High-altitude wind power generation device for AI server

Abstract

This invention relates to the field of wind power generation technology and discloses a high-altitude wind power generation device for AI servers. The device includes a floating capsule comprising a front capsule and a rear capsule, with a sliding cylinder fixedly connected between them. A connecting plate is fixedly connected to one side of the sliding cylinder. A fixing ring is fixedly connected to the outer circumference of the sliding cylinder, and a rotating shaft is rotatably connected to the outer circumference of the fixing ring. A wind tunnel is fixedly connected to the end of the rotating shaft away from the fixing ring, and a connecting ring plate is fixedly connected to one side of the wind tunnel. This high-altitude wind power generation device for AI servers effectively solves the problem in existing technologies where, in extreme weather conditions such as typhoons and strong turbulence, high wind speeds easily cause the blades to rotate at excessive speeds, leading to blade breakage or tearing due to excessive centrifugal force, resulting in mechanical failures such as blade damage and hub breakage, thus increasing the operation and maintenance costs of high-altitude wind power generation equipment.

Description

Technical Field

[0001] This invention relates to the field of wind power generation technology, and more specifically to a high-altitude wind power generation device for AI servers. Background Technology

[0002] High-altitude wind energy refers to wind energy resources at altitudes above 300 meters, characterized by high wind speeds, stable wind directions, and high energy density. A high-altitude wind turbine is a device that generates electricity using high-altitude wind energy. This technology expands the application dimensions of new energy sources and can serve as a power source for areas with power shortages. Such systems typically consist of a floating capsule, wind turbines, tethers, and a ground control station. The capsule can achieve stable levitation by filling it with helium, and its duct structure can be used to accelerate airflow to improve wind energy utilization. Multiple wind turbines can be arranged inside to generate electricity. By placing an AI server directly on a high-altitude wind turbine, the turbine directly provides power to the AI ​​server. The AI ​​server then transmits signals to the ground, and the high-altitude turbine provides continuous and stable power output, reducing power transmission losses and improving energy efficiency. AI servers generate a large amount of heat during operation. Traditional data centers rely on mechanical cooling systems (such as air conditioning) for heat dissipation, resulting in high energy consumption. High-altitude environments have lower temperatures and higher wind speeds, allowing for direct heat dissipation through natural convection and wind cooling technologies, significantly reducing heat dissipation costs.

[0003] Currently, during the power generation process of high-altitude wind power equipment, the rotation speed of the wind turbine blades increases with the wind speed. When encountering extreme weather such as typhoons and strong turbulence, the high wind speed can easily cause the blades to rotate at excessive speed. Under extreme wind speeds, the blades may break or tear due to excessive centrifugal force, resulting in mechanical failures such as blade damage and hub breakage. This can easily cause power outages to AI servers and affect the stability of the power supply to AI servers. Summary of the Invention

[0004] In view of the above-mentioned shortcomings of the existing technology, the present invention provides a high-altitude wind power generation device for AI servers, which can effectively solve the problems in the background technology.

[0005] To achieve the above objectives, the present invention provides the following technical solution: This invention provides a high-altitude wind power generation device for AI servers, comprising: The buoyancy capsule includes a front capsule and a rear capsule, and a sliding cylinder is fixedly connected between the front capsule and the rear capsule. A connecting plate is fixedly connected to one side of the sliding cylinder. A fixed ring is fixedly connected to the outer circumference of the slide cylinder. A rotating shaft is rotatably connected to the outer circumference of the fixed ring. A wind duct is fixedly connected to the end of the rotating shaft away from the fixed ring. A connecting ring plate is fixedly connected to one side of the wind duct. A wind turbine is fixedly connected to one side of the connecting ring plate. A rotating hub is fixedly connected to the input shaft of the wind turbine. A blade is rotatably connected to the outer surface of the rotating hub. A support ring plate is rotatably connected to the outer surface of the blade. One end of the blade passes through the support ring plate and is fixedly connected to a T-shaped rod. A turn wheel is rotatably connected to the end of the T-shaped rod.

[0006] Furthermore, a limiting cylinder is fixedly connected to the outer circumference of the supporting ring plate, a telescopic cylinder is slidably connected to the inner wall of the limiting cylinder, a first magnetic block is fixedly connected to the end of the telescopic cylinder, a second magnetic block is fixedly connected to the outer circumference of the supporting ring plate, and a toggle slide rail is provided on the outer circumference of the telescopic cylinder, and the toggle wheel is slidably connected to the toggle slide rail.

