Large-scale superconducting power generation equipment capable of running coaxially and integrally with engine
By using the low-temperature superconducting technology twice in power generation equipment and using the interaction between superconducting electromagnets and electromagnetic coils, the problem of low mechanical output conversion efficiency in the prior art is solved, and efficient power generation is achieved.
Patent Information
- Application Number
- CN202311394387.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2023-10-23
- Publication Date
- 2025-04-25
AI Technical Summary
Existing power generation equipment that operates coaxially with the engine cannot effectively convert huge mechanical output into electrical energy, resulting in low power generation efficiency.
The low-temperature superconducting technology is reused twice in succession, and superconducting electromagnetic magnets are set on the power turntable, and mechanical kinetic energy is generated by the same-sex repulsive recoil force, and superconducting electromagnetic coils are cut in high-speed rotation to achieve efficient power generation.
It realizes efficient conversion of all the huge mechanical kinetic energy generated by the engine into clean electricity, improving power generation efficiency and reducing consumption of natural resources.
Smart Images
Figure CN119891686A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to power generation equipment, in particular to a large-scale superconducting power generation equipment which runs coaxially with an engine. Background Art
[0002] Existing power generation equipment is usually driven by conventional energy engines and operates under normal temperature conditions.
[0003] Its common disadvantage is that it must consume a large amount of natural resources and seriously pollute the natural ecological environment.
[0004] In existing power generation equipment that runs coaxially with the engine, the mechanical output scale of the engine is usually set according to the power generation power and power generation scale set by the power generation equipment of the standardized product.
[0005] Once the engine's mechanical output is greater than the power generation capacity of its power generation equipment, it will not be able to achieve full power generation.
[0006] The existing invention is called the patented technology of long handle fast winding magnetic suspension and electromagnetic force recoil power generation equipment. The universal physical formula for calculating mechanical output uses superconducting technology and immerses the electromagnetic coil in liquid nitrogen at a temperature of -196°C, resulting in a theoretical zero-resistance electromagnetic technical characteristic, which means that the m in the formula can be expanded many times. At the same time, due to the use of magnetic levitation and vacuum technology, the rotation radius R and angular velocity ω of the power turntable in the formula can be expanded many times, resulting in a particularly huge mechanical output.
[0007] In the above patent technology, if the power generation equipment of the existing standardized product is used as its coaxial power generation equipment, it is impossible to achieve the purpose of converting all the huge mechanical output generated by it into electrical energy. Summary of the invention
[0008] The purpose of the present invention is to provide a new large-scale superconducting power generation equipment that runs coaxially with the engine, so as to achieve the technical effect of efficiently converting the huge mechanical output generated by the coaxially running engine into clean electricity.
[0009] The technical solution of the present invention is as follows:
[0010] A large-scale superconducting power generation equipment process method that runs coaxially with the engine, using the invention patent technology of the invention name of phase change refrigeration process method and its device and refrigeration equipment, by which liquid nitrogen with a temperature of -196°C is produced and provided in large quantities with high efficiency and low energy consumption; using the invention patent technology of long rotating handle fast winding axis magnetic suspension and electromagnetic force recoil power generation equipment and power equipment, by which huge mechanical output is generated; its characteristics are: in the same power equipment, low-temperature superconducting technology is reused twice; the first time is the fast rotation around the axis A superconducting electromagnet is arranged in the annular groove at the outer end of the moving long rotating handle, and the electromagnetic force generated by it is efficiently combined with the superconducting electromagnet on the guide rail fixedly arranged on the panel inside the vacuum box to produce a like-sex repulsive recoil force, thereby generating huge mechanical kinetic energy during high-speed movement; the second time is to set annular grooves at multiple locations in the middle of the above-mentioned power turntable, and set superconducting electromagnets in the annular grooves to make it efficiently generate electromagnetic force, and let it serve as the rotor in the power generation equipment, and cut the superconducting electromagnetic coil set at the corresponding position of the vacuum box panel as the power generation stator during high-speed rotation, so as to generate electricity efficiently.
