Mainboard water-cooling heat dissipation underwater informatization system carrying ocean current power generation

Abstract

The invention discloses a mainboard water-cooling heat dissipation underwater informatization system carrying ocean current power generation, and relates to the field of offshore informatization construction.The mainboard water-cooling heat dissipation underwater informatization system comprises a sea column, the periphery of the sea column is symmetrically arranged, a seabed is installed at the upper end of the sea column, a bearing module is installed in the seabed, and the end, away from the seabed, of the bearing module is installed on the sea column; self-heat-dissipation modules are evenly installed in the bearing module, a photovoltaic power generation device is installed on the upper surface of the sea pillar, and signal transmission modules are evenly installed in the self-heat-dissipation modules. Kinetic energy carried by surges of seawater is unavailable throughout the year, and according to the scheme, kinetic energy of sea waves is collected and converted into electric energy to supply power to informatization equipment, so that the energy problem of offshore equipment deployment is solved with low cost; compared with a land data center machine room deployed in a large scale, the low-energy-consumption underwater data center which operates in seawater and relies on seawater heat dissipation and wave power generation can provide computing power service with lower operation cost and zero energy consumption cost for coastal cities in China nearby.

Description

Technical Field

[0001] The present invention relates to the field of maritime informatization construction, and specifically to an underwater informatization system with main board water cooling and heat dissipation powered by ocean current power generation. Background Art

[0002] Maritime informatization construction, namely ocean informatization, is a broad process of applying information technology to the ocean field, aiming to improve the capabilities and efficiency of ocean observation, monitoring, management, development, and protection; ocean informatization is a process of using modern information technology to sense, transmit, process, analyze, and apply the ocean environment, resources, activities, etc. With the continuous progress of technology, the demand for informatization development in the ocean strategy is becoming increasingly strong. Ocean informatization has become an important part of national informatization, involving the integration of multiple disciplines such as ocean surveying and mapping, ocean science, and information technology.

[0003] With the acceleration of the digital process, the demand for big data computing power shows a continuous and rapid growth trend. However, the increase in this demand has also led to a significant rise in the energy consumption cost of data centers, becoming a key factor restricting the further development of the big data computing power industry. To address the problem of the uneven distribution of energy and data industries, the country has implemented important industrial layout strategies such as "Eastern Data Center Computing with Western Energy", which have alleviated the energy pressure to a certain extent but have not fundamentally solved the internal contradiction between the distribution of energy and data industries.

[0004] In the land scenario, the deployment of data centers faces many challenges. Since data centers require a large amount of energy support, long-distance transmission of energy not only increases transmission losses but also raises operating costs. At the same time, to ensure the stable operation of data centers, cooling equipment must continuously and efficiently operate to dissipate the heat generated by the equipment, and this process also consumes a large amount of energy. Therefore, the energy consumption cost has already become the largest expenditure item in the big data computing power industry, posing a severe challenge to the sustainable development of the industry.

[0005] Therefore, an underwater informatization system with main board water cooling and heat dissipation powered by ocean current power generation is proposed to solve the above problems. Summary of the Invention

[0006] In view of this, the technical problem to be solved by the present invention is to propose an underwater informatization system with main board water cooling and heat dissipation powered by ocean current power generation. The present invention adopts a cooling method of immersing the main board in seawater and a power supply method of generating electricity from ocean wave kinetic energy, fundamentally solving the problems of large-scale deployment and long-term operation of electronic devices in the ocean environment, and opening up a new technical path for ocean informatization construction.

[0007] To achieve the above object, the present invention provides the following technical solution: A main board water-cooled heat dissipation underwater information system equipped with ocean current power generation, including, a sea column, the sea columns are symmetrically arranged around, the upper end of the sea column is installed with a seabed, a bearing module is installed in the seabed, one end of the bearing module away from the seabed is installed on the sea column, self-cooling modules are uniformly installed in the bearing module, a photovoltaic power generation device is installed on the upper surface of the sea column, signal transmission modules are uniformly installed in the self-cooling modules, and the main board water-cooled heat dissipation underwater information system equipped with ocean current power generation further includes a protection mechanism, a heat dissipation anti-blocking mechanism and a multi-directional self-adjusting power generation mechanism;

[0008] The protection mechanism is arranged in the seabed, and the protection mechanism is used for adjusting the height and decontamination of the bearing module;

[0009] The heat dissipation anti-blocking mechanism is arranged on the self-cooling module, and the heat dissipation anti-blocking mechanism is used to prevent the heat dissipation holes of the self-cooling module from being blocked;

[0010] The multi-directional self-adjusting power generation mechanism is arranged at the bottom of the bearing module, and the multi-directional self-adjusting power generation mechanism is used for self-adjusting power generation in the surge direction.