[0007] Furthermore, the sliding rail includes a first vertical rail, a second spiral rail, a third vertical rail, a fourth spiral rail, and a fifth vertical rail.

[0008] Furthermore, the end of the telescopic cylinder is rotatably connected to a ball bearing, and the inner wall of the air duct is slidably connected to a sliding ring, which includes a first extrusion ring, a second extrusion ring, and a third extrusion ring.

[0009] Furthermore, a spring is fixedly connected between the sliding ring and the connecting ring plate, an electric slip ring is slidably connected to the outer circumference of the sliding cylinder, a sliding frame is fixedly connected to the outer circumference of the electric slip ring, a right-angle rod is fixedly connected to the end of the sliding frame, and a stop rod is fixedly connected to the end of the right-angle rod.

[0010] Furthermore, a rack is fixedly connected to the outer surface of the sliding frame, and a limit block and a gear are fixedly connected to the outer circumference of the rotating shaft, with the limit block located inside the sliding frame.

[0011] Furthermore, a fixed slide rail is fixedly connected to the outer surface of the connecting plate, a slide rod is slidably connected inside the fixed slide rail, and a server is rotatably connected to the outer circumference of the slide rod.

[0012] Furthermore, a rotating block is rotatably connected to the inner wall of the connecting plate, and a toggle plate is fixedly connected to the outer circumference of the rotating block. A toggle groove is formed on the outer surface of the toggle plate, and the slide rod is slidably connected to the toggle groove.

[0013] Furthermore, a push plate is fixedly connected to the outer circumference of the rotating block, a push wheel is rotatably connected to the outer surface of the push plate, a push slide rail is slidably connected to the outer surface of the connecting plate, the push wheel is slidably connected inside the push slide rail, and one end of the push slide rail is fixedly connected to an electric slip ring.

[0014] Furthermore, the push rail includes a first straight rail and a second straight rail, and the push wheel is slidably connected inside the first straight rail.

[0015] The technical solution provided by this invention has the following advantages compared with the prior art: 1. This invention elevates a floating capsule to a predetermined height, which in turn drives multiple wind turbines to the same height. In the high-altitude environment, the wind speed is stable and the wind energy density is high. The outer surface of the blades is aerodynamically designed. When the wind blows over the blades, the airflow velocity on both sides of the blades is different, generating a pressure difference (Bernoulli's principle), which creates thrust and drives the blades to rotate. This causes the blades to drive the rotating hub to rotate, which in turn drives the input shaft of the wind turbine to rotate. The input shaft drives the rotor to rotate, and the rotating rotor generates a rotating magnetic field in the stator of the wind turbine. Through the principle of electromagnetic induction (Faraday's law of electromagnetic induction), an alternating current is induced in the stator windings. The induced current generated by the wind turbine directly powers the server, eliminating the need for long-distance power transmission and reducing transmission losses. Furthermore, the high-altitude environment has low temperatures and high wind speeds, allowing for direct heat dissipation through natural convection and air cooling technology, significantly reducing heat dissipation costs.

[0016] 2. This invention involves setting an electric slip ring that moves towards a fixed ring along the outer surface of the sliding cylinder. The electric slip ring drives the sliding frame, right-angle rod, and stop rod to move synchronously. A spring pulls the sliding ring closer to the connecting ring plate, causing the ball to contact the second extrusion ring. The telescopic cylinder drives the actuating slide rail to move along the axis of the limiting cylinder, causing the actuating wheel to slide and connect sequentially with the first vertical rail, the second spiral rail, and the third vertical rail. Under the limiting action of the third vertical rail, the T-shaped rod and the blade cannot rotate around the blade axis, and the blade pitch angle is close to 45 degrees. By reducing the blade's windward area, the aerodynamic torque is reduced, the wind turbine input power is limited, generator overload is prevented, and the blades are prevented from breaking or tearing due to excessive centrifugal force, which could lead to mechanical failures such as blade damage and hub breakage, thus improving the stability of power supply to the AI ​​server.