[0011] Since the rotors and stators of the power generation equipment described above can be arranged in multiple places in the middle of the power turntable and the vacuum box surface, and since they are in a superconducting state, the scale of power generation can be further expanded.
[0012] A large-scale superconducting power generation equipment device coaxially running with an engine comprises an electromagnet, an equipment load-bearing bracket, a load-bearing pillar, a lower load-bearing outer ring beam, a lower load-bearing inner ring beam, a lower load-bearing cross beam, an upper load-bearing outer ring beam, an upper load-bearing inner ring beam, an upper load-bearing cross beam, a vacuum box, a vacuum box insulation layer, a lower positioning bearing, an upper positioning bearing, a power turntable, a power turntable shaft, a long handle, an outer end annular groove, a superconducting electromagnet generating recoil magnetic force, a magnetic suspension electromagnet, a guide rail, a middle annular groove, a power generation stator superconducting electromagnetic coil, a power generation rotor superconducting electromagnetic coil, a storage battery, an electromagnetic coil current commutator, a phase change refrigeration device, a liquid nitrogen storage tank, a working fluid pump, a liquid nitrogen delivery pipe, a nitrogen recovery pipe, a liquid nitrogen and nitrogen delivery composite pipe, a shaft center composite pipe, a vacuum pump, an outward power supply device, and a magnetic line isolation plate.
[0013] In the present invention, the equipment load-bearing support in the above-mentioned device is composed of a load-bearing pillar, a lower load-bearing outer ring beam, a lower load-bearing inner ring beam, a lower load-bearing cross beam, an upper load-bearing outer ring beam, an upper load-bearing inner ring beam, and an upper load-bearing cross beam, so as to bear the weight of the vacuum box in the equipment and the components inside the vacuum box.
[0014] In the present invention, the power turntable in the above device is arranged in a vacuum box, and is composed of a power turntable shaft, a long handle, and an annular groove. The long handle and the annular groove are arranged in multiple ways, and the inner end of the long handle is fixedly connected to the power turntable shaft, and the long handle is fixedly connected to the annular groove; superconducting electromagnets generating recoil electromagnetic force are evenly distributed on both sides of the inner side of the outer end annular groove, and magnetic levitation superconducting electromagnets are evenly distributed at the bottom of the outer end annular groove; the above superconducting electromagnets and the corresponding superconducting electromagnets arranged on the guide rail fixedly connected to the vacuum box plate surface generate electromagnetic forces of the same sex repelling each other, and the above electromagnetic force realizes magnetic levitation after overcoming the gravity of the power turntable, and drives the power turntable to rotate rapidly at the same time. A plurality of middle annular grooves are arranged on the middle plate surface of the power turntable, and the power rotor superconducting electromagnetic coils are evenly distributed in the middle annular grooves. The specific number of the power rotor superconducting electromagnetic coils and the power stator superconducting electromagnetic coils evenly distributed at each location is determined by the power generation power and power generation frequency determined by the power generation equipment. Corresponding to the above-mentioned middle annular groove, the power generation stator superconducting electromagnetic coils are evenly distributed on the vacuum box plate surface. The power turntable shaft is fixed by upper and lower positioning bearings, and the positioning bearings are fixedly connected to the upper and lower plates of the vacuum box.
[0015] In the present invention, the vacuum box panel and the periphery in the above device are made of stainless steel plates, which are fixedly connected to the load-bearing bracket to withstand the atmospheric pressure outside the box. The power turntable shaft, long handle, annular groove and guide rail in the vacuum box are all made of non-magnetic metal materials. The magnetic line isolation plate is set between the two superconducting electromagnetic coils, and the plate consists of an upper and a lower section; the upper section is fixedly connected to the power turntable, and the lower section is fixedly connected to the vacuum box panel.
