Nuclear power data center

Abstract

The utility model provides a nuclear power data center. The nuclear power data center comprises a container; a data center device; the data center equipment and the environment monitoring system are both integrally installed in the container, and the environment monitoring system is in communication connection with the data center equipment so as to monitor the data center equipment and remotely transmit monitoring data of the data center equipment to a remote management end. According to the nuclear power data center provided by the utility model, the IT information cabinet, the air conditioner, the power distribution cabinet, the fire protection, the security and protection, the monitoring, the UPS and the like are integrated in one container, all functions required by the data center are realized in a small space, and the design complexity is high, so that data center equipment can meet the typhoon resistance level requirements; a data center device which is high in usability, multifunctional, rapid in deployment and movable can be constructed in the 14-level typhoon and seaside high-salt-spray corrosion environment.

Description

Technical Field

[0001] This utility model relates to the field of nuclear power engineering construction technology, and in particular to a nuclear power data center. Background Technology

[0002] A data center is a platform that hosts equipment for transmitting, accelerating, displaying, computing, and storing data over a network. Conventional data centers are built within concrete structures, requiring sequential steps such as civil engineering, interior decoration, power distribution, and equipment installation and commissioning. In the information and digital age, with the rapid development of new technologies such as big data and artificial intelligence, digital networks and mobile applications have become widespread across various industries, becoming essential for operations. Therefore, data centers are crucial for all aspects of work.

[0003] Nuclear power plant construction is a highly technological, large-scale, and safety- and quality-critical systematic project, making the application of information systems essential for its operation. Because nuclear power projects are typically located in sparsely populated areas, there are often no permanent buildings available for data center conversion at the initial site. Previously, constructing a new data center required at least one year, which constrained the construction of nuclear power projects. Traditional data centers suffer from the following problems:

[0004] 1. Long construction period: The construction and decoration period of traditional civil engineering data centers is more than 1 year;

[0005] 2. High cost: The construction cost of a traditional civil engineering data center is approximately 25,000 yuan per square meter;

[0006] 3. Difficulty in expansion: Due to the limited space of concrete buildings, data centers are basically unable to expand, and expansion requires building new facilities. Utility Model Content

[0007] In view of the shortcomings of the prior art described above, the purpose of this utility model is to provide a nuclear power data center to solve the problems of long construction cycle, high cost and difficulty in expansion of traditional data centers in the prior art.

[0008] To achieve the above and other related objectives, this utility model provides a nuclear power data center, comprising: a container; data center equipment; and an environmental monitoring system. The data center equipment and the environmental monitoring system are both integrated and installed inside the container. The environmental monitoring system is communicatively connected to the data center equipment to monitor the data center equipment and transmit the monitoring data of the data center equipment to a remote management terminal.

[0009] In one embodiment of the present invention, the container includes: a container body, the bottom of which is provided with a plurality of base blocks, each base block being fitted with a pre-embedded stud; and steel cables, one end of each of the steel cables being connected to the four corners of the top of the container body, and the other end of each steel cable being connected to a helical ground anchor.

[0010] In one embodiment of the present invention, each top corner of the box is connected to two steel cables, one steel cable is arranged along the width direction of the box, and the other steel cable is arranged along the length direction of the box.

[0011] In one embodiment of the present invention, the container further includes: an air conditioner outdoor unit and a bracket, the air conditioner outdoor unit and the bracket being installed on one side of the top of the container; a rain and snow cover is provided on the front top of the container, the plate of the container corresponding to the area where the data center equipment is located is a flame-retardant and heat-insulating material, and the outer surface of the container is coated with an asphalt paint layer.

[0012] In one embodiment of this utility model, the thickness of the asphalt paint layer on the side surface and top surface of the box is greater than or equal to 160μm, the thickness of the asphalt paint layer on the bottom surface of the box is greater than 210μm, and the material properties of the flame-retardant insulation material include: flame retardant rating greater than B1 in GB8624 (national standard issued in 2012), thermal conductivity less than 0.042W / , and thermal resistance greater than or equal to 1.2㎡·K / W.

