A data center based on bridge arrangement and a method for operating the same

Abstract

This invention discloses a data center based on a bridge layout and its operation method, belonging to the field of underwater data center technology. The data center includes bridge piers, with two data center modules symmetrically arranged on each pier, and the pier located between the two data center modules. Each data center module includes a remote-controlled lifting mechanism, a lifting chamber, and two sliding frames. The two sliding frames are arranged side-by-side on the pier, along the height of the pier. The remote-controlled lifting mechanism is connected to the upper ends of the two sliding frames. The lifting chamber is slidably connected to the two sliding frames and connected to the remote-controlled lifting mechanism. The lifting chamber has multiple water passages and contains a sealed data compartment. The lifting chamber is lifted out of the water by the remote-controlled lifting mechanism to facilitate routine maintenance or repair of the sealed data compartment. This method has advantages such as simple salvage operations, low cost, and expands the development path of underwater data centers.

Description

Technical Field

[0001] This invention relates to a data center based on a bridge layout and its operation method, belonging to the field of underwater data center technology. Background Technology

[0002] To reduce the energy consumption of data centers, new types of data centers, such as cavernous data centers and underwater data centers, are emerging. Among them, underwater data centers, due to their complete immersion underwater, have high heat exchange efficiency and relatively outstanding energy reduction performance, making them a new trend in data center development. However, most existing underwater data centers are sealed tanks stored underwater. During routine maintenance or repair, they need to be lifted out of the water using barges or other equipment. The underwater salvage operation of sealed tanks is difficult and costly, severely limiting the development of underwater data centers. Summary of the Invention

[0003] To address the aforementioned technical problems, this invention provides a data center based on bridge layout and its operation method.

[0004] This invention is achieved through the following technical solution: A data center based on a bridge layout includes bridge piers. Two data center modules are symmetrically arranged on each bridge pier, with the bridge pier located between the two data center modules. Each data center module includes a remote-controlled lifting mechanism, a lifting chamber, and two carriages. The two carriages are arranged side by side on the bridge pier, with the carriages arranged along the height direction of the bridge pier. The remote-controlled lifting mechanism is connected to the upper end of the two carriages. The lifting chamber is slidably connected to the two carriages and connected to the remote-controlled lifting mechanism. The lifting chamber has multiple water inlets and a sealed data compartment inside.

[0005] The two carriages located on both sides of the bridge pier and arranged symmetrically are connected by multiple tie rod anchoring components installed inside the bridge pier; each tie rod anchoring component includes two anchoring bases, which are connected by anchor bars, and the carriages are connected to the anchoring bases by anchor bolts.

[0006] The carriage includes anchor rods, carriage mounting rods, and convex carriages. The anchor rods are connected to multiple tie anchor components in the pier by anchor bolts. The carriage mounting rods are arranged side by side with the anchor rods and are connected to the anchor rods by multiple connecting rods. The convex carriages are located on the carriage mounting rods on one side near another carriage in the same data center module.

[0007] The remote control lifting mechanism includes a traction machine, a controller, and a wireless transmission module. The traction machine is connected to the lifting hopper via steel strands, the controller is electrically connected to the traction machine, and the wireless transmission module is electrically connected to the controller.

[0008] The lifting chamber includes a cuboid box and a suspension beam slide. Multiple water passages are arranged side by side on the four sides of the cuboid box. The cuboid box has an opening on the side away from the bridge pier, and two double doors are hinged to the opening side of the cuboid box. The suspension beam slide is located on the top of the cuboid box, and the two ends of the suspension beam slide have grooves that are adapted to the convex slide at positions corresponding to the convex slide.

[0009] The outer wall of the rectangular box is equipped with a protective cover at each water inlet, the protective cover covering the water inlet, and the lower side of the protective cover is open.

