| 摘要 |
Electrical heavy-current generation takes place by the efficiency-dependent use of heat and flow energy in prime movers for an electrical generator drive. Considerable outlay in terms of power economics is required for this purpose. An immeasurable power potential is available in matter. At absolute zero, matter is electrical plasma sublimated to form elementary solid particles. As a primary power generator, the atom is able to regenerate matter into energy-carrying electrical plasma. The magnetism force for impressing matter, from which that of atom nucleuses is derived, was powerful with respect to mass at zero Kelvin. The free elementary particles which circulate as electrons through the atom nucleus sink pole to the source pole determine the voltage potential by their rotation speed. During every nuclear magnetic passage, one electron mass quantum resublimates via the state form of magnetic plasma in a speed-conformal manner into energy-carrying electricity plasma. As a result of the electric field and/or the radiation influence, the electron speed is accelerated and the potential raised. The introduction of the nuclear magnetic force at the original state of zero Kelvin by means of cryogenic temperature insertion produces excitation with the same effect. In a large atom stack, that is to say numerable electron-rich, polarity-rectified metal conductor atoms, the individual lines are added. By connecting the power network return line to the large atom sink pole, the lower-voltage plasma current is technically prepared to supply the power network with voltage on the way to the source pole. Electron-rich metals of high atomic weight are preferably suitable as metal conductors as well as for potential excitation by large-atom external irradiation. The radioactivity of these materials is reduced by the cryogenic temperature, and their electrical resistance is reduced by superconductivity.
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