A double-layer intelligent computing power prefabricated cabin with a wind-resistant structure

Abstract

The present invention relates to the technical field of heat dissipation cabins. Specifically, it relates to a double-layer intelligent computing power prefabricated cabin with a wind resistance structure, which includes a basic cabin body. A ventilation base for elevating the basic cabin body is arranged at the bottom end of the basic cabin body. The ventilation base is communicated with the bottom end of the basic cabin body. An installation mechanism capable of double-layer installing hardware devices is arranged inside the basic cabin body. An air inlet mechanism for providing air flow and wind power to the bottom end of the basic cabin body is arranged on the ventilation base. A heat dissipation air outlet assembly used in cooperation with the air inlet mechanism is arranged at the end of the basic cabin body. A wind resistance mechanism for stabilizing the cabin body is arranged on the outer wall and the top end of the basic cabin body. Through the combined action of the basic cabin body, the installation mechanism, the air inlet mechanism and the heat dissipation air outlet assembly, the present invention can double-layer install hardware devices inside the cabin body while ensuring ventilation and heat dissipation inside the cabin body, preventing heat accumulation, and thus protecting the use of hardware devices.

Description

Technical Field

[0001] The present invention relates to the technical field of heat dissipation cabins, and particularly to a double-layer intelligent computing power prefabricated cabin with a wind-resistant structure. Background Art

[0002] Modern intelligent computing and AI computing are both carried out on the basis of a large number of devices capable of performing basic computing, which requires the use of a large number of hardware devices such as servers, computing devices, and storage systems, etc.

[0003] Modern projects for the construction of intelligent computing power centers will use a large number of high-value and vulnerable hardware devices, and these devices cannot be simply placed. A large number of prefabricated cabins are required. This type of prefabricated cabin for computing power devices has the advantages of safety, flexibility, waterproofing, and anti-corrosion, and helps to place various intelligent computing power hardware devices.

[0004] The main function of the prefabricated cabin is still to place and dissipate heat. Generally, a heat dissipation system will be set inside the prefabricated cabin to help the hardware devices dissipate heat.

[0005] The prefabricated cabins for intelligent computing power devices are widely used, but there are some deficiencies in their actual use: 1. Most of the existing prefabricated cabins are single-layer for placing hardware devices, so that some hardware devices that need to be used in combination still need to be connected between the prefabricated cabins and then externally connected, and it is impossible to achieve connection within the same space. If multiple layers are set and too many hardware devices are set in the same prefabricated cabin, the heat generated by the hardware devices is likely to accumulate, thereby increasing the internal temperature of the prefabricated cabin, and it is easy to cause damage to the hardware devices, restricting the setting of multiple hardware devices in the same space;

[0006] 2. When the existing prefabricated cabins are in use, in order to better dissipate heat and ventilate, they often need to be placed outdoors, and most prefabricated cabins do not have a wind-resistant structure, so that the prefabricated cabins are prone to displacement and shell detachment, which is not conducive to the safety of the internal hardware devices. Summary of the Invention

[0007] The purpose of the present invention is to provide a double-layer intelligent computing power prefabricated cabin with a wind-resistant structure to solve the problems that most of the existing prefabricated cabins are single-layer for placing hardware devices, so that some hardware devices that need to be used in combination still need to be connected between the prefabricated cabins and then externally connected, and it is impossible to achieve connection within the same space. If multiple layers are set and too many hardware devices are set in the same prefabricated cabin, the heat generated by the hardware devices is likely to accumulate, thereby increasing the internal temperature of the prefabricated cabin, and it is easy to cause damage to the hardware devices, restricting the setting of multiple hardware devices in the same space; when in use for better heat dissipation and ventilation, it often needs to be placed outdoors, and most prefabricated cabins do not have a wind-resistant structure, so that the prefabricated cabins are prone to displacement and shell detachment, which is not conducive to the safety of the internal hardware devices, etc.

