through alpha decay, where it emits an alpha particle (helium nucleus) and transforms into thorium-231.
The symbol of the element found in pitchblende after uranium extraction is thorium, with the chemical symbol Th. Thorium is a radioactive metal and is often found in association with uranium ores, including pitchblende.
Uranium-235, found in natural Uranium at a level of 0.72%Uranium-233, produced in breeder reactors from Thorium-232
Uranium minerals like uraninite and pitchblende are known to contain radon gas. These minerals release radon as they decay and break down. Radon is a radioactive gas that is invisible, odorless, and tasteless, and can be harmful if inhaled in high concentrations.
Uranium. There is some interest in using thorium in the future. Thorium cannot be used directly as fuel in a reactor as it does not fission, it requires a fast breeder reactor to convert it to Uranium-233 which does fission.
Because radium is a decay product of uranium or thorium.
234 is the mass of that particular Uranium isotope. Exactly 234,040 952 088 ± 0,000 001 960 u.a.
Thorium itself is not a fuel, it does not emit energy. However if it is irradiated in a reactor it forms uranium233 which is a fissile isotope of uranium. Therefore potentially thorium can be used to breed fissile fuel. There are issues around reprocessing however which have not been tackled because the incentive is not there whilst uranium235 is available. Thorium might become important in the future, or for a country which has thorium but not uranium. See link below
In a pure sample, one (uranium itself). In ores, traces of lead, thorium and rare earth elements are usually present.
Radium exist in extremely low concentrations in uranium and thorium ores.