Modular spliced floor and assembly method

Abstract

The application discloses a modular spliced floor and an assembling method, and relates to the field of data centers, wherein the modular spliced floor comprises an input spliced floor and an output spliced floor, the input spliced floor is provided with an input liquid supply pipe, an input liquid return pipe and an input cable, the output spliced floor is provided with an output liquid supply pipe, an output liquid return pipe and an output cable, a cold source is provided with a cold source liquid supply interface and a cold source liquid return interface, a power supply is provided with a first power supply interface, a liquid cooling cabinet is provided with a cabinet liquid supply interface, a cabinet liquid return interface and a second power supply interface, the cold source liquid supply interface, the input liquid supply pipe, the output liquid supply pipe and the cabinet liquid supply interface are sequentially connected, the cold source liquid return interface, the input liquid return pipe, the output liquid return pipe and the cabinet liquid return interface are sequentially connected, and the first power supply interface, the input cable, the output cable and the second power supply interface are sequentially connected, so that the technical problem that it is difficult to expand the liquid cooling cabinet in the original machine room is solved, and the technical effects of simple construction, short construction period, high efficiency and low cost are achieved.

Description

Technical Field

[0001] This application relates to the field of data center technology, and more particularly to a modular interlocking floor and its assembly method. Background Technology

[0002] With the rapid expansion of applications such as cloud computing, artificial intelligence, and big data services, the processing capacity of data centers is gradually increasing, leading to a continuous increase in the demand for heat dissipation in data centers. More and more users have begun to introduce liquid-cooled cabinets with higher heat dissipation efficiency to replace traditional air-cooling methods.

[0003] Liquid-cooled server racks require the installation of a water supply and return pipeline from the cooling source to the rack, as well as cabling from the cooling source to the rack. If the original server room for the liquid-cooled racks does not have the corresponding water supply and return pipelines and cable channels pre-installed, the ceiling, floor, and pipe rack of the server room must be modified, resulting in complex construction, long construction period, low efficiency, and high cost. Summary of the Invention

[0004] This application provides a modular interlocking floor to at least solve the problem of difficulty in expanding liquid-cooled server racks in existing data centers in related technologies.

[0005] This application provides a modular interlocking floor for expanding liquid-cooled cabinets on the floor of an existing computer room to establish a working fluid circuit between the liquid-cooled cabinet and the cold source, and to establish a circuit between the liquid-cooled cabinet and the power supply. The modular interlocking floor includes an input interlocking floor and an output interlocking floor. The input interlocking floor has an input liquid supply pipe, an input liquid return pipe, and an input cable. The output interlocking floor has an output liquid supply pipe, an output liquid return pipe, and an output cable. The cold source has a cold source liquid supply interface and a cold source liquid return interface. The power supply has a first power supply interface. The liquid-cooled cabinet has a cabinet liquid supply interface, a cabinet liquid return interface, and a second power supply interface. The cold source liquid supply interface, the input liquid supply pipe, the output liquid supply pipe, and the cabinet liquid supply interface are connected sequentially. The cold source liquid return interface, the input liquid return pipe, the output liquid return pipe, and the cabinet liquid return interface are connected sequentially. The first power supply interface, the input cable, the output cable, and the second power supply interface are connected sequentially.

[0006] This application also provides an assembly method using modular interlocking flooring, including:

[0007] The input and output splicing floor panels are laid in the original computer room according to the pipeline route;

[0008] Connect the cold source liquid supply interface to one end of the input liquid supply pipe, connect the other end of the input liquid supply pipe to one end of the output liquid supply pipe, connect the cold source liquid return interface to one end of the input liquid return pipe, connect the other end of the input liquid return pipe to one end of the output liquid return pipe, connect the first power supply interface to one end of the input cable, and connect the other end of the input cable to one end of the output cable.

[0009] The input splicing floor and the output splicing floor are spliced ​​together to form a placement floor, on which the liquid-cooled cabinet is placed;

[0010] Connect the other end of the output liquid supply pipe to the cabinet liquid supply interface, connect the other end of the output liquid return pipe to the cabinet liquid return interface, and connect the other end of the output cable to the second power supply interface.

[0011] The modular interlocking floor of this application connects the input and output liquid supply pipes, the input and output return pipes, and the input and output cables, enabling the splicing of input and output interlocking floor panels. This allows for the expansion of liquid-cooled server racks without requiring modifications to the original server room, and also enables the liquid-cooled server racks to be powered and supplied with water. This solves the technical problem of the difficulty in expanding liquid-cooled server racks in the original server room, achieving the technical effects of simplified construction, reduced barriers and costs in building liquid-cooled server rooms, shortened delivery time, and improved construction efficiency. Attached Figure Description

[0012] Figure 1 This is a structural schematic diagram of Embodiment 2 of the modular interlocking floor provided in this application;

[0013] Figure 2 for Figure 1 A magnified view of a portion of point A in the middle;

[0014] Figure 3 A structural schematic diagram of Embodiment 3 of the modular interlocking floor provided in this application;

[0015] Figure 4 A schematic diagram of the structure of Embodiment 4 of the modular interlocking floor provided in this application;

[0016] Figure 5 A structural schematic diagram of Embodiment 5 of the modular interlocking floor provided in this application;

[0017] Figure 6 This is a schematic diagram of the structure of the modular interlocking floor provided in this application.

[0018] Figure 7 An exploded view of the modular interlocking floor provided in this application;

[0019] Figure 8This is a structural schematic diagram of the infilled interlocking floor of the modular interlocking floor provided in this application;

[0020] Figure 9 An exploded view of the infilled interlocking floor of the modular interlocking floor provided in this application;

[0021] Figure 10 A structural schematic diagram of the intermediate interlocking floor (straight-through interlocking floor) of the modular interlocking floor provided in this application;

[0022] Figure 11 An exploded view of the intermediate interlocking floor (straight-through interlocking floor) of the modular interlocking floor provided in this application;

[0023] Figure 12 This is a structural diagram of the intermediate interlocking floor (cornering interlocking floor) of the modular interlocking floor provided in this application;

[0024] Figure 13 An exploded view of the intermediate interlocking floor (turning interlocking floor) of the modular interlocking floor provided in this application;

[0025] Figure 14 A schematic diagram of the structure of the output interlocking floor provided in this application;

[0026] Figure 15 An exploded view of the modular interlocking floor provided in this application;

[0027] Figure 16 A flowchart illustrating the assembly method of Embodiment 2 using modular interlocking flooring provided in this application;

[0028] Figure 17 A flowchart illustrating the assembly method of Embodiment 3 using modular interlocking flooring provided in this application;

[0029] Figure 18 A flowchart illustrating the assembly method of Embodiment 4, which employs modular interlocking flooring, provided in this application.

[0030] The above figures include the following reference numerals:

[0031] 1. Computer room; 2. Liquid-cooled cabinet; 3. Input panel floor; 4. Output panel floor; 5. Input liquid supply pipe; 6. Input liquid return pipe; 7. Input cable; 8. Output liquid supply pipe; 9. Output liquid return pipe; 10. Output cable; 11. Cold source liquid supply interface; 12. Cold source liquid return interface; 13. First power supply interface; 14. Cabinet liquid supply interface; 15. Cabinet liquid return interface; 16. Second power supply interface; 17. Intermediate panel floor; 18. Input raised bracket; 19. Input support frame; 20. Input cable bracket; 21. Input floor; 22. Output raised bracket; 23. Output support frame; 24. Output cable bracket; 25. Output floor; 26. Straight-through panel floor; 27. Straight-through rack 28. High bracket; 29. ​​Straight support frame; 30. Straight cable bracket; 31. Straight floor; 32. Curved interlocking floor; 33. Curved high bracket; 34. Curved support frame; 35. Curved cable bracket; 36. Curved floor; 37. Infilled interlocking floor; 38. Infilled high bracket; 39. Inlet supply through-hole; 40. Inlet return through-hole; 41. Inlet cable through-hole; 42. Inlet supply inlet; 43. Inlet supply outlet; 44. Inlet return outlet; 45. Inlet return inlet; 46. Inlet cable inlet; 47. Inlet cable outlet; 48. Output supply through-hole; 49. Output return through-hole; 50. Output cable through-hole; 51. Output supply outlet; 5 2. Output liquid supply inlet; 53. Output liquid return inlet; 54. Output liquid return outlet; 55. Output cable inlet; 56. Output cable outlet; 57. Straight-through liquid supply inlet; 58. Straight-through liquid supply outlet; 59. Straight-through liquid return inlet; 60. Straight-through liquid return outlet; 61. Straight-through cable inlet; 62. Straight-through cable outlet; 63. Turning liquid supply inlet; 64. Turning liquid supply outlet; 65. Turning liquid return inlet; 66. Turning liquid return outlet; 67. Turning cable inlet; 68. Turning cable outlet; 69. Straight-through liquid supply pipe; 70. Straight-through liquid return pipe; 71. Straight cable; 72. Turning liquid supply pipe; 73. Turning liquid return pipe; 74. Turning cable; 75. First backup power supply interface; 76. Expansion Cables; 77. Input spare cable bracket; 78. Input spare cable; 79. Input spare cable through hole; 80. Input spare cable inlet; 81. Input spare cable outlet; 82. Straight-through spare cable bracket; 83. Straight-through spare cable; 84. Straight-through spare cable inlet; 85. Straight-through spare cable outlet; 86. Turning spare cable bracket; 87. Turning spare cable; 88. Turning spare cable inlet; 89. Turning spare cable outlet; 90. Output spare cable bracket; 91. Output spare cable; 92. Output spare cable through hole; 93. Output spare cable outlet; 94. Output spare cable inlet; 95. Liquid-cooled expansion cabinet; 96. Expansion liquid supply pipe; 97. Expansion liquid return pipe. Detailed Implementation