[0008] To achieve the above object, the present invention provides a double-layer intelligent computing power prefabricated cabin with a wind-resistant structure, including a basic cabin body. A ventilation base for elevating the basic cabin body is provided at the bottom end of the basic cabin body. The ventilation base is communicated with the bottom end of the basic cabin body. An installation mechanism capable of double-layer arranging hardware devices is provided inside the basic cabin body. An air inlet mechanism for providing air flow and wind force to the bottom end of the basic cabin body is provided on the ventilation base. A heat dissipation air outlet assembly used in cooperation with the air inlet mechanism is provided at the end of the basic cabin body. A wind-resistant mechanism for stabilizing the cabin body is provided on the outer wall and top end of the basic cabin body. Among them, the installation mechanism includes an installation bracket, installation laminates, a wire threading board, and a wire management assembly. The installation bracket is provided inside the basic cabin body. Two installation laminates are in a group and are respectively slidably installed at the bottom and the center of the installation bracket through tracks. The wire threading board is provided on the frame of the installation bracket, and the wire threading board is located on one side of the installation laminate. The wire management assembly is provided on the frame of the installation bracket on the side away from the wire threading board. The wire management assembly includes a substrate, a wire fixing frame, and an extrusion structure. The substrate is horizontally arranged on the frame of the installation bracket on the side away from the wire threading board. The wire fixing frame is vertically arranged on the frame of the installation bracket on the side away from the wire threading board, and the wire fixing frame is located directly above the substrate. The extrusion structure is provided at the connection between the wire fixing frame and the installation bracket, and the extrusion structure acts on the wire fixing frame to make the wire fixing frame maintain a tendency to slide towards the substrate.

[0009] As a further improvement of this technical solution, the extrusion structure includes a guiding shaft and an extrusion spring. A vertical groove is formed on the frame of the installation bracket. The guiding shaft part of the extrusion structure is vertically arranged in the groove of the frame of the installation bracket, and the end of the wire fixing frame is slidably installed on the guiding shaft. The extrusion spring is arranged around the guiding shaft, and the end of the extrusion spring acts on the wire fixing frame to enable the wire fixing frame to slide vertically along the guiding shaft, so that the wire fixing frame maintains a tendency to slide towards the substrate below.

[0010] As a further improvement of this technical solution, the air inlet mechanism includes an intake fan, a flow guiding component, and an intake fan group. The inner side of the ventilation base includes two layers, upper and lower. The intake fan is provided on one side of the ventilation base, and the air inlet of the intake fan is communicated with the upper layer inside the ventilation base. The flow guiding component is arranged in the upper layer space inside the ventilation base. The flow guiding component is located directly in front of the air inlet of the intake fan and directly below the installation mechanism. The intake fan group is horizontally arranged in the lower layer space of the ventilation base, and the air outlet of the intake fan group faces vertically upward.

[0011] As a further improvement of the technical solution, the diversion component includes a mounting horizontal axis and an arc-shaped diversion plate. A group of multiple mounting horizontal axes are arranged in parallel in the upper space of the ventilation base. A group of multiple arc-shaped diversion plates are evenly distributed on multiple mounting horizontal axes, and the concave sides of the arc-shaped diversion plates are all facing the air inlet of the air inlet fan. The arc-shaped diversion plates are distributed below the placement layer board.

[0012] As a further improvement of the technical solution, the heat dissipation air outlet component includes an air outlet fan group and heat dissipation side fans. The air outlet fan group is arranged at the inner top end of the basic cabin, and the air outlet fan group and the air inlet fan group are located at the upper and lower ends of the basic cabin respectively. The heat dissipation side fans are arranged on both sides of the end of the basic cabin, and the heat dissipation side fans are located above the air outlet fan group. Through the heat dissipation side fans, the hot air led upward by the air outlet fan group can be blown out from both sides to dissipate the heat.

