Seabed data intelligent calculation center structure and working method

Abstract

The invention belongs to the technical field of ocean engineering. According to the seabed data intelligent calculation center structure and the working method, a plurality of stand columns and a tubular structure are connected to form a frame used for bearing a tank body, a supporting seat is fixed in the frame, and the tank body is arranged on the supporting seat; grating plates are arranged at the two ends and the top of the frame, a plurality of suction foundations are fixed to the bottom of the frame, and data intelligent calculation equipment is arranged in the tank body; a temperature and humidity real-time monitoring sensor and a pressure balance adjusting module are integrated in the tank body, the temperature and humidity real-time monitoring sensor communicates with a cooling system outside the tank body, the heat dissipation efficiency in the tank body is adjusted in a linkage mode according to real-time temperature and humidity data, and the pressure balance adjusting module is used for automatically compensating air pressure in the cabin according to water pressure differences of different depths of the seabed; according to the invention, the structural stability of the seabed is ensured, natural cooling is carried out through low-temperature seawater, the problem of high heat dissipation energy consumption of a traditional data center is solved, and a stable working temperature environment is provided for data intelligent calculation equipment.

Description

Technical Field

[0001] This invention relates to the field of marine engineering technology, and in particular to a structure and working method of an intelligent seabed data computing center. Background Technology

[0002] The statements in this section are merely background information related to the present invention and do not necessarily constitute prior art.

[0003] Currently, the demand for computing power in data centers is increasing dramatically, and energy consumption and heat dissipation issues are becoming increasingly prominent. Traditional terrestrial data centers face bottlenecks such as high heat dissipation energy consumption, limited space resources, and accelerated equipment aging due to dust / oxygen environments. Undersea data centers, with their significant energy-saving advantages of utilizing low-temperature seawater for natural cooling, have become an important direction for the development of green computing power.

[0004] Existing submarine data center solutions are not suitable for deep-sea environments and have the following problems: (1) Insufficient structural stability, weak resistance to ocean current impact and seabed geological changes; (2) Lack of anti-corrosion performance, long-term seawater corrosion threatens the safety of steel structures and shortens structural lifespan; (3) Failure of operation and maintenance mechanism, lack of efficient and reliable installation and recycling maintenance solutions, resulting in high equipment failure rate, out-of-control operation and maintenance costs, and may even cause interruption of data center service, restricting large-scale reliable deployment. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides a structure and operating method for an underwater intelligent data computing center, ensuring structural stability on the seabed. By utilizing natural cooling from low-temperature seawater, it solves the problem of high heat dissipation and energy consumption in traditional data centers, providing a stable operating temperature environment for intelligent data computing equipment.

[0006] To achieve the above objectives, the present invention adopts the following technical solution: Firstly, the present invention provides a structure for an intelligent underwater data computing center.

[0007] A structure for an underwater data intelligent computing center includes: a tank, a support base, a suction foundation, a grating plate, columns, and a tubular structure connecting the columns; Multiple columns are connected to the tubular structure to form a frame for supporting the tank. The support base is fixed inside the frame, and the tank is arranged on the support base. The grid plates are arranged at both ends and the top of the frame, and multiple suction bases are fixed at the bottom of the frame. Data computing equipment is arranged inside the tank. The tank integrates a real-time temperature and humidity monitoring sensor and a pressure balance adjustment module. The real-time temperature and humidity monitoring sensor communicates with the external cooling system of the tank and adjusts the heat dissipation efficiency of the tank according to the real-time temperature and humidity data. The pressure balance adjustment module is used to automatically compensate for the air pressure inside the tank according to the water pressure difference at different depths on the seabed.

[0008] In one implementation of the first aspect of the present invention, the tank is a cylindrical tank, and the support base is a support saddle that is connected to and cooperates with the cylindrical tank.

[0009] In one implementation of the first aspect of the present invention, the tank is an elliptical cylindrical tank or a polygonal prism tank.

[0010] In one implementation of the first aspect of the present invention, the tank body is formed by connecting multiple pipe sections through flanges, and the flange connections are sealed with sealing rings.

[0011] In one implementation of the first aspect of the present invention, a plurality of lugs are fixed to the top of the frame.

[0012] In one implementation of the first aspect of the present invention, the column is a steel column, and the tubular structure includes diagonal bracing steel pipes and horizontal connecting steel pipes.

[0013] In one implementation of the first aspect of the present invention, the column and the tubular structure are made of corrosion-resistant alloy material or composite material.