[0017] 3. This invention uses an electric slip ring to move closer to the fixed ring along the outer surface of the slide cylinder. The electric slip ring drives the sliding frame, right-angle rod, and stop rod to move synchronously. The spring pulls the sliding ring closer to the connecting ring plate, so that the ball contacts the third extrusion ring. The actuating wheel slides in sequence with the third vertical rail, the fourth spiral rail, and the fifth vertical rail. Under the limiting action of the fifth vertical rail, the T-shaped rod and the blade cannot rotate around the blade axis. The blade pitch angle is close to 90 degrees. In extreme wind speeds, the blade pitch angle is adjusted to 90 degrees, so that the blade is parallel to the wind direction. The aerodynamic resistance is used to brake quickly, protecting the unit from mechanical damage and preventing the blade from breaking or tearing due to excessive centrifugal force, which would lead to mechanical failures such as blade damage and hub breakage. This helps to further improve the stability of power supply to AI servers.

[0018] 4. This invention uses an electric slip ring to continue moving closer to the fixed ring along the outer surface of the slide cylinder. The electric slip ring drives the sliding frame and rack to move synchronously. The moving rack drives the rotating shaft and the air duct to rotate 90 degrees around the rotating shaft through the gear, so that the air duct rotates 90 degrees around the rotating shaft to a "laid-down" posture. This changes the overall force structure of the equipment, effectively reduces the thrust of strong winds on the floating bag, enhances the stability of the floating bag in the high-altitude environment, and reduces the risk of bag swaying or displacement caused by strong winds.

[0019] 5. This invention uses an electric slip ring to continue moving closer to the fixed ring along the outer surface of the slide cylinder. By using the cooperation of the push wheel and the push rail, the rotating block, the actuating plate and other components are moved, moving the server from a good windward position to the side of the rear capsule away from the front capsule. This position adjustment further reduces the thrust of strong winds on the floating capsule, while also rationally arranging the equipment space and improving the wind resistance and stability of the overall system.

[0020] 6. The electrical energy generated by the high-altitude generator can directly power the AI ​​server, avoiding the long-distance transmission loss of electrical energy from the generator to the data center in the traditional mode. For example, high-altitude wind power generation systems transmit electrical energy through kilometer-level high-voltage transmission cables. This application eliminates intermediate links and improves energy utilization efficiency by deploying the AI ​​server directly at the generator. The low temperature at high altitudes, especially at 2000 meters, provides natural cooling conditions for the AI ​​server. The low temperature environment at high altitudes can significantly reduce the server's heat dissipation energy consumption and reduce reliance on auxiliary cooling equipment such as air conditioners. This application also avoids wind, rain, and lightning by adjusting the altitude of the high-altitude generator, allowing the AI ​​server to continue to operate normally in severe weather. Attached Figure Description

[0021] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0022] Figure 1 This is a schematic diagram of the overall structure of an embodiment of the present invention; Figure 2 This is a front view structural diagram of the buoyancy capsule in an embodiment of the present invention; Figure 3 This is a schematic diagram of the anterior capsule structure in an embodiment of the present invention; Figure 4 This is a schematic diagram of the posterior capsule structure in an embodiment of the present invention; Figure 5 This is a schematic diagram of the structure of the electric slip ring in an embodiment of the present invention; Figure 6 This is a schematic diagram of the structure of the air duct in an embodiment of the present invention; Figure 7 This is a schematic diagram of the right-angle rod in an embodiment of the present invention; Figure 8 This is a schematic diagram of the gear structure in an embodiment of the present invention; Figure 9 This is a schematic diagram of the rack structure in an embodiment of the present invention; Figure 10 This is a schematic diagram of the limiting block in an embodiment of the present invention; Figure 11 This is a schematic diagram of the structure of the air duct in a laid-down position in an embodiment of the present invention; Figure 12 This is a schematic diagram of the spring structure in an embodiment of the present invention; Figure 13 This is a schematic diagram of the structure of the limiting cylinder in an embodiment of the present invention; Figure 14 This is a schematic diagram of the sliding rail structure in an embodiment of the present invention; Figure 15 This is a schematic diagram of the rotating hub in an embodiment of the present invention; Figure 16 This is a schematic diagram of the blade structure in an embodiment of the present invention; Figure 17 This is a schematic diagram of the structure of the fixing ring in an embodiment of the present invention; Figure 18 This is a schematic diagram of the rotating block in an embodiment of the present invention; Figure 19 This is a schematic diagram of the structure of the toggle plate in an embodiment of the present invention; Figure 20 This is a schematic diagram of the fixed slide rail structure in an embodiment of the present invention; Figure 21 This is a schematic diagram of the structure of the sliding rail in an embodiment of the present invention.

