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Nuclear energy comes from the nucleus of an atom. The source, or fuel, of nuclear energy is most

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Nuclear energy comes from the nucleus of an atom.
The source, or fuel, of nuclear energy is most commonly Uranium 235
Nuclear energy can be converted into electricity, as a secondary energy source, which flows through power lines and other sources to be transmitted to your home.

Fission means to split apart. Inside the nuclear reactor, uranium atoms are split apart in a controlled chain reaction.
A slow neutron can be captured by a uranium-235 nucleus, and leave it unstable when undergoing nuclear fission. If a neutron goes too fast, it will not be captured in the nucleus, so neutrons must be slowed down to increase their chance to the captured in the reactors.

The pressurized water reactor is better to the environment than the …show more content…

We use water for cooling purposes when dealing with Nuclear Power Plants. When the water is returned at a higher temperature, it can badly affect the ecosystem or habitat.
There is always a high risk of nuclear meltdown. Some examples include Chernobyl, 3-Mile Island, and Fukishima Power Plant

Fusion comes from the combining of two or more atoms into a larger atom while releasing huge amounts of energy.
When Hydrogen is heated to very high temperatures, it changes from a gas to a plasma.
A fusion reactor has not yet been created because of the extremely high temperatures that this process require.

We can use fusion to generate electricity today.
The sun and most stars depend on fusion. On earth we have solar panels that take the solar energy from the sun’s fusion to generate electricity. Even though it is not as common as fission, we still use it to generate electricity.
We can create fusion in two ways.
One way is called inertial confinement fusion (IFC) (to use lasers).
The second way is called magnetic confinement fusion (MFC) (to use magnets).
American researcher Omar Hurricane and his colleagues decided to use ICF, employing 192 high-energy lasers at the National Ignition Facility.
In a similar experiment, it produced about 5,100 trillion fusion reactions. This produces more energy than hydrogen, but it’s far less energy than what the lasers originally

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