The vast majority of mass of uranium ore is U-238 and much of that is discarded as Depleted Uranium. U-235, assuming complete fission, would release about 80 billion joules per gram. Usually Enriched Uranium for reactors (reactor grade) is around 3-4% U-235, as opposed to Weapons Grade, which is much higher.
The answer depends both on what you mean by a gram of uranium and the process for deriving the energy. If we're talking only about normal uranium ore, about 200 million joules per gram, a few thousand times that produced by burning gas, coal, etc. I'm basing that off the amount of uranium ore consumed for a 1000 megawatt Light Water Reactor, and is a very rough calculation, but you're going to get a wide range of values depending on the process and the individual make up of isotopes in the fuel rods. Your losing a lot of energy to waste heat, your not using most of the fuel all the way up, and so on. But a 1000 MW LWR consumes around 170 tons of uranium ore a year, so from a practical standpoint, if you're asking how much usable energy we get out of a gram of uranium, this is better value than the 80 billion joule value.
density = 19.05 grams per cubic centimetre
cubic centimetres in a cubic metre = 10^6 = 1,000,000
19.05 x 1,000,000 = 19.05 million grams
19.05 million grams = 19,050 kilograms = 19.05 metric tons = Mass
19,050 kilograms x 9.81 = 186,880.5 Newtons = Weight
Find out how much energy a nuclear bomb takes up (I made the question on this, so you could just find out by typing in: How much Mega Electro-Volts are in a Average USA Nuclear Bomb,) and then find out how much uranium is in a nuclear bomb
The quantity of uranium depends on the type and the designed electrical power of the nuclear reactor. Generally, 70 - 125 t (1 t = 1 000 kg and 1 kg is cca. 2,2 pounds).
Depending on: enrichment of uranium, the type of the nuclear fuel, the type of the nuclear power plant, etc.
One atom of 235U release 202,5 MeV per fission.
Probably pellet The mass depend from the dimensions and the geometry of the pellet. The density of uranium at room temperature is 19,05 g/cm3. The mass is: volume x density.
Cca. 200 MeV for 1 atom of uranium. (MeV = mega electronvolt = 106 eV).
Approx. 52 cm3.
23,7 cm3
There are many types of uranium pellets depending on the nuclear reactor type and the used uranium enrichment (or uranium-235 content). It may be more illustrative to say that: 1 gram of uranium-235 when undergoes fission in a nuclear reactor gives energy roughly equivalent to burning 3 tonnes of coal or 2 tonnes of oil.
Uranium is a silvery-white metallic element. It is ductile and slightly softer than steel. It has high density, about 70% more than lead, but slightly less than gold. It is radioactive, and slowly decays by alpha decay, though it occasionally spontaneously fissions under the influence of neutrons. In the presence of air, it quickly corrodes and develops a black oxide coating. In nature, it is always found in conjunction with other elements. One of the isotopes, Uranium-235, under the right conditions, can setup a nuclear chain reaction where neutrons split the Uranium-235, producing other nuclides along with more neutrons along with a large amount of energy. This can be controlled, such as in a power plant, or it can be uncontrolled, such as in a weapon.
It was not a specific sort of atom. They split the atom.Not only is it a specific atom (element), it is a specific isotope of that element: Uranium-235. This is the one and only naturally occurring isotope that fissions and supports a chain reaction.
Each isotope has a different critical mass. U235 is used because the mass needed to cause a reaction is smaller than almost all other isotopes. This critical mass is calculated as( 3.001 x 9.987 to the 11th power) Divided by the weight of one nuclei X 2.5675 (x 10 to the 24th power) divided by mass. This equals 7.702 X 10 to the 13th power divided by mass. You can tell by this calculation that critical mass for u235 is very low at about 1.3 kg. Best regards, Bruce
Mechanical energy, solar energy, electrical energy. There are many more.
Uranium 235 has several isotopes but, 235 would contain 235 electrons in one atom.
No, Uranium-235 and uranium-238 are radioactive, natural isotopes (not molecules, but atoms) of the one and the same element: uranium.Both with 92 protons and 235-92 = 143 neutrons in U-235 but 146 neutrons in U-238.
Uranium 235 is 0.7 percent of natural uranium and is fissile
Minimum one atom of uranium 235.
Oak Ridge was built to separate Uranium 235 from Uranium 238. Uranium 235 is the fissile isotope of natural Uranium, suitable for use in bombs or power generation. 99+% of Uranium is U 238 and U 235 is less than one per cent.
Uranium-235
235 was used to produce one of the first atomic weapons. 238 is much harder to start a nuclear chain reaction than 235. 238 is used in nuclear weapons, but not as the first stage.
Examples for the natural fissile uranium isotope: 1. Recommended notation: 23592U; 235 is the mass, 92 is the atomic number. 2. Alternative notation: U-235 or uranium-235.
Depleted uranium is uranium with a content of the isotope uranium-235 under 0.7 %. Natural uranium has been processed to change (increase) the concentrations of lighter isotopes, and the "leftovers" are termed depleted uranium. Let's look at this heavy metal and sort things out. Without splitting hairs, the element uranium as it comes out of the ground is almost 99.27% U-238, and about 0.73% U-235. There's also a trace of U-234 in it. The isotope U-235 is the desired one for use in nuclear fuels and in nuclear weapons. Uranium is processed or "enriched" to increase the amount of the lighter isotope in the the finished product. This leaves the rest of the uranium "depleted" of some (or much) of its U-235 (and U-234, for what it's worth). The term depleted uranium is then applied to the remaining uranium. A link can be found below to check facts and gather more information.
Uranium 235 is unstable because it is a radioactive isotope. This means that it is constantly decaying and emitting radiation. The reason it is unstable is because it has too many neutrons in its nucleus. The neutron is a unstable particle, and when there are too many of them in one place, they can cause problems. When uranium 235 decays, it emits alpha particles, which are high-energy particles that can damage DNA and cause cancer.
1 pound of uranium 235 is approx. similar to 106 pounds of petrol.
In one mole of Uranium there are 238.02891g of Uranium. This number comes from its atomic weight on the Periodic Table. The mass of one mole of an element is its atomic weight in grams.