[0023] The labels in the diagram represent: 1. Front bladder; 11. Rear bladder; 12. Slide cylinder; 13. Connecting plate; 2. Fixing ring; 21. Rotating shaft; 22. Wind duct; 23. Connecting ring plate; 24. Wind turbine; 25. Rotating hub; 26. Blade; 27. Support ring plate; 28. T-shaped rod; 29. ​​Actuating wheel; 3. Limiting cylinder; 31. Telescopic cylinder; 32. First magnetic block; 33. Second magnetic block; 34. Actuating slide rail; 341. First vertical rail; 342. Second spiral rail; 343. Third vertical rail; 344. Fourth spiral rail; 3 45. Fifth vertical rail; 4. Sliding ring; 41. First extrusion ring; 42. Second extrusion ring; 43. Third extrusion ring; 44. Ball bearing; 45. Spring; 46. Electric slip ring; 47. Sliding frame; 48. Right-angle rod; 49. Abutment rod; 5. Limiting block; 51. Gear; 52. Rack; 6. Fixed slide rail; 61. Slide rod; 62. Server; 7. Rotating block; 71. Actuating plate; 72. Actuating groove; 8. Push plate; 81. Push wheel; 82. Push slide rail; 821. First straight rail; 822. Second straight rail. Detailed Implementation

[0024] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0025] The present invention will be further described below with reference to embodiments. Example 1:

[0026] Please see Figures 1-21 This invention provides a technical solution: a high-altitude wind power generation device for AI servers, comprising: The buoyancy capsule includes a front capsule 1 and a rear capsule 11. A slide cylinder 12 is fixedly connected between the front capsule 1 and the rear capsule 11. A connecting plate 13 is fixedly connected to one side of the slide cylinder 12. A fixed ring 2 is fixedly connected to the outer circumference of the slide cylinder 12. A rotating shaft 21 is rotatably connected to the outer circumference of the fixed ring 2. A wind duct 22 is fixedly connected to the end of the rotating shaft 21 away from the fixed ring 2. A connecting ring plate 23 is fixedly connected to one side of the wind duct 22. A wind turbine 24 is fixedly connected to one side of the connecting ring plate 23. A rotating hub 25 is fixedly connected to the input shaft of the wind turbine 24. A blade 26 is rotatably connected to the outer surface of the rotating hub 25. A support ring plate 27 is rotatably connected to the outer surface of the blade 26. One end of the blade 26 passes through the support ring plate 27 and is fixedly connected to a T-shaped rod 28. A turn wheel 29 is rotatably connected to the end of the T-shaped rod 28.

[0027] A limiting cylinder 3 is fixedly connected to the outer circumference of the supporting ring 27. A telescopic cylinder 31 is slidably connected to the inner wall of the limiting cylinder 3. A first magnetic block 32 is fixedly connected to the end of the telescopic cylinder 31. A second magnetic block 33 is fixedly connected to the outer circumference of the supporting ring 27. A toggle slide rail 34 is provided on the outer circumference of the telescopic cylinder 31. The toggle wheel 29 is slidably connected to the toggle slide rail 34.

[0028] The sliding rail 34 includes a first vertical rail 341, a second spiral rail 342, a third vertical rail 343, a fourth spiral rail 344, and a fifth vertical rail 345.

[0029] The end of the telescopic cylinder 31 is rotatably connected to a ball bearing 44, and the inner wall of the air duct 22 is slidably connected to a sliding ring 4, which includes a first extrusion ring 41, a second extrusion ring 42, and a third extrusion ring 43.

[0030] A spring 45 is fixedly connected between the sliding ring 4 and the connecting ring 23. An electric sliding ring 46 is slidably connected to the outer circumference of the sliding cylinder 12. A sliding frame 47 is fixedly connected to the outer circumference of the electric sliding ring 46. A right-angle rod 48 is fixedly connected to the end of the sliding frame 47. A stop rod 49 is fixedly connected to the end of the right-angle rod 48.

[0031] A rack 52 is fixedly connected to the outer surface of the sliding frame 47, and a limit block 5 and a gear 51 are fixedly connected to the outer circumference of the rotating shaft 21, respectively. The limit block 5 is located inside the sliding frame 47.

[0032] A fixed slide rail 6 is fixedly connected to the outer surface of the connecting plate 13, and a slide rod 61 is slidably connected inside the fixed slide rail 6. A server 62 is rotatably connected to the outer circumference of the slide rod 61.