[0011] Preferably, the protection mechanism includes an organic cover, the organic covers are symmetrically installed on both sides of the seabed, a driving motor is installed in the organic cover, and a first worm is installed on the driving shaft of the driving motor, a first worm gear is meshed with the first worm, a transmission shaft is installed in the middle of the first worm gear, and winding wheels are installed on both sides of the outer surface of the transmission shaft.

[0012] Preferably, a steel cable is wound in the winding wheel, one end of the steel cable away from the winding wheel is installed at the bottom of the bearing module, filter holes are uniformly opened in the bearing module for the influx of seawater, the seabed is composed of double-layer corrosion-resistant splints, and the bearing module is slidably installed in the middle of the seabed splints.

[0013] Preferably, the heat dissipation anti-blocking mechanism includes a surging fan, an elliptical wheel is fixedly installed at the bottom of the surging fan, the middle of the side of the elliptical wheel away from the surging fan is rotatably connected to the self-cooling module, triangular bumps are arranged on both sides of the elliptical wheel, one side of the triangular bump away from the elliptical wheel is fixedly connected to a slide plate, the bottom of the slide plate is slidably connected to the self-cooling module, and return springs are symmetrically arranged on the upper surface of the self-cooling module, and both ends of the return spring are fixedly connected to the slide plate.

[0014] Preferably, extrusion grooves are symmetrically and evenly opened on both sides of the slide plate, cleaning rods are installed in the extrusion grooves, a guiding groove is opened at the bottom of the self-cooling module, and one end of the cleaning rod away from the slide plate is slidably installed in the guiding groove.

[0015] Preferably, filter holes are evenly formed on both sides of the self-cooling module, the cleaning rods are evenly arranged on the surfaces of the filter holes of the self-cooling module, the self-cooling module is made of corrosion-resistant material, a protective bag is encapsulated on the surface of the signal transmission module, and the protective bag is made of insulating material with high thermal conductivity and corrosion resistance. Thermal grease is applied on the surface of the core heating component of the signal transmission module. The protective bag is sleeved on the signal transmission module and has tightness. After the protective bag is sleeved and flattened on the signal transmission module, a radiator is installed, and the radiator is made of corrosion-resistant material.

[0016] Preferably, the multi-direction self-adjusting power generation mechanism includes a driving and adjusting plate, the middle of the driving and adjusting plate is rotatably connected to the bottom of the bearing module, auxiliary plates are respectively rotatably connected to both ends of the driving and adjusting plate, a pulling plate is rotatably connected to one end of the auxiliary plate away from the driving and adjusting plate, fixing guide plates are slidably installed at both ends of the pulling plate, the fixing guide plates are symmetrically and fixedly installed at the bottom of the bearing module, a folding plate is arranged at one end of the driving and adjusting plate away from the bearing module, and both ends of the folding plate are installed on the pulling plate.

[0017] Preferably, a U-shaped support plate is linearly and slidably connected to the lower surface of the pulling plate close to the fixing guide plate, the middle of the U-shaped support plate is installed on the folding plate, power generation devices are evenly installed in the U-shaped support plate, sliding tooth grooves are evenly formed at the bottom of the fixing guide plate, a gear is engaged with the sliding tooth grooves at the bottom of the fixing guide plate, the middle of the gear is installed on the U-shaped support plate through a fixing plate, a transmission rotating rod is rotatably connected to the lower part of the U-shaped support plate close to the gear, and a transmission belt is connected between the gear and the transmission rotating rod.

[0018] Preferably, second worm gears are fixedly installed at both ends of the transmission rotating rod, second worm wheels are engaged with the tooth surfaces of the second worm gears, a V-direction control cover is fixedly connected to the middle of the second worm wheels, a rotating shaft is rotatably connected to the middle of the V-direction control cover, one end of the rotating shaft is fixedly installed on the power generation device, a universal shaft is fixedly installed at the other end of the rotating shaft, the universal shaft is arranged in the rotating shaft, and a turbine blade is fixedly installed at the end of the universal shaft away from the rotating shaft.

[0019] Compared with the prior art, the present invention provides a mainboard water-cooled heat dissipation underwater informatization system equipped with ocean current power generation, and has the following beneficial effects:

[0020] 1. The kinetic energy carried by the surging waves of seawater is constant throughout the year. In this solution, the kinetic energy of the waves is collected and converted into electric energy to supply power to informatization devices, thereby low-costly solving the energy problem of offshore equipment deployment. Compared with large-scale deployed onshore data center computer rooms, the low-energy consumption underwater data center operating in seawater and relying on seawater for heat dissipation and wave power generation can provide computing power services with lower operating costs and zero energy consumption costs for coastal cities in China.

