Implementation method and system of prefabricated modular liquid cooling data center

Abstract

The invention discloses an implementation method and system of a prefabricated modular liquid cooling data center, and relates to the technical field of data center building deployment. Comprising the steps of 1, prefabricating a deployment diagram of the liquid cooling data center, 2, hoisting a steel structure of the liquid cooling data center on site according to a steel frame diagram, then synchronously installing a corridor box body, deploying a liquid cooling pipeline, laying underground nutrient soil in a ground planting area, planting shade-tolerant economic species, forming a low-maintenance landscape and generating additional benefits, and 3, an internal drainage mode is adopted on the roof of the liquid cooling data center, a roof drainage structure is arranged, the roof drainage structure gathers from the two sides to the middle to form a drainage groove, a rainwater impact cobblestone layer is arranged in the ground planting area to dissipate energy, the aesthetics function is achieved, noise is reduced, and fences are installed on the two sides of the ground planting area and used for preventing rainwater from splashing.

Description

Technical Field

[0001] This invention discloses a method and system for implementing a prefabricated modular liquid-cooled data center, which relates to the field of data center building deployment technology. Background Technology

[0002] Existing multi-story data centers suffer from problems such as chaotic pipe layout, difficult maintenance, cramped space, large investment, and high manpower costs. Furthermore, existing data center pipes need to be installed through walls, the construction sequence is heavily dependent on the completion of the enclosures, and the stacking of multiple layers of cable trays results in insufficient maintenance space, with spacing of less than 0.5m. In addition, the pipe density in the ceiling reaches 80%, and disassembly requires structural damage, which is not conducive to maintenance. Summary of the Invention

[0003] This invention addresses the problems of existing technologies by providing a method and system for implementing a prefabricated modular liquid-cooled data center, thereby achieving a prefabricated modular liquid-cooled data center structure that integrates pipeline management, ecological landscape, and architectural aesthetics.

[0004] The specific solution proposed in this invention is as follows:

[0005] This invention provides a method for implementing a prefabricated modular liquid-cooled data center, comprising:

[0006] Step 1: Deployment diagram of the prefabricated liquid-cooled data center. The deployment diagram includes a steel frame diagram of the three-story liquid-cooled data center. Based on the steel frame diagram, the layout of the liquid-cooled data center is obtained. The data center is located in the middle, with power distribution rooms on both sides. A battery room is located on one side of the data center, adjacent to the power distribution room on the same side. A fire control room is located on the other side of the data center, adjacent to the power distribution room on the same side. A pipe gallery connects the data center with the power distribution room and the battery room, and a corridor connects the data center with the power distribution room and the fire control room. One end of the pipe gallery is a maintenance entrance. The pipe galleries on the second and third floors are hollow, and the bottom of the first-floor pipe gallery corresponds to the ground planting area.

[0007] Step 2: Based on the steel frame drawings, hoist the steel structure of the liquid-cooled data center on-site, then simultaneously install the corridor enclosures, deploy liquid cooling pipes, and lay underground nutrient soil in the ground planting area to plant shade-tolerant economic species, creating a low-maintenance landscape and generating additional income.

[0008] Step 3: An internal drainage system is adopted on the roof of the liquid-cooled data center. The roof drainage structure is set up, which converges from both sides to the middle to form a drainage channel. The ground planting area is equipped with a pebble layer to dissipate rainwater impact, which also has aesthetic function and reduces noise. Enclosures are installed on both sides of the ground planting area to prevent rainwater splashing.

[0009] Furthermore, in step 1 of the method for implementing a prefabricated modular liquid-cooled data center, according to the steel frame diagram, the layout of the liquid-cooled data center includes a freight elevator and a fan deployed in front of the battery room, a duty room and a restroom deployed in front of the fire control room, a lobby in front of the data center room on the first floor of the liquid-cooled data center and a corridor behind it, and corridors on both the front and back sides of the data center rooms on the second and third floors of the liquid-cooled data center.