[0033] A rotating block 7 is rotatably connected to the inner wall of the connecting plate 13. A toggle plate 71 is fixedly connected to the outer circumference of the rotating block 7. A toggle groove 72 is provided on the outer surface of the toggle plate 71. The slide rod 61 is slidably connected to the toggle groove 72.

[0034] A push plate 8 is fixedly connected to the outer circumference of the rotating block 7. A push wheel 81 is rotatably connected to the outer surface of the push plate 8. A push slide rail 82 is slidably connected to the outer surface of the connecting plate 13. The push wheel 81 is slidably connected inside the push slide rail 82. One end of the push slide rail 82 is fixedly connected to the electric slip ring 46.

[0035] The pusher rail 82 includes a first straight rail 821 and a second straight rail 822, and the pusher wheel 81 is slidably connected inside the first straight rail 821.

[0036] Working principle: First step: In practical applications, such as Figure 1 , Figure 2 and Figure 3 As shown, by raising the aerostat to a predetermined height, the aerostat drives multiple wind turbines 24 to the predetermined height. In the high-altitude environment, the wind speed is stable and the wind energy density is high. The outer surface of the blades 26 adopts an aerodynamic design, similar to an airplane wing. When the wind blows over the blades, the airflow speed on both sides of the blades is different, generating a pressure difference (Bernoulli's principle), which forms thrust and drives the blades to rotate. This causes the blades 26 to drive the rotating hub 25 to rotate, which in turn drives the input shaft of the wind turbine 24 to rotate. The input shaft drives the rotor to rotate, and the rotating rotor generates a rotating magnetic field in the stator of the wind turbine 24. Through the principle of electromagnetic induction (Faraday's law of electromagnetic induction), an alternating current is induced in the stator winding. The induced current generated by the wind turbine 24 directly supplies power to the server 62. The power does not need to be transmitted over long distances, thereby reducing transmission losses. Furthermore, the high-altitude environment has low temperature and high wind speed, which can be directly dissipated using natural convection and wind cooling technology, significantly reducing heat dissipation costs.

[0037] Second process: In practical applications, the wind speed near the buoy is monitored using an anemometer. When the wind speed near the buoy is too high, the electric slip ring 46 is controlled to slide along the outer circumference of the slide cylinder 12 towards the fixed ring 2. The electric slip ring 46 drives multiple sliding frames 47 on its outer circumference to move along the axis of the slide cylinder 12. The sliding frames 47 drive the right-angle rods 48 at their ends to move along the axis of the slide cylinder 12. The right-angle rods 48 drive the abutment rods 49 at their ends to move along the axis of the slide cylinder 12, so that the end of the abutment rod 49 that contacts the sliding ring 4 moves towards the connecting ring 23. Under the elastic action of the spring 45, the spring 45 pulls the sliding ring 4 along the inner wall of the air duct 22 towards the connecting ring 23, causing the ball 44 to separate from the first compression ring 41, releasing the first compression ring 41 from the ball 44. Under the magnetic force of the first magnetic block 32 and the second magnetic block 33, the second magnetic block 33 pushes the first magnetic block 32 and the telescopic cylinder 31 along the inner wall of the limiting cylinder 3 towards the outside of the limiting cylinder 3. The telescopic cylinder 31 drives the ball 44 at its end to move along the axis of the limiting cylinder 3 towards the second compression ring 42 until the ball 44... Contacting the second compression ring 42, during this process, the moving telescopic cylinder 31 drives the actuating slide rail 34 on its outer circumference to move along the axis of the limiting cylinder 3, causing the actuating wheel 29 to slide in sequence with the first vertical rail 341, the second spiral rail 342, and the third vertical rail 343. During the sliding connection between the actuating wheel 29 and the first vertical rail 341, under the limiting action of the first vertical rail 341, the T-shaped rod 28 and the blade 26 cannot rotate around the axis of the blade 26, the blade pitch angle of the blade 26 is close to zero degrees, and the blade of the blade 26 is close to perpendicular to the wind direction. During the wind energy capture process, when the actuating wheel 29 is slidably connected to the second spiral rail 342, the limiting action of the second spiral rail 342 causes the actuating wheel 29 to drive the T-shaped rod 28 to rotate around the axis of the blade 26. The T-shaped rod 28 then drives the blade 26 to rotate around its axis, thereby increasing the pitch angle of the blade 26. During the slidably connected process between the actuating wheel 29 and the third vertical rail 343, the limiting action of the third vertical rail 343 prevents the T-shaped rod 28 and the blade 26 from rotating around the axis of the blade 26, resulting in a pitch angle of the blade 26 close to 45 degrees. Figure 15 As shown, by reducing the windward area of ​​the blades, the aerodynamic torque is reduced, the input power of the wind turbine is limited, the generator is prevented from overloading, and the blades are prevented from breaking or tearing due to excessive centrifugal force, which could lead to mechanical failures such as blade damage and hub breakage, thereby improving the stability of power supply to the AI ​​server.