[0021] 2. This solution solves the problem of restrictions on deploying information equipment in seawater. By removing the chassis of electronic devices and using silicone tape protection bags to specifically protect the circuit boards, it not only solves the problem of seawater corrosion of electronic components but also allows seawater to carry away the heat generated during the operation of the circuit boards. As a result, the energy consumption during equipment operation can be reduced, and the operating cost can be lowered. Generating electricity using the kinetic energy of seawater to provide long-term and stable power for electronic devices further increases the practicality of this technical solution, enabling zero-cost operation of large-scale data centers. Integrating business scenarios in various fields to build a computing power center in the marine field and providing low-cost computing power services for coastal cities can boost the digital empowerment of all industries in our country.

[0022] 3. This solution can synchronously adjust the directions of multiple turbine blades by rotating a single motor, enabling it to flexibly adapt to ocean currents surging in different directions in seawater. This intelligent adjustment mechanism ensures that no matter how the seawater changes its flow direction, the device can quickly adjust to the optimal angle, thus maximizing the conversion of the kinetic energy of seawater surging into utilizable electrical energy.

[0023] 4. In addition, the U-shaped support plate in the solution has a moving function and can adaptively adjust the spacing between power generation devices. This innovative design enables the power generation system to quickly respond to changes in seawater surging. By dynamically adjusting the device layout, it optimizes the energy capture efficiency, ensuring efficient and stable power generation using seawater surging under various sea conditions. This intelligent adaptive adjustment technology not only improves the power generation efficiency but also enhances the stability and reliability of the entire system. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a schematic three-dimensional structure diagram of the present invention;

[0025] Figure 2 It is a schematic vertical half-sectioned three-dimensional structure diagram of the present invention;

[0026] Figure 3 It is a schematic diagram of the structural connection relationship of the protection mechanism of the present invention;

[0027] Figure 4 It is an exploded schematic diagram of the structural connection relationship of the heat dissipation and anti-blocking mechanism of the present invention;

[0028] Figure 5 It is a schematic diagram of the structural connection relationship of the multi-direction self-adjusting power generation mechanism of the present invention;

[0029] Figure 6 It is an auxiliary schematic diagram of the structural connection relationship of the multi-direction self-adjusting power generation mechanism of the present invention;

[0030] Figure 7 It is a partially enlarged schematic diagram of the structural connection relationship of the multi-direction self-adjusting power generation mechanism of the present invention;

[0031] Figure 8 For the present invention Figure 7 The enlarged view of part A in the present invention

[0032] In the figure

[0033] 1. Sea column; 11. Seabed; 12. Bearing module; 13. Photovoltaic power generation device; 14. Self-cooling module; 15. Signal transmission module;

[0034] 2. Protection mechanism; 21. Hood; 22. First worm; 23. First worm wheel; 24. Transmission shaft; 25. Winding wheel; 26. Steel wire;

[0035] 3. Heat dissipation and anti-blocking mechanism; 31. Surge fan; 32. Elliptical wheel; 33. Slide plate; 34. Return spring; 35. Extrusion groove; 36. Cleaning rod; 37. Guide groove; 38. Triangular bump;

[0036] 4. Multi-direction self-adjusting power generation mechanism; 41. Driving and adjusting plate; 42. Auxiliary plate; 43. Pulling plate; 44. Folding plate; 45. Fixed guide plate; 46. U-shaped support plate; 47. Gear; 48. Transmission rotating rod; 49. Transmission belt;

[0037] 51. Second worm; 52. Second worm wheel; 53. Rotating shaft; 54. V-direction control cover; 55. Universal shaft; 56. Turbine blade. Specific embodiments

[0038] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0039] Embodiment: Refer to the attached Figure 1 to the attached Figure 8 , a mainboard water-cooled heat-dissipating underwater information system equipped with ocean current power generation, including a sea column 1, which is symmetrically arranged around the sea column 1. A seabed 11 is installed at the upper end of the sea column 1. A bearing module 12 is installed in the seabed 11. One end of the bearing module 12 away from the seabed 11 is installed on the sea column 1. Self-cooling modules 14 are uniformly installed in the bearing module 12. A photovoltaic power generation device 13 is installed on the upper surface of the sea column 1. Signal transmission modules 15 are uniformly installed in the self-cooling modules 14. A mainboard water-cooled heat-dissipating underwater information system equipped with ocean current power generation further includes a protection mechanism 2, a heat dissipation and anti-blocking mechanism 3, and a multi-direction self-adjusting power generation mechanism 4;

[0040] The protection mechanism 2 is arranged in the seabed 11, and the protection mechanism 2 is used to adjust the height of the bearing module 12 and remove dirt;