[0032] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of this application.

[0033] It should be noted that the terms "center," "longitudinal," "lateral," "length," "width," "thickness," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," "clockwise," "counterclockwise," "axial," "radial," and "circumferential," etc., indicating orientation or positional relationships based on the orientation or positional relationships shown in the accompanying drawings, are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this application. The terms "installed," "connected," and "linked" should be interpreted broadly, for example, they can be fixed connections, detachable connections, or integral connections; they can be mechanical connections or electrical connections; they can be direct connections or indirect connections through an intermediate medium; they can be internal connections between two elements. The terms "parallel," "perpendicular," and "equal" include the described situation and situations similar to the described situation, the range of which is within an acceptable deviation range, wherein the acceptable deviation range is determined by those skilled in the art taking into account the measurement under discussion and the error associated with the measurement of a particular quantity (i.e., the limitations of the measurement system). For example, "parallel" includes absolute parallelism and approximate parallelism, where an acceptable deviation range for approximate parallelism can be, for example, within 5°; "perpendicular" includes absolute perpendicularity and approximate perpendicularity, where an acceptable deviation range for approximate perpendicularity can also be, for example, within 5°. "Equal" includes absolute equality and approximate equality, where an acceptable deviation range for approximate equality can be, for example, a difference between the two equal items being less than or equal to 5% of either one. Those skilled in the art will understand the specific meaning of the above terms in this application based on the specific circumstances.

[0034] To enable those skilled in the art to better understand the present application, the present application will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0035] Example 1

[0036] This embodiment provides a modular interlocking floor for extending liquid-cooled cabinets 2 on the floor of computer room 1 to establish a working fluid circuit between the liquid-cooled cabinets 2 and a cold source (not shown in the figure), and to establish a circuit between the liquid-cooled cabinets 2 and a power supply (not shown in the figure). The modular interlocking floor includes an input interlocking floor 3, an intermediate interlocking floor 17, an output interlocking floor 4, and a filler interlocking floor 36.

[0037] Specifically, such as Figure 1 , Figure 6 and Figure 7 As shown, the input splicing floor 3 includes an input raised bracket 18, an input support frame 19, an input cable bracket 20, and an input floor 21.

[0038] The input support bracket 18 is rectangular in shape. Preferably, the length and width of the input support bracket 18 are equal, and the height of the input support bracket 18 is designed according to the actual scenario. The input support bracket 18 is a frame structure with a cavity formed by several connecting rods. The input floor 21 is rectangular in shape, and its length and width dimensions match those of the input support bracket 18. Preferably, the length and width dimensions of the input floor 21 are the same as those of the input support bracket 18. The input floor 21 is fixed directly above the input support bracket 18. Furthermore, the input support frame 19 and the input cable bracket 20 are both disposed on the input support bracket 18 and located within the cavity of the input support bracket 18. The input supply pipe 5 and the input return pipe 6 are both installed on the input support bracket 18, and the input cable 7 is disposed on the input cable bracket 20. The input floor 21 is provided with an input liquid supply through hole 39, an input liquid return through hole 40, and an input cable through hole 41. One end of the input liquid supply pipe 5 extends from the cavity of the input support bracket 18 through the input liquid supply through hole 39 to the top of the input floor 21 to form an input liquid supply inlet 42. The other end of the input liquid supply pipe 5 extends from the cavity of the input support bracket 18 to the side of the input support bracket 18 to form an input liquid supply outlet 43. One end of the input liquid return pipe 6 extends from the cavity of the input support bracket 18 through the input liquid return through hole 40 to the top of the input floor 21 to form an input liquid return outlet 44. The other end of the input liquid return pipe 6 extends from the cavity of the input support bracket 18 to the side of the input support bracket 18 to form an input liquid return inlet 45. One end of the input cable 7 extends from the cavity of the input support bracket 18 through the input cable through hole 41 to form an input cable inlet 46. The other end of the input cable 7 extends from the cavity of the input support bracket 18 to the side of the input support bracket 18 to form an input cable outlet 47. Among them, the input cable outlet 47 is a male terminal; the input liquid supply inlet 42, the input liquid return outlet 44 and the input cable inlet 46 are arranged in parallel on the axis; the input liquid supply outlet 43, the input liquid return inlet 45 and the input cable outlet 47 are arranged in parallel on the axis; and the input liquid supply inlet 42 and the input liquid supply outlet 43 are arranged in perpendicular on the axis.

[0039] like Figure 3 , Figure 10 and Figure 11 As shown, the intermediate splicing floor 17 includes a straight-through splicing floor 26, which includes a straight-through raised bracket 27, a straight-through support bracket 28, a straight-through cable bracket 29, and a straight-through floor 30.

[0040] The straight-through raised support 27 is rectangular in shape. Preferably, the length and width of the straight-through raised support 27 are equal, and the height of the straight-through raised support 27 is designed according to the actual scenario. The straight-through raised support 27 is formed by several connecting rods to form a frame structure with a cavity. The straight-through floor 30 is rectangular in shape, and the length and width dimensions of the straight-through floor 30 are matched with the length and width dimensions of the straight-through raised support 27. Preferably, the length and width dimensions of the straight-through floor 30 are the same as those of the straight-through raised support 27. The straight-through floor 30 is fixed directly above the straight-through raised support 27. Furthermore, when the intermediate splicing floor 17 adopts a straight-through splicing floor 26, the intermediate liquid supply pipe is a straight-through liquid supply pipe 69, the intermediate liquid return pipe is a straight-through liquid return pipe 70, and the intermediate cable is a straight-through cable 71. Both the straight-through support frame 28 and the straight-through cable bracket 29 are disposed within the cavity of the straight-through elevated support frame 27. The straight-through liquid supply pipe 69 and the straight-through liquid return pipe 70 are both installed on the straight-through elevated support frame 27, and the straight-through cable 71 is disposed on the straight-through cable bracket 29. One end of the straight-through liquid supply pipe 69 extends from the cavity of the straight-through elevated support frame 27 to one side of the straight-through elevated support frame 27 to form a straight-through liquid supply inlet 57, and the other end of the straight-through liquid supply pipe 69 extends from the cavity of the straight-through elevated support frame 27 to the other side of the straight-through elevated support frame 27 to form a straight-through liquid supply outlet 58. The straight-through liquid supply inlet 57 and the straight-through liquid supply outlet 58 are located on opposite sides of the straight-through elevated support frame 27. One end of the straight-through return pipe 70 extends from the cavity of the straight-through elevated support 27 to one side of the straight-through elevated support 27 to form a straight-through return inlet 59. The other end of the straight-through return pipe 70 extends from the cavity of the straight-through elevated support 27 to the other side of the straight-through elevated support 27 to form a straight-through return outlet 60. The straight-through return inlet 59 and the straight-through return outlet 60 are located on opposite sides of the straight-through elevated support 27. One end of the straight-through cable 71 extends from the cavity of the straight-through elevated support 27 to one side of the straight-through elevated support 27 to form a straight-through cable inlet 61. The other end of the straight-through cable 71 extends from the cavity of the straight-through elevated support 27 to the other side of the straight-through elevated support 27 to form a straight-through cable outlet 62. The straight-through cable inlet 61 and the straight-through cable outlet 62 are located on opposite sides of the straight-through elevated support 27. The direct liquid supply inlet 57, direct liquid return outlet 60, and direct cable inlet 61 are located on the same side, as are the direct liquid supply outlet 58, direct liquid return inlet 59, and direct cable outlet 62. The direct liquid supply pipe 69, direct liquid return pipe 70, and direct cable 71 are arranged in parallel. The direct cable inlet 61 is the female end, and the direct cable outlet 62 is the male end.

