Method for enhancing sustainability of nuclear fusion reaction

Abstract

The invention relates to a method for enhancing sustainability of nuclear fusion reaction, which comprises the following steps of: using a bent pipe with a large caliber at one end and a small caliber at the other end, and after the nuclear fusion reaction occurs, enabling various rays emitted by the nuclear fusion reaction to enter the bent pipe from the large-caliber end of the bent pipe; then various rays are refracted, reflected, compressed and turned in the bent pipe and then are emitted from the end, with the small caliber, of the bent pipe, and the rays emitted from the end, with the small caliber, of the bent pipe point to nuclear fusion reaction materials.

Description

Technical Field

[0001] This invention relates to initiating nuclear fusion reactions and utilizing nuclear fusion energy. Background Technology

[0002] Refraction and reflection of pipes, light, and rays. Summary of the Invention

[0003] A bent tube with a larger diameter at one end and a smaller diameter at the other is used. The diameter of the larger end of the bent tube can be several centimeters, decimeters, meters, etc., determined as needed. The larger end of the bent tube is used to collect various rays emitted by nuclear fusion, while the smaller end of the bent tube can be several decimeters, centimeters, micrometers, nanometers, etc., determined as needed. It is used to output the rays collected by the larger end of the bent tube, and the rays output by the smaller end of the bent tube are directed towards the materials used in the nuclear fusion reaction.

[0004] After the nuclear fusion reaction is ignited, various rays emitted by the nuclear fusion reaction enter the bent tube from the larger diameter end. Then, the rays are refracted, reflected, compressed, and redirected inside the bent tube before exiting from the smaller diameter end. The rays exiting from the smaller diameter end of the bent tube are directed towards the nuclear fusion reaction material.

[0005] Nuclear fusion reactions are extremely fast, taking only a few picoseconds or even less. Even if the bent tube is placed only 1 meter away from the nuclear fusion reaction material, it will still take a few microseconds for the nuclear fusion material to expand to the point of destroying the bent tube. During this time, the rays emitted by the nuclear fusion reaction are reflected back onto the nuclear fusion material, greatly enhancing the energy participating in the nuclear fusion reaction and minimizing the possibility of the nuclear fusion reaction being interrupted and extinguished.

[0006] The number of bends described in this disclosure used in a nuclear fusion device can be determined as needed, ranging from a few, tens, hundreds, thousands, tens of thousands, or more.

[0007] The shape of the bend itself, the bend inlet and outlet as described in this disclosure can be any shape, such as a circle, a square, a polygon and various other shapes, and can be designed into various shapes according to actual needs.

[0008] The main objective of this invention is to reduce the number of chips used in devices that use "large-scale integrated high-voltage oscillation circuits or lasers to ignite nuclear fusion chips". Assuming that a nuclear fusion device with an explosive yield of 100 tons of TNT requires 50 "large-scale integrated high-voltage oscillation circuits or lasers to ignite nuclear fusion chips" to fully react the nuclear fusion materials, using the bend tube defined in this invention, only 10 "large-scale integrated high-voltage oscillation circuits or lasers to ignite nuclear fusion chips" are needed to fully react the nuclear fusion materials.

[0009] The wall of the bent tube defined in this invention can be made of different materials in layers, so that more rays of different frequencies and wavelengths can be reflected and refracted. Because different materials have different efficiencies in reflecting and refracting rays of different frequencies and wavelengths, and nuclear fusion reaction will release a large number of rays of various frequencies and wavelengths, more energy needs to be injected into the raw materials used for nuclear fusion reaction to keep the nuclear fusion reaction going.

[0010] A laser working substance, also known as a laser gain medium, can be placed at the outlet of the bend as defined in this invention to enhance the laser energy emitted from the bend.

[0011] The bent tube defined in this invention can also be used for nuclear fission reactions. It can collect the rays emitted by nuclear fusion reactions and direct the collected rays to the nuclear fusion raw materials after refraction, reflection, and compression through the bent tube.

[0012] The method disclosed herein is applicable to initiating nuclear fusion reactions in all substances.

[0013] The rays mentioned in this disclosure include photon beams of various frequencies, or various radioactive nuclides, or particle beams or photon beams with specific energies emitted by particles such as atoms, electrons, and neutrons during energy exchange. Attached Figure Description

[0014] Figure 1 The ray inlet and outlet of the bend defined in this invention.

[0015] A: The curved tube defined in this invention has a larger diameter end, which is used as an entrance for collecting nuclear fusion reaction rays.

[0016] B: The bend defined in this invention has a smaller diameter end, which is the outlet for nuclear fusion reaction rays. The rays coming out of the outlet should hit the nuclear fusion raw materials.

[0017] Figure 2 The cross-section of the bend as defined in this invention.

[0018] A: The curved tube defined in this invention has a larger diameter end, which is used as an entrance for collecting nuclear fusion reaction rays.

[0019] B: The bend defined in this invention has a smaller diameter end, which is the outlet for nuclear fusion reaction rays. The rays coming out of the outlet should hit the nuclear fusion raw materials.

[0020] D: The wall of the bent tube as defined in this invention can refract, reflect, compress, and deflect rays.