[0010] Furthermore, in step 2 of the method for implementing a prefabricated modular liquid-cooled data center, when deploying liquid-cooled pipes, epoxy resin-based reflective coating is applied to the liquid-cooled pipes, and the liquid-cooled supply / return water pipes are marked with dark blue and light blue layers. At the same time, LED light strips are installed, and the colors are marked according to the flow rate. The operating status is dynamically displayed in combination with programmable LED lights.

[0011] Furthermore, in step 2 of the method for implementing a prefabricated modular liquid-cooled data center, the underground nutrient soil in the ground planting area is laid to a depth of no less than 0.8m, a water-saving spraying mode is adopted, the monthly water consumption is ≤0.3 tons, and Dendrobium orchids and ferns are planted.

[0012] This invention also provides a system for implementing a prefabricated modular liquid-cooled data center, including a mapping and layout module and a deployment management module.

[0013] The layout module pre-creates the deployment diagram of the liquid-cooled data center. The diagram includes a steel frame drawing of the three-story liquid-cooled data center. Based on this steel frame drawing, the layout of the liquid-cooled data center is obtained. The data center is located in the center, with power distribution rooms on either side. A battery room is located on one side of the data center, adjacent to the power distribution room on the same side. A fire control room is located on the other side of the data center, also adjacent to the power distribution room on the same side. A utility tunnel connects the data center to the power distribution room and the battery room, and a corridor also connects them. One end of the utility tunnel serves as a maintenance entrance. The second and third-floor utility tunnels are hollow, and the bottom of the first-floor utility tunnel corresponds to the ground planting area.

[0014] The deployment management module hoisted the steel structure of the liquid-cooled data center on-site according to the steel frame drawings, then simultaneously installed the corridor enclosures, deployed liquid-cooled pipes, and laid underground nutrient soil in the ground planting area to plant shade-tolerant economic species, creating a low-maintenance landscape and generating additional revenue.

[0015] The deployment management module adopts an internal drainage method on the roof of the liquid-cooled data center, setting up a roof drainage structure. The roof drainage structure converges from both sides to the middle to form a drainage trough. The ground planting area is equipped with a pebble layer to dissipate rainwater impact, which also has aesthetic functions and reduces noise. Enclosures are installed on both sides of the ground planting area to prevent rainwater splashing.

[0016] Furthermore, based on the steel frame diagram, the drawing and layout module of the prefabricated modular liquid-cooled data center implementation system also obtains the following layout: in the liquid-cooled data center, a freight elevator and a fan are deployed in front of the battery room; a duty room and a restroom are deployed in front of the fire control room; the data center of the first-floor liquid-cooled data center has a lobby in front and a corridor in the back; and the data centers of the second and third-floor liquid-cooled data centers have corridors in both the front and back.

[0017] Furthermore, when deploying the liquid cooling pipes in the deployment management module of the prefabricated modular liquid-cooled data center implementation system, the liquid cooling pipes are coated with epoxy resin-based reflective paint, and the liquid cooling supply / return water pipes are marked with dark blue and light blue layers. At the same time, LED light strips are installed, and the colors are marked according to the flow rate. Combined with programmable LED lights, the operating status is dynamically displayed.

[0018] Furthermore, the deployment and management module of the prefabricated modular liquid-cooled data center implementation system has a pre-set ground planting area with underground nutrient soil at a depth of no less than 0.8m, adopts a water-saving spraying mode, with a monthly water consumption of ≤0.3 tons, and plants Dendrobium orchids and ferns.

[0019] The advantages of this invention are: reasonable layout, convenient use, and technical benefits: maintenance path is shortened by more than 40%, and pipeline fault location speed is increased by more than 50%; economic benefits: landscape crops can increase annual income; and humanistic benefits: reduce the mechanical feel of data centers and enhance the group visit experience. Attached Figure Description

[0020] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0021] Figure 1 This is a schematic diagram of the first layer of the steel frame of the present invention.

[0022] Figure 2 This is a schematic plan view of the second layer of the steel frame of the present invention. The plan view of the third layer of the steel frame is the same as that of the second layer.