[0014] In one implementation of the first aspect of the present invention, a skirt board is also fixedly connected to the bottom of the frame.

[0015] In one implementation of the first aspect of the present invention, the outer surface of the tank is covered with an anti-corrosion coating, and a sacrificial anode is welded and fixed to the outer surface of the tank.

[0016] Secondly, the present invention provides a working method for a submarine data intelligent computing center structure.

[0017] A method for operating a submarine data intelligent computing center structure, utilizing the submarine data intelligent computing center structure described in the first aspect of this invention, includes the following processes: The temperature and humidity inside the tank are acquired in real time, and the heat dissipation efficiency inside the tank is adjusted in conjunction with the seawater temperature based on the temperature and humidity. The pressure inside the tank is acquired in real time, and the air pressure inside the tank is automatically compensated based on the water pressure outside the tank.

[0018] Compared with the prior art, the beneficial effects of the present invention are: This invention solves the problem of high energy consumption in traditional data centers by using low-temperature seawater for natural cooling, providing a stable operating temperature environment for servers and aligning with the development direction of green computing power. Traditional land-based data centers rely on high-energy-consuming air conditioning systems for heat dissipation, which not only consume a large amount of electricity but are also susceptible to temperature fluctuations due to external environmental factors. This invention fully utilizes the constant low temperature of seawater throughout the year, eliminating the need for additional high-energy-consuming heat dissipation equipment and achieving natural cooling directly through heat exchange between the tank and seawater. At the same time, the integrated temperature and humidity monitoring sensors inside the tank are linked with the external cooling system, dynamically adjusting the heat dissipation process based on the heat generated by the server operation. This ensures that the temperature inside the tank is always maintained within the optimal operating range for the server, avoiding performance degradation caused by high temperatures and completely eliminating the energy burden of traditional heat dissipation methods. This perfectly meets the low-consumption and high-efficiency development needs of green computing power and provides reliable support for the low-carbon development of the digital economy.

[0019] The dust-free and oxygen-free environment of the tank in this invention reduces the corrosion of electronic components by dust and oxygen. Combined with precise temperature and humidity control, it significantly reduces the server failure rate and extends equipment life. To achieve the dust-free and oxygen-free environment of the tank, this invention adopts a structure with multiple pipe sections connected by flanges, and sealing rings are installed at the flange connections for tight sealing. This effectively prevents seawater, silt, and dust and oxygen from entering the tank, avoiding poor heat dissipation due to dust accumulation or oxidation and corrosion of electronic components due to oxygen contact. In addition, real-time temperature and humidity monitoring sensors inside the tank can capture changes in the internal environment in real time and link with relevant control modules to precisely adjust the temperature and humidity. This prevents high temperature and humidity from accelerating component aging and avoids condensation damage to equipment in low temperature environments. This dual guarantee of a clean environment and precise control greatly reduces server failures caused by environmental factors, lowers maintenance frequency, significantly extends the actual service life of equipment, and improves the operational stability and economy of data centers.

[0020] The combined design of the arc-shaped support base, columns, diagonal braces, and grating plates in this invention enhances the resistance to ocean current impacts. The combined design of the suction foundation and the lower skirt plate improves the resistance to seabed geological changes, ensuring the stable operation of the data center in the deep-sea environment. Regarding the resistance to ocean current impacts, the arc-shaped support base can adapt to the shape of the tank, reducing the direct impact surface between the ocean current and the structure. The connection between the columns and diagonal braces is also optimized to reduce ocean current resistance. The grating plates on the diagonal braces at both ends of the tank can not only block the impact of falling objects and fishing nets, but also divert some of the ocean currents, further weakening the impact of the ocean currents on the overall structure. Regarding the resistance to seabed geological changes, the suction foundation can be firmly embedded into the seabed through negative pressure, forming a reliable fixing effect. The lower skirt plate can increase the contact area with the seabed, improving the structure's pull-out resistance and overturning resistance. Even when encountering geological changes such as seabed siltation and slight subsidence, the overall structure can remain stable and unwavering, ensuring the continuous and stable operation of the data center in the complex deep-sea environment.

