High-altitude wind energy wind power generation device based on ai server

Abstract

This invention discloses a high-altitude wind power generation device based on an AI server, belonging to the field of wind power generation technology. It includes a ground-based wind turbine, a floating power generation platform, and an AI server. A hoisting rope connects one side of the ground-based wind turbine to the bottom of the floating power generation platform. A protective mechanism is connected to the bottom of the floating power generation platform, and the AI ​​server is housed inside the protective mechanism. The protective mechanism includes a fixed box connected to the bottom of the floating power generation platform. The fixed box has through-opening structures on both sides, and the AI ​​server is housed inside the fixed box. The AI ​​server has heat dissipation holes on both sides, respectively located within the openings on both sides of the fixed box. A level sensor is embedded in the top surface of the fixed box. This invention employs a three-tiered architecture combining the ground-based wind turbine, the floating power generation platform, and the AI ​​server, and integrates traction, power transmission, and communication via a hoisting rope, thereby improving the stability, efficiency, and effectiveness of high-altitude wind power generation.

Description

Technical Field

[0001] This application relates to the field of wind power generation technology, and more specifically, to a high-altitude wind power generation device based on an AI server. Background Technology

[0002] High-altitude wind energy, as a clean energy source with large reserves, high stability, and wide distribution, has higher utilization value compared to ground-based wind power. High-altitude wind power generation devices capture high-altitude airflow through floating platforms to achieve continuous power generation, representing an important development direction in the new energy field. With the increasing demand for intelligent operation and maintenance, high-altitude wind power devices are gradually being equipped with AI servers to achieve functions such as real-time analysis of power generation data, intelligent attitude control, and fault early warning, significantly improving power generation efficiency and operation and maintenance safety. However, AI servers are precision electronic devices with stringent requirements for operating attitude, ambient temperature, and protection level. Harsh operating conditions such as high-altitude low temperatures, turbulent airflow, icing, and water vapor condensation can easily lead to problems such as server attitude imbalance, component freezing damage, and blocked heat dissipation vents. Therefore, the protection and leveling structure of high-altitude wind power devices has become the core key to ensuring the stable operation of AI servers and realizing intelligent high-altitude power generation.

[0003] Existing high-altitude wind power generation devices mostly use helium-filled air bladders as the lifting carrier, paired with slings for ground traction, power transmission, and communication. Some high-end devices attempt to integrate AI servers for intelligent control. The conventional technical approach is to use the air bladders to provide lift to lift the power generation module into the air, and use a simple support structure to fix the AI ​​server to the bottom of the floating platform. The platform's attitude is roughly maintained by the tension of the slings. When encountering turbulent airflow at high altitudes, the floating platform of this type of high-altitude wind power generation device with an integrated AI server is prone to tilting. This not only causes the high-altitude wind power generation device to deviate from the optimal windward angle, reducing the utilization rate of wind energy captured by the wind turbine and directly affecting the power generation capacity, but also causes unstable or even interrupted power supply to the AI ​​server, affecting the AI ​​server's computing performance.

[0004] In view of this, this application proposes a highly stable high-altitude wind power generation device based on an AI server. Summary of the Invention

[0005] Technical problem to be solved: The purpose of this application is to provide a high-altitude wind power generation device based on an AI server, which solves the technical problem mentioned in the background.

[0006] Technical solution: The technical solution of this application provides a high-altitude wind power generation device based on an AI server, including a ground winding device, a floating power generation platform and an AI server. A sling is connected between one side of the ground winding device and the bottom surface of the floating power generation platform. A protective mechanism is connected to the bottom surface of the floating power generation platform. The AI ​​server is installed inside the protective mechanism, which is used to protect and support the AI ​​server. The protective mechanism includes a fixed box connected to the bottom of the floating power generation platform. The fixed box has through-open structures on both sides. An AI server is installed inside the fixed box. The AI ​​server has heat dissipation holes on both sides, which are respectively located inside the opening structures on both sides of the fixed box. A level sensor is embedded and fixed on the top surface of the fixed box. A helium booster pump is fixed on the top surface of the fixed box. A first adjustment component and a second adjustment component are attached to the outer wall of the fixed box. Both the first adjustment component and the second adjustment component are expandable and contractible bladder structures, and the bladder structures are filled with helium. Two sets of the first adjustment components are arranged mirror images of the vertical center line of the fixed box, and are respectively located on both sides of the fixed box. The second adjustment component is located between the two sets of the first adjustment components. The helium booster pump is connected to the first adjustment component and the second adjustment component. The first adjustment component and the second adjustment component are filled and released with helium by the helium booster pump to adjust the tilt angle of the fixed box to make the AI ​​server stable and balanced.

[0007] Furthermore, the first conditioning component includes a first airbag fixed to the side wall of the fixed box, one side of the first airbag is connected to the side of the helium booster pump through a hose, a first control valve is connected to the outer wall of the first airbag, three first airbags are spaced apart, and a connecting rod is connected between two adjacent first airbags.