[0023] Figure 3 yes Figure 1 A sectional view along line AA.

[0024] Figure 4 This is a schematic diagram of the first-floor pipeline layout. The area within the black frame is the pipe gallery area.

[0025] Figure 5 This is a schematic diagram of the second-floor piping system. The area within the black frame is the pipe gallery area.

[0026] Figure 6 This is a schematic diagram of the second-floor pipeline layout. The area within the black frame is the pipe gallery area.

[0027] Figure 7 This is a schematic diagram of the third-floor piping system. The area within the black frame is the pipe gallery area.

[0028] Figure 8 This is a schematic diagram of the pipe cross-section.

[0029] Figure 9 This is a schematic diagram of the BB ground landscape planting layer structure.

[0030] Figure 10 This is a schematic diagram of the layout of the ground green area.

[0031] Attached diagram labels: 1. Pipe gallery; 2. Water supply pipe; 3. Return water pipe; 5. LED light strip; 6. Ground planting area; 7. Drainage trough; 8. Pebble layer; 9. Enclosure. Detailed Implementation

[0032] The present invention will be further described below with reference to the accompanying drawings and specific embodiments, so that those skilled in the art can better understand and implement the present invention. However, the embodiments described are not intended to limit the present invention.

[0033] Example 1

[0034] This invention provides a method for implementing a prefabricated modular liquid-cooled data center, comprising:

[0035] Step 1: Deployment diagram of the prefabricated liquid-cooled data center. The deployment diagram includes the steel frame diagram of the three-story liquid-cooled data center. Based on the steel frame diagram, the layout of the liquid-cooled data center is obtained. The data center is deployed in the middle, with power distribution rooms deployed on both sides of the data center. A battery room is deployed on one side of the data center, adjacent to the power distribution room on the same side. A fire control room is deployed on the other side of the data center, adjacent to the power distribution room on the same side. The data center, power distribution room and battery room are connected by a pipe gallery 1. The maintenance passage of pipe gallery 1 is ≥1.2m wide. The data center, power distribution room and fire control room are connected by a corridor. One end of pipe gallery 1 is the maintenance entrance. The second and third floor pipe galleries 1 are hollow. The bottom of the first floor pipe gallery 1 corresponds to the ground planting area 6. According to the steel frame diagram, the layout of the liquid-cooled data center also shows that the freight elevator and fan are deployed in front of the battery room, the duty room and toilet are deployed in front of the fire control room, the data center of the first-floor liquid-cooled data center has a lobby in front and a corridor in the back, and the data centers of the second and third-floor liquid-cooled data centers have corridors in front and behind.

[0036] Step 2: Based on the steel frame drawings, hoist the steel structure of the liquid-cooled data center on-site, then simultaneously install the corridor enclosures, deploy liquid-cooled pipes, and lay underground nutrient soil in the ground planting area 6 to plant shade-tolerant economic species, creating a low-maintenance landscape and generating additional revenue. When deploying the liquid-cooled pipes, apply epoxy resin-based reflective paint to the pipes, and mark the liquid-cooled water supply pipe 2 and return pipe 3 with dark blue and light blue layers respectively. Simultaneously, install LED light strips 5, color-coded according to flow rate levels, and dynamically display the operating status using programmable LED lights.

[0037] In the ground planting area 6, the underground nutrient soil is laid to a depth of no less than 0.8m, and a water-saving spraying mode is adopted, with a monthly water consumption of ≤0.3 tons. Dendrobium orchids and ferns are planted.

[0038] Step 3: An internal drainage system is adopted on the roof of the liquid-cooled data center. A roof drainage structure is set up, which converges from both sides to the middle to form a drainage channel 7. A pebble layer 8 is set up in the ground planting area to dissipate rainwater impact, which also has aesthetic function and reduces noise. Fences 9 are installed on both sides of the ground planting area to prevent rainwater splashing.

[0039] Example 2

[0040] This invention also provides a system for implementing a prefabricated modular liquid-cooled data center, including a mapping and layout module and a deployment management module.

