For an answer it is necessary to know the number of inhabitants of the city, the industries located in the city, the envisaged type of the nuclear reactor, etc.
The nuclear reactor itself is designed to start and sustain a nuclear chain reaction with some radioactive material, which is a constant supply of energy via heat. This heat is then used to power steam turbines, which power the generators that create the electricity.
An average nuclear weapon can have explosive power ranging from tens of kilotons to hundreds of kilotons of TNT equivalent. For comparison, the bomb dropped on Hiroshima in 1945 had an explosive power of around 15 kilotons.
To calculate the power needed to supply a city for 10 minutes, you would need to know the average power consumption of the city in megawatts. Once you have the average power consumption, you can multiply it by 10 minutes to determine the total energy required.
Nuclear power stations work in pretty much the same way as fossil fuel-burning stations, except that a "chain reaction" inside a nuclear reactor makes the heat instead.The reactor uses Uranium rods as fuel, and the heat is generated by nuclear fission: neutrons smash into the nucleus of the uranium atoms, which split roughly in half and release energy in the form of heat.Carbon dioxide gas or water is pumped through the reactor to take the heat away, this then heats water to make steam.The steam drives turbines which drive generators.Modern nuclear power stations use the same type of turbines and generators as conventional power stations.In Britain, nuclear power stations are often built on the coast, and use sea water for cooling the steam ready to be pumped round again. This means that they don't have the huge "cooling towers" seen at other power stations.The reactor is controlled with "control rods", made of boron, which absorb neutrons. When the rods are lowered into the reactor, they absorb more neutrons and the fission process slows down. To generate more power, the rods are raised and more neutrons can crash into uranium atoms.
Enrichment from 0.7% Uranium-235 to 93% Uranium-235 is a very energy intensive process no matter how it is done. Separating Plutonium from production reactor fuel pellets is expensive requiring special shielded remote control workstations.
The energy produced from burning one ounce of uranium is equivalent to burning approximately 3 tons of coal. This is because uranium has a much higher energy density and efficiency in power generation compared to coal. This means that a small amount of uranium can produce the same amount of energy as a much larger amount of coal.
Uranium is a donor of electrons.
Uranium has the greater density. Note that "1 g" is irrelevant - the density of a substance doesn't depend on how much of the substance you take.
Depends on how much power the city is using. A good rider can crank out around 300 W for some time, and about 1000 W (1 kW) for shorter periods. Find out the power consumption, then divide with one of those numbers and see what you get.
That information is unknown to the public.
It would take one half-life for the 10 g of uranium to decay into 5 g. The half-life of uranium is around 4.5 billion years, so it would take approximately 4.5 billion years.
The nuclear reactor itself is designed to start and sustain a nuclear chain reaction with some radioactive material, which is a constant supply of energy via heat. This heat is then used to power steam turbines, which power the generators that create the electricity.
As much as yor mom can take
people with imagination, ambition and the power to get things done
Nuclear power is the best by far because you take pellets that have a uranium orb in the middle then stabilizer rods come in stabilize them and then water is poured on them to generate steam that rises through a turbine and spins the turbine generating power
Yes, with a rather unimportant qualification. There are isotopes of uranium that do not undergo fission, but it is unlikely a bar would be made from any of them because they have short half lives and are expensive to produce.
Depending on the isotope: - for 235U: 7,038.108 years - for 238U: 4,468.109 years etc.