[0041] The heat dissipation and anti-blocking mechanism 3 is arranged on the self-cooling module 14, and the heat dissipation and anti-blocking mechanism 3 is used to prevent the heat dissipation holes of the self-cooling module 14 from being blocked;

[0042] The multi-direction self-adjusting power generation mechanism 4 is arranged at the bottom of the bearing module 12, and the multi-direction self-adjusting power generation mechanism 4 is used for self-adjusting power generation in the surge direction;

[0043] Specifically, the hood 21 is symmetrically installed on both sides of the seabed 11. A driving motor is installed in the hood 21, and a first worm 22 is installed on the driving shaft of the driving motor. The tooth surface of the first worm 22 meshes with a first worm gear 23. A transmission shaft 24 is installed in the middle of the first worm gear 23, and winding wheels 25 are installed on both sides of the outer surface of the transmission shaft 24;

[0044] Among them, the meshing of the first worm 22 and the first worm gear 23 has a certain self-locking property. By rotating the motor in the hood 21, the first worm 22 can be driven to drive the first worm gear 23 to rotate. By rotating the first worm gear 23, the transmission shaft 24 can be driven to drive the winding wheels 25 to wind the steel cable 26. At this time, the bearing module 12 can be pulled upward by winding the steel cable 26 by the winding wheels 25; Compared with the traditional use of hydraulic telescopic rods, not only the cost of hydraulic telescopic rods is high for deeper areas, but also the maintenance is difficult. Once damaged, the whole needs to be replaced synchronously. In this solution, the bearing module 12 is stretched by the steel cable 26. Due to the high toughness and corrosion resistance of the steel cable 26, the steel cable 26 can be regularly detected. Once damaged, only the steel cable 26 can be replaced individually, which not only reduces the equipment maintenance cost, but also reduces the equipment maintenance downtime;

[0045] At the same time, in this solution, by setting the regional movement of the bearing module 12, when the sea surface is affected by natural disasters, such as the rapid surging of ocean sea water caused by earthquakes, the damage to the self-cooling module 14 inside the bearing module 12 can be reduced by raising the bearing module 12; At the same time, when the sea water surges slightly, the bearing module 12 can be moved downward again. Through the water filtration holes opened on the bearing module 12, the heat in the self-cooling module 14 can be exchanged in time, and the heat generated during the operation of the signal transmission module 15 can be taken away by the sea water, thereby reducing the energy consumption during the operation of the equipment and lowering the operation cost.

[0046] Furthermore, a steel cable 26 is wound in the winding wheel 25. One end of the steel cable 26 away from the winding wheel 25 is installed at the bottom of the bearing module 12. Filter holes are evenly opened in the bearing module 12 for the influx of sea water. The seabed 11 is composed of double-layer corrosion-resistant splints, and the bearing module 12 is slidably installed in the middle of the splints of the seabed 11;

[0047] This solution innovatively uses a double-sided corrosion-resistant splint as the seabed 11. During the ascent of the load-bearing module 12, the double-sided corrosion-resistant splint seabed 11 can effectively scrape both sides of it, thus preventing moss from growing on the surface of the load-bearing module 12. The growth of moss will not only affect the appearance, but may also hinder the normal flow of seawater, causing adverse effects on the marine environment and the heat dissipation operation of the system.

[0048] In addition, water filtration holes are specifically provided on the load-bearing module 12. While ensuring the smooth flow of seawater, these water filtration holes can block the potential damage of large fish and other marine organisms to the key component, the self-cooling module 14. This design takes into account both the functional requirements of the system and the protection of the marine ecological environment, ensuring the stability and durability of the entire solution in a complex marine environment. Through the synergistic effect of the double-sided corrosion-resistant splint seabed 11 and the water filtration holes, this solution achieves effective protection for it, providing a solid guarantee for the long-term stable operation of the system.

[0049] Specifically, as Figure 4 shown, an elliptical wheel 32 is fixedly installed at the bottom of the surge fan 31. The middle of the side of the elliptical wheel 32 away from the surge fan 31 is rotatably connected to the self-cooling module 14. Triangular bumps 38 are provided on both sides of the elliptical wheel 32. A sliding plate 33 is fixedly connected to the side of the triangular bump 38 away from the elliptical wheel 32. The bottom of the sliding plate 33 is slidably connected to the self-cooling module 14. Return springs 34 are symmetrically arranged on the upper surface of the self-cooling module 14. Both ends of the return spring 34 are fixedly connected to the sliding plate 33.

[0050] Among them, the surging of seawater can drive the surge fan 31 to rotate. Through the rotation of the surge fan 31, the elliptical wheel 32 can be driven to squeeze and collide with the triangular bump 38. Since the triangular bump 38 is fixed on the sliding plate 33, the elliptical wheel 32 can continuously drive the sliding plate 33 to slide back and forth on the self-cooling module 14. This solution uses the surging of seawater as the driving source to drive the elliptical wheel 32 to rotate.