[0008] Furthermore, the first airbag has an L-shaped structure, with a vertical section and a horizontal section, which are connected to each other. The vertical section of the first airbag is fixed to the side wall of the fixed box, and the horizontal section of the first airbag is fixed to the bottom surface of the fixed box.

[0009] Furthermore, the first conditioning component also includes a brush sealing component, which is connected through to the side wall of the first airbag. The brush sealing component is pushed outward by the pressurization of the first airbag so that the brush sealing component fits into and seals the heat dissipation holes of the AI ​​server.

[0010] Furthermore, the brush sealing component includes a telescopic airbag that is connected through to the side wall of the first airbag, and a brush sealing plate is fixed to the side of the telescopic airbag away from the first airbag. Both the telescopic airbag and the brush sealing plate are attached to the side wall of the AI ​​server.

[0011] Furthermore, a slider is fixed to the top surface of the brush sealing plate, and two sliders are fixed in a mirror image about the horizontal center line of the brush sealing plate. Four limiting plates are fixed in a rectangular distribution on the side wall of the fixing box. The slider is slidably connected to the inside of the limiting plates. A bracket is fixed to the side wall of the two limiting plates at the top. Two brackets are fixed in a mirror image about the vertical center line of the limiting plates. A connecting rod passes through and connects to the inside of the two brackets.

[0012] Furthermore, the second conditioning component includes a third airbag fixed to the bottom surface of the fixed box. There are two fixed gaps between the third airbags. A connecting component is provided between the two third airbags. A second airbag is provided on the side away from the two third airbags. A connecting component is provided between the adjacent second airbags and the third airbag. The connecting component is fixed to the bottom surface of the fixed box and between the two first airbags.

[0013] Furthermore, the guiding component includes a connecting pipe that runs through and connects the second airbag and the third airbag, a top block is fixed to the top surface of the connecting pipe, the top block is fixed to the bottom surface of the fixed box, a second control valve is connected to the top surface of the connecting pipe, and a pad is fixed to the bottom surface of the connecting pipe.

[0014] Furthermore, the side of the second airbag away from the connecting tube has an inclined structure, and both ends of the fixing box have stepped structures. The second airbag is fixed inside the stepped structure of the fixing box.

[0015] Furthermore, two fixing columns are fixed on the top surface of the fixed box, and each of the two fixing columns is connected to a pull rope at both ends, with one end of the pull rope connected to the bottom surface of the floating power generation platform.

[0016] Beneficial effects: One or more technical solutions provided in this application have at least the following technical effects or advantages: 1. It adopts a three-tier architecture combining ground-based wind turbines, a floating power generation platform, and an AI server, and integrates traction, power transmission, and communication via slings to improve the stability, efficiency, and effectiveness of high-altitude wind power generation.

[0017] 2. Using a protective structure with a fixed box as the carrier, the openings on both sides are adapted for AI server heat dissipation. The top surface integrates a level sensor to monitor the tilt angle in real time, and a helium booster pump provides the power source. Combined with the expandable and retractable helium gas bladder structure (first adjustment component and second adjustment component) configured on the outside, the helium booster pump inflates and deflates the bladder to achieve adaptive fine-tuning of the fixed box's tilt angle. This allows for fine-tuning of the area where the AI ​​server is mounted even after significant tilt adjustments of the suspension ropes, and real-time adjustment of the wind turbine's windward angle. This ensures the tilt accuracy of the wind turbine and the stability of power generation, improving the stability of the wind turbine's power supply to the AI ​​server. It also helps to keep the AI ​​server horizontal and stable, improving the stability of the AI ​​server when working at high altitudes.

[0018] 3. The helium gas chamber has both buoyancy compensation and shock absorption protection functions, which alleviates the weight increase pressure of the AI ​​server on the wind turbine, ensures the wind turbine's required buoyancy height, and isolates the harsh high-altitude environment by adjusting the sealing of the helium gas chamber, improving the wind turbine's adaptability to the environment and ensuring the power supply needs of the wind turbine to the AI ​​server in harsh environments, thereby further ensuring the stability and safety of the AI ​​server when working at high altitudes.

[0019] 4. At night, when temperatures are too low or during cold weather, ice may form on the exposed surfaces of the mounting box and AI server. Icing increases the overall weight of the wind turbine. However, by using an airbag structure for protection, ice not only cannot form on the elastic surface of the airbag structure, but it can also be broken up by continuously filling the airbag structure with helium, making it difficult for ice to adhere. This solves the icing problem that may be caused by low temperatures, further ensuring the overall weight and buoyancy of the wind turbine, so as to ensure that the wind turbine generates wind power at a stable height, improve the stability and safety of wind power generation, achieve stable power supply to the AI ​​server, and avoid damage to the structure and function of the AI ​​server caused by low-temperature icing, thus ensuring the stability and safety of the AI ​​server working in low-temperature environments.