[0041] like Figure 4 , Figure 12 and Figure 13 As shown, the intermediate interlocking floor 17 includes a corner interlocking floor 31, which includes a corner raised bracket 32, a corner support bracket 33, a corner cable bracket 34, and a corner floor 35.

[0042] The turning support bracket 32 ​​is rectangular in shape. Preferably, the length and width of the turning support bracket 32 ​​are equal, and the height of the turning support bracket 32 ​​is designed according to the actual scenario. The turning support bracket 32 ​​is formed by several connecting rods to form a frame structure with a cavity. The turning floor 35 is rectangular in shape, and its length and width dimensions are matched with those of the turning support bracket 32. Preferably, the length and width dimensions of the turning floor 35 are the same as those of the turning support bracket 32. The turning floor 35 is fixed directly above the turning support bracket 32. Furthermore, when the intermediate splicing floor 17 adopts a turning splicing floor 31, the intermediate liquid supply pipe is a turning liquid supply pipe 72, the intermediate liquid return pipe is a turning liquid return pipe 73, and the intermediate cable is a turning cable 74. Both the turning support frame 33 and the turning cable bracket 34 are mounted on the turning support frame 32 and located within the cavity of the turning support frame 32. The turning supply pipe 72 and the turning return pipe 73 are both mounted on the turning support frame 32, and the turning cable 74 is mounted on the turning cable bracket 34. One end of the turning supply pipe 72 extends from the cavity of the turning support frame 32 to one side of the turning support frame 32 to form a turning supply inlet 63, and the other end of the turning supply pipe 72 extends from the cavity of the turning support frame 32 to the other side of the turning support frame 32 to form a turning supply outlet 64. The turning supply inlet 63 and the turning supply outlet 64 are located on adjacent sides of the turning support frame 32, that is, the axis of the turning supply inlet 63 is perpendicular to the axis of the turning supply outlet 64. One end of the turning return pipe 73 extends from the cavity of the turning support bracket 32 ​​to one side of the turning support bracket 32 ​​to form a turning return inlet 65. The other end of the turning return pipe 73 extends from the cavity of the turning support bracket 32 ​​to the other side of the turning support bracket 32 ​​to form a turning return outlet 66. The turning return inlet 65 and the turning return outlet 66 are located on adjacent sides of the turning support bracket 32, that is, the axis of the turning return inlet 65 is perpendicular to the axis of the turning return outlet 66. One end of the turning cable 74 extends from the cavity of the turning support bracket 32 ​​to one side of the turning support bracket 32 ​​to form a turning cable inlet 67. The other end of the turning cable 74 extends from the cavity of the turning support bracket 32 ​​to the other side of the turning support bracket 32 ​​to form a turning cable outlet 68. The turning cable inlet 67 and the turning cable outlet 68 are located on adjacent sides of the turning support bracket 32, that is, the axis of the turning cable inlet 67 is perpendicular to the axis of the turning cable outlet 68. The turning liquid supply inlet 63, turning cable inlet 67, and turning return liquid outlet 66 are located on the same side; the turning liquid supply outlet 64, turning cable outlet 68, and turning return liquid inlet 65 are located on the same side. Turning cable inlet 67 is the female end, and turning cable outlet 68 is the male end. The axes of turning liquid supply inlet 63, turning return liquid outlet 66, and turning cable inlet 67 are parallel; the axes of turning liquid supply outlet 64, turning return liquid inlet 65, and turning cable outlet 68 are parallel; and the axes of turning liquid supply inlet 63 and turning liquid supply outlet 64 are perpendicular.

[0043] like Figure 1 , Figure 14 and Figure 15 As shown, the output splicing floor 4 also includes an output raised bracket 22, an output support bracket 23, an output cable bracket 24, and an output floor 25.

[0044] The output support bracket 22 is rectangular in shape. Preferably, the length and width of the output support bracket 22 are equal, and the height of the output support bracket 22 is designed according to the actual scenario. The output support bracket 22 is a frame structure with a cavity formed by several connecting rods. The output floor 25 is rectangular in shape, and its length and width dimensions are matched with those of the output support bracket 22. Preferably, the length and width dimensions of the output floor 25 are the same as those of the output support bracket 22. The output floor 25 is fixed directly above the output support bracket 22. Furthermore, the output support frame 23 and the output cable bracket 24 are both disposed on the output support bracket 22 and located within the cavity of the output support bracket 22. The output supply pipe 8 and the output return pipe 9 are both installed on the output support bracket 22, and the output cable 10 is disposed on the output cable bracket 24. The output floor 25 is provided with an output liquid supply through hole 48, an output liquid return through hole 49, and an output cable through hole 50. One end of the output liquid supply pipe 8 extends from the cavity of the output support bracket 22 through the output liquid supply through hole 48 to the top of the output floor 25 to form an output liquid supply outlet 51. The other end of the output liquid supply pipe 8 extends from the cavity of the output support bracket 22 to the side of the output support bracket 22 to form an output liquid supply inlet 52. One end of the output liquid return pipe 9 extends from the cavity of the output support bracket 22 through the output... The return liquid through-hole 49 extends above the output floor 25 to form an output return liquid inlet 53. The other end of the output return liquid pipe 9 extends from the cavity of the output support bracket 22 to the side of the output support bracket 22 to form an output return liquid outlet 54. One end of the output cable 10 passes through the output cable through-hole 50 from the cavity of the output support bracket 22 to form an output cable outlet 56. The other end of the output cable 10 extends from the cavity of the output support bracket 22 to the side of the output support bracket 22 to form an output cable inlet 55. The output supply liquid inlet 52, the output return liquid outlet 54, and the output cable inlet 55 are located on the same side, as are the output supply liquid outlet 51, the output return liquid inlet 53, and the output cable outlet 56. The output cable inlet 55 is a female connector. The axes of the output supply liquid inlet 52, the output return liquid outlet 54, and the output cable inlet 55 are parallel, as are the axes of the output supply liquid outlet 51, the output return liquid inlet 53, and the output cable outlet 56. The axes of the output supply liquid inlet 52 and the output supply liquid outlet 51 are perpendicular.

[0045] like Figure 1 , Figure 8 and Figure 9As shown, the infilled interlocking floor 36 includes an infilled raised support 37 and an infilled floor 38, with the infilled floor 38 disposed at the top of the infilled raised support 37.

[0046] The infill support frame 37 is rectangular in shape; preferably, its length and width are equal, and its height is designed according to the actual scenario. The infill support frame 37 is formed by several connecting rods, creating a frame structure with cavities. The infill floor 38 is rectangular, and its length and width dimensions match those of the infill support frame 37; preferably, they are identical. The infill floor 38 is fixed directly above the infill support frame 37.

[0047] like Figure 1 and Figure 2 As shown, the cold source has a cold source liquid supply interface 11 and a cold source liquid return interface 12, the power supply has a first power supply interface 13, and the liquid-cooled cabinet 2 has a cabinet liquid supply interface 14, a cabinet liquid return interface 15, and a second power supply interface 16. The modular interlocking floor also includes a backup power supply, which has a first backup power supply interface 75, and the liquid-cooled cabinet 2 also has a second backup power supply interface (not shown in the figure).

[0048] The aforementioned input cable 7, straight cable 71, bend cable 74, and output cable 10 are all main power supply lines. The modular interlocking floor of this application is also equipped with a spare cable. The spare power supply is connected to the spare cable as a redundant power supply device for unforeseen needs.