[0051] Furthermore, extrusion grooves 35 are evenly and mirror-symmetrically formed on both sides of the sliding plate 33. Cleaning rods 36 are installed in the extrusion grooves 35. A guiding groove 37 is formed at the bottom of the self-cooling module 14. One end of the cleaning rod 36 away from the sliding plate 33 is slidably installed in the guiding groove 37. Filter holes are evenly formed on both sides of the self-cooling module 14. The cleaning rods 36 are evenly arranged on the surface of the filter holes of the self-cooling module 14. The self-cooling module 14 is made of corrosion-resistant material. A protective bag is encapsulated on the surface of the signal transmission module 15, and the protective bag is made of a high thermal conductivity and corrosion-resistant insulating material. A heat dissipation grease is applied to the surface of the core heat-generating component of the signal transmission module 15. The protective bag is sleeved on the signal transmission module 15 and has a sealing property. After the protective bag is sleeved on the signal transmission module 15 and flattened, a radiator is installed, and the radiator is made of corrosion-resistant material;

[0052] Among them, by reciprocatingly sliding the skateboard 33 on the self-cooling module 14, the cleaning rod 36 can be driven to scrape the surfaces of the filter hole plates on both sides of the self-cooling module 14 under the extrusion of the extrusion groove 35. This can not only prevent the filter holes of the self-cooling module 14 from being blocked by sediment in seawater, enhance the heat exchange between seawater and the surface of the signal transmission module 15, but also reduce the erosion of the surface of the self-cooling module 14 by seaweed in seawater. This solution uses the seawater surge as the driving source, and the seawater surge is continuous. Therefore, it can achieve continuous cleaning of the cabinet surface, effectively prevent the attachment of marine organisms and the accumulation of dirt, without the need for additional electricity or fossil fuels, thereby reducing energy consumption and carbon emissions, which conforms to the environmental protection concept of green and low-carbon.

[0053] The protective bag is made of an insulating material with high thermal conductivity and corrosion resistance, such as silicone tape with a thermal conductivity of more than 2W / m.k, and is made into a fully enclosed structure. The protective bag conducts protective treatment on the signal transmission module 15 to prevent the edges or pins of the components from piercing the protective bag. Place the circuit board in the protective bag, apply heat dissipation grease on the surface of the chip with a large heat dissipation of the signal transmission module 15. After the protective bag is flattened, install a fixed radiator. The material of the radiator should withstand the corrosion of seawater. The signal transmission module 15 needs to lead out cables, and good sealing should be done at the outlet of the protective bag.

[0054] Specifically, as Figure 6 shown, the middle part of the driving and adjusting plate 41 is rotatably connected to the bottom of the bearing module 12. Auxiliary plates 42 are respectively rotatably connected to both ends of the driving and adjusting plate 41. A pulling plate 43 is rotatably connected to one end of the auxiliary plate 42 away from the driving and adjusting plate 41. Fixed guide plates 45 are slidably installed at both ends of the pulling plate 43, and the fixed guide plates 45 are symmetrically and fixedly installed at the bottom of the bearing module 12; a folding plate 44 is arranged at one end of the driving and adjusting plate 41 away from the bearing module 12, and both ends of the folding plate 44 are installed on the pulling plate 43; a U-shaped support plate 46 is linearly and slidably connected to the lower surface of the pulling plate 43 near the fixed guide plate 45, and the middle part of the U-shaped support plate 46 is installed on the folding plate 44.

[0055] A driving motor is installed in the middle of the driving and adjusting plate 41, and the driving and adjusting plate 41 can be driven to rotate at the bottom of the bearing module 12 through the driving motor.

[0056] In this solution, the motor rotates to drive the pulling plate 43 to pull the folding plate 44 to achieve retraction and extension. Through the rotational connection and fixation between the middle part of the folding plate 44 and the U-shaped support plate 46, the retraction and extension of the folding plate 44 can drive the U-shaped support plate 46 to move on the fixed guide plate 45.