[0021] The combined design of negative pressure installation and reverse water injection recovery of the suction foundation in this invention provides an efficient and reliable installation, maintenance, and recovery mechanism, reducing operation and maintenance difficulty and costs, and avoiding service interruptions due to maintenance failures. During the installation phase, no complex seabed excavation is required; the suction foundation can be quickly sunk and embedded into the seabed at a predetermined depth simply through negative pressure, simplifying the installation process, shortening offshore operation time, and reducing manpower and equipment costs during installation. During the operation and maintenance phase, when equipment maintenance or replacement is required, reverse water injection into the suction foundation is sufficient to lift the foundation, thereby raising the entire structure. This facilitates maintenance of the equipment inside the tank without requiring extensive resources for complex seabed operations. This design completely solves the problems of high difficulty and cost in the operation and maintenance of traditional subsea equipment, ensuring efficient operation and maintenance and preventing equipment failures due to untimely or ineffective maintenance, which could lead to data center service interruptions and ensure the continuity of computing power output.

[0022] This invention employs a dual protection system of coating and sacrificial anodes to block seawater corrosion and extend the lifespan of the steel structure. The four major systems (sealed chamber system, support structure system, foundation structure system, and anti-corrosion system) work synergistically to significantly improve the reliability of the subsea data computing center throughout its entire lifecycle. In terms of corrosion protection, the anti-corrosion coating covering the steel structure surface forms the first line of defense, preventing seawater from directly contacting the metal surface. Meanwhile, the sacrificial anodes welded to the outer surface of the tank and frame prioritize the protection of the steel structure through their own corrosion, preventing long-term seawater erosion and significantly extending the structure's service life. Based on this, the four systems form a complete protection system: the sealed chamber system provides a clean and stable internal environment for the equipment; the support structure system resists ocean current impacts; the foundation structure system copes with seabed geological changes; and the anti-corrosion system blocks seawater corrosion. Each system cooperates and complements the others, addressing the shortcomings of any single system while creating a synergistic overall protective effect. This improves the reliability of the subsea data computing center throughout its entire lifecycle, from installation and operation to maintenance, reducing the risk of downtime due to structural damage or system failure and lowering overall lifecycle operating costs.

[0023] Regarding the selection of structural materials, this invention not only provides options for steel columns and diagonal braces, but also allows for the use of corrosion-resistant alloys or composite materials. These materials can be flexibly adapted to the degree of corrosion and environmental characteristics of different sea areas. For example, corrosion-resistant alloys are suitable for sea areas with high salinity, while composite materials can reduce the structural weight and lower the foundation bearing pressure, further improving the structural adaptability and economy. In addition, the pressure balance adjustment module integrated in the tank can automatically compensate for the air pressure inside the tank according to the water pressure difference at different depths on the seabed, preventing the tank from deforming due to excessive internal and external pressure differences. In practice, this design can effectively protect the tank structure and internal equipment, reducing the risk of failure caused by water pressure changes. At the same time, the lifting lugs set on the top of the overall structure provide convenience for lifting operations during installation and recovery. These additional advantages can further optimize the construction and operation of the data center in practical applications, providing more support for its promotion and application in different marine environments. Attached Figure Description

[0024] The accompanying drawings, which form part of this invention, are used to provide a further understanding of the invention. The illustrative embodiments of the invention and their descriptions are used to explain the invention and do not constitute an improper limitation of the invention.

[0025] Figure 1 A schematic diagram of the structure of a submarine data intelligent computing center provided as an exemplary embodiment of the present invention; Figure 2 This demonstrates a working method for an underwater data intelligent computing center structure. The components include: 1. Cylindrical tank body; 2. Support saddle; 3. Sealing ring; 4. Lifting lug; 5. Steel column; 6. Diagonal bracing steel pipe; 7. Grating plate; 8. Sacrificial anode; 9. Skirt plate; 10. Suction foundation. Detailed Implementation

[0026] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0027] It should be noted that the following detailed descriptions are exemplary and intended to provide further illustration of the invention. Unless otherwise specified, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains.

[0028] Existing subsea data center solutions suffer from several drawbacks in deep-sea environments: insufficient structural resistance to ocean currents and seabed geological changes; long-term seawater corrosion threatening steel structure safety; and a lack of efficient and reliable installation, recovery, and maintenance mechanisms. If these problems are not effectively addressed, they will lead to increased equipment failure rates, uncontrolled maintenance costs, shortened structural lifespan, and even data center service interruptions, severely restricting the large-scale reliable deployment and sustainable operation of subsea data centers. Therefore, there is an urgent need to develop a novel subsea intelligent data center structure that integrates efficient natural cooling, long-term active corrosion protection, stable adaptive anchoring, and recyclable maintenance to overcome existing technological bottlenecks.