[0041] The layout module prefabricates the deployment diagram of the liquid-cooled data center. The diagram includes a steel frame drawing of the three-story liquid-cooled data center. Based on this steel frame drawing, the layout of the liquid-cooled data center is obtained. The data center is located in the center, with power distribution rooms on either side. A battery room is located on one side of the data center, adjacent to the power distribution room on the same side. A fire control room is located on the other side of the data center, also adjacent to the power distribution room on the same side. A utility tunnel (PUT1) connects the data center to the power distribution room and battery room, and also forms a corridor. One end of PUT1 serves as a maintenance entrance. The second and third-floor PUT1 is hollow, and the bottom of the first-floor PUT corresponds to the ground planting area (Plant Area 6).

[0042] The deployment management module hoisted the steel structure of the liquid-cooled data center on-site according to the steel frame drawings, then simultaneously installed the corridor enclosures, deployed liquid-cooled pipes, and laid underground nutrient soil in the ground planting area 6 to plant shade-tolerant economic species, forming a low-maintenance landscape and generating additional revenue.

[0043] The deployment management module adopts an internal drainage method on the roof of the liquid-cooled data center, and sets up a roof drainage structure. The roof drainage structure converges from both sides to the middle to form a drainage channel 7. The ground planting area is equipped with a pebble layer 8 to dissipate rainwater impact, which also has aesthetic function and reduces noise. Enclosures 9 are installed on both sides of the ground planting area 6 to prevent rainwater splashing.

[0044] The information interaction and execution process between the modules in the above system are based on the same concept as the method embodiment of the present invention, and the specific details can be found in the description in the method embodiment of the present invention, and will not be repeated here.

[0045] Similarly, the advantages of the system of the present invention are: reasonable layout, convenient use, and technical benefits: maintenance path is shortened by more than 40%, and pipeline fault location speed is increased by more than 50%; economic benefits: landscape crops can increase annual income; and humanistic benefits: reduce the mechanical feeling of data centers and improve the group visit experience.

[0046] It should be noted that not all steps and modules in the above processes and system structures are mandatory; some steps or modules can be omitted as needed. The execution order of the steps is not fixed and can be adjusted as required. The system structures described in the above embodiments can be physical or logical structures. That is, some modules may be implemented by the same physical entity, or some modules may be implemented by multiple physical entities, or they may be implemented by certain components in multiple independent devices.

[0047] The above-described embodiments are merely preferred embodiments provided to fully illustrate the present invention, and the scope of protection of the present invention is not limited thereto. Equivalent substitutions or modifications made by those skilled in the art based on the present invention are all within the scope of protection of the present invention. The scope of protection of the present invention is defined by the claims.

Claims

1. A method for implementing a prefabricated modular liquid-cooled data center, characterized in that: include: Step 1: Deployment diagram of the prefabricated liquid-cooled data center. The deployment diagram includes a steel frame diagram of the three-story liquid-cooled data center. Based on the steel frame diagram, the layout of the liquid-cooled data center is obtained. The data center is located in the middle, with power distribution rooms on both sides. A battery room is located on one side of the data center, adjacent to the power distribution room on the same side. A fire control room is located on the other side of the data center, adjacent to the power distribution room on the same side. A pipe gallery connects the data center with the power distribution room and the battery room, and a corridor connects the data center with the power distribution room and the fire control room. One end of the pipe gallery is a maintenance entrance. The pipe galleries on the second and third floors are hollow, and the bottom of the first-floor pipe gallery corresponds to the ground planting area. Step 2: Based on the steel frame drawings, hoist the steel structure of the liquid-cooled data center on-site, then simultaneously install the corridor enclosures, deploy liquid cooling pipes, and lay underground nutrient soil in the ground planting area to plant shade-tolerant economic species, creating a low-maintenance landscape and generating additional income. Step 3: An internal drainage system is adopted on the roof of the liquid-cooled data center. The roof drainage structure is set up, which converges from both sides to the middle to form a drainage channel. The ground planting area is equipped with a pebble layer to dissipate rainwater impact, which also has aesthetic function and reduces noise. Enclosures are installed on both sides of the ground planting area to prevent rainwater splashing.

