Novel nuclear fusion energy restraint device

Abstract

The invention discloses a novel nuclear fusion energy restraint device which comprises a fusion reactor outer cavity, a fusion reactor top cover is connected to the fusion reactor outer cavity, a magnetic energy restraint coil is arranged in the fusion reactor top cover, and a plurality of high-energy laser igniters and a fusion fuel conveying system are arranged on the upper portion of the fusion reactor top cover. An inner cavity supporting rotating shaft is connected into the fusion reactor outer cavity, a fusion reactor inner cavity is rotationally connected to the inner cavity supporting rotating shaft, a plurality of inner cavity rotating power motors are connected to the lower portion of the fusion reactor top cover, and the output ends of the inner cavity rotating power motors are connected with rotating shafts; a rotating power input gear is connected to the rotating shaft, an inner cavity powered gear belt is arranged at the top of the fusion reactor inner cavity, and the inner cavity powered gear belt is meshed with the rotating power input gear for use. Compared with the prior art, the method has the advantages of simplicity, conventionality, safety and low energy consumption.

Description

Technical field [0001] The present invention relates to the field of nuclear industry technology, specifically refers to a new type of nuclear fusion energy constraint device. Background [0002] Nuclear fusion, also known as fusion, fusion reaction, fusion reaction, or thermonuclear reaction, in which two lightweight nuclei aggregate to form a heavier nucleus while releasing a large amount of energy. The traditional nuclear fusion scheme has been proposed by humans from the concept to the current research and development process for more than 70 years, but it is still delayed in commercialization, the main reason is that most of the traditional nuclear fusion constraint schemes use the Tokamak all-round magnetic cage constraint scheme, that is, a strong magnetic field is generated with strong energy, and then this powerful magnetic field is used to softly constrain the internal high-temperature plasma, although such a magnetic constraint scheme solves a large number of high-temp...

AI Technical Summary

Problems solved by technology

However, this magnetic field only acts as a confinement for charged particles. For some non-electric particles in high-temperature plasma, such as neutrons, they will directly radiate and bombard the internal protective layer unscrupulously. Such bombardment is very fast. This protective layer attack will be damaged to the point that it needs to be replaced, so that it cannot work continuously for a long time, so that the most advanced fusion practice in the world can only achieve a running time of 100 seconds in a high-temperature operating environment of hundreds of millions of degrees.

Moreover, to create a strong magnetic field requires the use of a powerful and expensive superconducting magnetic field coil, which consumes a lot of energy and requires a high vacuum environment to operate, which will greatly increase the amount of work, increase the complexity of the project, and greatly increase Input energy consumption ratio, therefore, a new type of nuclear fusion energy confinement device is urgently needed to solve the above problems

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