[0010] The lower ends of the two carriages of the data center module are connected by an inward-tilting platform base, and the end of the inward-tilting platform base near the pier is inclined downward relative to the other end; the bottom of the cuboid box is provided with a right-angled triangular prism box, the bottom surface of the right-angled triangular prism box is inclined, and the inclination direction and inclination angle of the bottom surface of the right-angled triangular prism box are consistent with the inclination direction and inclination angle of the inward-tilting platform base; both ends of the right-angled triangular prism box are provided with sliders at positions corresponding to the convex slide rails.

[0011] The inclination angle of the inward-tilting platform base is 20 degrees to 40 degrees; multiple grooves A are arranged side by side on the top of the inward-tilting platform base, and the arrangement direction of the grooves A is consistent with the inclination direction of the inward-tilting platform base; multiple grooves B are arranged side by side on the bottom of the right-angled triangular prism box, and the grooves B are arranged perpendicular to the grooves A.

[0012] Several nozzles are embedded at the bottom of the right-angled triangular prism-shaped box where it contacts the inward-tilting platform base; The right-angled triangular prism-shaped box is equipped with an active adsorption pump. The inlet of the active adsorption pump is connected to the end of the right-angled triangular prism-shaped box through an inlet pipe and is connected to the outside. The outlet of the active adsorption pump is connected to all the nozzles at the bottom of the right-angled triangular prism-shaped box through an outlet pipe.

[0013] The bottom of the sealed data compartment has two parallel grooves C. The power supply cable of the sealed data compartment is laid along the edge of the bridge deck on the upper side of the pier. One end of the power supply cable extends into the lifting compartment and is electrically connected to the sealed data compartment through a waterproof electrical connector.

[0014] A method for operating a data center based on a bridge layout includes the following steps: Step 1: When routine maintenance or repair work is required on the sealed data container, approach the bridge pier by boat and raise the lifting container to the height corresponding to the boat through the remote control lifting mechanism. Then, perform on-site maintenance on the sealed data container inside the lifting container, or remove the sealed data container from the lifting container and transport it to a professional site for repair. Step 2: After completing the routine maintenance or repair of the sealed data chamber, ensure that the sealed data chamber is properly connected to the power supply, and then use the remote control lifting mechanism to lower the lifting chamber into position for underwater operations.

[0015] The beneficial effects of this invention are as follows: 1. When routine maintenance or repairs of the sealed data warehouse are required, the lifting mechanism can be remotely controlled to raise the elevator platform above the water surface, facilitating routine maintenance or repairs of the sealed data warehouse inside. Compared with existing technologies that use barges or other equipment to raise underwater data centers to the surface, this method has advantages such as simpler salvage operations and lower costs, and expands the development path of underwater data centers.

[0016] 2. This invention symmetrically arranges two data center modules on the bridge pier, with the pier positioned between the two modules, allowing them to balance the lateral loads applied to the pier. The lifting platform is slidably connected to two carriages, ensuring the stability of the lifting platform during lifting and hovering, and consequently ensuring the stability of the sealed data compartment inside the lifting platform during lifting and hovering.

[0017] 3. This invention integrates the design of a data center with a bridge, and uses the bridge pier as an installation platform for the data center. This can ensure the long-term and stable operation of the sealed data warehouse underwater, and can significantly reduce the construction cost of the data center.

[0018] 4. To reduce the hydrostatic pressure difference when the lifting chamber detaches from the inward-tilting platform base, multiple drainage channels are installed at the contact surface between the right-angled triangular prism-shaped box and the inward-tilting platform base, allowing water flow to enter these channels. These channels include grooves A and B. To further reduce the static pressure between the lifting chamber and the inward-tilting platform base, a suction-force active breaking pump, in conjunction with a nozzle, sprays high-pressure water into the contact gap between them. This completely breaks the suction force between the lifting chamber and the inward-tilting platform base, ensuring that the initial lifting force on the lifting chamber is not excessive.