[0029] In view of this, this implementation proposes a new structure for a seabed data intelligent computing center, which is designed around four core systems: a sealed cabin system, a support structure system, a basic structure system, and a corrosion protection system, and forms a complete solution by combining the characteristics of the seabed environment.

[0030] In this implementation, the sealed chamber system uses a cylindrical tank 1 as its core carrier. The support saddle 2 at the bottom of the cylindrical tank 1 is fixed to the cylindrical tank 1 by welding to ensure structural stability. The flange connection of the tank is sealed with a sealing ring 3 to achieve a tight seal and effectively prevent seawater intrusion. The cylindrical tank 1 houses data computing equipment such as servers, network devices, and electrical equipment. It also integrates a real-time temperature and humidity monitoring sensor and a pressure balance adjustment module. The real-time temperature and humidity monitoring sensor establishes a signal connection with the external cooling system, which can accurately capture environmental changes in the cylindrical tank 1 and adjust the heat dissipation efficiency accordingly. The pressure balance adjustment module can automatically compensate for the air pressure inside the cylindrical tank 1 according to the water pressure difference at different depths on the seabed, preventing the cylindrical tank 1 from deforming due to excessive internal and external pressure differences. Furthermore, the cylindrical tank 1 always maintains a dust-free and oxygen-free environment, providing stable protection for the data computing equipment.

[0031] Alternatively, in other implementations, elliptical cylindrical tanks or polygonal prism tanks can be used: Elliptical cylindrical tanks can further reduce the impact resistance of ocean currents on the hull by optimizing the ratio of the major axis to the minor axis; polygonal prism tanks are easier to fix to the support structure in multiple directions, and both forms can maintain the same water pressure resistance as cylinders by adjusting the wall thickness, while ensuring the installation space for internal equipment.

[0032] In this implementation, the supporting structure system includes steel columns 5 surrounding the sealed cabin, tubular structures (including diagonal bracing steel pipes 6) connecting the columns, grating plates 7 covering the top and sides, lifting lugs 4 installed on the top of the tubular structures, and reinforcing ribs at key nodes. The steel columns 5 and the tubular structures connecting the columns combine to form a frame. The grating plates 7 can effectively block falling objects from impacting the structure and prevent fishing nets from getting tangled. The lifting lugs 4 meet the construction requirements for lifting and lowering the overall structure. To improve the resistance to ocean current impact, the connection between the steel columns 5 and the tubular structures adopts an arc-shaped transition design, which can reduce the vortex-induced vibration generated when the ocean current flows through the structure. At the same time, reinforcing ribs are added to the key stress nodes on the outside of the connection, which increases the load-bearing capacity of the nodes by more than 30%, further enhancing the structural stability.

[0033] Alternatively, in other implementation methods, corrosion-resistant alloys or composite materials can be used to make columns and tubular structures. Corrosion-resistant alloys (such as titanium alloys) have better corrosion resistance than ordinary steel in seawater environments and can be used for a long time without additional anti-corrosion treatment, making them suitable for shallow seas or estuaries with severe corrosion. Composite materials (such as carbon fiber reinforced epoxy resin composites) have strength comparable to steel, but weigh only 1 / 4 of steel, which can significantly reduce the overall structural weight and reduce the load-bearing pressure on the foundation structure. At the same time, they have natural corrosion resistance, making them suitable for lightweight deployment in deep seas.

[0034] The basic structural system consists of a suction foundation 10 with a cylindrical steel structure, a lower skirt 9 fixed to its bottom, and a water injection / pump skid on the top cover of the suction foundation 10. During installation, the suction foundation 10 is made to create negative pressure by the action of a negative pressure pump, thereby achieving negative pressure sinking and embedding into the seabed at a predetermined depth. The lower skirt 9 can further enhance the load-bearing capacity of the overall structure. During the operation and maintenance phase, water can be injected into the suction foundation 10 in reverse using the water injection / pump skid, which can lift and recover the overall structure to meet the needs of regular inspection and maintenance.

[0035] In this implementation, the anti-corrosion system adopts a dual protection design. On the one hand, an anti-corrosion coating is applied to the surface of the structure to form a basic anti-corrosion barrier. On the other hand, sacrificial anodes 8 made of aluminum alloy or zinc alloy are distributed and welded to the metal surfaces of the supporting and foundation structures. The sacrificial anode 8 protection method blocks the long-term corrosion of the steel structure by seawater, ensuring the durability of the structure in the marine environment. In addition, this invention makes full use of the low temperature characteristics of seawater at the bottom of the sea to achieve natural cooling of the server throughout the year. Combined with the dust-free and oxygen-free environment of the sealed cabin, it forms a dual guarantee of cooling and protection, further optimizing the operating conditions of the core equipment.