[0016] In the present invention, the phase change cold refrigeration equipment in the above device produces liquid nitrogen with a temperature of -196°C with high efficiency and low energy consumption. The liquid nitrogen is injected into the liquid nitrogen storage tank, pumped into the liquid nitrogen delivery pipe through a working fluid pump, and then transported through the inner tube of the liquid nitrogen and nitrogen gas delivery composite pipe. A part of it is input into the superconducting electromagnet in the annular groove through the inner tube of the composite pipe in the middle of the power turntable shaft, and the other part is input into the superconducting electromagnet arranged on the vacuum box plate surface; the above electromagnetic coil is immersed in liquid nitrogen, and the nitrogen generated by endothermic vaporization is recovered through the outer tube in the liquid nitrogen and nitrogen gas delivery composite pipe and enters the phase change cold refrigeration equipment to be reliquefied.
[0017] In the present invention, the setting of the power generation rotor superconducting electromagnetic coil and the power generation stator superconducting electromagnetic coil means that it can be set between the bottom surface of the power turntable and the bottom plate surface of the vacuum box; it can also be set between the top of the power turntable and the top plate surface of the vacuum box; it can also be set between the bottom surface of the power turntable and the bottom plate surface of the vacuum box and between the top of the power turntable and the top plate surface of the vacuum box at the same time.
[0018] In the present invention, annular grooves are arranged at multiple locations on the bottom plate surface in the middle of the power turntable, and the power generation rotor superconducting electromagnetic coils are evenly distributed in the annular grooves. At the same time, the power generation stator superconducting electromagnetic coils are correspondingly arranged on the vacuum box plate surface. The "multiple locations" means that it can be one location, two locations, or more than two locations.
[0019] The present invention uses superconducting electromagnetic technology repeatedly twice. First, the superconducting electromagnet arranged in the annular groove at the outer end of the long rotating handle rotating at high speed on the power turntable and the corresponding superconducting electromagnet fixed on the vacuum box plate surface generate a recoil electromagnetic force of like-charge repulsion, thereby generating huge mechanical kinetic energy during high-speed operation; then, middle annular grooves are arranged at multiple locations on the middle plate surface of the above-mentioned power turntable, and superconducting electromagnets are evenly distributed in the grooves, which serve as power generation rotors, and are cut at high speed with the corresponding superconducting electromagnetic coils arranged on the vacuum box plate surface as power generation stators, thereby achieving the technical effect of efficiently converting the huge mechanical kinetic energy generated by the power equipment into clean electricity. BRIEF DESCRIPTION OF THE DRAWINGS
[0020] The present invention is described in detail below with reference to the accompanying drawings.
[0021] Figure 1 This is a schematic diagram of the structure of a large-scale superconducting power generation device that runs on the same axis as the engine. Specific implementation plan
[0022] See also Figure 1 The large-scale superconducting power generation equipment device described in the present invention, which runs coaxially with the engine, uses superconducting electromagnetic technology twice in succession to achieve the technical effect of efficiently converting the huge mechanical kinetic energy generated by the power equipment into clean electricity.
[0023] The process method of the large-scale superconducting power generation equipment that runs coaxially with the engine described in the present invention: adopt the invention patent technology and refrigeration equipment of the invention name "phase change refrigeration process method and device", which can produce and provide liquid nitrogen with a temperature of -196°C in large quantities with high efficiency and low energy consumption; adopt the invention patent technology and power equipment of the invention name "long rotating handle fast winding axis magnetic levitation and electromagnetic force recoil power generation equipment", which can generate huge mechanical output. Its technical features are: in the same power equipment, low-temperature superconducting technology is repeatedly used twice. The first time is to set a superconducting electromagnet in an annular groove set at the outer end of a long rotating handle that rotates rapidly around an axis, and the electromagnetic force generated by it is efficiently combined with the superconducting electromagnet on the guide rail fixedly set on the vacuum box board surface to produce a like-sex repulsive recoil force, thereby generating huge mechanical kinetic energy during high-speed travel; the second time is to set annular grooves at multiple locations in the middle of the above-mentioned power turntable, and set superconducting electromagnets in the annular grooves, so that it can efficiently generate electromagnetic force, and let it serve as a rotor in the power generation equipment, and cut the superconducting electromagnetic coil set at the corresponding position of the vacuum box board surface as the power generation stator during high-speed rotation, so that it can generate electricity efficiently.