[0019] 5. The power supply cable for the sealed data warehouse is laid along the edge of the bridge deck. Compared with the conventional underwater data center which requires the laying of underwater power supply cables, the power supply cable laying is less difficult and convenient for daily maintenance, which can further reduce the construction cost of the data center. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the structure of the present invention; Figure 2 This is a schematic diagram of the assembly structure of the bridge pier, the sliding frames on both sides of the bridge pier, the tie anchor assembly and the anchor bolts of the present invention; Figure 3This is a schematic diagram of the assembly structure of the bridge pier, two carriages and the inwardly inclined platform base of the present invention; Figure 4 This is a schematic diagram of the assembly structure of the lifting hopper, traction machine, and power supply cable of the present invention; Figure 5 This is a schematic diagram of the assembly structure of the lifting chamber and the active adsorption force breaking pump of the present invention; Figure 6 This is a schematic diagram of the tilting platform base of the present invention; Figure 7 This is a schematic diagram of the sealed data compartment of the present invention.

[0021] In the diagram: 1-Pier, 2-Bridge deck, 3-Slide frame, 31-Anchor rod, 32-Slide rail mounting rod, 33-Connecting rod, 34-Convex slide rail, 4-Inward tilting platform base, 41-Groove A, 5-Remote control lifting mechanism, 6-Lifting chamber, 61-Cuboid box, 62-Right-angled triangular prism box, 621-Groove B, 63-Suspension beam slide rod, 631-Slide groove, 64-Slider, 65-Door-opening, 66-Protective cover, 7-Sealed data chamber, 71-Groove C, 8-Active adsorption pump, 9-Tie anchoring assembly, 91-Anchoring base, 92-Anchor tie bar, 10-Anchor bolt, 11-Power supply cable. Detailed Implementation

[0022] The technical solution of the present invention is further described below, but the scope of protection is not limited to what is described.

[0023] like Figures 1 to 7 As shown, the present invention discloses a data center based on a bridge layout, comprising a bridge pier 1, on which two data center modules are symmetrically arranged, with the bridge pier 1 located between the two data center modules. Each data center module includes a remote control lifting mechanism 5, a lifting chamber 6, and two carriages 3. The two carriages 3 are arranged side by side on the bridge pier 1, and the carriages 3 are arranged along the height direction of the bridge pier 1. The remote control lifting mechanism 5 is connected to the upper end of the two carriages 3. The lifting chamber 6 is slidably connected to the two carriages 3 and connected to the remote control lifting mechanism 5. The lifting chamber 6 has multiple water inlets, and a sealed data chamber 7 is provided inside the lifting chamber 6.

[0024] Specifically, when routine maintenance or repairs are required on the sealed data container 7, the lifting mechanism 5 is remotely controlled to raise the elevator 6 out of the water, facilitating routine maintenance or repairs on the sealed data container 7 inside the elevator 6. Compared with existing technologies that use barges or other equipment to raise underwater data centers to the surface, this method has advantages such as simpler salvage operations and lower costs, and it also expands the development path of underwater data centers.

[0025] When the lifting chamber 6 is submerged in water, water enters the lifting chamber 6 through multiple water inlets to cool the sealed data chamber 7.

[0026] This invention symmetrically arranges two data center modules on the pier 1, with the pier 1 located between the two data center modules, enabling the two data center modules to balance the lateral loads they apply to the pier 1. The lifting platform 6 is slidably connected to the two carriages 3, ensuring the stability of the lifting platform 6 during lifting and hovering, and thus ensuring the stability of the sealed data compartment 7 inside the lifting platform 6 during lifting and hovering.

[0027] This invention integrates the design of a data center with a bridge, and uses the bridge pier 1 as the installation platform for the data center. This provides a guarantee for the long-term and stable operation of the sealed data warehouse 7 underwater, and can significantly reduce the construction cost of the data center.

[0028] The two carriages 3 located on both sides of the bridge pier 1 and arranged symmetrically are connected by a plurality of tie rod anchoring components 9 installed in the bridge pier 1; the tie rod anchoring component 9 includes two anchoring bases 91, the two anchoring bases 91 are connected by anchoring bars 92, and the carriages 3 are connected to the anchoring bases 91 by anchoring bolts 10.