[0013] In one embodiment of this utility model, the data center equipment includes: an air conditioning and refrigeration system installed inside the container, such that the static pressure difference between the inside and outside of the container is greater than or equal to 10 Pa; a power distribution system installed inside the container to electrically connect with each load device inside the container for power supply; a gas fire suppression system located in each protected area inside the container, wherein the gas fire suppression system uses clean gas with a fire extinguishing concentration greater than 8%, controls the fire extinguishing spray duration to be less than 10 seconds and the immersion time to be greater than 3 minutes, and controls the closure of the air valves inside the container and the cutoff of non-fire-fighting power; and several equipment cabinets, each with a support frame at its bottom, and the equipment cabinets are installed inside the container via the support frames, with the air conditioning and refrigeration system, power distribution system, and gas fire suppression system all located within their respective equipment cabinets.

[0014] In one embodiment of the present invention, the air conditioning refrigeration system includes: a plurality of inter-row air conditioners, wherein the air outlets of the plurality of inter-row air conditioners maintain an air outlet gap of at least 350 mm.

[0015] In one embodiment of the present invention, the power distribution system includes: a power distribution cabinet, a modular UPS (uninterruptible power supply) host, and a backup battery. The backup battery is electrically connected to the power distribution cabinet through the modular UPS host, so that the backup power provided by the mains power and the diesel generator can be switched and output to the backup battery through the control of the modular UPS host.

[0016] In one embodiment of this utility model, the gas fire suppression system includes: a gas fire suppression controller system, a fire alarm controller, a temperature sensor, a smoke sensor, a gas cylinder, nozzles installed in the hot and cold aisles, emergency lighting, and an emergency start / stop button. The emergency start / stop button is installed at a height of 1.5 to 1.8 meters above the container ground. The gas fire suppression controller system collects the sensing signals from the temperature sensor and the smoke sensor, controls the nozzles installed in the hot and cold aisles connected to the gas cylinder to perform fire suppression, and sends the sensing signals to the fire alarm controller for fire alarm activation.

[0017] In one embodiment of this utility model, the environmental monitoring system is communicatively connected to each data center device to monitor the data center devices and operating environment within the container.

[0018] The beneficial effects of this utility model are as follows: This utility model proposes a nuclear power data center that integrates IT information cabinets, air conditioning, power distribution cabinets, fire protection, security, monitoring, UPS, and other data center equipment into a single container, realizing all the necessary functions for establishing a data center in a small space, resulting in high design complexity. This enables the data center equipment to withstand typhoon-level requirements, allowing for the construction of a highly available, multi-functional, rapidly deployable, and mobile data center even in typhoon-level 14 conditions and high-salt-spray corrosive environments at sea. The power distribution system, consisting of power distribution cabinets, modular UPS mainframes, and backup batteries, can supply power to the container's internal cooling, lighting, and other equipment. Furthermore, it features an ATS (Automatic Transfer Switch, commonly known as dual power supply) external power automatic switching function, meaning it can quickly connect to external power through dual mains power and a backup diesel generator, equipped with quick-connect aviation plugs. Attached Figure Description

[0019] Figure 1 This is an architectural diagram of the nuclear power data center of this utility model.

[0020] Figure 2 This is a structural schematic diagram of the container of this utility model.

[0021] Figure 3 This is a schematic diagram of the bottom of the container of this utility model.

[0022] Figure 4 This is a front view of the box body and the spiral ground anchor of this utility model when they are connected.

[0023] Figure 5 This is a side view of the box body and the spiral ground anchor of this utility model when they are connected.

[0024] Figure 6 This is a schematic diagram of the structural arrangement inside the box of this utility model.

[0025] Figure 7 This is an architectural diagram of a nuclear power data center in a preferred embodiment of the present invention.