[0013] As a further improvement of the technical solution, the air inlet fan group is located directly below the basic cabin, the air outlet fan group is located directly above the basic cabin. Both the air inlet fan group and the air outlet fan group include multiple evenly distributed fans, and the fans all blow upward.

[0014] As a further improvement of the technical solution, the wind resistance mechanism includes a mounting frame, a wind resistance side wall and a wind resistance top component. The mounting frame is arranged outside the side wall of the basic cabin. The wind resistance side wall is arranged outside the mounting frame. The wind resistance side wall is a wall plate with corrugated outer walls. The wind resistance top component is arranged at the end of the basic cabin.

[0015] As a further improvement of the technical solution, the wind resistance top component includes a corrugated top, a mounting cross frame and a flow disturbing convex plate. The corrugated top is arranged at the end of the basic cabin. The corrugated top is a convex plate with a high middle and low sides. A group of multiple mounting cross frames are horizontally laid on the corrugated top. A group of multiple flow disturbing convex plates are arranged on the mounting cross frames through screws.

[0016] Compared with the prior art, the present invention provides a double-layer intelligent computing power prefabricated cabin with a wind resistance structure, having the following beneficial effects:

[0017] 1. Through the combined action of the basic cabin, the placement mechanism, the air inlet mechanism and the heat dissipation air outlet component, the present invention can ensure the ventilation and heat dissipation inside the cabin while arranging hardware devices in a double layer inside the cabin, prevent heat accumulation, and thus protect the use of hardware devices.

[0018] 2. Through the action of the wind resistance mechanism outside the basic cabin, the present invention can interfere with the wind flow above and on the side of the cabin. When the wind blows on the side and above the basic cabin, it plays the role of wind resistance and flow disturbance, reduces the direct blowing of the wind on the basic cabin, and better protects the cabin and the internal hardware devices. Description of the Drawings

[0019] Figure 1 is the overall structural schematic diagram of the present invention;

[0020] Figure 2 is the specific internal structural schematic diagram of the basic cabin body of the present invention;

[0021] Figure 3 is the split structural schematic diagram of the basic cabin body of the present invention;

[0022] Figure 4 is the structural distribution diagram of the air inlet mechanism and the heat dissipation and air outlet assembly in the present invention;

[0023] Figure 5 is the structural schematic diagram of the wind resistance mechanism in the present invention;

[0024] Figure 6 is the internal structural schematic diagram of the ventilation base in the present invention;

[0025] Figure 7 is the structural schematic diagram of the placement mechanism in the present invention;

[0026] Figure 8 is Figure 7 the enlarged view of the structure at position A in

[0027] In the figure: 1. Basic cabin body; 2. Ventilation base; 3. Heat dissipation and air outlet assembly; 301. Exhaust air fan group; 302. Heat dissipation side fan; 4. Installation bracket; 5. Placement laminate; 6. Wire threading board; 7. Wire management assembly; 701. Substrate; 702. Wire fixing frame; 703. Extrusion structure; 8. Intake air blower; 9. Flow guiding assembly; 901. Installation cross axis; 902. Arc-shaped flow guiding plate; 10. Intake air fan group; 11. Installation frame; 12. Wind resistance side wall; 13. Wind resistance top assembly; 1301. Folded top; 1302. Installation cross frame; 1303. Turbulence convex plate. Detailed implementation manners

[0028] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments.

[0029] In the description of the present invention, it should be understood that the orientation or positional relationships indicated by the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc. are based on the orientation or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present invention.