[0049] like Figure 6 and Figure 7 As shown, the input interlocking floor 3 also includes an input spare cable bracket 77 and an input spare cable 78. The input spare cable bracket 77 is disposed on the input raised support 18 and located within the cavity of the input raised support 18. The input spare cable 78 is disposed on the input spare cable bracket 77. The input floor 21 is provided with an input spare cable through hole 79. One end of the input spare cable 78 passes through the input spare cable through hole 79 from the cavity of the input raised support 18 to form an input spare cable inlet 80. The other end of the input spare cable through hole 79 extends from the cavity of the input raised support 18 to the side of the input raised support 18 to form an input spare cable outlet 81. The input spare cable outlet 81 is a male connector.

[0050] like Figure 10 and Figure 11As shown, the straight-through interlocking floor 26 also includes a straight-through spare cable bracket 82 and a straight-through spare cable 83. The straight-through spare cable bracket 82 is disposed within the cavity of the straight-through raised support 27, and the straight-through spare cable 83 is disposed within the straight-through spare cable bracket 82. One end of the straight-through spare cable 83 extends from the cavity of the straight-through raised support 27 to one side of the straight-through raised support 27 to form a straight-through spare cable inlet 84, and the other end of the straight-through spare cable 83 extends from the cavity of the straight-through raised support 27 to the other side of the straight-through raised support 27 to form a straight-through spare cable outlet 85. The straight-through spare cable inlet 84 and the straight-through spare cable outlet 85 are located on opposite sides of the straight-through raised support 27. The straight-through spare cable inlet 84 is the female end, and the straight-through spare cable outlet 85 is the male end.

[0051] like Figure 12 and Figure 13 As shown, the curved interlocking floor 31 also includes a curved spare cable bracket 86 and a curved spare cable 87. The curved spare cable bracket 86 is disposed within the cavity of the curved raised support 32, and the curved spare cable 87 is disposed within the curved spare cable bracket 86. One end of the curved spare cable 87 extends from the cavity of the curved raised support 32 to one side of the curved raised support 32 to form a curved spare cable inlet 88, and the other end extends from the cavity of the curved raised support 32 to the other side of the curved raised support 32 to form a curved spare cable outlet 89. The curved spare cable inlet 88 and the curved spare cable outlet 89 are located on adjacent sides of the curved raised support 32, that is, the axis of the curved spare cable inlet 88 is perpendicular to the axis of the curved spare cable outlet 89. The curved spare cable inlet 88 is the female end, and the curved spare cable outlet 89 is the male end.

[0052] like Figure 14 and Figure 15 As shown, the output panel 4 also includes an output spare cable bracket 90 and an output spare cable 91. The output spare cable bracket 90 is disposed on the output support bracket 22 and located within the cavity of the output support bracket 22. The output spare cable 91 is disposed on the output spare cable bracket 90. The output panel 25 is provided with an output spare cable through hole 92. One end of the output spare cable 91 passes through the output spare cable through hole 92 from the cavity of the output support bracket 22 to form an output spare cable outlet 93. The other end of the output spare cable through hole 92 extends from the cavity of the output support bracket 22 to the side of the output support bracket 22 to form an output spare cable inlet 94. The output spare cable inlet 94 is a female connector.

[0053] The use of input backup cable 78, straight-through backup cable 83, bend backup cable 87 and output backup cable 91 can serve as an emergency measure in the event of a power outage. The backup power supply is connected to the liquid-cooled cabinet 2 through the input backup cable 78, straight-through backup cable 83, bend backup cable 87 and output backup cable 91 to improve the reliability of the modular interlocking floor and the data center.

[0054] Example 2

[0055] like Figure 1 As shown, computer room 1 can be equipped with one input panel floor 3, one output panel floor 4, and 38 infill panel floors 36. The input panel floor 3, output panel floor 4, and infill panel floor 36 have the same external dimensions, that is, the length, width, and height of the input panel floor 3, output panel floor 4, and infill panel floor 36 are the same. Alternatively, panel floors of different sizes can be designed according to actual needs to adapt to different factory floor areas.

[0056] One input tile floor 3, one output tile floor 4, and 38 fill tile floors are used in a 36-phase splicing configuration. For example... Figure 16 As shown, Figure 16 This is a flowchart illustrating the assembly method of the modular interlocking flooring according to Embodiment 2. The assembly method includes:

[0057] S101, the input splicing floor 3 and the output splicing floor 4 are laid in the computer room 1 according to the pipeline route.

[0058] The input panel 3 is placed in a corner of the computer room 1 (near the cold source), and the output panel 4 is laid on the floor of the computer room 1 according to the pipe routing, and is configured corresponding to the input panel 3. That is, the output liquid supply inlet 52, output liquid return outlet 54, and output cable inlet 55 of the output panel 4 are aligned with the input liquid supply outlet 43, input liquid return inlet 45, and input cable outlet 47 of the input panel 3. At the same time, the output spare cable inlet 94 of the output spare cable 91 is aligned with the input spare cable outlet 81 of the input spare cable 78.

[0059] S102, connect the cold source liquid supply interface 11 to one end of the input liquid supply pipe 5, connect the other end of the input liquid supply pipe 5 to one end of the output liquid supply pipe 8, connect the cold source liquid return interface 12 to one end of the input liquid return pipe 6, connect the other end of the input liquid return pipe 6 to one end of the output liquid return pipe 9, connect the first power supply interface 13 to one end of the input cable 7, and connect the other end of the input cable 7 to one end of the output cable 10.

[0060] After the input and output interlocking floor panels 3 and 4 are installed in computer room 1, connect the cold source liquid supply interface 11 of the cold source to the input liquid supply inlet 42 of the input liquid supply pipe 5, connect the input liquid supply outlet 43 of the input liquid supply pipe 5 to the output liquid supply inlet 52 of the output liquid supply pipe 8, connect the cold source liquid return interface 12 of the cold source to the input liquid return outlet 44 of the input liquid return pipe 6, connect the input liquid return inlet 45 of the input liquid return pipe 6 to the output liquid return outlet 54 of the output liquid return pipe 9, connect the first power supply interface 13 of the power supply to the input cable inlet 46 of the input cable 7, and connect the input cable outlet 47 of the input cable 7 to the output cable inlet 55 of the output cable 10. Simultaneously, connect the first backup power supply interface 75 to the input backup cable inlet 80 of the input backup cable 78, and connect the input backup cable outlet 81 of the input backup cable 78 to the output backup cable inlet 94 of the output backup cable 91.

[0061] S103, the input splicing floor 3 and the output splicing floor 4 are spliced ​​together to form a placement floor, and the liquid-cooled cabinet 2 is placed on the placement floor.

[0062] After the docking is completed in step S102, filler flooring 36 is laid on the floor of the computer room 1 except for the input flooring 3 and the output flooring 4, so that the input flooring 21 of the input flooring 3, the output flooring 25 of the output flooring 4 and the filler flooring 38 of the filler flooring 36 together form a complete placement floor. Then, the liquid-cooled cabinet 2 is placed on the placement floor.

[0063] S104, connect the other end of the output liquid supply pipe 8 to the cabinet liquid supply interface 14, connect the other end of the output liquid return pipe 9 to the cabinet liquid return interface 15, and connect the other end of the output cable 10 to the second power supply interface 16.

[0064] After placing the liquid-cooled cabinet 2 on the floor, connect the output liquid supply outlet 51 of the output interlocking floor 4 to the cabinet liquid supply interface 14 of the liquid-cooled cabinet 2, connect the output return liquid inlet 53 of the output interlocking floor 4 to the cabinet return liquid interface 15 of the liquid-cooled cabinet 2, and connect the output cable outlet 56 of the output cable 10 to the second power supply interface 16 of the liquid-cooled cabinet 2. Simultaneously, connect the output spare cable outlet 93 of the output spare cable 91 to the second spare power supply interface.

[0065] In this embodiment, the input liquid supply pipe 5 is connected to the output liquid supply pipe 8, the input return pipe 6 is connected to the output return pipe 9, and the input cable 7 is connected to the output cable 10, thus realizing the splicing of the input modular floor 3 and the output modular floor 4. This allows for the expansion of the liquid-cooled cabinet 2 and enables power and water supply to the liquid-cooled cabinet 2 without modifying the original machine room. The modular modular floor of this application is simple to construct, lowers the threshold and cost of building a liquid-cooled machine room, shortens the delivery time, and improves construction efficiency.