[0029] Specifically, the two symmetrically arranged carriages 3 located on both sides of the pier 1 are connected as a whole by multiple tie anchor components 9 and anchor bolts 10 to bear the load, which has the following technical effects: First, the tie anchor components 9 balance the anchoring force of the carriages 3 on both sides of the pier 1 on the pier 1. Compared with the fixing method of directly connecting the anchor bolts 10 to the pre-embedded parts on the pier 1, it can prevent the pier 1 from being damaged under the action of anchoring force. Second, it improves the connection strength and reliability between the carriages 3 and the pier 1. Third, it ensures that the two data center modules on both sides of the pier 1 can balance the lateral load they apply to the pier 1.

[0030] The slide 3 includes an anchor rod 31, a slide rail mounting rod 32, and a convex slide rail 34. The anchor rod 31 is connected to multiple tie anchor components 9 in the pier 1 by anchor bolts 10. The slide rail mounting rod 32 is arranged side by side with the anchor rod 31 and is connected to the anchor rod 31 by multiple connecting rods 33. The convex slide rail 34 is located on the slide rail mounting rod 32 on one side near another slide 3 in the same data center module.

[0031] Specifically, the anchor rod 31 is arranged between the pier 1 and the slide rail mounting rod 32. The convex slide rail 34 is slidably connected to the slide groove 631 at the end of the suspension beam slide rod 63 and the slider 64 at the end of the right-angled triangular prism box 62.

[0032] The remote control lifting mechanism 5 includes a traction machine, a controller, and a wireless transmission module. The traction machine is connected to the lifting chamber 6 via steel strands, the controller is electrically connected to the traction machine, and the wireless transmission module is electrically connected to the controller.

[0033] Specifically, the controller is also electrically connected to the adsorption force active breaking pump 8. Based on the controller and the wireless transmission module, the traction machine and the adsorption force active breaking pump 8 can be remotely controlled.

[0034] The lifting chamber 6 includes a cuboid box 61 and a suspension beam slide rod 63. Multiple water passages are arranged side by side on the four sides of the cuboid box 61. The cuboid box 61 has an opening on the side away from the pier 1, and two double doors 65 are hinged to the opening side of the cuboid box 61. The suspension beam slide rod 63 is located on the top of the cuboid box 61. At both ends of the suspension beam slide rod 63, there are grooves 631 that are adapted to the convex slide rail 34 at positions corresponding to the convex slide rail 34.

[0035] Specifically, the opening side of the rectangular box 61 is opened or closed by two double doors 65 to provide a passage for the sealed data compartment 7 to enter and exit the lifting compartment 6.

[0036] The outer wall of the rectangular box 61 is equipped with a protective cover 66 at each water inlet. The protective cover 66 covers the water inlet and has an opening on the lower side. The purpose of the protective cover 66 is to reduce the entry of mud and sand into the lifting chamber 6, thereby avoiding the impact of a large amount of mud and sand entering the lifting chamber 6 on the cooling effect of water on the sealed data chamber 7.

[0037] The lower ends of the two carriages 3 of the data center module are connected by an inward-tilting platform base 4, and the end of the inward-tilting platform base 4 near the pier 1 is inclined downward relative to the other end; the bottom of the cuboid box 61 is provided with a right-angled triangular prism box 62, the bottom surface of the right-angled triangular prism box 62 is an inclined surface, and the inclination direction and inclination angle of the bottom surface of the right-angled triangular prism box 62 are consistent with the inclination direction and inclination angle of the inward-tilting platform base 4. Both ends of the right-angled triangular prism box 62 are provided with sliders 64 at positions corresponding to the convex slide rail 34.

[0038] Specifically, an inward-tilting platform base 4 is installed at the lower end of the two slides 3 of the data center module, and the tilt direction and tilt angle of the bottom surface of the right-angled triangular prism box 62 are set to be consistent with the tilt direction and tilt angle of the inward-tilting platform base 4. When the lifting tank 6 is placed on the inward-tilting platform base 4, the buoyancy of the lifting tank 6 can be significantly reduced by the inward-tilting platform base 4, ensuring that the lifting tank 6 can be placed stably on the inward-tilting platform base 4, which is conducive to the long-term and stable operation of the sealed data tank 7 underwater.