[0026] Component designation explanation

[0027] Container 1; Data center equipment 2; Environmental monitoring system 3; Container body 11; Steel cable 12; Spiral ground anchor 13; Foundation 111; Embedded studs 112; Air conditioner outdoor unit and bracket 14; Rain and snow cover 15; Equipment cabinet 21; Air conditioning refrigeration system 22; Power distribution system 23; Gas fire suppression system 24; In-row air conditioning 221; Power distribution cabinet 231; Modular UPS host 232; Backup battery 233; Gas fire suppression controller system 241; Fire alarm controller 242; Temperature sensor 243; Smoke sensor 244; Gas cylinder 245; Hot and cold aisle sprinkler heads 246; Emergency lighting 247; Emergency start / stop button 248. Detailed Implementation

[0028] The following specific examples illustrate the implementation of this utility model. Those skilled in the art can easily understand other advantages and effects of this utility model from the content disclosed in this specification. This utility model can also be implemented or applied through other different specific embodiments, and various details in this specification can also be modified or changed based on different viewpoints and applications without departing from the spirit of this utility model. It should be noted that, unless otherwise specified, the following embodiments and features described therein can be combined with each other.

[0029] It should be noted that the illustrations provided in the following embodiments are only schematic representations of the basic concept of the present invention. Therefore, the drawings only show the components related to the present invention and are not drawn according to the number, shape and size of the components in actual implementation. In actual implementation, the form, quantity and proportion of each component can be arbitrarily changed, and the layout of the components may also be more complex.

[0030] In the following description, numerous details are explored to provide a more thorough explanation of embodiments of the invention. However, it will be apparent to those skilled in the art that embodiments of the invention may be practiced without these specific details. In other embodiments, well-known structures and devices are shown in block diagram form rather than in detail to avoid obscuring embodiments of the invention.

[0031] Please see Figure 1 , Figure 2 and Figure 6This utility model provides a nuclear power data center, including: a container 1; a data center equipment 2; and an environmental monitoring system 3. The data center equipment 2 and the environmental monitoring system 3 are both integrated and installed in the container 1. The environmental monitoring system 3 is communicatively connected to the data center equipment 2 to monitor the data center equipment 2 and transmit the monitoring data of the data center equipment 2 to a remote management terminal.

[0032] As can be seen from the above, in the nuclear power data center of this utility model, by installing the data center equipment 2 inside the container 1, the data center equipment can meet the requirements for typhoon resistance, and can be used to construct a highly available, multi-functional, rapidly deployable, and mobile data center in environments with high salt spray corrosion, even under typhoon conditions up to level 14. Specifically, the data center equipment can be the infrastructure of a data center, such as integrating IT (Internet technology) information cabinets, air conditioning, power distribution cabinets, fire protection, security, monitoring, UPS (uninterruptible power supply), and other data center infrastructure.

[0033] like Figure 2-5 As shown, container 1 includes: a container body 11, with several base blocks 111 at the bottom of the container body 11, each base block 111 having a pre-embedded stud 112 inserted therein; and steel cables 12, one end of each steel cable 12 being connected to one of the four top corners of the container body 11, and the other end of each steel cable 12 being connected to a helical ground anchor 13. In this embodiment, the container body 11 can have an external dimension of 40 feet to accommodate data center equipment, thus meeting the requirements for both sea and land transportation. During installation, the container body 11 is pre-embedded by using the pre-embedded studs 112 on the base blocks 111 at the bottom of the container body 11, and then the steel cables 12 connected to the four top corners of the container body 11 are used, with the other end of each steel cable 12 connected to the ground via the pre-embedded helical ground anchor 13. Alternatively, the other end of the steel cable 12 can be directly connected to the transport equipment to effectively cope with typhoon effects.

[0034] like Figure 4 and 5 As shown, each top corner of the enclosure 11 is connected to two steel cables 12, one steel cable 12 is arranged along the width direction of the enclosure 11, and the other steel cable 12 is arranged along the length direction of the enclosure 11. In this embodiment, natural disaster protection measures are fully considered, and the typhoon resistance level is required to be above level 14. Therefore, by using the steel cables 12 arranged in each direction at each top corner of the enclosure 11, the enclosure 11 can be pulled in each direction, so that the enclosure 11 is in a relatively stable state to cope with the effects of higher-level typhoons. For example, in order to ensure that the typhoon resistance level is above level 14, steel cables 12 can be set along both the width direction and the length direction of the enclosure 11, which can effectively improve the stability of the enclosure 11 after installation.