[0024] Since the rotors and stators of the power generation equipment described above can be arranged in multiple places in the middle of the power turntable and the vacuum box surface, and since they are in a superconducting state, the scale of power generation can be further expanded.
[0025] The large-scale superconducting power generation equipment of the present invention, which runs coaxially with the engine, is implemented by using the above-mentioned process method.
[0026] like Figure 1 As shown, a large-scale superconducting power generation equipment device coaxially running with an engine includes an electromagnet, an equipment load-bearing bracket 1, a load-bearing pillar 2, a lower load-bearing outer ring beam 3, a lower load-bearing inner ring beam 4, a lower load-bearing cross beam 5, an upper load-bearing outer ring beam 6, an upper load-bearing inner ring beam 7, an upper load-bearing cross beam 8, a vacuum box 9, a vacuum box insulation layer 10, a lower positioning bearing 11, an upper positioning bearing 12, a power turntable 13, a power turntable shaft 14, a long handle 15, and an outer end annular groove 16. A superconducting electromagnet 17 for generating recoil magnetic force, a magnetic levitation electromagnet 18, a guide rail 19, a middle annular groove 20, a power generation stator superconducting electromagnetic coil 21, a power generation rotor superconducting electromagnetic coil 22, a magnetic line isolation plate 23, a battery 24, an electromagnetic coil current commutator 25, a phase change refrigeration device 26, a liquid nitrogen storage tank 27, a working fluid pump 28, a liquid nitrogen delivery pipe 29, a nitrogen recovery pipe 30, a liquid nitrogen and nitrogen delivery composite pipe 31, a machine shaft center composite pipe 32, a vacuum pump 33, and an external power supply 34.
[0027] In the present invention, the equipment load-bearing support 1 in the above-mentioned device is composed of a load-bearing pillar 2, a lower load-bearing outer ring beam 3, a lower load-bearing inner ring beam 4, a lower load-bearing cross beam 5, an upper load-bearing outer ring beam 6, an upper load-bearing inner ring beam 7, and an upper load-bearing cross beam 8, which bears the weight of the vacuum box 9 and the internal components of the vacuum box 9 in the equipment.
[0028] In the present invention, the power turntable 13 in the above-mentioned device is arranged in the vacuum box 9, and is jointly composed of the power turntable shaft 14, the long handle 15, and the annular grooves 16 and 20. The long handle 15 and the annular grooves 16 and 20 are arranged in multiple ways. The inner end of the long handle 15 is fixedly connected to the power turntable shaft 14, and the long handle 15 is fixedly connected to the annular grooves 16 and 20; superconducting electromagnets 17 for generating recoil electromagnetic force are evenly distributed on both sides of the inner side of the outer end annular groove 16, and magnetic levitation superconducting electromagnets 18 are evenly distributed at the bottom of the outer end annular groove; the above-mentioned superconducting electromagnets 17 and 18 and the corresponding superconducting electromagnets 17 and 18 arranged on the guide rails 19 fixedly connected to the plate surface of the vacuum box 9 generate electromagnetic forces of the same charge repelling each other. The above-mentioned electromagnetic force realizes magnetic levitation after overcoming the gravity of the power turntable 13, and at the same time drives the power turntable 13 to rotate rapidly. A plurality of central annular grooves 20 are arranged in the middle of the power turntable 13, and the power generation rotor superconducting electromagnetic coils 22 are evenly distributed in the central annular grooves 20. The specific number of the power generation rotor superconducting electromagnetic coils 22 and the power generation stator superconducting electromagnetic coils 21 evenly distributed in each place is determined by the power generation power and power generation frequency determined by the power generation equipment. Corresponding to the above-mentioned central annular grooves 20, the power generation stator superconducting electromagnetic coils 21 are evenly distributed on the plate surface of the vacuum box 9. The power turntable shaft 14 is fixed by the upper and lower positioning bearings 11, 12, and the positioning bearings 11, 12 are fixedly connected to the upper and lower plate surfaces of the vacuum box 9.