[0030] Embodiment 1

[0031] Reference Figures 1-8 Figures 1-8 , a double - layer intelligent computing power prefabricated cabin with a wind - resistant structure. In order to double - layer install hardware devices inside the cabin while ensuring ventilation and heat dissipation inside the cabin, preventing heat accumulation, and thus protecting the use of hardware devices, a ventilation base 2 for raising the basic cabin body 1 is provided at the bottom of the basic cabin body 1. The ventilation base 2 is connected to the bottom end of the basic cabin body 1. An installation mechanism capable of double - layer installing hardware devices is arranged inside the basic cabin body 1. An air inlet mechanism for providing air flow and wind power to the bottom end of the basic cabin body 1 is arranged on the ventilation base 2. A heat - dissipation air - outlet assembly 3 cooperating with the air inlet mechanism is arranged at the end of the basic cabin body 1. A wind - resistant mechanism for stabilizing the cabin body is arranged on the outer wall and the top end of the basic cabin body 1. Among them, the installation mechanism includes an installation bracket 4, installation laminates 5, a wire - passing board 6, and a wire - arranging component 7. The installation bracket 4 is arranged inside the basic cabin body 1. Two installation laminates 5 are in a group and are respectively slidably installed at the bottom and the center of the installation bracket 4 through tracks. The wire - passing board 6 is arranged on the frame of the installation bracket 4 and is located on one side of the installation laminates 5. The wire - arranging component 7 is arranged on the frame of the installation bracket 4 on the side away from the wire - passing board 6. The wire - arranging component 7 includes a substrate 701, a wire - fixing frame 702, and an extrusion structure 703. The substrate 701 is horizontally arranged on the frame of the installation bracket 4 on the side away from the wire - passing board 6. Multiple groups of installation mechanisms can be arranged in parallel inside the basic cabin body 1, and there are gaps between the installation mechanisms. The wire - fixing frame 702 is vertically arranged on the frame of the installation bracket 4 on the side away from the wire - passing board 6 and is located directly above the substrate 701. The extrusion structure 703 is arranged at the connection between the wire - fixing frame 702 and the installation bracket 4, and the extrusion structure 703 acts on the wire - fixing frame 702, making the wire - fixing frame 702 keep a tendency to slide towards the substrate 701.

[0032] The extrusion structure 703 includes a guiding shaft and an extrusion spring. A vertical groove is opened on the frame of the installation bracket 4. The guiding shaft part of the extrusion structure 703 is vertically arranged in the groove of the frame of the installation bracket 4, and the end of the wire - fixing frame 702 is slidably installed on the guiding shaft. The extrusion spring is arranged around the guiding shaft, and the end of the extrusion spring acts on the wire - fixing frame 702, enabling the wire - fixing frame 702 to slide vertically along the guiding shaft, making the wire - fixing frame 702 keep a tendency to slide downward towards the substrate 701. The wire - fixing frame 702 can be toggled to move upward, and the wire is passed through above the substrate 701. After the connection is completed, the wire - fixing frame 702 is released. Under the elastic force of the extrusion spring, the wire - fixing frame 702 squeezes the wire and arranges it on the substrate 701, forming wire arrangement for the wire.

[0033] The air intake mechanism includes an intake fan 8, a flow guiding component 9, and an intake fan group 10. The inner side of the ventilation base 2 includes two upper and lower layers. The intake fan 8 is arranged on one side of the ventilation base 2, and the air inlet of the intake fan 8 communicates with the upper layer inside the ventilation base 2. The intake fan 8 can be externally connected to the air outlet of the air conditioning mechanism to introduce cold air into the upper layer inside the ventilation base 2. The flow guiding component 9 is arranged in the upper layer space inside the ventilation base 2. The flow guiding component 9 is located directly in front of the air inlet of the intake fan 8 and directly below the placement mechanism. When the intake fan 8 introduces air flow, the flow guiding component 9 can deflect the wind upward, enabling the air flow to better pass through the placement mechanism. The intake fan group 10 is horizontally arranged in the lower layer space of the ventilation base 2, and the air outlet of the intake fan group 10 is vertically upward, capable of providing intake air upward from the bottom end of the basic cabin body 1.