[0020] 5. The first adjustment component adopts three sets of L-shaped first airbags spaced apart, which are connected to a helium booster pump through hoses. With the help of the first control valve, each airbag can be independently inflated and deflated, and the expansion and contraction force on one side of the fixed box can be precisely controlled. This allows for multi-directional independent buoyancy adjustment on both sides of the fixed box, making the buoyancy balance adjustment at the bottom of the wind turbine more precise. This, in turn, ensures the stability of the wind turbine's power generation and the stability of the power supply to the AI ​​server.

[0021] 6. The first airbag adopts an L-shaped integrated structure. The vertical section is fixed to the side wall of the fixed box to achieve lateral leveling and protection, while the horizontal section is fixed to the bottom surface of the fixed box to achieve bottom support, buoyancy compensation, and shock absorption. The vertical and bottom surfaces are subjected to forces simultaneously, which not only improves the stability of lateral tilt adjustment but also enhances the bottom load-bearing protection, preventing the box from shaking or tipping over during leveling. This ensures the safety of the bottom structure of the wind turbine and the stability of the tilt angle adjustment of the AI ​​server, preventing damage to the internal structure of the AI ​​server. It also prevents the fixed box from hard impact when the wind turbine is returned to the ground, ensuring the safety of the AI ​​server.

[0022] 7. A brush sealing component is installed on the side wall of the first airbag. The thrust generated by the pressurization of the first airbag drives the brush sealing component to extend outward, which can automatically seal the heat dissipation holes of the AI ​​server without additional power. During the pressurization process, the brush sealing component wipes the heat dissipation holes simultaneously to remove attached moisture. This not only prevents the intrusion of low-temperature moisture, but also prevents the heat dissipation holes from freezing and clogging. It combines sealing protection and cleaning functions, improves the safety of the AI ​​server after sealing protection, and ensures the stability of power supply to the AI ​​server. The structure is simple and easy to operate.

[0023] 8. The flexible nature of the telescopic airbag ensures a tight seal, while the brush plate simultaneously wipes the heat dissipation holes, achieving a triple effect of buffering, sealing, and cleaning. This addresses the diverse protection needs of AI servers, thereby improving the stability and protection of wind turbine power supply to AI servers at high altitudes.

[0024] 9. The second adjustment component has two third airbags at the bottom of the fixed box. Together with the second airbags on both sides, helium is exchanged through the conductive components to form a distributed leveling structure at the bottom. The second and third airbags, together with the first airbag, achieve all-round leveling of the box "both sides + both ends", covering multi-dimensional tilt correction. The bottom airbags are evenly distributed to optimize the buoyancy layout and at the same time play a bottom shock absorption and buffering role, reducing the impact force during takeoff and landing. This enables all-round balance adjustment of the wind turbine and AI server at high altitude. Moreover, when the wind turbine is brought back to the ground, it provides all-round protection for the AI ​​server, achieving buffering and ensuring the safety of the AI ​​server structure.

[0025] 10. The outer side of the second airbag has a sloping structure that matches the stepped surface of the housing, reducing airflow resistance during ascent, preventing airbag deformation and damage, and the embedded layout reduces the overall volume and wind resistance while ensuring the expansion and contraction space of the airbag. It also balances leveling, protection and wind resistance performance, reduces the tilting deviation of the bottom of the wind turbine caused by wind resistance, and reduces the impact on the wind turbine's angle of attack, thereby helping to further improve the stability of power supply to the AI ​​server. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of the structure of the high-altitude wind power generation device based on an AI server according to the present invention.

[0027] Figure 2 This is a schematic diagram of the connection structure between the floating power generation platform of the present invention and the ground winding equipment via a suspension rope.

[0028] Figure 3 This is a schematic diagram of the connection structure between the protective mechanism and the AI ​​server of the present invention.

[0029] Figure 4 This is a schematic diagram of the bottom structure of the protective mechanism of the present invention.

[0030] Figure 5 This is a schematic diagram of the connection structure between the helium booster pump and the first conditioning component of the present invention.

[0031] Figure 6 This is a schematic diagram of the connection structure between the brush sealing component and the first airbag of the present invention.

[0032] Figure 7 This is a schematic diagram of the connection structure between the fixed box and the AI ​​server of the present invention.

[0033] Figure 8 This is a schematic diagram of the structure of the second conditioning component of the present invention.

[0034] Figure 9 This is a schematic diagram of the protective mechanism of the present invention for the protection status of the AI ​​server.