[0039] The inclination angle of the inward-tilting platform base 4 is 20 degrees to 40 degrees; multiple grooves A41 are arranged side by side on the top of the inward-tilting platform base 4, and the arrangement direction of the grooves A41 is consistent with the inclination direction of the inward-tilting platform base 4; multiple grooves B621 are arranged side by side on the bottom of the right-angled triangular prism box 62, and the grooves B621 are arranged perpendicular to the grooves A41.

[0040] Specifically, in order to reduce the hydrostatic pressure difference when the lifting chamber 6 detaches from the inward-tilting platform base 4, multiple drainage channels are provided at the contact surface between the right-angled triangular prism box 62 and the inward-tilting platform base 4, so that water can enter the drainage channels. The drainage channels include groove A41 and groove B621.

[0041] Several nozzles are embedded at the bottom of the right-angled triangular prism-shaped box 62 where it contacts the inward-tilting platform base 4; an active adsorption pump 8 is installed inside the right-angled triangular prism-shaped box 62, the inlet of the active adsorption pump 8 is connected to the end of the right-angled triangular prism-shaped box 62 through an inlet pipe and communicates with the outside, and the outlet of the active adsorption pump 8 is connected to all the nozzles at the bottom of the right-angled triangular prism-shaped box 62 through an outlet pipe.

[0042] Specifically, when it is necessary to lift the lifting chamber 6 upwards and detach it from the inward-tilting platform base 4, the suction force actively breaking pump 8 is activated and sprays high-pressure water through the nozzle into the contact gap between the lifting chamber 6 and the inward-tilting platform base 4, thereby completely breaking the suction force between the lifting chamber 6 and the inward-tilting platform base 4, ensuring that the initial lifting force on the lifting chamber 6 is not too large.

[0043] The adsorption force active breaking pump 8 and the traction machine can be controlled via a remote control switch.

[0044] The bottom of the sealed data compartment 7 has two grooves C71 arranged side by side. The power supply cable 11 of the sealed data compartment 7 is laid along the edge of the bridge deck 2 on the upper side of the pier 1. One end of the power supply cable 11 extends into the lifting compartment 6 and is electrically connected to the sealed data compartment 7 through a waterproof electrical connector.

[0045] Specifically, two grooves C71 are arranged side by side at the bottom of the sealed data compartment 7 to facilitate the movement of the sealed data compartment 7 into the lifting compartment 6 using a forklift, or to remove the sealed data compartment 7 from the lifting compartment 6. The bridge deck 2 is supported on the pier 1, and the power supply cable 11 of the sealed data compartment 7 is laid along the edge of the bridge deck 2. Compared with conventional underwater data centers that require the laying of underwater power supply cables 11, the laying of the power supply cable 11 is less difficult and convenient for daily maintenance, which can further reduce the construction cost of the data center.

[0046] A method for operating a data center based on a bridge layout includes the following steps: Step 1: When routine maintenance or repair work is required on the sealed data compartment 7, approach the bridge pier 1 by boat and raise the lifting compartment 6 to the height corresponding to the boat through the remote control lifting mechanism 5. Then, perform on-site maintenance on the sealed data compartment 7 inside the lifting compartment 6, or remove the sealed data compartment 7 from the lifting compartment 6 and transport it to a professional site for repair.

[0047] Specifically, the suction force actively breaking pump 8 is first activated by remote control switch to spray high-pressure water into the contact gap between the lifting chamber 6 and the inward tilting platform base 4 through the nozzle, thereby completely breaking the suction force between the lifting chamber 6 and the inward tilting platform base 4. Then, the traction machine is started to lift the lifting chamber 6 to the height corresponding to the ship.

