| 摘要 |
Helium gas is compressed and cooled and passes there to the reactor centre. A high magnetic flux flows through this centre, so that a core of metallic helium with a high density can form in said centre. Coils which are situated in the region of the centre ensure by means of the high flow of electric current that this energy is transmitted into the core in the form of an increase in nuclear spin. This results in the formation of a ball of metallic helium which floats freely in space. Hydrogen gas is converted in the plasma torus into a plasma, which means that the hydrogen nuclei have lost their internal binding energy to the benefit of the atomic particles and that the nuclear spin is low. If this hydrogen plasma passes into the region of the helium core at a temperature of approximately 0 degrees Kelvin, the state of the hydrogen atoms is frozen, so that the atomic nuclei are decomposed by radiation. Thereafter, a portion of the cloud of particles recombines to form helium. The energy achieved in this process is recovered via heat exchangers in the main field coils and the inner jackets, so that the quantity of energy is approx. 314 megawatt hours. The core of the reactor can be exchanged, so that in the case of a krypton core nitrogen atoms are decomposed by radiation or in the case of a xenon core fluorine atoms are decomposed by radiation. The quantity of energy rises accordingly.
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