[0057] Furthermore, a power generation device is evenly installed in the U-shaped support plate 46. The bottom of the fixed guide plate 45 is evenly provided with sliding tooth grooves. A gear 47 is engaged with the sliding tooth grooves at the bottom of the fixed guide plate 45. The middle of the gear 47 is installed on the U-shaped support plate 46 through a fixed plate. A transmission rotating rod 48 is rotatably connected below the gear 47 on the U-shaped support plate 46. A transmission belt 49 is connected between the gear 47 and the transmission rotating rod 48 for transmission;

[0058] Furthermore, the two ends of the transmission rotating rod 48 are fixedly installed with second worm gears 51. The tooth surfaces of the second worm gears 51 are engaged with second worm wheels 52. The middle of the second worm wheels 52 is fixedly connected with a V-direction control cover 54. A rotating shaft 53 is rotatably connected in the middle of the V-direction control cover 54. One end of the rotating shaft 53 is fixedly installed on the power generation device. The other end of the rotating shaft 53 is fixedly installed with a universal shaft 55. The universal shaft 55 is arranged in the rotating shaft 53. A turbine blade 56 is fixedly installed at the end of the universal shaft 55 away from the rotating shaft 53;

[0059] Among them, the structure and material of this solution are all made of corrosion-resistant materials; in this solution, the folding plate 44 is retracted and extended to drive the U-shaped support plate 46 to slide on the fixed guide plate 45. The gear 47 is engaged with the sliding tooth grooves of the fixed guide plate 45 to drive the transmission rotating rod 48 to rotate. The rotation of the transmission rotating rod 48 can drive the V-direction control cover 54 to adjust the direction. In this solution, the sea water surge can drive the turbine blade 56 to rotate. The rotation of the turbine blade 56 drives the power generation device installed in the U-shaped support plate 46 to generate electricity through the transmission of the universal shaft 55. Moreover, in this solution, the rotation of a single motor can simultaneously control the directions of multiple turbine blades 56 for adjustment, so as to adapt to the sea water surges in different directions in the sea water, and thus can maximize the conversion of the kinetic energy of the sea water surge into electrical energy for utilization. At the same time, the movement of the U-shaped support plate 46 can adaptively adjust the distance between the power generation devices, so as to quickly adapt to the power generation using the sea water surge.

[0060] The specific implementation process of the above embodiment is as follows;

[0061] It should be particularly pointed out that the marine environment is complex and changeable, and the water flow surges frequently and has a large change range. This unstable water flow condition often has an adverse impact on the application effect of this solution. To effectively address this problem, a water flow speed stabilizing device is innovatively installed outside the main body bearing module 12 in this solution.

[0062] This water flow speed stabilizing device has a powerful water flow regulation ability. It can transform the originally frequent and unstable water flow surges in the ocean into a relatively stable and orderly water flow state through a series of scientific designs and advanced technical means. In this way, when this invention is actually applied, it can be in a more stable water flow environment, thus significantly improving the stability and reliability of its operation.

[0063] Specifically, the water flow speed stabilizing device realizes the effective regulation of water flow through its unique structural design and working principle. It may adopt advanced fluid control technologies, intelligent sensing systems, and efficient energy conversion mechanisms, etc., to ensure a stable and reliable working environment for the present invention under various complex ocean water flow conditions. The specific structure and working principle of the water flow speed stabilizing device will be elaborated in detail below.

[0064] In this solution, a plurality of seawater surge sensors are installed in the bearing module 12 to detect the surge direction in seawater. At the same time, the sensors are electrically connected to the controller and the motor installed at the bottom of the bearing module 12. When the sensors detect the surge direction of seawater, first, the sensors transmit electrical signals to the controller, and the controller controls the motor to start. Under the start of the motor, it can drive the driving and adjusting plate 41 as shown in Figure 4 to start rotating. By the rotation of the driving and adjusting plate 41, it can drive the auxiliary plate 42 to push the pulling plate 43 to slide. At this time, due to the folding plate 44 being installed on the pulling plate 43, the sliding of the pulling plate 43 can directly drive the folding plate 44 to extend. Since both ends of the U-shaped support plate 46 slide on the fixed guide plate 45 and the middle of the U-shaped support plate 46 is installed on the folding plate 44, the extension of the folding plate 44 can directly drive the U-shaped support plate 46 to slide synchronously on the fixed guide plate 45;

[0065] Furthermore, as shown in Figure 7 , when the U-shaped support plate 46 slides on the fixed guide plate 45, since the sliding tooth groove at the bottom of the fixed guide plate 45 meshes with the gear 47, the sliding of the U-shaped support plate 46 will directly drive the gear 47 to start rotating. When the gear 47 rotates, through the transmission of the transmission belt 49, it can directly drive the transmission rotating rod 48 to rotate on the U-shaped support plate 46. At this time, since the second worm 51 fixed at both ends of the transmission rotating rod 48 meshes with the second worm gear 52 and has a self-locking function, the rotation of the second worm 51 will drive the second worm gear 52 to drive the V-direction control cover 54 to swing in the reverse direction. At the same time, the power generation device installed in the U-shaped support plate 46 will drive the universal shaft 55 to drive the rotating shaft 53 to rotate through the rotation of the turbine blade 56 under the action of the surge. Through the rotation of the rotating shaft 53, it can further directly drive the power generation device to generate electricity. This solution can synchronously adjust the direction angles of multiple power generation devices in seawater, not only maximizing the conversion of the kinetic energy of seawater surges into electrical energy, but also this solution can control the synchronous adjustment of the directions of multiple groups of turbine blades 56 with a single motor, which not only reduces the equipment investment cost, but also reduces the energy consumption, and further enhances the flexibility and practicality of the system;