[0029] In the present invention, the panel and periphery of the vacuum box 9 in the above device are made of stainless steel plates, which are fixedly connected to the load-bearing bracket 1 to withstand the atmospheric pressure outside the box. The power turntable shaft 14, the long handle 15, the annular grooves 16, 20, and the guide rails 19 in the vacuum box 9 are all made of non-magnetic metal materials. The magnetic field line isolation plate 23 is set between the two superconducting electromagnetic coils 21 and 22, and the plate consists of an upper and a lower section; the upper section is fixedly connected to the power turntable 13, and the lower section is fixedly connected to the panel of the vacuum box 9.
[0030] In the present invention, the phase change cold refrigeration equipment 26 in the above-mentioned device produces liquid nitrogen with a temperature of -196°C with high efficiency and low energy consumption. The liquid nitrogen is injected into the liquid nitrogen storage tank 27, pumped into the liquid nitrogen delivery pipe 29 through the working fluid pump 28, and then transported through the inner tube of the liquid nitrogen and nitrogen gas delivery composite pipe 31. A part of it is input into the superconducting electromagnets 17, 18 and the superconducting electromagnetic coil 22 in the annular grooves 16, 20 through the inner tube of the shaft center composite pipe 32 in the middle of the power turntable shaft 14, and the other part is input into the superconducting electromagnets 17, 18 and the superconducting electromagnetic coil 21 arranged on the plate surface of the vacuum box 9; the above-mentioned electromagnets and electromagnetic coils are immersed in liquid nitrogen, and the nitrogen generated by absorbing heat and vaporizing is then recovered into the phase change cold refrigeration equipment 26 through the shaft center composite pipe 32 and the outer tube in the liquid nitrogen and nitrogen gas delivery composite pipe 31 to allow it to be liquefied again.
[0031] In the present invention, the setting of the power generation rotor superconducting electromagnetic coil 22 and the power generation stator superconducting electromagnetic coil 21 means that it can be set between the bottom surface of the power turntable 13 and the bottom plate surface of the vacuum box 9; it can also be set between the top of the power turntable 13 and the top plate surface of the vacuum box 9; it can also be set between the bottom surface of the power turntable 13 and the bottom plate surface of the vacuum box 9 and between the top of the power turntable 13 and the top plate surface of the vacuum box 9 at the same time.
[0032] In the present invention, annular grooves 20 are arranged at multiple locations on the central plate surface of the power turntable 13, and the power generation rotor superconducting electromagnetic coils 22 are evenly distributed in the annular grooves 20. At the same time, the power generation stator superconducting electromagnetic coils 21 are correspondingly arranged on the plate surface of the vacuum box 9. The "multiple locations" means that it can be one location, two locations, or more than two locations.
[0033] The operating procedure of the large-scale superconducting power generation device coaxially running with the engine described in the present invention is as follows:
[0034] 1. Start the vacuum pump 33 to extract the air in the vacuum box 9.
[0035] 2. Start the phase change to enable the cold refrigeration equipment 26 to efficiently produce liquid nitrogen at a temperature of -196°C, and inject it into the liquid nitrogen storage tank 27.