[0035] Furthermore, container 1 also includes: an air conditioner outdoor unit and bracket 14, which is installed on the top side of container 11; a rain and snow cover 15 is provided on the front top of container 11, and the plate material of container 11 corresponding to the area where data center equipment 2 is located is made of flame-retardant and heat-insulating material, and the outer surface of container 11 is coated with asphalt paint. In this embodiment, a rain and snow cover 15 can be installed above the entrance and exit of container 11 for rain and snow protection. The area of ​​container 11 corresponding to data center equipment 2, especially the area corresponding to IT equipment, needs to be insulated. The material of container 11 is heat-insulating material, and the flame-retardant rating of the heat-insulating material needs to meet specific requirements.

[0036] Preferably, the thickness of the asphalt paint layer on the side and top surfaces of the enclosure 11 is greater than or equal to 160 μm, and the thickness of the asphalt paint layer on the bottom surface of the enclosure 11 is greater than 210 μm. The material properties of the flame-retardant insulation material include: a flame retardant rating greater than B1 in GB8624 (the national standard published in 2012), a thermal conductivity less than 0.042 W / m·K, and a thermal resistance greater than or equal to 1.2 m²·K / W. The surface of the enclosure 11 needs to fully consider the high salt spray environment of the seaside. The thickness of the asphalt paint layer on the side and top surfaces of the enclosure 11 is greater than or equal to 160 μm, and the thickness of the asphalt paint layer on the bottom surface of the enclosure 11 is greater than 210 μm. The flame retardant rating of the insulation material of the enclosure 11 is greater than B1 in GB8624, the comprehensive thermal conductivity of the insulation material is not greater than 0.042 W / (m·K), and the thermal resistance is not less than 1.2 m²·K / W.

[0037] In one embodiment of the present invention, the container body 11 is assembled by welding, with uniform weld bevel dimensions and no welding defects such as incomplete welds or bubbles. After welding, stress relief treatment is performed, equipotential bonding is implemented, and grounding is achieved through the main grounding busbar inside the container 1. Antistatic flooring, slabs, or grounding are installed inside the container body 11, and thermal insulation and moisture-proof measures are taken. The first-layer ground bedding should preferably be reinforced, and the enclosure structure should preferably have anti-condensation measures.

[0038] The enclosure 11 can also accommodate human-machine safety and evacuation design for maintenance personnel. The ceiling, wall panels, and partitions of enclosure 11 corresponding to the computer room are made of non-combustible materials, while the floor and other finishes use B1-grade materials. In case of fire or other emergencies, an access control system can be designed, which automatically opens the access control system on the evacuation routes upon receiving a linkage control signal from a relevant system.

[0039] like Figure 7As shown, the data center equipment 2 includes: an air conditioning and cooling system 22, which is installed inside the container 1 to ensure that the static pressure difference between the inside and outside of the container 1 is greater than or equal to 10 Pa; a power distribution system 23, which is installed inside the container 1 and electrically connected to each load device inside the container 1 for power supply; a gas fire suppression system 24, which is located in each protected area inside the container 1. The gas fire suppression system 24 uses clean gas with a fire extinguishing concentration greater than 8%, controls the fire extinguishing spray duration to be less than 10 seconds and the immersion time to be greater than 3 minutes, and controls the closure of the air valves inside the container 1 and the cut-off of non-fire-fighting power; and several equipment cabinets 21, each with a support frame at its bottom. The equipment cabinets 21 are installed inside the container 1 via the support frame, and the air conditioning and cooling system 22, the power distribution system 23, and the gas fire suppression system 24 are all located in their respective equipment cabinets 21.