[0066] Furthermore, as shown in Figure 4As shown, when a surge passes through the load-bearing module 12 and impacts the surface of the surge fan 31 through the water filtration holes of the load-bearing module 12, the fan blade angle setting of the surge fan 31 can directly drive the surge fan 31 to rotate. At this time, the rotation of the surge fan 31 will drive the elliptical wheel 32 to start rotating. Since the elliptical wheel 32 is elliptically configured, the rotation of the elliptical wheel 32 will directly squeeze the triangular bumps 38 on both sides. By squeezing the triangular bumps 38, the sliding plate 33 will slide synchronously on the self-cooling module 14. At this time, the return spring 34 will start to be continuously stretched. Under the mutual extrusion of the sliding plate 33 in the extrusion groove 35 and the cleaning rod 36, the cleaning rod 36 will continuously clean the water filtration holes on the surface of the self-cooling module 14. This solution uses the sea water surge as the driving source, and the sea water surge is continuous. Therefore, it can achieve continuous cleaning of the cabinet surface, effectively prevent the attachment of marine organisms and the accumulation of dirt, without the need for additional electricity or fossil fuels, thereby reducing energy consumption and carbon emissions, which conforms to the green and low-carbon environmental protection concept.

[0067] At the same time, in this solution, by setting the regional movement of the load-bearing module 12, when the sea surface experiences a rapid surge of sea water due to natural disasters such as earthquakes, raising the load-bearing module 12 can reduce the damage to the self-cooling module 14 inside the load-bearing module 12 caused by the violent surge of sea water; at the same time, when the sea water surge is small, the load-bearing module 12 can be moved downward again. Through the water filtration holes opened on the load-bearing module 12, the heat in the self-cooling module 14 can be exchanged in a timely manner, and the heat generated during the operation of the signal transmission module 15 can be taken away by the sea water, thereby reducing the energy consumption during the operation of the equipment and lowering the operating cost.

[0068] It should be noted that the term "comprising" or any other variant thereof is intended to cover non-exclusive inclusion, so that a process, method, article, or device comprising a series of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or device. Without further limitation, an element defined by the phrase "comprising a..." does not exclude the presence of additional identical elements in the process, method, article, or device comprising the element.

[0069] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An underwater information system with mainboard water-cooled heat dissipation equipped with ocean current power generation, characterized in that It includes a sea column (1), which is symmetrically arranged around. The upper end of the sea column (1) is equipped with a seabed (11). A bearing module (12) is installed in the seabed (11). One end of the bearing module (12) away from the seabed (11) is installed on the sea column (1). Self-cooling modules (14) are evenly installed in the bearing module (12). A photovoltaic power generation device (13) is installed on the upper surface of the sea column (1). Signal transmission modules (15) are evenly installed in the self-cooling modules (14). The underwater information system with main board water-cooling heat dissipation for sea current power generation also includes a protection mechanism (2), a heat dissipation anti-blocking mechanism (3) and a multi-direction self-adjusting power generation mechanism (4); The protection mechanism (2) is arranged in the seabed (11), and the protection mechanism (2) is used to adjust the height of the bearing module (12) and decontaminate it; The heat dissipation anti-blocking mechanism (3) is arranged on the self-cooling module (14), and the heat dissipation anti-blocking mechanism (3) is used to prevent the heat dissipation holes of the self-cooling module (14) from being blocked; The multi-direction self-adjusting power generation mechanism (4) is arranged at the bottom of the bearing module (12), and the multi-direction self-adjusting power generation mechanism (4) is used for self-adjusting power generation in the surge direction.

2. The underwater information system with main board water-cooled heat dissipation for ocean current power generation according to claim 1, wherein: The protection mechanism (2) includes a machine cover (21), and the machine cover (21) is symmetrically installed on both sides of the seabed (11). A driving motor is installed in the machine cover (21), and a first worm (22) is installed on the driving shaft of the driving motor. The tooth surface of the first worm (22) meshes with a first worm gear (23). A transmission shaft (24) is installed in the middle of the first worm gear (23). Winding wheels (25) are installed on both sides of the outer surface of the transmission shaft (24).