[0038] As a further embodiment of the present invention, when the anemometer detects a further increase in the wind speed around the floating capsule, in order to extend the service life of the wind turbine 24, the electric slip ring 46 is controlled to continue sliding along the outer circumference of the slide cylinder 12 towards the fixed ring 2. The electric slip ring 46 drives multiple sliding frames 47 on its outer circumference to move along the axis of the slide cylinder 12. The sliding frames 47 drive the right-angle rods 48 at their ends to move along the axis of the slide cylinder 12. The right-angle rods 48 drive the abutment rods 49 at their ends to move along the axis of the slide cylinder 12, so that the abutment rods 49 and the slide cylinder 12 move together. The end of the moving ring 4 that is in contact with the connecting ring 23 moves again. Under the elastic action of the spring 45, the spring 45 pulls the sliding ring 4 closer to the connecting ring 23 along the inner wall of the air duct 22, causing the ball 44 to separate from the second compression ring 42, releasing the second compression ring 42 from the ball 44. Under the magnetic force of the first magnetic block 32 and the second magnetic block 33, the second magnetic block 33 pushes the first magnetic block 32 and the telescopic cylinder 31 to move along the inner wall of the limiting cylinder 3 to the outside of the limiting cylinder 3. The telescopic cylinder 31 drives the ball 44 at its end to move along the axis of the limiting cylinder 3. The ball bearing 44 moves towards the second extrusion ring 42 until it contacts the third extrusion ring 43. During this process, the moving telescopic cylinder 31 drives the actuating slide rail 34 on its outer circumference to move along the axis of the limiting cylinder 3, so that the actuating wheel 29 slides in sequence with the third vertical rail 343, the fourth spiral rail 344, and the fifth vertical rail 345. During the sliding connection between the actuating wheel 29 and the third vertical rail 343, under the limiting action of the third vertical rail 343, the T-shaped rod 28 and the blade 26 cannot rotate around the axis of the blade 26, and the pitch angle of the blade 26 is close to four. At 15 degrees, during the sliding connection between the actuating wheel 29 and the fourth spiral rail 344, under the limiting action of the fourth spiral rail 344, the actuating wheel 29 drives the T-shaped rod 28 to rotate around the axis of the blade 26. The T-shaped rod 28 drives the blade 26 to rotate around the axis of the blade 26, thereby further increasing the pitch angle of the blade 26. During the sliding connection between the actuating wheel 29 and the fifth vertical rail 345, under the limiting action of the fifth vertical rail 345, the T-shaped rod 28 and the blade 26 cannot rotate around the axis of the blade 26, and the pitch angle of the blade 26 is close to 90 degrees. Figure 16 As shown, at extreme wind speeds, adjusting the blade pitch angle to 90 degrees makes the blades parallel to the wind direction. This utilizes aerodynamic drag for rapid braking, protecting the unit from mechanical damage and preventing blade breakage or tearing due to excessive centrifugal force. This can lead to mechanical failures such as blade damage and hub breakage, and further improves the stability of power supply to AI servers.