[0021] C: The wall of the bent tube as defined in this invention can refract, reflect, compress, and deflect rays.

[0022] Figure 3 : Detailed implementation diagram.

[0023] A: A 12-inch wafer integrating 7 trillion 80-nanometer diameter laser emitters, divided into 100 million groups of 70,000 groups; each group of laser emitters emits lasers pointing to the same point, and the 70,000 groups point to 70,000 different points.

[0024] B: A 12-inch wafer integrating 7 trillion 80-nanometer diameter laser emitters, divided into 100 million groups of 70,000 groups; each group of laser emitters emits lasers pointing to the same point, and the 70,000 groups point to 70,000 different points.

[0025] C: A 12-inch wafer integrating 7 trillion 80-nanometer diameter laser emitters, divided into 100 million groups of 70,000 groups; each group of laser emitters emits lasers pointing to the same point, and the 70,000 groups point to 70,000 different points.

[0026] A1: The laser beam emitted by A.

[0027] B1: The laser beam emitted by B.

[0028] C1: The laser beam emitted by B.

[0029] D: Deuterium-tritium, a raw material for nuclear fusion reactions.

[0030] E: Deuterium-tritium, a raw material for nuclear fusion reactions.

[0031] F: Deuterium-tritium, a raw material for nuclear fusion reactions.

[0032] K: A mixture of lithium protide 6 and lithium protide 7, raw materials for nuclear fusion reaction.

[0033] G: A component that propels the nuclear fusion fuel to move while igniting nuclear fusion.

[0034] H: A device with an explosive yield of 100 tons of TNT, made using three "12-inch wafers that integrate 7 trillion 80-nanometer diameter laser emitters".

[0035] N1, N2, N3, N3, N5, N6, N7, N8, N9, N10, N11, N12, N13: The bent tube defined in this invention can refract, reflect, compress, deflect, and reflect back the rays generated after the nuclear fusion material is ignited and reacts with the nuclear fusion material itself.

[0036] Figure 4 The cross-section of the bend as defined in this invention.

[0037] A: The curved tube defined in this invention has a larger diameter end, which is used as an entrance for collecting nuclear fusion reaction rays.

[0038] B: The bend defined in this invention has a smaller diameter end, which is the outlet for nuclear fusion reaction rays. The rays coming out of the outlet should hit the nuclear fusion raw materials.

[0039] D: The wall of the bent tube as defined in this invention can refract, reflect, compress, and deflect rays.

[0040] C: The wall of the bent tube as defined in this invention can refract, reflect, compress, and deflect rays.

[0041] E: Laser gain medium is also called laser gain medium. Implementation

[0042] Specific implementation method 1: as follows Figure 1 , Figure 2 The aforementioned 100-ton explosive yield nuclear fusion device (H) uses (M) to drill 7 trillion 80-nanometer diameter holes at different angles on a 12-inch wafer (A). These holes are divided into 70,000 groups, each group containing 100 million holes. After inserting 80-nanometer diameter lasers into these 100 million holes, the laser beams (A1) emitted by these 100 million lasers are directed at the same point on the nuclear fusion material (E), while the 70,000 groups are directed at 70,000 different points on the nuclear fusion material (E). (M) Drills 7 trillion holes with a diameter of 80 nanometers at different angles on a 12-inch wafer (B). These holes are divided into 70,000 groups, each with 100 million holes. After placing 80-nanometer diameter lasers into these 100 million holes, the laser beams (B1) emitted by these 100 million lasers are directed at the same point on the nuclear fusion material (D). The 70,000 groups are directed at 70,000 different points on the nuclear fusion material (D). Using (M), 7 trillion holes with a diameter of 80 nanometers are drilled on a 12-inch wafer (C). The fusion reactor consists of nanometer-sized holes at different angles, divided into 70,000 groups, each containing 100 million holes. Each group contains 100 million lasers with a diameter of 80 nanometers. The laser beams emitted by these 100 million lasers (C1) are directed at the same point on the fusion material (F), while the 70,000 groups are directed at 70,000 different points on the fusion material (F). Simultaneously, 21 trillion lasers (A, B, C) emit laser beams, igniting fusion and simultaneously propelling the fusion material (K, D, E) through the process. (F) Slow displacement; the rays emitted by the ignited nuclear fusion material are collected by the bent tubes (N1, N2, N3, N3, N5, N6, N7, N8, N9, N10, N11, N12, N13) and reflected back onto the nuclear fusion material (D, E, F, K). The specific reflection position is determined according to actual needs. This specific embodiment 1 only uses 13 bent tubes as defined in this invention. The number of bent tubes used in one nuclear fusion device is determined according to actual needs; such as Figure 4 At the outlet of the curved tube, a laser working medium, also known as a laser gain medium, is placed to enhance the laser energy emitted from the curved tube.

Claims

1. A method of collecting rays emitted from a nuclear fusion reaction or a nuclear fission reaction by a bent pipe, and refracting, reflecting, and compressing the collected rays to be directed toward a nuclear fusion raw material.

2. According to claim 1, a plurality of or many of the bent pipes defined in the present disclosure can be used in one nuclear fusion device.

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