[0035] The following are the labeling instructions in the diagram: 100, Ground winding equipment; 200, Suspension rope; 300, Floating power generation platform; 400, Protective mechanism; 410, Fixing box; 411, Fixing column; 412, Pull rope; 413, Limiting plate; 414, Bracket; 420, Helium booster pump; 430, Horizontal sensor; 440, First adjustment component; 441, First airbag; 442, First control valve; 443, Brush sealing component; 4431, Telescopic airbag; 4432, Brush sealing plate; 4433, Slider; 444, Connecting rod; 450, Second adjustment component; 451, Second airbag; 452, Connecting pipe; 453, Third airbag; 454, Second control valve; 455, Top block; 456, Pad block; 500, AI server. Detailed Implementation

[0036] To make the objectives, technical solutions, and advantages of the embodiments of this application clearer, the technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0037] In the description of this application, it should be understood that the terms "center", "longitudinal", "lateral", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.

[0038] In the description of this application, it should be noted that, unless otherwise expressly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or a link; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances.

[0039] Reference Figures 1-9 This application provides a high-altitude wind power generation device based on an AI server, including a ground winding device 100, a floating power generation platform 300, and an AI server 500. A suspension rope 200 is connected between one side of the ground winding device 100 and the bottom surface of the floating power generation platform 300. A protective mechanism 400 is connected to the bottom surface of the floating power generation platform 300. The AI ​​server 500 is installed inside the protective mechanism 400, and the protective mechanism 400 is used to protect and support the AI ​​server 500. The protective mechanism 400 includes a fixed box 410 connected to the bottom of the floating power generation platform 300. The fixed box 410 has through-opening structures on both sides. An AI server 500 is installed inside the fixed box 410. The AI ​​server 500 has heat dissipation holes on both sides, respectively located inside the openings on both sides of the fixed box 410. A level sensor 430 is embedded and fixed on the top surface of the fixed box 410. A helium booster pump 420 is fixed on the top surface of the fixed box 410. A first adjustment component 440 and a second adjustment component 450 are fitted to the outer wall of the fixed box 410. All components 450 are expandable and contractible capsule structures, and each capsule structure is filled with helium. There are two sets of first conditioning components 440 mirror images of the vertical center line of the fixed box 410, and they are respectively set on both sides of the fixed box 410. The second conditioning component 450 is set between the two sets of first conditioning components 440. The helium booster pump 420 is connected to the first conditioning component 440 and the second conditioning component 450 respectively. The first conditioning component 440 and the second conditioning component 450 are filled and discharged with helium through the helium booster pump 420 to adjust the tilt angle of the fixed box 410 so that the AI ​​server 500 is stable and balanced. It adopts a three-level architecture combining ground winding equipment 100, floating power generation platform 300 and AI server 500, and realizes the integration of lifting traction, power transmission and communication through suspension rope 200, thereby improving the stability, efficiency and effect of high-altitude wind power generation. The protective mechanism 400 uses the fixed box 410 as a carrier, with openings on both sides to accommodate the heat dissipation of the AI ​​server 500. The top surface integrates a level sensor 430 to monitor the tilt angle in real time, and a helium booster pump 420 to provide a power source. Combined with the expandable helium gas bladder structure (first adjustment component 440, second adjustment component 450) configured on the outside, the helium booster pump 420 inflates and deflates the bladder to achieve adaptive fine-tuning of the tilt angle of the fixed box 410. This allows for fine-tuning of the area where the AI ​​server 500 is mounted even after a large tilt adjustment of the suspension rope 200, and real-time adjustment of the wind turbine's windward angle. This ensures the tilt accuracy of the wind turbine and the stability of power generation, improving the stability of the power supply from the wind turbine to the AI ​​server 500. It also helps to keep the AI ​​server 500 horizontal and stable, improving the stability of the AI ​​server 500 when working at high altitudes.

[0040] The helium gas chamber has both buoyancy compensation and shock absorption protection functions, which alleviates the weight increase pressure of the AI ​​server 500 on the wind turbine, ensures the wind turbine's floating height requirements, and isolates the harsh high-altitude environment by adjusting the sealing of the helium gas chamber, improving the wind turbine's environmental adaptability and ensuring the power supply needs of the wind turbine to the AI ​​server 500 in harsh environments, thereby further ensuring the stability and safety of the AI ​​server 500 when working at high altitudes. When nighttime temperatures are too low or during cold weather, ice may form on the exposed surfaces of the mounting box 410 and the AI ​​server 500. Icing increases the overall weight of the wind turbine. However, by using an airbag structure for protection, ice not only has difficulty forming on the elastic surface of the airbag structure, but it can also be broken up by continuously filling the airbag structure with helium, making it difficult for ice to adhere. This solves the icing problem that may be caused by low temperatures, further ensuring the overall weight and buoyancy of the wind turbine, so as to ensure that the wind turbine generates wind power at a stable height, improve the stability and safety of wind power generation, achieve stable power supply to the AI ​​server 500, and avoid damage to the structure and function of the AI ​​server 500 caused by low-temperature icing, thus ensuring the stability and safety of the AI ​​server 500 when operating in low-temperature environments.