[0034] The flow guiding component 9 includes a mounting cross shaft 901 and arc-shaped flow guiding plates 902. Multiple mounting cross shafts 901 are arranged in parallel as a group in the upper layer space of the ventilation base 2. Multiple arc-shaped flow guiding plates 902 are arranged as a group and evenly distributed on the multiple mounting cross shafts 901. The concave sides of the arc-shaped flow guiding plates 902 are all directly facing the air inlet of the intake fan 8. The arc-shaped flow guiding plates 902 are distributed below the placement layer plate 5, enabling the cold air blown by the intake fan 8 to be deflected upward through the arc-shaped flow guiding plates 902, guiding the air flow to pass upward through the placement layer plate 5 from the bottom end of the basic cabin body 1 at a certain angle, and being able to better carry away heat.

[0035] The heat dissipation air outlet component 3 includes an air outlet fan group 301 and heat dissipation side fans 302. The air outlet fan group 301 is arranged at the inner top end of the basic cabin body 1, and the air outlet fan group 301 and the intake fan group 10 are respectively located at the upper and lower ends of the basic cabin body 1, capable of upwardly discharging the heat inside the basic cabin body 1. The heat dissipation side fans 302 are arranged on both sides of the end of the basic cabin body 1, and the heat dissipation side fans 302 are located above the air outlet fan group 301. Through the heat dissipation side fans 302, the hot air upwardly discharged by the air outlet fan group 301 can be blown out from both sides to discharge the heat.

[0036] The intake fan group 10 is located directly below the basic cabin body 1, and the air outlet fan group 301 is located directly above the basic cabin body 1. Both the intake fan group 10 and the air outlet fan group 301 include multiple evenly distributed fans, and the fans all blow upward. The intake fan group 10 is located at the lower end of the basic cabin body 1, and the air outlet fan group 301 is located above the basic cabin body 1, enabling the intake fan group 10 to introduce air flow upward through the basic cabin body 1 and discharging the air flow through the air outlet fan group 301 above the basic cabin body 1 to carry away heat.

[0037] In this embodiment, during use, the double-layer placement laminate 5 on the mounting bracket 4 can be pulled out, and the hardware devices to be connected are respectively arranged on the double-layer placement laminate 5. The wires during the connection of the hardware devices pass through the wire threading board 6 and the wire management assembly 7. When the wires are thicker, the wire fixing frame 702 can be toggled to move upward, and the wires are passed above the substrate 701. After the connection is completed, the wire fixing frame 702 is released. Under the elastic force of the extrusion spring, the wire fixing frame 702 squeezes the wires and arranges them on the substrate 701, forming a restriction and wire management for the thicker wires, preventing the thicker wires from stacking due to their own gravity and damaging the connection points. At this time, since a large amount of heat is generated when the double-layer hardware devices work, the intake air fan 8 can be started to introduce air flow into the ventilation base 2. At the same time, the intake air fan group 10 and the exhaust air fan group 301 are started to drive the air flow to pass through the basic cabin body 1 from bottom to top. By using the diversion and splitting effects of the arc-shaped diversion plate 902, the air flow is dispersed to pass through the hardware devices in the basic cabin body 1, taking away the heat. At the same time, the heat dissipation side fans 302 blow out hot air outward on both sides at the top of the basic cabin body 1, ensuring the heat dissipation inside the basic cabin body 1. While arranging the double-layer hardware devices inside the basic cabin body 1, the ventilation and heat dissipation inside the cabin are ensured, effectively preventing heat accumulation, thereby protecting the use of the hardware devices.

[0038] Embodiment 2

[0039] As Figures 1-8 shown, this embodiment is basically the same as Embodiment 1. Preferably, in order to achieve the effect of wind resistance on the outside of the cabin and better protect the cabin and the internal hardware devices, a wind resistance mechanism is provided here, which includes a mounting frame 11, a wind resistance side wall 12 and a wind resistance top assembly 13. The mounting frame 11 is arranged outside the side wall of the basic cabin body 1, the wind resistance side wall 12 is arranged outside the mounting frame 11, and the wind resistance side wall 12 is a wall plate with folds on the outer wall. Through the folds of the wind resistance side wall 12, when the wind blows on the wind resistance side wall 12, interference occurs, forming a wind resistance effect. The wind resistance top assembly 13 is arranged at the end of the basic cabin body 1.