[0036] 3. Start the working fluid pump 28, pump the liquid nitrogen into the liquid nitrogen delivery pipe 29, and deliver it to the superconducting electromagnets 17, 18 fixedly arranged on the guide rail 19 of the vacuum box 9 and the superconducting electromagnetic coil 21 of the power generation stator fixedly arranged on the plate surface of the vacuum box 9 through the inner tube of the liquid nitrogen and nitrogen delivery composite pipe 31; at the same time, deliver it to the superconducting electromagnets 17, 18, 22 arranged in the annular grooves 16, 20 at the outer end and the middle of the long handle 15 through the central composite pipe 32 of the shaft in the power turntable shaft 14. At the same time, the gasified nitrogen is recovered to the phase change refrigeration equipment 26 through the liquid nitrogen and nitrogen delivery composite pipe 31 and the outer pipe of the central composite pipe 32 of the shaft to be liquefied again.
[0037] 4. Start the electromagnetic coil current commutator 25, so that the superconducting electromagnets 17, 18 in the annular groove 16 at the outer end of the long handle 15 and the corresponding superconducting electromagnets 17, 18 fixed on the guide rail 19 are energized, and generate electromagnetic forces of like charges repelling each other, thereby realizing magnetic suspension and realizing recoil drive rapid operation.
[0038] 5. The magnetic force lines are blocked by the magnetic force lines blocking plates 23 disposed between the two generating rotor superconducting electromagnetic coils 22 and the generating stator superconducting electromagnetic coils 21 to prevent the electromagnetic force lines from interfering with each other.
[0039] 6. After the rotation speed of the power turntable 13 reaches the standard, the power generation rotor superconducting electromagnetic coil 22 in the annular groove 20 on the middle plate surface of the power turntable 13 is energized to cut the corresponding power generation stator superconducting electromagnetic coil 21 to achieve large-scale and high-efficiency power generation.
[0040] 7. Start the external power supply device 34 to supply power to the outside.
[0041] The present invention uses superconducting electromagnetic technology repeatedly twice. First, the superconducting electromagnet arranged in the annular groove at the outer end of the long rotating handle rotating at high speed on the power turntable and the corresponding superconducting electromagnet fixed on the inner plate of the vacuum box generate a recoil electromagnetic force of like-charge repulsion, thereby generating huge mechanical kinetic energy during high-speed operation; then, middle annular grooves are arranged at multiple locations in the middle of the above-mentioned power turntable, and superconducting electromagnets are evenly distributed in the grooves, which serve as power generation rotors, and are cut at high speed with the corresponding superconducting electromagnetic coils arranged on the inner plate of the vacuum box as power generation stators, thereby achieving the technical effect of efficiently converting the huge mechanical kinetic energy generated by the power equipment into clean electricity.
[0042] The present invention has a wide range of uses. The application of the present invention in principle, industry and commerce are all included in the scope of the claims of the present invention. Any improved technology based on this is taken from the claims of the present invention.
Claims
1. A process method for a large-scale superconducting power generation device that runs coaxially with an engine. The method adopts the invention patent technology of the process method and device for refrigeration by phase change and the refrigeration equipment, which can produce and provide liquid nitrogen at a temperature of -196°C in large quantities with high efficiency and low energy consumption; adopts the invention patent technology of long-handle fast-winding magnetic suspension and electromagnetic force recoil power generation equipment and power equipment, which can generate huge mechanical output; the method is characterized by: In the same power equipment, low-temperature superconducting technology is reused twice; the first time is to set a superconducting electromagnet in the annular groove at the outer end of the long rotating handle that rotates rapidly around the axis, and the electromagnetic force generated by it is efficiently combined with the superconducting electromagnet on the guide rail fixedly set on the panel inside the vacuum box to produce the same-sex repulsive recoil force, thereby generating huge mechanical kinetic energy during high-speed movement; the second time is to set annular grooves in multiple places in the middle of the above-mentioned power turntable, and set superconducting electromagnets in the annular grooves to make it efficiently generate electromagnetic force, and let it serve as the rotor in the power generation equipment, and cut the superconducting electromagnetic coil set at the corresponding position of the vacuum box panel as the power generation stator during high-speed rotation, so as to generate electricity efficiently. Since the rotors and stators of the power generation equipment described above can be arranged in multiple places in the middle of the power turntable and the vacuum box surface, and since they are in a superconducting state, the scale of power generation can be further expanded.