[0036] Alternatively, in other implementations, high-performance coatings or composite coatings, such as ceramic-based coatings, graphene-modified coatings, and multi-layer composite coatings, can be used to improve corrosion resistance, wear resistance, and impact resistance, extending the corrosion protection life. Ceramic-based coatings are suitable for structures immersed in high-salinity seawater for extended periods, graphene-modified coatings enhance adhesion and prevent seawater contact, while composite coatings enhance corrosion protection through a three-layer structure. Regarding the sacrificial anode 8, magnesium alloys can replace aluminum / zinc alloys, making them particularly suitable for low-salinity sea areas. They are designed as long strip anodes to increase contact area, extend service life, and simplify maintenance through snap-on installation. As a supplement, a cathodic protection system can be added to the coating and sacrificial anode 8, including impressed current cathodic protection, corrosion monitoring, and active recoating, improving corrosion resistance in deep-sea areas and ensuring timely replenishment of the coating when damaged.

[0037] like Figure 2 As shown, based on the above-described seabed data intelligent computing center structure of this invention, a working method for the seabed data intelligent computing center structure is proposed, including the following process: S201: Real-time acquisition of temperature and humidity inside the tank, and adjustment of heat dissipation efficiency inside the tank in conjunction with seawater temperature based on the temperature and humidity. S202: Real-time acquisition of the pressure inside the tank, and automatic compensation of the air pressure inside the tank based on the water pressure outside the tank.

[0038] Optionally, in some other implementations, when seawater parameters (temperature, flow rate) fluctuate, insufficient heat dissipation (overheating inside cylindrical tank 1) or excessive energy consumption (redundant heat dissipation) may occur, failing to meet the dynamic computing power requirements of the server. Therefore, this implementation proposes a method for calculating the heat dissipation efficiency of the tank, including: (1); in, This represents the cabin's heat dissipation efficiency; The convective heat transfer coefficient between seawater and the hull wall; Represents the effective heat exchange surface area of ​​the cabin; This represents the average temperature inside the sealed chamber. This represents the average temperature of the surrounding seawater; This represents the total heat dissipation of the equipment inside the cabin.

[0039] Different seawater parameters can be quantified using formulas. and The improved heat dissipation efficiency solves the problem of heat dissipation capacity not being able to dynamically match equipment needs. When the value is less than 0.8, the system can accurately identify heat dissipation gaps and automatically activate the external deflector plate to adjust the flow rate of seawater through the cabin, thereby increasing the efficiency of heat dissipation. Alternatively, turn on the auxiliary cooling fan (to supplement 5% to 10% of the cooling capacity) to make... It rebounded to the 0.8-0.95 range; when When the value is greater than 0.95, heat dissipation redundancy can be identified, auxiliary heat dissipation modules can be turned off, ineffective energy consumption can be reduced, and green computing power requirements can be matched.

[0040] Optionally, in some other implementations, the lifespan of the sacrificial anode is related to the service life of the entire structure. Inaccurate anode lifespan prediction can lead to two risks: first, failure to replace the anode after depletion results in corrosion exposure of the steel structure; second, premature replacement before depletion, leading to resource waste and incompatibility with different salinity levels (e.g., low salinity in estuaries, high salinity in the open sea). Therefore, a method for predicting the lifespan of sacrificial anodes is proposed, including: (2); in, This represents sacrificing anode lifetime; Represents the mass of a single sacrificial anode; Represents the anode current efficiency; Represents the salinity coefficient of seawater (dimensionless, when salinity S = 35‰). Magnesium alloys with salinity S < 20‰ Aluminum alloy ); Represents the anodic corrosion current density; This represents the effective corrosion area of ​​the anode.

[0041] Before deploying the seabed data intelligent computing center structure of this invention, calculations were performed based on sea area salinity. Select the appropriate anode material (e.g., magnesium alloy for salinity < 20%, aluminum alloy for salinity ≥ 20%); during operation and maintenance, collect salinity S and residual anode mass every 6 months (using corrosion sensors) and correct accordingly. :like In [year], a replacement command for the sacrificial anode is triggered; if The interval between the next test will be extended (from 6 months to 12 months).