2. The method for implementing a prefabricated modular liquid-cooled data center according to claim 1, characterized in that, according to the steel frame drawing in step 1, the layout of the liquid-cooled data center also includes a freight elevator and a fan deployed in front of the battery room, a duty room and a toilet deployed in front of the fire control room, a lobby in front of the data center room of the first-floor liquid-cooled data center and a corridor in back, and corridors in front and behind the data centers of the second and third-floor liquid-cooled data centers.

3. The method for implementing a prefabricated modular liquid-cooled data center according to claim 1, characterized in that: In step 2, when deploying the liquid cooling pipeline, apply epoxy resin-based reflective paint to the liquid cooling pipeline, and mark the liquid cooling supply / return water pipes with dark blue and light blue layers. At the same time, install LED light strips, mark the colors according to the flow rate, and combine programmable LED lights to dynamically display the operating status.

4. The method for implementing a prefabricated modular liquid-cooled data center according to claim 1, characterized in that: In step 2, the ground planting area is covered with underground nutrient soil at a depth of no less than 0.8m. A water-saving spraying mode is adopted, with a monthly water consumption of ≤0.3 tons. Dendrobium orchids and ferns are planted.

5. A system for implementing a prefabricated modular liquid-cooled data center, characterized in that: Includes a mapping and layout module and a deployment management module. The layout module pre-creates the deployment diagram of the liquid-cooled data center. The diagram includes a steel frame drawing of the three-story liquid-cooled data center. Based on this steel frame drawing, the layout of the liquid-cooled data center is obtained. The data center is located in the center, with power distribution rooms on either side. A battery room is located on one side of the data center, adjacent to the power distribution room on the same side. A fire control room is located on the other side of the data center, also adjacent to the power distribution room on the same side. A utility tunnel connects the data center to the power distribution room and the battery room, and a corridor also connects them. One end of the utility tunnel serves as a maintenance entrance. The second and third-floor utility tunnels are hollow, and the bottom of the first-floor utility tunnel corresponds to the ground planting area. The deployment management module hoisted the steel structure of the liquid-cooled data center on-site according to the steel frame drawings, then simultaneously installed the corridor enclosures, deployed liquid-cooled pipes, and laid underground nutrient soil in the ground planting area to plant shade-tolerant economic species, creating a low-maintenance landscape and generating additional revenue. The deployment management module adopts an internal drainage method on the roof of the liquid-cooled data center, setting up a roof drainage structure. The roof drainage structure converges from both sides to the middle to form a drainage trough. The ground planting area is equipped with a pebble layer to dissipate rainwater impact, which also has aesthetic functions and reduces noise. Enclosures are installed on both sides of the ground planting area to prevent rainwater splashing.

6. The implementation system for a prefabricated modular liquid-cooled data center according to claim 5, characterized in that: Based on the steel frame diagram, the layout module also shows that in the liquid-cooled data center layout, the battery room is equipped with a freight elevator and fans, the fire control room is equipped with a duty room and a restroom, the data center of the first-floor liquid-cooled data center is a lobby in front and a corridor in the back, and the data centers of the second and third-floor liquid-cooled data centers are both corridors in front and behind.

7. The implementation system for a prefabricated modular liquid-cooled data center according to claim 5, characterized in that: When deploying liquid-cooled pipelines in the deployment management module, epoxy resin-based reflective paint is applied to the liquid-cooled pipelines, and the liquid-cooled supply / return water pipes are marked with dark blue and light blue layers. At the same time, LED light strips are installed, and colors are marked according to flow rate levels. Combined with programmable LED lights, the operating status is dynamically displayed.

8. The implementation system for a prefabricated modular liquid-cooled data center according to claim 5, characterized in that: The deployment management module pre-sets the ground planting area to have underground nutrient soil laid at a depth of no less than 0.8m, adopts a water-saving spraying mode, and consumes ≤0.3 tons of water per month, for planting Dendrobium orchids and ferns.

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