[0066] Example 3

[0067] like Figure 3 As shown, computer room 1 can be equipped with one input panel floor 3, three intermediate panel floors 17, one output panel floor 4, and 35 filler panel floors 36. The three intermediate panel floors 17 are respectively straight-through panel floor A1, straight-through panel floor A2, and straight-through panel floor A3. The input panel floor 3, intermediate panel floors 17, output panel floors 4, and filler panel floors 36 have the same external dimensions, that is, the length, width, and height of the input panel floor 3, intermediate panel floors 17, output panel floors 4, and filler panel floors 36 are the same, or different sizes of panel floors can be designed according to actual needs to adapt to different factory floor areas.

[0068] One input interlocking floor panel 3, three intermediate interlocking floor panels 17 (using a straight-through interlocking floor panel 26), one output floor panel 25, and 35 filler interlocking floor panels 36 are interlocked together. For example... Figure 17 As shown, Figure 17 This is a flowchart illustrating the assembly method of the modular interlocking flooring according to Example 3. The assembly method includes:

[0069] S201, the input splicing floor 3 and the straight-through splicing floor A1 are laid in the computer room 1 according to the pipeline route, and the input splicing floor 3 is connected to the straight-through splicing floor A1.

[0070] The input panel floor 3 is placed in a corner of the computer room 1 (near the cold source), and the straight-through panel floor A1 is laid on the floor of the computer room 1 according to the pipe routing, and is configured corresponding to the input panel floor 3. That is, the straight-through liquid supply inlet 57, straight-through liquid return outlet 60, and straight-through cable inlet 61 of the straight-through panel floor A1 are aligned with the input liquid supply outlet 43, input liquid return inlet 45, and input cable outlet 47 of the input panel floor 3. At the same time, the straight-through spare cable inlet 84 of the straight-through panel floor A1 is aligned with the input spare cable outlet 81 of the input spare cable 78.

[0071] Connect the cold source supply interface 11 of the cold source to the direct supply inlet 57 of the straight-through interlocking floor A1; connect the cold source return interface 12 of the cold source to the direct return outlet 60 of the straight-through interlocking floor A1; and connect the first power supply interface 13 of the power supply to the direct cable inlet 61 of the straight-through interlocking floor A1. Simultaneously, connect the first backup power supply interface 75 to the input backup cable inlet 80 of the straight-through interlocking floor A1.

[0072] S202, Lay the straight-through interlocking floor A2 in the computer room 1 according to the pipeline route, and connect the straight-through interlocking floor A1 with the straight-through interlocking floor A2;

[0073] The straight-through interlocking floor panel A2 is laid on the floor of computer room 1 according to the pipeline route, and is configured correspondingly to the straight-through interlocking floor panel A1. That is, the straight-through liquid supply inlet 57, straight-through liquid return outlet 60, and straight-through cable inlet 61 of the straight-through interlocking floor panel A2 are aligned with the straight-through liquid supply outlet 58, straight-through liquid return inlet 59, and straight-through cable outlet 62 of the straight-through interlocking floor panel A1. At the same time, the straight-through spare cable inlet 84 of the straight-through interlocking floor panel A2 is aligned with the straight-through spare cable outlet 85 of the straight-through interlocking floor panel A1.

[0074] Connect the straight-through liquid supply outlet 58 of the straight-through interlocking floor A1 to the straight-through liquid supply inlet 57 of the straight-through interlocking floor A2; connect the straight-through liquid return inlet 59 of the straight-through interlocking floor A1 to the straight-through liquid return outlet 60 of the straight-through interlocking floor A2; and connect the straight-through cable outlet 62 of the straight-through interlocking floor A1 to the straight-through cable inlet 61 of the straight-through interlocking floor A2. Simultaneously, connect the straight-through spare cable outlet 85 of the straight-through interlocking floor A1 to the straight-through spare cable inlet 84 of the straight-through interlocking floor A2.

[0075] S203, Lay the straight-through interlocking floor A3 in the computer room 1 according to the pipeline route, and connect the straight-through interlocking floor A2 with the straight-through interlocking floor A3;

[0076] The straight-through interlocking floor panel A3 is laid on the floor of computer room 1 according to the pipeline route, and is configured correspondingly to the straight-through interlocking floor panel A2. That is, the straight-through liquid supply inlet 57, straight-through liquid return outlet 60, and straight-through cable inlet 61 of the straight-through interlocking floor panel A3 are aligned with the straight-through liquid supply outlet 58, straight-through liquid return inlet 59, and straight-through cable outlet 62 of the straight-through interlocking floor panel A2. At the same time, the straight-through spare cable inlet 84 of the straight-through interlocking floor panel A3 is aligned with the straight-through spare cable outlet 85 of the straight-through interlocking floor panel A2.

[0077] Connect the straight-through liquid supply outlet 58 of the straight-through interlocking floor A2 to the straight-through liquid supply inlet 57 of the straight-through interlocking floor A3; connect the straight-through liquid return inlet 59 of the straight-through interlocking floor A2 to the straight-through liquid return outlet 60 of the straight-through interlocking floor A3; and connect the straight-through cable outlet 62 of the straight-through interlocking floor A2 to the straight-through cable inlet 61 of the straight-through interlocking floor A3. Simultaneously, connect the straight-through spare cable outlet 85 of the straight-through interlocking floor A2 to the straight-through spare cable inlet 84 of the straight-through interlocking floor A3.

[0078] S204, Lay the output splicing floor 4 in the computer room 1 according to the pipeline route, and connect the straight-through splicing floor A3 to the output splicing floor 4;

[0079] The output panel floor 4 is laid on the floor of the computer room 1 according to the pipeline route, and is configured to correspond to the straight-through panel floor A3. That is, the output liquid supply inlet 52, output liquid return outlet 54, and output cable inlet 55 of the output panel floor 4 are aligned with the straight-through liquid supply outlet 58, straight-through liquid return inlet 59, and straight-through cable outlet 62 of the straight-through panel floor A3. At the same time, the output spare cable inlet 94 of the output panel floor 4 is aligned with the straight-through spare cable outlet 85 of the straight-through panel floor A3.

[0080] Connect the straight-through liquid supply outlet 58 of the straight-through interlocking floor A3 to the output liquid supply inlet 52 of the output interlocking floor 4; connect the straight-through liquid return inlet 59 of the straight-through interlocking floor A3 to the output liquid return outlet 54 of the output interlocking floor 4; and connect the straight-through cable outlet 62 of the straight-through interlocking floor A3 to the straight-through cable outlet 62 of the output interlocking floor 4. Simultaneously, connect the output spare cable inlet 94 of the output interlocking floor 4 to the straight-through spare cable outlet 85 of the straight-through interlocking floor A3.

[0081] S205, Lay infilled interlocking flooring 36 on the floor of computer room 1, excluding input interlocking flooring 3, straight-through interlocking flooring 26 and output interlocking flooring 4.

[0082] After the docking is completed in step S204, filler flooring 36 is laid on the floor of computer room 1 except for input splicing floor 3, straight-through splicing floor 26 and output splicing floor 4, so that the input floor 21 of input splicing floor 3, the straight-through floor 30 of straight-through splicing floor 26, the output floor 25 of output splicing floor 4 and the filler floor 38 of filler flooring 36 together form a complete placement floor.

[0083] S206, the input splicing floor 3, the straight-through splicing floor 26, the output splicing floor 4, and the filling splicing floor 36 are spliced ​​together to form a placement floor, and the liquid-cooled cabinet 2 is placed on the placement floor.

[0084] The input floor 21 of the input splicing floor 3, the through floor 30 of the through splicing floor 26, the output floor 25 of the output splicing floor 4, and the filling floor 38 of the filling splicing floor 36 together form a complete placement floor, and then the liquid-cooled cabinet 2 is placed on the placement floor.

[0085] S207, connect the output splicing floor 4 to the liquid cooling cabinet 2.

[0086] After placing the liquid-cooled cabinet 2 on the placement floor, connect the output liquid supply outlet 51 of the output splicing floor 4 to the cabinet liquid supply interface 14 of the liquid-cooled cabinet 2, connect the output return liquid inlet 53 of the output splicing floor 4 to the cabinet return liquid interface 15 of the liquid-cooled cabinet 2, and connect the output cable outlet 56 of the output cable 10 to the second power supply interface 16 of the liquid-cooled cabinet 2.