[0040] In one embodiment of the present invention, the equipment cabinet 21 is designed according to GB / T1539 requirements, with dimensions of 600mm×1100mm×2000mm, using a 42U cabinet (a standard cabinet, 42U being the height unit). It features an enclosed aisle and is constructed from cold-rolled steel plate. This design ensures that the main load-bearing components of the equipment cabinet 21 are thicker than 2mm, and the non-load-bearing components are thicker than 1.5mm. The bottom of the equipment cabinet 21 is mounted on a support structure, such as a load-bearing frame or a stress-relief frame, and the load-bearing frame or stress-relief frame is securely fixed to the cabinet 11. Vibration damping measures are implemented on the bottom and sides of the equipment cabinet 21. The data center requires hot and cold aisle isolation measures, i.e., the air conditioning system 22 maintains positive pressure inside the cabinet 11, with a static pressure difference of not less than 10Pa between the inside and outside of the cabinet 11. The cooling capacity of the air conditioning system 22 must also meet the operational requirements of the electronic information system and have redundancy, and include a humidification function. Power supply to the internal cooling, lighting, and other equipment of the container 1 is achieved through the power distribution system 23. The gas fire suppression system 24 employs a clean gas extinguishing system with an extinguishing concentration of 8%. The spraying time of the extinguishing system in each protected area is less than 10 seconds, and the immersion time is greater than 3 minutes. Before the gas fire suppression system 24 is activated, it can be linked to close the air valves inside container 1 and cut off non-fire-fighting power supplies.

[0041] Specifically, container 1 includes data center equipment 2 and environmental monitoring system 3 (also known as power and environmental monitoring system). Data center equipment 2 includes air conditioning and cooling system 22, power distribution system 23, and gas fire suppression system 24. In addition, it also includes wiring system, anti-static floor, steps, lighting system, waterproof vents, container base and other components.

[0042] Furthermore, the air conditioning refrigeration system 22 includes: a plurality of inter-row air conditioners 221, with an air outlet gap of at least 350mm in front of the air outlets of the plurality of inter-row air conditioners 221. In this embodiment, the inter-row air conditioners 221 are spaced apart between the various devices. During use, it is necessary to ensure that there are no obstructions within 350mm of the air inlet and outlet of the inter-row air conditioner 221. The outdoor unit of the inter-row air conditioner 221 is located above the housing 11, as described above with the air conditioner outdoor unit and bracket 14. The condensate drain pipe of the inter-row air conditioner 221 maintains an inclination of more than 1% towards the drain direction, and the refrigerant pipes, supply and return water pipes, and condensate drain pipes in the air conditioning refrigeration system 22 also require insulation treatment. The water supply and drainage pipes and their insulation materials inside the housing 11 are all made of B1 grade materials. All cold surfaces also require air-proofing and insulation treatment.

[0043] Furthermore, the power distribution system 23 includes: a power distribution cabinet 231, a modular UPS host 232, and a backup battery 233. The backup battery 233 is electrically connected to the power distribution cabinet 231 through the modular UPS host 232, so that the backup power provided by the mains power and the diesel generator can be switched and output to the backup battery 233 under the control of the modular UPS host 232.

[0044] In this embodiment, the power distribution system 23 adopts a power distribution cabinet 231 + modular UPS host 232 and its matching backup battery 233 scheme. The backup battery 233 can be a storage battery. A 120KVA rack-mounted modular UPS host 232 is used, configured with multiple 60KVA hot-swappable power modules, providing sufficient redundancy. The uninterruptible power supply equipment supports power supply to the container's internal refrigeration, lighting, and other equipment. The storage battery can provide at least 30 minutes of full-load power supply capability. The power distribution cabinet 231 has cabinet dimensions of 600mm*1100mm*2000mm and uses molded case circuit breakers, miniature circuit breakers, and includes main and branch circuit monitoring. It has an ATS (Automatic Transfer Switch, commonly known as dual power supply) external power automatic transfer function, that is, it is powered by dual mains power plus a backup diesel generator. It is equipped with quick-connect aviation plugs, enabling rapid external power access. Specifically, both the dual-circuit mains power and the diesel generator are connected to the backup power supply 233 via the modular UPS host 232.