[0039] Third process: In practical applications, when the anemometer detects excessively high wind speeds around the buoy, to reduce the thrust exerted by strong winds on the buoy, the electric slip ring 46 is controlled to continue sliding along the outer circumference of the slide cylinder 12 towards the fixed ring 2. The electric slip ring 46 drives multiple sliding frames 47 on its outer circumference to move along the axis of the slide cylinder 12. Figure 7 and Figure 8 As shown, the moving sliding frame 47 separates from the limiting block 5 (the limiting block 5 separates from the inner wall of the sliding frame 47, releasing the limiting effect of the sliding frame 47 on the limiting block 5, allowing the limiting block 5 to rotate around the axis of the rotating shaft 21). The rack 52 begins to mesh with the gear 51. As the sliding frame 47 continues to move, it drives the rack 52 on its outer surface to continue moving. Under the meshing action of the rack 52 and the gear 51, the moving rack 52 drives the gear 51 to rotate around the axis of the rotating shaft 21. The gear 51 drives the rotating shaft 21 to rotate around the axis of the rotating shaft 21. The rotating shaft 21 drives the air duct 22 to rotate around the axis of the rotating shaft 21. After the air duct 22 rotates ninety degrees around the axis of the rotating shaft 21, the rack 52 separates from the gear 51, and the sliding frame 47 continues to move, as... Figure 9 and Figure 10 As shown, the limiting block 5 contacts the inner wall of the sliding frame 47 again. The sliding frame 47 limits the limiting block 5 and the rotating shaft 21 through its inner wall, preventing the rotating shaft 21 and the air duct 22 from rotating around the axis of the rotating shaft 21. Figure 11 As shown, the air duct 22 is in a "laid-down" position, thereby reducing the thrust of strong winds on the floating capsule.

[0040] As a further embodiment of the present invention, by controlling the electric slip ring 46 to continue sliding along the outer circumference of the slide cylinder 12 towards the fixed ring 2, the electric slip ring 46 drives the push slide rail 82 at its end to move along the axis of the slide cylinder 12, so that the push wheel 81 is slidably connected to the first straight rail 821 and the second straight rail 822 in sequence. During the process of the push wheel 81 slidingly connecting with the first straight rail 821, under the limiting action of the first straight rail 821, the rotating block 7 cannot rotate around its own axis, thereby locking the position of the server 62. Figure 17 and Figure 18 As shown, two servers 62 are located on both sides of the rear capsule 11, in a favorable windward position. During the sliding connection between the push wheel 81 and the second straight rail 822, the push wheel 81 drives the push plate 8 to rotate around the axis of the rotating block 7. The push plate 8 drives the rotating block 7 to rotate around the axis of the rotating block 7. The rotating block 7 drives the actuating plate 71 on its outer circumference to rotate around the axis of the rotating block 7. The rotating actuating plate 71 pushes the slide rod 61 to slide along the fixed slide rail 6 through the actuating groove 72. Figure 20 and Figure 21As shown, the slide bar 61 causes the two servers 62 to move to the side of the rear capsule 11 away from the front capsule 1, thereby further reducing the thrust of the strong wind on the floating capsule.

[0041] When the wind speed is too high, the electric slip ring 46 is controlled to drive the movement of related components, causing the wind tunnel 22 to rotate 90 degrees around the rotating shaft 21 and assume a "laid-down" posture. This changes the overall force structure of the equipment, effectively reducing the thrust of strong winds on the floating capsule, enhancing the stability of the floating capsule in the high-altitude environment, and reducing the risk of capsule swaying or shifting due to strong winds. By further controlling the electric slip ring 46, the cooperation of the push wheel 81 and the push rail 82 drives the rotating block 7, the actuating plate 71, and other components to move the server 62 from a favorable windward position to the side of the rear capsule 11 away from the front capsule 1. This position adjustment further reduces the thrust of strong winds on the floating capsule, while also rationally arranging the equipment space and improving the overall system's wind resistance and stability.

[0042] The electricity generated by the high-altitude generator can directly power the AI ​​server, avoiding the long-distance transmission losses of electricity from the generator to the data center in the traditional model. For example, high-altitude wind power generation systems transmit electricity through kilometer-long high-voltage transmission cables. This application eliminates intermediate links and improves energy utilization efficiency by deploying the AI ​​server directly at the generator. The low temperature at high altitudes, especially at 2000 meters where the temperature is much lower than at ground level, provides natural cooling conditions for the AI ​​server. The low temperature environment at high altitudes can significantly reduce the server's heat dissipation energy consumption and reduce reliance on auxiliary cooling equipment such as air conditioners. This application also avoids wind, rain, and lightning by adjusting the altitude of the high-altitude generator, allowing the AI ​​server to continue to operate normally in severe weather.

[0043] The above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit it. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions will not cause the essence of the corresponding technical solutions to deviate from the protection scope of the technical solutions of the embodiments of the present invention.