[0087] In this embodiment, the input liquid supply pipe 5 is connected to the straight-through liquid supply pipe 69, the straight-through liquid supply pipe 69 is connected to the straight-through liquid supply pipe 69, the straight-through liquid supply pipe 69 is connected to the output liquid supply pipe 8, the input return liquid pipe 6 is connected to the straight-through return liquid pipe 70, the straight-through return liquid pipe 70 is connected to the straight-through return liquid pipe 70, the straight-through return liquid pipe 70 is connected to the output return liquid pipe 9, the input cable 7 is connected to the straight-through cable 71, the straight-through cable 71 is connected to the straight-through cable 71, and the straight-through cable 71 is connected to the output cable 10. This realizes the splicing of the input interlocking floor 3, the straight-through interlocking floor 26, and the output interlocking floor 4. The expansion of the liquid-cooled cabinet 2 can be achieved without modifying the original machine room, and the liquid-cooled cabinet 2 can be powered and supplied with water. The modular interlocking floor of this application is simple to construct, lowers the threshold and cost of building a liquid-cooled machine room, shortens the delivery time, and improves construction efficiency. In addition, the installation of the intermediate splicing floor 17 improves the expandability of the modular splicing floor and its adaptability to the computer room 1.

[0088] Example 4

[0089] like Figure 4 As shown, computer room 1 can be equipped with one input panel floor 3, seven straight-through panel floors 26, one curved panel floor 31, one output panel floor 4, and 30 infill panel floors 36. The seven straight-through panel floors 26 are designated as straight-through panel floor B1, B2, B3, B4, B5, B6, and B7. The input panel floor 3, intermediate panel floors 17, output panel floors 4, and infill panel floors 36 have the same dimensions; that is, their length, width, and height are the same. Alternatively, panel floors of different sizes can be designed to suit different factory floor areas.

[0090] One input interlocking floor panel (3), seven straight-through interlocking floor panels (26), one corner interlocking floor panel (31), one output floor panel (25), and thirty filler interlocking floor panels (36) are interlocked together. For example... Figure 18 As shown, Figure 18 This is a flowchart illustrating the assembly method of the modular interlocking flooring according to Example 4. The assembly method includes:

[0091] S301, the input splicing floor 3 and the straight-through splicing floor B1 are laid in the computer room 1 according to the pipeline route, and the input splicing floor 3 is connected to the straight-through splicing floor B1.

[0092] The input panel floor 3 is placed in a corner of the computer room 1 (near the cold source), and the straight-through panel floor B1 is laid on the floor of the computer room 1 according to the pipe routing, and is configured corresponding to the input panel floor 3. That is, the straight-through liquid supply inlet 57, straight-through liquid return outlet 60, and straight-through cable inlet 61 of the straight-through panel floor B1 are aligned with the input liquid supply outlet 43, input liquid return inlet 45, and input cable outlet 47 of the input panel floor 3. At the same time, the straight-through spare cable inlet 84 of the straight-through panel floor B1 is aligned with the input spare cable outlet 81 of the input spare cable 78.

[0093] Connect the cold source supply interface 11 of the cold source to the direct supply inlet 57 of the straight-through interlocking floor B1, connect the cold source return interface 12 of the cold source to the direct return outlet 60 of the straight-through interlocking floor B1, and connect the first power supply interface 13 of the power supply to the direct cable inlet 61 of the straight-through interlocking floor B1. Simultaneously, connect the first backup power supply interface 75 to the input backup cable inlet 80 of the straight-through interlocking floor B1.

[0094] S302, Lay the straight-through interlocking floor B2 in the computer room 1 according to the pipeline route, and connect the straight-through interlocking floor B1 with the straight-through interlocking floor B2;

[0095] The straight-through interlocking floor panel B2 is laid on the floor of computer room 1 according to the pipeline route, and is configured correspondingly to the straight-through interlocking floor panel B1. That is, the straight-through liquid supply inlet 57, straight-through liquid return outlet 60, and straight-through cable inlet 61 of the straight-through interlocking floor panel B2 are aligned with the straight-through liquid supply outlet 58, straight-through liquid return inlet 59, and straight-through cable outlet 62 of the straight-through interlocking floor panel B1. At the same time, the straight-through spare cable inlet 84 of the straight-through interlocking floor panel B2 is aligned with the straight-through spare cable outlet 85 of the straight-through interlocking floor panel B1.

[0096] Connect the straight-through liquid supply outlet 58 of the straight-through interlocking floor panel B1 to the straight-through liquid supply inlet 57 of the straight-through interlocking floor panel B2; connect the straight-through liquid return inlet 59 of the straight-through interlocking floor panel B1 to the straight-through liquid return outlet 60 of the straight-through interlocking floor panel B2; and connect the straight-through cable outlet 62 of the straight-through interlocking floor panel B1 to the straight-through cable inlet 61 of the straight-through interlocking floor panel B2. Simultaneously, connect the straight-through spare cable inlet 84 of the straight-through interlocking floor panel B1 to the straight-through spare cable outlet 85 of the straight-through interlocking floor panel B2.

[0097] S303, the curved interlocking floor 31 is laid in the computer room 1 according to the pipeline route, and the straight interlocking floor B2 is connected to the curved interlocking floor 31;

[0098] The curved interlocking floor 31 is laid on the floor of the machine room 1 according to the pipeline route, and is configured to correspond to the straight-through interlocking floor B2. That is, the curved liquid supply inlet 63, curved liquid return outlet 66, and curved cable inlet 67 of the curved interlocking floor 31 are aligned with the straight-through liquid supply outlet 58, straight-through liquid return inlet 59, and straight-through cable outlet 62 of the straight-through interlocking floor B2. At the same time, the curved spare cable inlet 88 of the curved interlocking floor 31 is aligned with the straight-through spare cable outlet 85 of the straight-through interlocking floor B2.

[0099] Connect the straight-through liquid supply outlet 58 of the straight-through interlocking floor B2 to the turning liquid supply inlet 63 of the turning interlocking floor 31; connect the straight-through liquid return inlet 59 of the straight-through interlocking floor B2 to the turning liquid return outlet 66 of the turning interlocking floor 31; and connect the straight-through cable outlet 62 of the straight-through interlocking floor B2 to the turning cable inlet 67 of the turning interlocking floor 31. Simultaneously, connect the straight-through spare cable outlet 85 of the straight-through interlocking floor B2 to the turning spare cable inlet 88 of the turning interlocking floor 31.

[0100] S304, Lay the straight-through interlocking floor B3 in the computer room 1 according to the pipeline route, and connect the curved interlocking floor 31 to the straight-through interlocking floor B3;

[0101] The straight-through interlocking floor panel B3 is laid on the floor of the computer room 1 according to the pipeline route, and is configured to correspond to the bend-type interlocking floor panel 31. That is, the straight-through liquid supply inlet 57, straight-through liquid return outlet 60, and straight-through cable inlet 61 of the straight-through interlocking floor panel B3 are aligned with the bend liquid supply outlet 64, bend liquid return inlet 65, and bend cable outlet 68 of the bend-type interlocking floor panel 31. At the same time, the straight-through spare cable inlet 84 of the straight-through interlocking floor panel B3 is aligned with the bend spare cable outlet 89 of the bend-type interlocking floor panel 31.

[0102] Connect the straight-through liquid supply outlet 58 of the straight-through interlocking floor B3 to the turning liquid supply inlet 63 of the turning interlocking floor 31; connect the straight-through liquid return inlet 59 of the straight-through interlocking floor B3 to the turning liquid return outlet 66 of the turning interlocking floor 31; and connect the straight-through cable outlet 62 of the straight-through interlocking floor B3 to the turning cable inlet 67 of the turning interlocking floor 31. Simultaneously, connect the turning spare cable outlet 89 of the turning interlocking floor 31 to the straight-through spare cable inlet 84 of the straight-through interlocking floor B3.

[0103] S305, following the method in step S302, lay the straight-through interlocking floor B4, straight-through interlocking floor B5, straight-through interlocking floor B6 and straight-through interlocking floor B7 in the computer room 1 and connect them.

[0104] The specific splicing method is the same as step S302, and will not be repeated here.