[0048] The bridge-based data center provided by this invention maintains the required tensile stability as much as possible during the process of lifting the elevator 6 from the inward-tilting platform base 4 to above the water surface. The specific process is as follows: Phase 1, the process of lifting chamber 6 detaching from inward tilting platform base 4: This phase requires overcoming the suction force between lifting chamber 6 and inward tilting platform base 4. Therefore, multiple grooves B621 are set on the bottom surface of lifting chamber 6 and multiple grooves A41 are set on the top surface of inward tilting platform base 4. At the same time, the suction force is actively broken by the pump 8 and the nozzle working together to spray high-pressure water jets into the contact gap between lifting chamber 6 and inward tilting platform base 4 to reduce the suction force. At this time, the pulling force F1 required to lift lifting chamber 6 = weight of lifting chamber 6 + weight of sealed data chamber 7 - total buoyancy of sealed data chamber 7 + reduced suction force. Phase Two: The lifting process in which the lifting chamber 6 has detached from the inward-tilting platform base 4 and is completely submerged in water. At this time, because the lifting chamber 6 is a box-shaped structure, its water-facing surface will bear a certain water flow resistance. The pulling force F2 required to lift the lifting chamber 6 in this phase is: weight of lifting chamber 6 + weight of sealed data chamber 7 - total buoyancy of sealed data chamber 7 + water resistance. Phase 3, gradual water discharge process of lifting chamber 6: At this time, the buoyancy of lifting chamber 6 gradually decreases as the water discharge volume increases. At the same time, the water discharge process of the tank will bring out a certain amount of water (especially the unsealed cuboid tank 61). The pulling force F3 required to lift lifting chamber 6 in this phase is: weight of lifting chamber 6 + weight of sealed data chamber 7 - part of the buoyancy of sealed data chamber 7 + part of the weight of attached water. Phase 4, Lifting chamber 6 completely leaves the water: The pulling force F4 required to lift lifting chamber 6 in this phase = weight of lifting chamber 6 + weight of sealed data chamber 7; In summary, Phase 1 avoids peak pull by reducing adsorption force, thus ensuring that the pull forces of Phase 1, Phase 2 and Phase 3 are roughly the same. From Phase 3 to Phase 4, the pull force increases linearly and gradually as water is gradually discharged from the lifting chamber 6, and the pull force transition is relatively stable.

[0049] Step 2: After completing the routine maintenance or repair of the sealed data chamber 7, ensure that the sealed data chamber 7 is properly connected to the power supply, and then lower the lifting chamber 6 into position for underwater work through the remote control lifting mechanism 5.

[0050] Specifically, when the lifting chamber 6 is lowered onto the inward-tilting platform base 4, the lifting chamber 6 is submerged in water and is considered to have been lowered into place.

Claims

1. A data center based on a bridge arrangement, characterized by: The system includes a bridge pier (1), on which two data center modules are symmetrically arranged, and the bridge pier (1) is located between the two data center modules. The data center module includes a remote control lifting mechanism (5), a lifting chamber (6) and two carriages (3). The two carriages (3) are arranged side by side on the bridge pier (1) and the carriages (3) are arranged along the height direction of the bridge pier (1). The remote control lifting mechanism (5) is connected to the upper end of the two carriages (3). The lifting chamber (6) is slidably connected to the two carriages (3) and connected to the remote control lifting mechanism (5). The lifting chamber (6) has multiple water inlets and a sealed data chamber (7) is provided inside the lifting chamber (6).

2. The bridge-based arrangement based data center of claim 1, wherein: Two symmetrically arranged carriages (3) located on both sides of the pier (1) are connected by multiple tie anchor components (9) installed in the pier (1); the tie anchor components (9) include two anchor bases (91), which are connected by anchor bars (92), and the carriages (3) are connected to the anchor bases (91) by anchor bolts (10).

3. The bridge-based arrangement based data center of claim 2, wherein: The slide (3) includes an anchor rod (31), a slide rail mounting rod (32) and a convex slide rail (34). The anchor rod (31) is connected to multiple tie anchor components (9) in the pier (1) by anchor bolts (10). The slide rail mounting rod (32) is arranged side by side with the anchor rod (31) and is connected to the anchor rod (31) by multiple connecting rods (33). The convex slide rail (34) is located on the slide rail mounting rod (32) on one side near another slide (3) in the same data center module.