3. The underwater information system with main board water-cooling heat dissipation for ocean current power generation according to claim 2, characterized in that: Steel ropes (26) are wound in the winding wheels (25). One end of the steel rope (26) away from the winding wheel (25) is installed at the bottom of the bearing module (12). Filter holes are evenly opened in the bearing module (12) for the influx of seawater. The seabed (11) is composed of double-layer corrosion-resistant splints, and the bearing module (12) is slidably installed in the middle of the splints of the seabed (11).

4. A main board water-cooled heat dissipation underwater information system equipped with ocean current power generation according to claim 1, characterized in that: The heat dissipation anti-blocking mechanism (3) includes a surging fan (31). An elliptical wheel (32) is fixedly installed at the bottom of the surging fan (31). One side of the middle of the elliptical wheel (32) away from the surging fan (31) is rotatably connected to the self-cooling module (14). Triangular convex blocks (38) are arranged on both sides of the elliptical wheel (32). One side of the triangular convex block (38) away from the elliptical wheel (32) is fixedly connected to a sliding plate (33). The bottom of the sliding plate (33) is slidably connected to the self-cooling module (14). Return springs (34) are symmetrically arranged on the upper surface of the self-cooling module (14), and both ends of the return spring (34) are fixedly connected to the sliding plate (33).

5. The underwater information system with mainboard water-cooling heat dissipation for ocean current power generation according to claim 4, characterized in that: Extrusion grooves (35) are evenly opened in a mirror image on both sides of the sliding plate (33). Cleaning rods (36) are installed in the extrusion grooves (35). A guide groove (37) is opened at the bottom of the self-cooling module (14), and one end of the cleaning rod (36) away from the sliding plate (33) is slidably installed in the guide groove (37).

6. The underwater information system with main board water-cooling heat dissipation for ocean current power generation according to claim 5, characterized in that: The two sides of the self-cooling module (14) are evenly provided with filter holes. The cleaning rods (36) are evenly arranged on the surfaces of the filter holes of the self-cooling module (14). The self-cooling module (14) is made of corrosion-resistant material. The surface of the signal transmission module (15) is encapsulated with a protective bag, and the protective bag is made of a heat-conductive and corrosion-resistant insulating material. The surface of the core heating component of the signal transmission module (15) is coated with heat-conducting grease. The protective bag is sleeved on the signal transmission module (15) and has a sealing property. After the protective bag is sleeved and flattened on the signal transmission module (15), a radiator is installed, and the radiator is made of corrosion-resistant material.

7. The underwater information system with main board water-cooled heat dissipation for ocean current power generation according to claim 6, characterized in that: The multi-direction self-adjusting power generation mechanism (4) includes a driving and adjusting plate (41). The middle of the driving and adjusting plate (41) is rotatably connected to the bottom of the bearing module (12). Two ends of the driving and adjusting plate (41) are respectively rotatably connected to auxiliary plates (42). One end of the auxiliary plate (42) far from the driving and adjusting plate (41) is rotatably connected to a pulling plate (43). Two ends of the pulling plate (43) are slidably installed on fixed guiding plates (45). The fixed guiding plates (45) are symmetrically and fixedly installed at the bottom of the bearing module (12). A folding plate (44) is arranged at one end of the driving and adjusting plate (41) far from the bearing module (12). Two ends of the folding plate (44) are installed on the pulling plate (43).

8. The underwater information system with mainboard water-cooled heat dissipation for ocean current power generation according to claim 7, characterized in that: The fixed guiding plate (45) is linearly and slidably connected to a U-shaped support plate (46) on the lower surface close to the pulling plate (43). The middle of the U-shaped support plate (46) is installed on the folding plate (44). Power generation devices are evenly installed in the U-shaped support plate (46). The bottom of the fixed guiding plate (45) is evenly provided with sliding tooth grooves. A gear (47) is engaged with the sliding tooth grooves at the bottom of the fixed guiding plate (45). The middle of the gear (47) is installed on the U-shaped support plate (46) through a fixing plate. A transmission rotating rod (48) is rotatably connected to the lower part of the U-shaped support plate (46) close to the gear (47). A transmission belt (49) is connected to the gear (47) and the transmission rotating rod (48) for transmission.

9. The underwater information system with main board water-cooling heat dissipation for ocean current power generation according to claim 8, characterized in that: Two ends of the transmission rotating rod (48) are fixedly installed with second worm gears (51). The tooth surfaces of the second worm gears (51) are engaged with second worm wheels (52). The middle of the second worm wheel (52) is fixedly connected to a V-direction control cover (54). The middle of the V-direction control cover (54) is rotatably connected to a rotating shaft (53). One end of the rotating shaft (53) is fixedly installed on the power generation device. The other end of the rotating shaft (53) is fixedly installed with a universal shaft (55). The universal shaft (55) is arranged in the rotating shaft (53). One end of the universal shaft (55) far from the rotating shaft (53) is fixedly installed with a turbine blade (56).

Images