[0105] S306, Lay the output splicing floor 4 in the computer room 1 according to the pipeline route, and connect the straight-through splicing floor B7 to the output splicing floor 4;

[0106] The output panel floor 4 is laid on the floor of the computer room 1 according to the pipeline route, and is configured to correspond to the straight-through panel floor B7. That is, the output liquid supply inlet 52, output liquid return outlet 54, and output cable inlet 55 of the output panel floor 4 are aligned with the straight-through liquid supply outlet 58, straight-through liquid return inlet 59, and straight-through cable outlet 62 of the straight-through panel floor B7. At the same time, the output spare cable inlet 94 of the output panel floor 4 is aligned with the straight-through spare cable outlet 85 of the straight-through panel floor B7.

[0107] Connect the straight-through liquid supply outlet 58 of the straight-through interlocking floor B7 to the output liquid supply inlet 52 of the output interlocking floor 4; connect the straight-through liquid return inlet 59 of the straight-through interlocking floor B7 to the output liquid return outlet 54 of the output interlocking floor 4; connect the straight-through cable outlet 62 of the straight-through interlocking floor B7 to the straight-through cable outlet 62 of the output interlocking floor 4. Simultaneously, connect the straight-through spare cable outlet 85 of the straight-through interlocking floor B7 to the output spare cable inlet 94 of the output interlocking floor 4.

[0108] S307, Lay infilled splicing floor 36 on the floor of computer room 1, excluding input splicing floor 3, straight-through splicing floor 26, corner splicing floor 31 and output splicing floor 4.

[0109] After the docking is completed in step S306, filler flooring 36 is laid on the floor of computer room 1 except for input flooring 3, straight-through flooring 26, corner flooring 31 and output flooring 4, so that the input flooring 21 of input flooring 3, the straight-through flooring 30 of straight-through flooring 26, the corner flooring 35 of corner flooring 31, the output flooring 25 of output flooring 4 and the filler flooring 38 of filler flooring 36 together form a complete placement floor.

[0110] S308, the input splicing floor 3, the straight-through splicing floor 26, the corner splicing floor 31, the output splicing floor 4, and the filling splicing floor 36 are spliced ​​together to form a placement floor, and the liquid-cooled cabinet 2 is placed on the placement floor.

[0111] The input floor 21 of the input splicing floor 3, the straight floor 30 of the straight-through splicing floor 26, the turning floor 35 of the turning splicing floor 31, the output floor 25 of the output splicing floor 4, and the filling floor 38 of the filling splicing floor 36 together form a complete placement floor, and then the liquid-cooled cabinet 2 is placed on the placement floor.

[0112] S309 connects the output interlocking floor 4 to the liquid-cooled cabinet 2.

[0113] After placing the liquid-cooled cabinet 2 on the placement floor, connect the output liquid supply outlet 51 of the output splicing floor 4 to the cabinet liquid supply interface 14 of the liquid-cooled cabinet 2, connect the output return liquid inlet 53 of the output splicing floor 4 to the cabinet return liquid interface 15 of the liquid-cooled cabinet 2, and connect the output cable outlet 56 of the output cable 10 to the second power supply interface 16 of the liquid-cooled cabinet 2.

[0114] In this embodiment, the input supply pipe 5 is connected to the straight supply pipe 69, the straight supply pipe 69 is connected to the straight supply pipe 69, the straight supply pipe 69 is connected to the bend supply pipe 72, the bend supply pipe 72 is connected to the straight supply pipe 69, the straight supply pipe 69 is connected to the output supply pipe 8, the input return pipe 6 is connected to the straight return pipe 70, the straight return pipe 70 is connected to the straight return pipe 70, the straight return pipe 70 is connected to the bend return pipe 73, the bend return pipe 73 is connected to the straight return pipe 70, and the straight return pipe 70 is connected to the straight return pipe 70. The output return pipe 9 is connected to the input cable 7, which is connected to the straight cable 71; the straight cable 71 is connected to the straight cable 71; the straight cable 71 is connected to the bend cable 74; the bend cable 74 is connected to the straight cable 71; and the straight cable 71 is connected to the output cable 10. This enables the splicing of the input modular floor 3, the straight-through modular floor 26, the bend-through modular floor 31, and the output modular floor 4. This allows for the expansion of the liquid-cooled cabinet 2 without modifying the original server room, and also enables the liquid-cooled cabinet 2 to be powered and supplied with water. The modular flooring of this application is simple to construct, lowering the threshold and cost of building a liquid-cooled server room, shortening the delivery time, and improving construction efficiency. Furthermore, the inclusion of the straight-through modular floor 26 and the bend-through modular floor 31 enhances the expandability of the modular flooring and its adaptability to server room 1.

[0115] Example 5

[0116] In one specific implementation, for the technical solutions of Embodiment 1, Embodiment 2, Embodiment 3 and Embodiment 4, several liquid-cooled cabinets 2 can be extended on the floor.

[0117] like Figure 5 As shown, a liquid-cooled expansion cabinet 95, an expansion liquid supply pipe 96, an expansion liquid return pipe 97, and expansion cables 76 are installed on the straight-through type expansion cabinet 26 or the bend type expansion cabinet 31 between the input expansion cabinet 3 and the output expansion cabinet 4. Figure 5 As shown, a three-way valve is installed on the straight-through liquid supply pipe 69 and the straight-through liquid return pipe 70 of the straight-through interlocking floor C, thereby connecting the straight-through liquid supply pipe 69 with the extended liquid supply pipe 96 and the straight-through liquid return pipe 70 with the extended liquid return pipe 97. A parallel branch is set on the straight-through cable 71 and connected to the extended cable 76, thereby realizing the expansion of the liquid cooling cabinet 2.

[0118] In one embodiment, leakage detection lines (not shown in the figure) are installed on the modular interlocking floor. Specifically, an input leakage detection line is installed on the input interlocking floor 3, an intermediate leakage detection line is installed on the intermediate interlocking floor 17, and an output leakage detection line is installed on the output interlocking floor 4. The input, intermediate, and output leakage detection lines can be connected. The leakage detection lines are wound around the supply and return pipes. When a leak occurs, causing a change in the resistance of the leakage detection line and triggering a signal, an alarm is triggered, notifying leak detection personnel to determine whether there is a leakage on site.

[0119] In one embodiment, the ends of the input cable 7, the straight cable 71, the bend cable 74 and the output cable 10 are all busbars, and the busbars are connected to each other by a quick-connect method.

[0120] In one embodiment, the input liquid supply pipe 5 is connected to the intermediate liquid supply pipe, the intermediate liquid supply pipe is connected to the output liquid supply pipe 8, the input liquid return pipe 6 is connected to the intermediate liquid return pipe, and the intermediate liquid return pipe is connected to the output liquid return pipe 9 by a quick-connect structure or by a flange. Preferably, the quick-connect structure is used to improve assembly efficiency.

[0121] The above provides a detailed description of a modular interlocking floor and its assembly method. Specific examples have been used to illustrate the principles and implementation methods of this application. The descriptions of the embodiments above are merely for the purpose of helping to understand the method and core ideas of this application. It should be noted that those skilled in the art can make various improvements and modifications to this application without departing from its principles, and these improvements and modifications also fall within the protection scope of this application.