[0041] In this embodiment, the first conditioning component 440 includes a first airbag 441 fixed to the side wall of the fixed box 410. One side of the first airbag 441 is connected to the side of the helium booster pump 420 through a hose. A first control valve 442 is connected to the outer wall of the first airbag 441. Three first airbags 441 are arranged at intervals. A connecting rod 444 is connected between two adjacent first airbags 441. The first adjustment component 400 employs three sets of spaced L-shaped first airbags 441, which are connected to a helium booster pump 420 via hoses. In conjunction with the first control valve 442, each airbag is independently inflated and deflated, precisely controlling the expansion and contraction force on one side of the fixed box 410. This allows for multi-directional independent buoyancy adjustment on both sides of the fixed box 410, making the buoyancy balance adjustment at the bottom of the wind turbine more precise. This, in turn, ensures the stability of the wind turbine's power generation and the stability of the power supply to the AI ​​server 500. The distributed layout of the multiple airbags expands the coverage of lateral leveling and improves the response speed and accuracy of tilt adjustment.

[0042] In this embodiment, the first airbag 441 has an L-shaped structure, and the first airbag 441 is provided with a vertical section and a horizontal section. The vertical section and the horizontal section of the first airbag 441 are connected through each other. The vertical section of the first airbag 441 is fixed to the side wall of the fixed box 410, and the horizontal section of the first airbag 441 is fixed to the bottom surface of the fixed box 410. The first airbag 441 adopts an L-shaped integrated structure. The vertical section is fixed to the side wall of the fixed box to achieve lateral leveling and protection, while the horizontal section is fixed to the bottom surface of the fixed box 410 to achieve bottom support, buoyancy compensation and shock absorption. The vertical and bottom surfaces are subjected to forces simultaneously, which not only improves the stability of lateral tilt adjustment, but also enhances the bottom load-bearing protection, avoiding the box from shaking or tipping over during leveling. This ensures the safety of the bottom structure of the wind turbine and the stability of the tilt angle adjustment of the AI ​​server 500, avoiding damage to the internal structure of the AI ​​server 500. It also prevents the fixed box 410 from hard collision when the wind turbine is returned to the ground, ensuring the safety of the AI ​​server 500.

[0043] In this embodiment, the first conditioning component 440 further includes a brush sealing component 443, which is connected through to the side wall of the first airbag 441. The brush sealing component 443 is pushed outward by the pressurization of the first airbag 441 so that the brush sealing component 443 fits into the heat dissipation hole of the AI ​​server 500. A brush sealing component 443 is provided on the side wall of the first airbag 441. The brush sealing component 443 is driven to extend outward by the thrust generated by the pressurization of the first airbag 441. The heat dissipation holes of the AI ​​server 500 can be automatically sealed without additional power. During the pressurization process, the brush sealing component 443 wipes the heat dissipation holes simultaneously to remove attached moisture. This not only prevents the intrusion of low-temperature moisture but also prevents the heat dissipation holes from freezing and clogging. It combines sealing protection and cleaning functions, improves the safety of the AI ​​server 500 after sealing protection, and ensures the stability of the power supply to the AI ​​server 500. The structure is simple and easy to operate.

[0044] In this embodiment, the brush sealing component 443 includes a telescopic airbag 4431 that is connected through to the side wall of the first airbag 441. A brush sealing plate 4432 is fixed on the side of the telescopic airbag 4431 away from the first airbag 441. Both the telescopic airbag 4431 and the brush sealing plate 4432 are attached to the side wall of the AI ​​server 500. The brush sealing component 443 adopts a combination structure of telescopic airbag 4431 and brush sealing plate 4432. The telescopic airbag 4431 expands and deforms synchronously with the first airbag 441, pushing the brush sealing plate 4432 to smoothly fit against the side wall of the server without rigid impact, thus avoiding scratches on the shell. The flexible characteristics of the telescopic airbag 4431 ensure a tight seal, and the brush sealing plate 4432 wipes the heat dissipation holes simultaneously, achieving a triple effect of buffering, sealing, and cleaning. This solves the diverse protection needs of the AI ​​server 500, thereby improving the stability and protection effect of the wind turbine powering the AI ​​server 500 at high altitudes.