[0042] Optionally, in some other implementations, if the gas pressure inside the tank... If the temperature is too low, seawater can easily seep in through the sealed gaps (seal failure); if Excessive pressure can cause bulging deformation of the tank body (e.g., cylinder diameter deviation >1%), affecting equipment installation accuracy and structural safety. Therefore, a pressure correction scheme is proposed, including: (3); in, Represents the target air pressure inside the cabin; Represents standard atmospheric pressure; Represents seawater density; Represents gravitational acceleration; Represents the water depth at the center of the hull; This represents the safety margin in air pressure.

[0043] Real-time data collection (Using a water depth sensor), substitute into the formula to calculate. The pressure regulation module stabilizes the cabin pressure at a constant level via the inflation / deflation valve. Within range; if detected If the deviation exceeds 100Pa (e.g., due to a leak causing a pressure drop), an automatic alarm will sound and the cabin's inlet and outlet valves will be closed. Simultaneously, the emergency air supply pump will be activated to ensure... Return to target value to prevent seawater infiltration.

[0044] Optionally, in some other implementations, the combination of high temperature and high humidity can accelerate the oxidation and corrosion of electronic components (such as corrosion of solder joints on server motherboards), shortening equipment lifespan; while simply lowering the temperature may lead to increased humidity (risk of condensation), which could exacerbate malfunctions. Therefore, a temperature and humidity coupling coefficient estimation scheme is proposed, including: (4); in, Represents the temperature and humidity coupling coefficient; This represents the average temperature inside the tank. Represents the relative humidity inside the tank; This represents the air pressure inside the tank; This represents the amount of moisture dissipated per unit volume of equipment inside the tank.

[0045] like The dehumidification module is linked (increasing dehumidification capacity by 15%), reducing... (to below 55%), or slightly reduce the heat dissipation target (to make decline ),make ; like This triggers a computing power deload command (reducing computing power by 10% to 15%, decreasing...) At the same time, dehumidification and heat dissipation are strengthened until the coupling risk is eliminated, thus extending the life of electronic devices.

[0046] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A structure for an underwater data intelligent computing center, Its features are, include: Tank body, support base, suction foundation, grating, columns, and tubular structure connecting the columns; Multiple columns are connected to the tubular structure to form a frame for supporting the tank. The support base is fixed inside the frame, and the tank is arranged on the support base. The grid plates are arranged at both ends and the top of the frame, and multiple suction bases are fixed at the bottom of the frame. Data computing equipment is arranged inside the tank. The tank integrates a real-time temperature and humidity monitoring sensor and a pressure balance adjustment module. The real-time temperature and humidity monitoring sensor communicates with the external cooling system of the tank and adjusts the heat dissipation efficiency of the tank according to the real-time temperature and humidity data. The pressure balance adjustment module is used to automatically compensate for the air pressure inside the tank according to the water pressure difference at different depths on the seabed.

2. The structure of the seabed data intelligent computing center as described in claim 1, characterized in that, The tank is cylindrical, and the support base is a support saddle that is connected to the cylindrical tank.

3. The structure of the seabed data intelligent computing center as described in claim 1, characterized in that, The tank is an elliptical cylindrical tank or a polygonal prism tank.

4. The structure of the seabed data intelligent computing center as described in claim 1, characterized in that, The tank body is composed of multiple pipe sections connected by flanges, and the flange connections are sealed with sealing rings.

5. The structure of the seabed data intelligent computing center as described in claim 1, characterized in that, The top of the frame is fixed with multiple lifting lugs.

6. The structure of the seabed data intelligent computing center as described in claim 1, characterized in that, The column is a steel column, and the tubular structure includes diagonal bracing steel pipes and horizontal connecting steel pipes.

7. The structure of the seabed data intelligent computing center as described in claim 1, characterized in that, The columns and the tubular structure are made of corrosion-resistant alloy or composite material.

8. The structure of the seabed data intelligent computing center as described in claim 1, characterized in that, A skirt board is also fixedly connected to the bottom of the frame.

9. The structure of the seabed data intelligent computing center as described in claim 1, characterized in that, The outer surface of the tank is covered with an anti-corrosion coating, and a sacrificial anode is welded and fixed to the outer surface of the tank.

10. A working method for a submarine data intelligent computing center structure, characterized in that, Using the underwater data intelligent computing center structure described in any one of claims 1-9, Includes the following processes: The temperature and humidity inside the tank are acquired in real time, and the heat dissipation efficiency inside the tank is adjusted in conjunction with the seawater temperature based on the temperature and humidity. The pressure inside the tank is acquired in real time, and the air pressure inside the tank is automatically compensated based on the water pressure outside the tank.

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