Claims

1. A modular interlocking floor for extending liquid-cooled cabinets (2) on the floor of a computer room (1) to establish a working fluid circuit between the liquid-cooled cabinets (2) and a cold source, and to establish a circuit between the liquid-cooled cabinets (2) and a power supply, characterized in that, include: The system includes an input panel (3) and an output panel (4). The input panel (3) has an input liquid supply pipe (5), an input liquid return pipe (6), and an input cable (7). The output panel (4) has an output liquid supply pipe (8), an output liquid return pipe (9), and an output cable (10). The cold source has a cold source liquid supply interface (11) and a cold source liquid return interface (12). The power supply has a first power supply interface (13). The liquid-cooled cabinet (2) has a cabinet liquid supply interface (14), a cabinet liquid return interface (15), and a second power supply interface (16). The cold source liquid supply interface (11) and the input liquid supply pipe (5) are also included. The output liquid supply pipe (8) and the cabinet liquid supply interface (14) are connected in sequence; the cold source return liquid interface (12), the input return liquid pipe (6), the output return liquid pipe (9), and the cabinet return liquid interface (15) are connected in sequence; the first power supply interface (13), the input cable (7), the output cable (10), and the second power supply interface (16) are connected in sequence; the modular splicing floor also includes an intermediate splicing floor (17), the intermediate splicing floor (17) has an intermediate liquid supply pipe, an intermediate return liquid pipe, and an intermediate cable, the intermediate liquid supply pipe is connected to the input liquid supply pipe (5) and the output liquid supply pipe (9). Between 8), the intermediate return pipe is connected between the input return pipe (6) and the output return pipe (9), and the intermediate cable is connected between the input cable (7) and the output cable (10); the input splicing floor (3) includes an input raised bracket (18), an input support frame (19), an input cable bracket (20), and an input floor (21). The input floor (21) is located at the top of the input raised bracket (18), and the input support frame (19) and the input cable bracket (20) are both located on the input raised bracket (18) and within the cavity of the input raised bracket (18). The input supply pipe (5) and the input return pipe (6) are both located on the input support frame (19), and the input cable (7) is located on the input cable bracket (20). One end of the input supply pipe (5), the input return pipe (6), and the input cable (7) all pass through the input floor (21) and are located above the input floor (21). The other end of the input supply pipe (5), the input return pipe (6), and the input cable (7) are all located on the same side of the input support frame (18). The end of the input cable (7) located on the side of the input support frame (18) is a male connector.The output splicing floor (4) includes an output support bracket (22), an output support frame (23), an output cable bracket (24), and an output floor (25). The output floor (25) is located at the top of the output support bracket (22). The output support frame (23) and the output cable bracket (24) are both located on the output support bracket (22) and within its cavity. The output supply pipe (8) and the output return pipe (9) are located on the output support frame (23). The output cable (10) is mounted on the output cable bracket (24); one end of the output supply pipe (8), the output return pipe (9), and the output cable (10) all pass through the output floor (25) and are located above the output floor (25), and the other end of the output supply pipe (8), the output return pipe (9), and the output cable (10) are all located on the same side of the input support bracket (18); the end of the output cable (10) located on the side of the output support bracket (22) is a female connector.

2. The modular interlocking flooring according to claim 1, characterized in that, The intermediate interlocking floor (17) includes a straight-through interlocking floor (26), which includes a straight-through raised support (27), a straight-through support frame (28), a straight-through cable bracket (29), and a straight-through floor (30). The straight-through floor (30) is located at the top of the straight-through raised support (27). The straight-through support frame (28) and the straight-through cable bracket (29) are both located on the straight-through raised support (27) and within its cavity. The intermediate liquid supply pipe is a straight-through liquid supply pipe (69). The intermediate return pipe is a straight return pipe (70), the intermediate cable is a straight cable (71), the straight supply pipe (69) and the straight return pipe (70) are both set on the straight support frame (28), and the straight cable (71) is set on the straight cable bracket (29); the two ends of the straight supply pipe (69), the straight return pipe (70) and the straight cable (71) are located on opposite sides of the straight support frame (27); one end of the straight cable (71) is a female connector and the other end of the straight cable (71) is a male connector.

3. The modular interlocking flooring according to claim 1, characterized in that, The intermediate interlocking floor (17) includes a curved interlocking floor (31), which includes a curved raised support (32), a curved support frame (33), a curved cable bracket (34), and a curved floor (35). The curved floor (35) is located at the top of the curved raised support (32). The curved support frame (33) and the curved cable bracket (34) are both located on the curved raised support (32) and within its cavity. The intermediate liquid supply pipe is a curved liquid supply pipe (72). The intermediate return pipe is a bend return pipe (73), the intermediate cable is a bend cable (74), the bend supply pipe (72) and the bend return pipe (73) are both set on the bend support frame (33), and the bend cable (74) is set on the bend cable bracket (34); the two ends of the bend supply pipe (72), the bend return pipe (73) and the bend cable (74) are located on the adjacent sides of the bend support frame (32); one end of the bend cable (74) is a female connector and the other end of the bend cable (74) is a male connector.

4. The modular interlocking flooring according to any one of claims 1-3, characterized in that, The modular interlocking floor also includes a filling interlocking floor (36), which includes a filling raised support (37) and a filling floor (38), with the filling floor (38) disposed at the top of the filling raised support (37).

5. The modular interlocking flooring according to claim 1, characterized in that, Two adjacent intermediate splicing floor panels (17) are connected, with the intermediate liquid supply line of one intermediate splicing floor panel (17) connected to the intermediate liquid supply line of the other intermediate splicing floor panel (17), the intermediate liquid return line of one intermediate splicing floor panel (17) connected to the intermediate liquid return line of the other intermediate splicing floor panel (17), and the intermediate cable of one intermediate splicing floor panel (17) connected to the intermediate cable of the other intermediate splicing floor panel (17).

6. The modular interlocking flooring according to claim 1, characterized in that, The input floor (21) is provided with an input liquid supply through hole (39), an input liquid return through hole (40), and an input cable through hole (41); one end of the input liquid supply pipe (5) extends through the input liquid supply through hole (39) to the top of the input floor (21) to form an input liquid supply inlet (42), and the other end of the input liquid supply pipe (5) is located on one side of the input support bracket (18) to form an input liquid supply outlet (43); one end of the input liquid return pipe (6) extends through the input liquid return through hole (40) to the input cable through hole (41). An input return outlet (44) is formed above the floor (21), and the other end of the input return pipe (6) is located on one side of the input support bracket (18) to form an input return inlet (45); one end of the input cable (7) extends through the input cable through hole (41) to the top of the input floor (21) to form an input cable inlet (46), and the other end of the input cable (7) is located on one side of the input support bracket (18) to form an input cable outlet (47); the input cable outlet (47) is a male connector; The output floor (25) is provided with an output liquid supply through hole (48), an output liquid return through hole (49), and an output cable through hole (50); one end of the output liquid supply pipe (8) extends through the output liquid supply through hole (48) to the top of the output floor (25) to form an output liquid supply outlet (51), and the other end of the output liquid supply pipe (8) is located on one side of the output support bracket (22) to form an output liquid supply inlet (52); one end of the output liquid return pipe (9) extends through the output liquid return through hole (49) to the output floor. An output return liquid inlet (53) is formed above the plate (25), and the other end of the output return liquid pipe (9) is located on one side of the output bracket (22) to form an output return liquid outlet (54); one end of the output cable (10) extends through the output cable through hole (50) to the top of the output floor (25) to form an output cable inlet (55), and the other end of the output cable (10) is located on one side of the output bracket (22) to form an output cable outlet (56); the output cable inlet (55) is a female connector; The cold source liquid supply interface (11) is connected to the input liquid supply inlet (42), the input liquid supply outlet (43) is connected to one end of the intermediate liquid supply pipe, the other end of the intermediate liquid supply pipe is connected to the output liquid supply inlet (52), and the output liquid supply outlet (51) is connected to the cabinet liquid supply interface (14); the cold source liquid return interface (12) is connected to the input liquid return outlet (44), the input liquid return inlet (45) is connected to one end of the intermediate liquid return pipe, the other end of the intermediate liquid return pipe is connected to the output liquid return outlet (54), and the output liquid return inlet (53) is connected to the cabinet liquid return interface (15); the first power supply interface (13) is connected to the input cable inlet (46), the input cable outlet (47) is connected to one end of the intermediate cable, the other end of the intermediate cable is connected to the output cable inlet (55), and the output cable outlet (56) is connected to the second power supply interface (16).

7. An assembly method using modular interlocking flooring as described in any one of claims 1-6, characterized in that: The input splicing floor (3) and the output splicing floor (4) are laid in the computer room (1) according to the pipeline route; Connect the cold source liquid supply interface (11) to one end of the input liquid supply pipe (5), connect the other end of the input liquid supply pipe (5) to one end of the output liquid supply pipe (8), connect the cold source liquid return interface (12) to one end of the input liquid return pipe (6), connect the other end of the input liquid return pipe (6) to one end of the output liquid return pipe (9), connect the first power supply interface (13) to one end of the input cable (7), and connect the other end of the input cable (7) to one end of the output cable (10); The input splicing floor (3) and the output splicing floor (4) are spliced ​​together to form a placement floor, and the liquid-cooled cabinet (2) is placed on the placement floor; Connect the other end of the output liquid supply pipe (8) to the cabinet liquid supply interface (14), connect the other end of the output liquid return pipe (9) to the cabinet liquid return interface (15), and connect the other end of the output cable (10) to the second power supply interface (16).

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