[0045] Specifically, the gas extinguishing system 24 includes: a gas extinguishing controller system 241, a fire alarm controller 242, a temperature sensor 243, a smoke sensor 244, a gas cylinder 245, hot and cold aisle sprinklers 246, emergency lighting 247, and an emergency start / stop button 248. The emergency start / stop button 248 is installed at a height of 1.5 to 1.8 meters above the ground of container 1. The gas extinguishing controller system 241 collects the sensing signals from the temperature sensor 243 and the smoke sensor 244, controls the hot and cold aisle sprinklers 246 connected to the gas cylinder 245 to extinguish the fire, and sends the sensing signals to the fire alarm controller 242 to trigger a fire alarm.

[0046] In one embodiment of the present invention, the gas fire suppression system 24 includes a gas fire suppression controller system 241, a fire alarm controller 242, a temperature sensor 243, a smoke sensor 244, a gas cylinder 245, sprinkler heads in hot and cold aisles 246, emergency lighting 247, and an emergency start / stop button 248. The fire alarm controller 242 and the emergency start / stop button 248 are installed at a height of 1.5m to 1.8m above the ground for easy operation. Two different types of fire detectors, namely a combination of the temperature sensor 243 and the smoke sensor 244, are also provided. These detectors are linked through the gas fire suppression controller system 241 and the fire alarm controller 242 to establish interlocks with other systems within the container 11, such as the power supply system, access control system, air conditioning, and ventilation system. Before the gas fire suppression controller system 241 activates the gas fire suppression system 24, it also closes the air valves inside the container 1 and cuts off non-fire-fighting power supplies. An audible and visual alarm and a gas release indicator light are installed directly above the outside of the container 1 door. An emergency start / stop button is provided with protective devices to prevent accidental operation and to prevent water damage.

[0047] like Figure 1 As shown, the environmental monitoring system 3 is communicatively connected to each data center device 2 to monitor the data center devices 2 and their operating environment within container 1. In this embodiment, it can be seen that the environmental monitoring system 3 can adopt a distributed or centralized network structure, possessing display, recording, control, alarm, analysis, and prompting functions, as well as remote management capabilities. The environmental monitoring system 3 monitors all power equipment and its environmental conditions within container 1. Monitored objects include: power system, air conditioning system, fire protection system, security system, access control system, computer room temperature and humidity, and computer room water leakage alarm. It provides alarm output via voice, SMS, etc., and the report system can automatically compile and export reports. It has video surveillance capabilities, covering key areas (e.g., around container 11), main passageways, etc., and the monitoring data retention time can be set to more than one month.

[0048] In summary, this utility model integrates data center equipment such as IT information cabinets, air conditioners, power distribution cabinets, fire protection, security, monitoring, and UPS into a single container 1, achieving all the necessary functions for establishing a data center within a small space, resulting in a highly complex design. This enables the data center equipment 2 to withstand typhoon-level requirements, allowing for the construction of a highly available, multi-functional, rapidly deployable, and mobile data center even in environments with high salt spray corrosion, such as those experiencing Category 1 typhoons. The power distribution system, consisting of a power distribution cabinet 231, a modular UPS host 232, and backup batteries 233, provides power to the cooling, lighting, and other equipment inside container 1. Furthermore, it features an ATS (Automatic Transfer Switch) function for external power, utilizing dual-path AC mains power plus a backup diesel generator, equipped with quick-connect aviation plugs, enabling rapid external power access. Therefore, this utility model effectively overcomes the various shortcomings of existing technologies and possesses high industrial applicability.

[0049] The above embodiments are merely illustrative of the principles and effects of this utility model and are not intended to limit the scope of this utility model. Any person skilled in the art can modify or alter the above embodiments without departing from the spirit and scope of this utility model. Therefore, all equivalent modifications or alterations made by those skilled in the art without departing from the spirit and technical concept disclosed in this utility model should still be covered by the claims of this utility model.