2. A large-scale superconducting power generation equipment device that runs coaxially with the engine, comprising an electromagnet, an equipment load-bearing bracket, a load-bearing pillar, a lower load-bearing outer ring beam, a lower load-bearing inner ring beam, a lower load-bearing cross beam, an upper load-bearing outer ring beam, an upper load-bearing inner ring beam, an upper load-bearing cross beam, a vacuum box, a vacuum box insulation layer, a lower positioning bearing, an upper positioning bearing, a power turntable, a power turntable shaft, a long handle, an outer end annular groove, a superconducting electromagnet that generates recoil magnetic force, a magnetic levitation electromagnet, a guide rail, a middle annular groove, a power generation stator superconducting electromagnetic coil, a power generation rotor superconducting electromagnetic coil, a battery, an electromagnetic coil current commutator, a phase change refrigeration device, a liquid nitrogen storage tank, a working fluid pump, a liquid nitrogen delivery pipe, a nitrogen recovery pipe, a liquid nitrogen and nitrogen delivery composite pipe, a shaft center composite pipe, a vacuum pump, an outward power supply, and a magnetic line isolation plate. In the present invention, the equipment load-bearing support in the above-mentioned device is composed of a load-bearing pillar, a lower load-bearing outer ring beam, a lower load-bearing inner ring beam, a lower load-bearing cross beam, an upper load-bearing outer ring beam, an upper load-bearing inner ring beam, and an upper load-bearing cross beam, so as to bear the weight of the vacuum box in the equipment and the components inside the vacuum box. In the present invention, the power turntable in the above device is arranged in a vacuum box, and is composed of a power turntable shaft, a long handle, and an annular groove. The long handle and the annular groove are arranged in multiple ways, and the inner end of the long handle is fixedly connected to the power turntable shaft, and the long handle is fixedly connected to the annular groove; superconducting electromagnets generating recoil electromagnetic force are evenly distributed on both sides of the inner side of the outer end annular groove, and magnetic levitation superconducting electromagnets are evenly distributed at the bottom of the outer end annular groove; the above superconducting electromagnets and the corresponding superconducting electromagnets arranged on the guide rail fixedly connected to the vacuum box plate surface generate electromagnetic forces of the same sex that repel each other, and the above electromagnetic force realizes magnetic levitation after overcoming the gravity of the power turntable, and drives the power turntable to rotate rapidly at the same time. A plurality of middle annular grooves are arranged on the middle plate surface of the power turntable, and the power rotor superconducting electromagnetic coils are evenly distributed in the middle annular grooves. The specific number of the power rotor superconducting electromagnetic coils and the power stator superconducting electromagnetic coils evenly distributed at each location is determined by the power generation power and power generation frequency determined by the power generation equipment. Corresponding to the above-mentioned middle annular groove, the power generation stator superconducting electromagnetic coils are evenly distributed on the vacuum box plate surface. The power turntable shaft is fixed by upper and lower positioning bearings, and the positioning bearings are fixedly connected to the upper and lower plates of the vacuum box.
3. The method according to claim 2, characterized in that The arrangement of the power generation rotor superconducting electromagnetic coil and the power generation stator superconducting electromagnetic coil means that it can be arranged between the bottom surface of the power turntable and the bottom plate surface of the vacuum box; it can also be arranged between the top of the power turntable and the top plate surface of the vacuum box; it can also be arranged between the bottom surface of the power turntable and the bottom plate surface of the vacuum box and between the top of the power turntable and the top plate surface of the vacuum box at the same time.
4. The method according to claim 2, characterized in that: Annular grooves are arranged at multiple locations on the bottom plate surface in the middle of the power turntable, and the generating rotor superconducting electromagnetic coils are evenly distributed in the annular grooves. At the same time, the generating stator superconducting electromagnetic coils are correspondingly arranged on the vacuum box plate surface. The "multiple locations" means that it can be one location, two locations, or more than two locations.