[0040] The wind resistance top assembly 13 includes a folded top 1301, a mounting cross frame 1302 and a flow disturbing convex plate 1303. The folded top 1301 is arranged at the end of the basic cabin body 1, and the folded top 1301 is a convex plate with a high middle and low sides. A group of multiple mounting cross frames 1302 are horizontally laid on the folded top 1301. A group of multiple flow disturbing convex plates 1303 are arranged, and are set on the mounting cross frame 1302 through screws. Through the multiple flow disturbing convex plates 1303 and the folded top 1301, the wind flow can be disturbed, forming a wind resistance effect.

[0041] In this embodiment, when the basic cabin 1 is installed outdoors and the wind blows on the surface of the basic cabin 1, since the outer surface of the wind-resistant side wall 12 is wrinkled, it can interfere with the flow of the wind when the wind blows on the surface of the wind-resistant side wall 12, forming a wind-resistant effect. At the same time, at the top of the basic cabin 1, multiple flow disturbance convex plates 1303 and the wrinkled top 1301 can also play the role of disturbing the air flow, forming an effective wind-resistant structure above and on the side of the basic cabin 1, and better protecting the basic cabin 1 and the internal hardware equipment.

[0042] The above are only the preferred specific embodiments of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, making equivalent replacements or changes should be covered within the protection scope of the present invention.

Claims

1. A double-layer intelligent computing power prefabricated cabin with a wind-resistant structure, characterized in that: The invention comprises a basic cabin (1), wherein a ventilation base (2) for raising the basic cabin (1) is arranged at the bottom end of the basic cabin (1), the ventilation base (2) is connected to the bottom end of the basic cabin (1), a placement mechanism capable of placing hardware equipment in double layers is arranged on the inner side of the basic cabin (1), an air intake mechanism for providing airflow and wind force to the bottom end of the basic cabin (1) is arranged on the ventilation base (2), a heat dissipation and air outlet assembly (3) used in conjunction with the air intake mechanism is arranged at the end of the basic cabin (1), and a wind resistance mechanism for stabilizing the cabin is arranged on the outer wall and the top end of the basic cabin (1); The placement mechanism comprises a mounting bracket (4), a placement layer plate (5), a threading plate (6) and a wire management component (7), wherein the mounting bracket (4) is arranged on the inner side of the basic cabin (1), the placement layer plates (5) are in groups of two and are respectively slidably mounted on the bottom and the center of the mounting bracket (4) through rails, the threading plate (6) is arranged on a frame of the mounting bracket (4), and the threading plate (6) is located on one side of the placement layer plate (5), and the wire management component (7) is arranged on a frame on one side of the mounting bracket (4) away from the threading plate (6), and the wire management component (7) comprises a base plate (701), a fixed plate (702), and a fixed plate (703). A wire rack (702) and an extrusion structure (703), wherein the substrate (701) is horizontally arranged on a side frame of the mounting bracket (4) away from the threading plate (6), and the wire fixing rack (702) is vertically arranged on a side frame of the mounting bracket (4) away from the threading plate (6), and the wire fixing rack (702) is located directly above the substrate (701), and the extrusion structure (703) is arranged at the connection between the wire fixing rack (702) and the mounting bracket (4), and the extrusion structure (703) acts on the wire fixing rack (702) so that the wire fixing rack (702) maintains a tendency to slide toward the substrate (701); The wind-resistant mechanism comprises a mounting frame (11), a wind-resistant side wall (12) and a wind-resistant top assembly (13); the mounting frame (11) is arranged outside the side wall of the basic cabin (1); the wind-resistant side wall (12) is arranged outside the mounting frame (11); the wind-resistant side wall (12) is a wall panel with outer wall folds; and the wind-resistant top assembly (13) is arranged at the end of the basic cabin (1); The wind-resistant roof assembly (13) comprises a pleated roof (1301), a mounting cross frame (1302) and a spoiler convex plate (1303); the pleated roof (1301) is arranged at the end of the basic cabin (1); the pleated roof (1301) is a convex plate with a high center and low sides; a plurality of the mounting cross frames (1302) are grouped together and horizontally laid on the pleated roof (1301); a plurality of the spoiler convex plates (1303) are grouped together and are mounted on the mounting cross frames (1302) by screws.