[0045] In this embodiment, a slider 4433 is fixed on the top surface of the brush sealing plate 4432. Two sliders 4433 are fixed in a mirror image about the horizontal center line of the brush sealing plate 4432. Four limiting plates 413 are fixed in a rectangular distribution on the side wall of the fixing box 410. The slider 4433 is slidably connected to the inside of the limiting plates 413. A bracket 414 is fixed on the side wall of the two limiting plates 413 at the top. Two brackets 414 are fixed in a mirror image about the vertical center line of the limiting plates 413. A connecting rod 444 passes through and connects to the inside of the two brackets 414. The top slider 4433 of the brush sealing plate 4432 slides in conjunction with the side wall limiting plate 413 of the fixed box 410, limiting the linear extension and retraction trajectory of the brush sealing component 443 and ensuring accurate alignment with the heat dissipation hole; the bracket 414 provides through-positioning for the connecting rod 444, restraining the shaking of the connecting rod 444 and ensuring the stability of the linkage expansion and contraction of the first airbag 441; the sliding structure between the slider 4433 and the limiting plate 413 reduces extension and retraction resistance, avoids jamming, and ensures that the brush sealing plate 4432 smoothly completes the cleaning and sealing action.

[0046] In this embodiment, the second conditioning component 450 includes a third airbag 453 fixed to the bottom surface of the fixed box 410. There are two third airbags 453 with a fixed gap. A conductive component is connected through the two third airbags 453. A second airbag 451 is provided on the side away from the two third airbags 453. A conductive component is connected through the adjacent second airbag 451 and the third airbag 453. The conductive component is fixed to the bottom surface of the fixed box 410 and the conductive component is fixed between the two first airbags 441. The second adjustment component 450 has two third airbags 453 at the bottom of the fixed box 410. Together with the second airbags 451 on both sides, they are interconnected by a conductive component to form a distributed leveling structure at the bottom. The second airbags 451 and the third airbags 453, together with the first airbag 441, achieve all-round leveling of the box body "both sides + both ends", covering multi-dimensional tilt correction. The bottom airbags are evenly distributed, optimizing the buoyancy layout, and at the same time, they play a bottom shock absorption and buffering role, reducing the impact force during takeoff and landing. This enables all-round balance adjustment of the wind turbine and AI server 500 at high altitude. Moreover, when the wind turbine is brought back to the ground, it provides all-round protection for the AI ​​server 500, achieving buffering and ensuring the structural safety of the AI ​​server 500.

[0047] In this embodiment, the guiding component includes a connecting pipe 452 that passes through and connects the second airbag 451 and the third airbag 453. A top block 455 is fixed on the top surface of the connecting pipe 452. The top block 455 is fixed to the bottom surface of the fixing box 410. A second control valve 454 is connected to the top surface of the connecting pipe 452. A pad block 456 is fixed on the bottom surface of the connecting pipe 452. The connecting component uses a connecting pipe 452 to enable helium exchange between the second airbag 451 and the third airbag 453. The second control valve 454 precisely controls the gas flow, enabling the helium at both ends to be distributed as needed and precisely adjusting the bottom expansion and contraction force. The top block 455 fixes the connecting pipe 452 to the bottom surface of the fixed box 410 to prevent the airbag from shifting or the pipeline from deviating. The pad block 456 supports the connecting pipe 452 to avoid bottom collision. The overall structure enables controllable helium transmission, improving the accuracy and reliability of bottom leveling.

[0048] In this embodiment, the side of the second airbag 451 away from the connecting pipe 452 is a sloping structure, and both ends of the fixing box 410 are stepped structures. The second airbag 451 is fixed inside the stepped structure of the fixing box 410. The two ends of the fixing box 410 are stepped structures, and the second airbag 451 is embedded in it, fitting tightly and fixing firmly to prevent it from falling off. The outer side of the second airbag 451 is a sloping structure, which is adapted to the stepped surface of the box, reducing the airflow scouring resistance during the ascent, preventing the airbag from deforming and breaking. The embedded layout reduces the overall volume and wind resistance, while ensuring the expansion and contraction space of the airbag. It takes into account leveling, protection and wind resistance performance, reduces the tilting deviation of the bottom of the wind turbine caused by wind resistance, and reduces the impact on the wind turbine's windward angle, thereby helping to further improve the stability of the power supply to the AI ​​server 500.

[0049] In this embodiment, two fixing columns 411 are fixed on the top surface of the fixed box 410. Both ends of the two fixing columns 411 are connected to pull ropes 412, one end of which is connected to the bottom surface of the floating power generation platform 300. The two fixing columns 411 on the top surface of the fixed box 410, together with multiple pull ropes 412, are connected to the floating power generation platform 300 to form a multi-point distributed traction structure, which disperses the force and avoids single-point breakage. The pull ropes 412 help to restrain the swing of the box and, together with the first adjustment component 440 and the second adjustment component 450, realize the attitude fine adjustment and reduce the sway amplitude during the leveling process. The flexible pull ropes 412 play a buffering role, blocking the vibration transmission of the floating platform and further improving the operational stability of the AI ​​server 500.

