* Approx. 115 US $/kg of the unrefined oxide U3O8 (but not for the nuclear grade, which is more expensive) - in July 2011.
* The price of plutonium is probably 4 000 US $/g; the price depends on the isotopic composition and purity (nuclear fuel grade, weapons grade).
Plutonium has 20 isotopes; each isotope has another half-life. Please read: http://en.wikipedia.org/wiki/Isotopes_of_plutonium.
For the isotope plutonium-239: cca. 2,52.1021atoms.
Uranium-238 is converted to plutonium-239 through a process called nuclear transmutation. This typically involves bombarding uranium-238 with neutrons in a controlled environment, such as a nuclear reactor. The uranium-238 absorbs a neutron and undergoes a series of nuclear reactions, eventually transforming into plutonium-239.
The isotope plutonium-239, which is synthesized from uranium, has 94 protons (like all isotopes of plutonium) and 145 neutrons in its nucleus. Use the link below for more information on plutonium.
Yes, the Fat Man bomb dropped on Nagasaki in 1945 contained plutonium as its fissile material. Plutonium-239 was used in the bomb's core, leading to a nuclear fission reaction that produced the explosion.
PlutOnium 239 is an element - plutOnium - with an atomic weight of 239.
Plutonium-239 has 145 neutrons.
Only the official name - plutonium - is correct.
Neptunium-239 must undergo beta decay to generate plutonium-239.
The half life of plutonium-239 is 2,41.10e+4 years.
Plutonium is obtained in nuclear reactors:U-238(n,gamma).................U-239(beta)...................Np-239(beta).................Pu-239
Plutonium is obtained in nuclear reactors:U-238(n,gamma).................U-239(beta)...................Np-239(beta).................Pu-239
Plutonium is obtained in nuclear reactors:U-238(n,gamma).................U-239(beta)...................Np-239(beta).................Pu-239
Plutonium is obtained in nuclear reactors:U-238(n,gamma).................U-239(beta)...................Np-239(beta).................Pu-239
Typically, a nuclear bomb would use plutonium-239 as the primary isotope for fission. Plutonium-239 is preferred due to its high fissionability and ease of obtaining through processing in nuclear reactors. Small amounts of other plutonium isotopes, such as plutonium-240, may also be present due to the manufacturing process, but the majority would be plutonium-239.
Plutonium 239 is obtained in all reactors using uranium as nuclear fuel.
The mass number of plutonium isotopes can vary depending on the specific isotope. Common plutonium isotopes include plutonium-238, plutonium-239, and plutonium-240, with mass numbers of 238, 239, and 240 respectively.