4. The bridge-based arrangement based data center of claim 1, wherein: The remote control lifting mechanism (5) includes a traction machine, a controller and a wireless transmission module. The traction machine is connected to the lifting chamber (6) via steel strands. The controller is electrically connected to the traction machine and the wireless transmission module is electrically connected to the controller.

5. The data center based on bridge layout as described in claim 3, characterized in that: The lifting chamber (6) includes a cuboid box (61) and a suspension beam slide (63). Multiple water passages are arranged side by side on the four sides of the cuboid box (61). The cuboid box (61) has an opening on the side away from the pier (1), and two double doors (65) are hinged on the opening side of the cuboid box (61). The suspension beam slide (63) is located on the top of the cuboid box (61). At both ends of the suspension beam slide (63), there are grooves (631) that are adapted to the convex slide (34) at the corresponding positions.

6. The data center based on bridge layout as described in claim 5, characterized in that: The outer wall of the rectangular box (61) is provided with a protective cover (66) at each water inlet. The protective cover (66) covers the water inlet and has an opening on the lower side.

7. The data center based on bridge layout as described in claim 5, characterized in that: The lower ends of the two carriages (3) of the data center module are connected by an inward-tilting platform base (4), and the end of the inward-tilting platform base (4) near the pier (1) is inclined downward relative to the other end; the bottom of the cuboid box (61) is provided with a right-angled triangular prism box (62), the bottom surface of the right-angled triangular prism box (62) is an inclined surface, and the inclination direction and inclination angle of the bottom surface of the right-angled triangular prism box (62) are consistent with the inclination direction and inclination angle of the inward-tilting platform base (4). The two ends of the right-angled triangular prism box (62) are provided with sliders (64) at positions corresponding to the convex slide (34).

8. The data center based on bridge layout as described in claim 7, characterized in that: The inclination angle of the incline platform base (4) is 20 degrees to 40 degrees; multiple grooves A (41) are arranged side by side on the top of the incline platform base (4), and the arrangement direction of the grooves A (41) is consistent with the inclination direction of the incline platform base (4); multiple grooves B (621) are arranged side by side on the bottom of the right-angled triangular prism box (62), and the grooves B (621) are arranged perpendicular to the grooves A (41).

9. The data center based on bridge layout as described in claim 8, characterized in that: The bottom of the right-angled triangular prism box (62) is provided with several nozzles at the position where the right-angled triangular prism box (62) contacts the inward-tilting platform base (4); the right-angled triangular prism box (62) is provided with an adsorption force active breaking pump (8), the inlet of the adsorption force active breaking pump (8) is connected to the end of the right-angled triangular prism box (62) through an inlet pipe and communicates with the outside, and the outlet of the adsorption force active breaking pump (8) is connected to all the nozzles at the bottom of the right-angled triangular prism box (62) through an outlet pipe.

10. The data center based on bridge layout as described in claim 1, characterized in that: The bottom of the sealed data compartment (7) has two grooves C (71) arranged side by side. The power supply cable (11) of the sealed data compartment (7) is laid along the edge of the bridge surface (2) on the upper side of the pier (1). One end of the power supply cable (11) extends into the lifting compartment (6) and is electrically connected to the sealed data compartment (7) through a waterproof electrical connector.

11. A method for operating a data center based on a bridge layout as described in any one of claims 1 to 10, characterized in that: Includes the following steps: Step 1: When it is necessary to perform routine maintenance or repair work on the sealed data container (7), take a boat to approach the bridge pier (1) and raise the lifting container (6) to the height corresponding to the boat through the remote control lifting mechanism (5). Then, perform on-site maintenance on the sealed data container (7) inside the lifting container (6), or remove the sealed data container (7) from the lifting container (6) and transport it to a professional place for repair. Step 2: After completing the daily maintenance or repair of the sealed data chamber (7), ensure that the sealed data chamber (7) is properly connected to the power supply, and then lower the lifting chamber (6) into place for underwater work through the remote control lifting mechanism (5).

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