[0050] Specifically, according to Figures 1-9 The staff fixed the AI ​​server 500 inside the fixed box 410 and started the helium booster pump 420 through the main controller to fill helium into the first airbag 441, the second airbag 451 and the third airbag 453, without making the telescopic airbag 4431 extend outward. The multiple airbags filled with helium not only protect the AI ​​server 500 and reduce shock, but also reduce the weight increase of the AI ​​server 500 on the overall power generation device by using the buoyancy of the airbags. The first airbag 441, the second airbag 451 and the third airbag 453 and the non-fixed surface of the fixed box 410 are all elastic bladder structures that can expand and contract. Helium was then filled into the floating power generation platform 300. The floating power generation platform 300 adopts the existing technology model S1500 high-altitude wind power generation device. Its main structure consists of a main airbag, a ring wing, and multiple generator sets. After the helium was filled, the floating power generation platform 300 lifted the protective mechanism 400 and the AI ​​server 500 as a whole. The floating power generation platform 300 supplies power to the AI ​​server 500 and is pulled by the suspension rope 200. The suspension rope 200 is composed of multiple cables and integrates attitude sensing function. It is made of carbon fiber composite material. The bottom end of the suspension rope 200 is connected to the ground winding equipment 100 to realize the lifting, power supply, recovery and safe fixation of the power generation device in the air. When the floating power generation platform 300 lifts the AI ​​server 500 to a high altitude, the tilt of the fixed box 410 is monitored in real time by the horizontal sensor 430. To ensure the stability of the AI ​​server 500, the floating power generation platform 300 is adjusted via the hoisting rope 200 to reduce the tilt of the AI ​​server 500. Furthermore, the main controller activates the helium booster pump 420 to fill the first airbag 441 on the side of the fixed box 410 that needs to rise with helium. For the side that needs to descend, the first control valve 44 of the corresponding first airbag 441 is activated. 2. Helium is released to achieve balance on both sides of the fixed box 410. At both ends of the fixed box 410, the second control valve 454 is activated to fill the second airbag 451 with helium into the adjacent third airbag 453. The helium transferred from the side of the fixed box 410 that needs to descend is more than that from the side that needs to rise, thus achieving balance on both sides of the fixed box 410. This allows for fine-tuning of the tilt angle of the fixed box 410 as a whole, ensuring the balance adjustment of the AI ​​server 500 after tilting and ensuring the stability of the AI ​​server 500 at high altitudes. At night, due to the lower external air temperature, moisture easily forms at the heat dissipation vents of the AI ​​server 500. In this case, simply activate the helium booster pump 420 to simultaneously fill each of the first airbags 441 with an equal amount of helium. The first airbags 441 guide the helium into the telescopic airbag 4431, causing it to expand and seal the heat dissipation vents of the AI ​​server 500. Furthermore, the slider 4433 slides within the limiting plate 413, causing the brush sealing plate 4432 to adhere to the heat dissipation vents of the AI ​​server 500 and brush away the attached moisture. This process continues until the brush sealing plate 4432 and the telescopic airbag 4431 work together to seal the heat dissipation vents of the AI ​​server 500, preventing excessively low internal temperatures and the effects of moisture. After sealing and protection, simply use the level sensor 430 to verify... The balance of the AI ​​server 500 is monitored in real time. If tilting occurs, helium is continuously injected into the first airbag 441. More helium is injected into the side that needs to rise, and less helium is injected into the side that needs to descend, thereby achieving balance on both sides of the AI ​​server 500. At both ends of the fixed box 410, the second control valve 454 is activated to inject helium from the second airbag 451 into the adjacent third airbag 453. More helium is transferred from the side of the fixed box 410 that needs to descend than from the side that needs to rise, thereby achieving balance on both ends of the fixed box 410. This allows for fine-tuning of the tilt angle of the fixed box 410 as a whole, ensuring the balance adjustment of the AI ​​server 500 after it is sealed at night and after tilting occurs. This further ensures the stability of the AI ​​server 500 at high altitudes in a sealed state at night. When the temperature is too low at night or during cold weather, ice may form on the surface of the fixed box 410, which will increase the overall weight of the fixed box 410. However, under the protection of the first airbag 441, the second airbag 451, the third airbag 453 and the telescopic airbag 4431, not only is the occurrence of ice formation reduced, but even if ice forms on the surface of the first airbag 441, the second airbag 451, the third airbag 453 and the telescopic airbag 4431, helium can be simultaneously injected into the multiple first airbags 441 and the two second airbags 451, and the second control valve 454 can be opened to further expand the first airbag 441, the second airbag 451, the third airbag 453 and the telescopic airbag 4431, breaking up any ice that may be attached to the surface of each airbag and preventing the attached ice from increasing the weight of the fixed box 410. This allows the floating power generation platform 300 to maintain a stable altitude, which is conducive to high-altitude wind power generation and ensures the stability and safety of power generation and power supply to the AI ​​server 500.

[0051] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. All electrical components mentioned herein are electrically connected to the main controller and 220V AC mains power, and the main controller is a common existing technology such as a computer that performs control functions. Content not described in detail in this specification is prior art known to those skilled in the art.