2. The double-layer intelligent computing power prefabricated cabin with a wind-resistant structure according to claim 1 is characterized in that: The extrusion structure (703) comprises a guide shaft and an extrusion spring. A vertical groove is provided on the mounting bracket (4). The guide shaft portion of the extrusion structure (703) is vertically arranged in the groove of the mounting bracket (4) and the end of the wire fixing frame (702) is slidably mounted on the guide shaft. The extrusion spring is arranged around the outside of the guide shaft and the end of the extrusion spring acts on the wire fixing frame (702) so that the wire fixing frame (702) can slide in the vertical direction along the guide shaft, thereby maintaining a tendency for the wire fixing frame (702) to slide toward the substrate (701) below.

3. The double-layer intelligent computing power prefabricated cabin with a wind-resistant structure according to claim 1 is characterized in that: The air intake mechanism comprises an air intake fan (8), a flow guide component (9) and an air intake fan group (10); the inner side of the ventilation base (2) comprises an upper and lower layer; the air intake fan (8) is arranged on one side of the ventilation base (2), and the air intake of the air intake fan (8) is connected to the upper layer inside the ventilation base (2); the flow guide component (9) is arranged in the upper space inside the ventilation base (2); the flow guide component (9) is located directly in front of the air intake of the air intake fan (8) and directly below the placement mechanism; the air intake fan group (10) is arranged horizontally in the lower space of the ventilation base (2), and the air outlet of the air intake fan group (10) is vertically upward.

4. The double-layer intelligent computing power prefabricated cabin with a wind-resistant structure according to claim 3 is characterized in that: The guide assembly (9) comprises a mounting transverse axis (901) and an arc-shaped guide plate (902); the mounting transverse axes (901) are arranged in parallel in a group in the upper space of the ventilation base (2); the arc-shaped guide plates (902) are arranged in a group and are evenly distributed on the plurality of mounting transverse axes (901); the inner concave sides of the arc-shaped guide plates (902) are all facing the air inlet of the air intake fan (8); and the arc-shaped guide plates (902) are distributed below the placement layer (5).

5. The double-layer intelligent computing power prefabricated cabin with a wind-resistant structure according to claim 3 is characterized in that: The heat dissipation and air outlet assembly (3) comprises an air outlet fan group (301) and a heat dissipation side fan (302); the air outlet fan group (301) is arranged at the top inner side of the base cabin (1), and the air outlet fan group (301) and the air inlet fan group (10) are respectively located at the upper and lower ends of the base cabin (1); the heat dissipation side fans (302) are arranged at both sides of the end of the base cabin (1), and the heat dissipation side fans (302) are located above the air outlet fan group (301); and the heat dissipation side fans (302) can be used to blow hot air directed upwards by the air outlet fan group (301) out from both sides to direct heat away.

6. The double-layer intelligent computing power prefabricated cabin with a wind-resistant structure according to claim 5 is characterized in that: The air intake fan group (10) is located directly below the base cabin (1), and the air outlet fan group (301) is located directly above the base cabin (1). Both the air intake fan group (10) and the air outlet fan group (301) include a plurality of evenly distributed fans, and the fans all blow air upwards.

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