Claims

1. A high-altitude wind power generation device for AI servers, comprising a floating capsule, characterized in that: The buoyancy capsule includes a front capsule (1) and a rear capsule (11), and a slide cylinder (12) is fixedly connected between the front capsule (1) and the rear capsule (11). A connecting plate (13) is fixedly connected to one side of the slide cylinder (12). A fixed ring (2) is fixedly connected to the outer circumference of the slide cylinder (12). A rotating shaft (21) is rotatably connected to the outer circumference of the fixed ring (2). A wind duct (22) is fixedly connected to one end of the rotating shaft (21) away from the fixed ring (2). A connecting ring plate (23) is fixedly connected to one side of the wind duct (22). A wind turbine generator (24) is fixedly connected to one side of the connecting ring plate (23). A rotating hub (25) is fixedly connected to the input shaft of the wind turbine generator (24). A blade (26) is rotatably connected to the outer surface of the rotating hub (25). A support ring plate (27) is rotatably connected to the outer surface of the blade (26). One end of the blade (26) passes through the support ring plate (27) and is fixedly connected to a T-shaped rod (28). A turn wheel (29) is rotatably connected to the end of the T-shaped rod (28).

2. The high-altitude wind power generation device for AI servers according to claim 1, characterized in that: The outer circumferential surface of the support ring (27) is fixedly connected to a limiting cylinder (3), the inner wall of the limiting cylinder (3) is slidably connected to a telescopic cylinder (31), the end of the telescopic cylinder (31) is fixedly connected to a first magnetic block (32), the outer circumferential surface of the support ring (27) is fixedly connected to a second magnetic block (33), the outer circumferential surface of the telescopic cylinder (31) is provided with a toggle slide rail (34), and the toggle wheel (29) is slidably connected to the toggle slide rail (34).

3. The high-altitude wind power generation device for AI servers according to claim 2, characterized in that: The sliding rail (34) includes a first vertical rail (341), a second spiral rail (342), a third vertical rail (343), a fourth spiral rail (344), and a fifth vertical rail (345).

4. A high-altitude wind power generation device for AI servers according to claim 2, characterized in that: The end of the telescopic cylinder (31) is rotatably connected to a ball bearing (44), and the inner wall of the air duct (22) is slidably connected to a sliding ring (4). The sliding ring (4) includes a first extrusion ring (41), a second extrusion ring (42), and a third extrusion ring (43).

5. A high-altitude wind power generation device for AI servers according to claim 4, characterized in that: A spring (45) is fixedly connected between the sliding ring (4) and the connecting ring (23). An electric slip ring (46) is slidably connected to the outer circumference of the sliding cylinder (12). A sliding frame (47) is fixedly connected to the outer circumference of the electric slip ring (46). A right-angle rod (48) is fixedly connected to the end of the sliding frame (47). A stop rod (49) is fixedly connected to the end of the right-angle rod (48).

6. A high-altitude wind power generation device for AI servers according to claim 5, characterized in that: A rack (52) is fixedly connected to the outer surface of the sliding frame (47), and a limit block (5) and a gear (51) are fixedly connected to the outer circumference of the rotating shaft (21), respectively. The limit block (5) is located inside the sliding frame (47).

7. A high-altitude wind power generation device for AI servers according to claim 5, characterized in that: The outer surface of the connecting plate (13) is fixedly connected to a fixed slide rail (6), and the inside of the fixed slide rail (6) is slidably connected to a slide rod (61). The outer circumferential surface of the slide rod (61) is rotatably connected to a server (62).

8. A high-altitude wind power generation device for AI servers according to claim 7, characterized in that: The inner wall of the connecting plate (13) is rotatably connected to a rotating block (7), and a toggle plate (71) is fixedly connected to the outer circumference of the rotating block (7). A toggle groove (72) is provided on the outer surface of the toggle plate (71), and the slide rod (61) is slidably connected to the toggle groove (72).

9. A high-altitude wind power generation device for an AI server according to claim 8, characterized in that: The outer circumferential surface of the rotating block (7) is fixedly connected to a push plate (8), the outer surface of the push plate (8) is rotatably connected to a push wheel (81), the outer surface of the connecting plate (13) is slidably connected to a push rail (82), the push wheel (81) is slidably connected inside the push rail (82), and one end of the push rail (82) is fixedly connected to an electric slip ring (46).

10. A high-altitude wind power generation device for an AI server according to claim 9, characterized in that: The push rail (82) includes a first straight rail (821) and a second straight rail (822), and the push wheel (81) is slidably connected inside the first straight rail (821).

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