Claims

1. A nuclear data center, characterized by, include: Container (1); Data center equipment (2); and environmental monitoring system (3), wherein the data center equipment (2) and the environmental monitoring system (3) are both integrated and installed in the container (1), and the environmental monitoring system (3) is communicatively connected to the data center equipment (2) to monitor the data center equipment (2) and transmit the monitoring data of the data center equipment (2) to a remote management terminal; The data center equipment (2) includes An air conditioning refrigeration system (22) is installed inside the container (1) to make the static pressure difference between the inside and outside of the container (1) greater than or equal to 10 Pa; A power distribution system (23) is installed inside the container (1) to be electrically connected to each load device inside the container (1) for power supply; A gaseous fire suppression system (24) is installed in each protected area within the container (1). The gaseous fire suppression system (24) uses clean gas with a fire extinguishing concentration greater than 8%, controls the fire extinguishing spray duration to be less than 10 seconds and the immersion time to be greater than 3 minutes, and controls the closure of air valves and the disconnection of non-fire-fighting power supplies within the container (1). Several equipment cabinets (21) are provided with support frames at the bottom of the equipment cabinets (21). The equipment cabinets (21) are installed in the container (1) through the support frames. The air conditioning refrigeration system (22), the power distribution system (23) and the gas fire protection system (24) are all located in their respective equipment cabinets (21).

2. The nuclear data center of claim 1, wherein: The container (1) includes: The box body (11) has several base piers (111) at its bottom, and each base pier (111) is fitted with a pre-embedded stud (112); and A steel cable (12), one end of several steel cables (12) are respectively connected to the top four corners of the box (11), and the other end of the steel cable (12) is connected to a spiral ground anchor (13).

3. The nuclear data center of claim 2, wherein: Each top corner of the box (11) is connected to two steel cables (12), one of which is arranged along the width of the box (11) and the other is arranged along the length of the box (11).

4. The nuclear data center of claim 2, wherein: The container (1) also includes: An air conditioner outdoor unit and bracket (14) are installed on the top side of the housing (11); The front end of the enclosure (11) is provided with a rain and snow cover (15). The plate of the enclosure (11) corresponding to the area where the data center equipment (2) is located is a flame-retardant and heat-insulating material. The outer surface of the enclosure (11) is coated with an asphalt paint layer.

5. The nuclear power data center according to claim 4, characterized in that: The thickness of the asphalt paint layer on the side and top surfaces of the box (11) is greater than or equal to 160 μm, and the thickness of the asphalt paint layer on the bottom surface of the box (11) is greater than 210 μm. The material properties of the flame-retardant insulation material include: flame retardant rating greater than B1 in GB8624, thermal conductivity less than 0.042 W / (m·K), and thermal resistance greater than or equal to 1.2 m²·K / W.

6. The nuclear data center of claim 1, wherein: The air conditioning refrigeration system (22) includes: A plurality of inter-row air conditioners (221) are provided, wherein the air outlets of the plurality of inter-row air conditioners (221) are provided with an air outlet gap of at least 350 mm.

7. The nuclear data center of claim 1, wherein: The power distribution system (23) includes: The power distribution cabinet (231), the modular UPS host (232), and the backup battery (233) are electrically connected to the power distribution cabinet (231) through the modular UPS host (232) so that the backup power provided by the mains power and the diesel generator can be switched and output to the backup battery (233) under the control of the modular UPS host (232).

8. The nuclear data center of claim 1, wherein: The gas fire suppression system (24) includes: The gas extinguishing controller system (241), fire alarm controller (242), temperature sensor (243), smoke sensor (244), gas cylinder (245), hot and cold aisle nozzles (246), emergency lighting (247) and emergency start / stop button (248) are provided, wherein the installation height of the emergency start / stop button (248) is 1.5~1.8m above the ground of the container (1); The gas extinguishing controller system (241) collects the sensing signals from the temperature sensor (243) and the smoke sensor (244), controls the nozzle (246) connected to the hot and cold channel of the gas cylinder (245) to perform fire extinguishing, and sends the sensing signals to the fire alarm controller (242) to trigger a fire alarm.

9. The nuclear data center of claim 1, wherein: The environmental monitoring system (3) is connected to each of the data center devices (2) to monitor the data center devices (2) and the operating environment within the container (1).

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