[0052] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application 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 do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this application.

Claims

1. An AI server-based high-altitude wind energy wind power generation device, characterized in that: It includes a ground winding device, a floating power generation platform, and an AI server. A suspension rope is connected between one side of the ground winding device and the bottom surface of the floating power generation platform. A protective mechanism is connected to the bottom surface of the floating power generation platform. The AI ​​server is installed inside the protective mechanism, which is used to protect and support the AI ​​server. The protective mechanism includes a fixed box connected to the bottom of the floating power generation platform. The fixed box has through-open structures on both sides. An AI server is installed inside the fixed box. The AI ​​server has heat dissipation holes on both sides, which are respectively located inside the opening structures on both sides of the fixed box. A level sensor is embedded and fixed on the top surface of the fixed box. A helium booster pump is fixed on the top surface of the fixed box. A first adjustment component and a second adjustment component are attached to the outer wall of the fixed box. Both the first adjustment component and the second adjustment component are expandable and contractible bladder structures, and the bladder structures are filled with helium. Two sets of the first adjustment components are arranged mirror images of the vertical center line of the fixed box, and are respectively located on both sides of the fixed box. The second adjustment component is located between the two sets of the first adjustment components. The helium booster pump is connected to the first adjustment component and the second adjustment component. The first adjustment component and the second adjustment component are filled and released with helium by the helium booster pump to adjust the tilt angle of the fixed box to make the AI ​​server stable and balanced.

2. The high-altitude wind power generation device based on an AI server according to claim 1, characterized in that: The first conditioning component includes a first airbag fixed to the side wall of the fixed box. One side of the first airbag is connected to the side of the helium booster pump through a hose. A first control valve is connected to the outer wall of the first airbag. Three first airbags are arranged at intervals. A connecting rod is connected between two adjacent first airbags.

3. The high-altitude wind power generation device based on an AI server according to claim 2, characterized in that: The first airbag has an L-shaped structure, and the first airbag is provided with a vertical section and a horizontal section. The vertical section and the horizontal section of the first airbag are connected through each other. The vertical section of the first airbag is fixed to the side wall of the fixed box, and the horizontal section of the first airbag is fixed to the bottom surface of the fixed box.

4. The high-altitude wind power generation device based on an AI server according to claim 3, characterized in that: The first conditioning component also includes a brush sealing component, which is connected through to the side wall of the first airbag. The brush sealing component is pushed outward by the pressurization of the first airbag so that the brush sealing component fits into the heat dissipation hole of the AI ​​server.

5. The high-altitude wind power generation device based on an AI server according to claim 4, characterized in that: The brush sealing component includes a telescopic airbag that is connected through to the side wall of the first airbag. A brush sealing plate is fixed to the side of the telescopic airbag away from the first airbag. Both the telescopic airbag and the brush sealing plate are attached to the side wall of the AI ​​server.

6. The high-altitude wind power generation device based on an AI server according to claim 5, characterized in that: The top surface of the brush sealing plate is fixed with a slider. There are two sliders fixed in a mirror image about the horizontal center line of the brush sealing plate. Four limiting plates are fixed in a rectangular distribution on the side wall of the fixing box. The slider is slidably connected to the inside of the limiting plates. The side walls of the two limiting plates at the top are fixed with brackets. There are two brackets fixed in a mirror image about the vertical center line of the limiting plates. The connecting rod passes through and connects to the inside of the two brackets.

7. The high-altitude wind power generation device based on an AI server according to claim 2, characterized in that: The second conditioning component includes a third airbag fixed to the bottom surface of the fixed box. There are two fixed gaps between the third airbags. A connecting component is provided between the two third airbags. A second airbag is provided on the side away from the two third airbags. A connecting component is provided between the adjacent second airbags and the third airbag. The connecting component is fixed to the bottom surface of the fixed box and between the two first airbags.

8. The high-altitude wind power generation device based on an AI server according to claim 7, characterized in that: The guiding component includes a connecting pipe that runs through and connects the second airbag and the third airbag. A top block is fixed to the top surface of the connecting pipe, and the top block is fixed to the bottom surface of the fixed box. A second control valve is connected to the top surface of the connecting pipe, and a pad is fixed to the bottom surface of the connecting pipe.

9. The high-altitude wind power generation device based on an AI server according to claim 8, characterized in that: The second airbag has a sloping structure on the side away from the connecting tube, and both ends of the fixing box have stepped structures. The second airbag is fixed inside the stepped structure of the fixing box.

10. The high-altitude wind power generation device based on an AI server according to claim 1, characterized in that: Two fixed columns are fixed on the top surface of the fixed box. Both ends of the two fixed columns are connected to pull ropes, one end of which is connected to the bottom surface of the floating power generation platform.

Images