Sunroof system with width compatibility and data center

Abstract

The application provides a skylight system with width compatibility and a data center, and belongs to the technical field of data centers. The skylight system comprises a skylight support bracket, an adapter support frame and a skylight main body. The bottom of the skylight support bracket is provided with a first cabinet connecting position. The side of the skylight support bracket facing the data center passage is provided with an adapter connecting position. The top of the skylight support bracket is provided with a first skylight connecting position. The side of the adapter support frame away from the center passage can be connected with the adapter connecting position. The top of the side of the adapter support frame facing the data center passage is provided with a second skylight connecting position. The two sides of the skylight main body are respectively formed with main body connecting positions. The main body connecting positions are selectively connected with the first skylight connecting positions or the second skylight connecting positions on the corresponding sides. The application does not need to separately customize the core components of the skylight main body and the skylight support bracket. The skylight main body and the skylight support bracket realize the design of generalization and standardization, and can effectively improve the construction efficiency of the data center.

Description

Technical Field

[0001] This application belongs to the field of data center technology, and more specifically, relates to a width-compatible skylight system and data center. Background Technology

[0002] Conventional data centers are based on server equipment installation, and the channel width is designed with a common value (usually 1200mm). With the development of data centers, in many usage scenarios, the channel width needs to be widened (generally to 1800mm) to meet the requirements of operation and maintenance security, heat dissipation efficiency, and other aspects.

[0003] A typical data center aisle consists of a series of entry devices, aisle doors, and a skylight system, forming a standardized component manufacturing process. The skylight system includes numerous components such as the skylight body, window frame, and skylight opening and closing control device. With the aisle widened, all these components need to be redesigned and manufactured, resulting in a long component customization cycle and impacting the data center's construction schedule. Utility Model Content

[0004] The purpose of this application is to provide a skylight system and data center with width compatibility, aiming to solve the problem that skylight systems designed for conventional channel widths are difficult to adapt to the needs of widened channel designs, thus affecting the construction cycle of data centers with widened channel designs.

[0005] To achieve the above objectives, the technical solution adopted in this application is as follows: In a first aspect, embodiments of this application provide a sunroof system with width compatibility, comprising: The skylight support bracket has a first cabinet connection position at its bottom, a transition connection position on the side of the skylight support bracket facing the data center passage, and a first skylight connection position at its top. The adapter support frame, the side of which is away from the central channel, can be connected to the adapter connection position, and the top of the adapter support frame facing the data center channel is provided with a second window connection position; The main body of the sunroof has main body connection positions on both sides, and one of the main body connection positions is connected to the first sunroof connection position or the second sunroof connection position on the corresponding side.

[0006] Existing skylight systems mainly consist of the skylight body, frame, and opening / closing drive mechanism. A support plate is installed on top of the server rack, and the frame is mounted on the corresponding support plate on each side. In data centers with standard-width aisle designs, the dimensions of the skylight body and frame are adapted to the aisle width. The power and drive scheme of the opening / closing drive mechanism are also designed based on the skylight body's dimensions, ensuring reliable skylight opening and closing while reducing energy consumption. Widening the aisle design means increasing the distance between two server rack rows, and consequently, the distance between the two sets of support plates. To accommodate a wider aisle design, the window width and skylight dimensions are typically changed, and the opening / closing drive mechanism is redesigned accordingly. This means that the core components of the skylight system need to be redesigned and manufactured, lengthening the component customization cycle and impacting the overall construction cost and efficiency of the data center.

[0007] Compared with the prior art, the solution shown in this application embodiment, when constructing a data center with a conventional aisle width, involves installing the first rack connection position on the skylight support bracket above the corresponding rack column, and connecting the main body connection positions on both sides of the skylight body to the first skylight connection position on the corresponding skylight support bracket. When constructing a data center with a wider aisle width, the first rack connection position on the skylight support bracket is installed above the corresponding rack column, the adapter support frame is connected to the adapter connection position on the skylight support bracket, and connecting the main body connection positions on both sides of the skylight body to the second skylight connection position on the corresponding adapter support frame. Since the second skylight connection position is closer to the center of the data center aisle than the first skylight connection position, the installation of the skylight body can be achieved without changing the size of the skylight body.

[0008] The main body of the skylight includes core components such as the window frame, the skylight body, and the opening and closing drive device. By selectively setting the transition support frame, this application enables the skylight system to be compatible with the assembly requirements of conventional width channel designs, as well as the assembly requirements of widened channel designs. There is no need to change the core components of the skylight body or the size and structure of the skylight support frame, i.e., no need to customize the components separately. The skylight body and the skylight support frame achieve a universal and standardized design, which can ultimately effectively improve the construction efficiency of the data center.

[0009] In conjunction with the first aspect, in one possible implementation, the adapter support frame forms a clearance ramp on one side facing the data center channel, and the clearance ramp gradually slopes away from the data center channel in a top-to-bottom direction.

[0010] In some embodiments, a channel lighting connection position is formed on the avoidance slope, and a channel lighting fixture can be connected to the channel lighting connection position.

[0011] In conjunction with the first aspect, in one possible implementation, the transition support frame is a hollow component, and an operation avoidance space is formed inside the transition support frame.

[0012] In some embodiments, the adapter support frame includes: The main support plate is positioned facing the data center channel, and its surface is parallel to a first horizontal direction, which is parallel to the extension direction of the data center channel. A first main board connecting flange is formed on one side of the main support plate facing the center line of the data center channel. The first main board connecting flange can fit against the lower surface of the skylight body. The second skylight connecting position is formed on the first main board connecting flange. The main support plate forms the clearance slope. Two side support plates are distributed along the first horizontal direction and are respectively connected to both sides of the main support plate. The surface of the side support plate is perpendicular to the first horizontal direction. A side plate connecting flange is formed on the side of the side support plate away from the data center channel. The side plate connecting flange can fit with the skylight support bracket and can connect with the transition connection position. The main support plate and the two side support plates enclose the operating space.

[0013] In some embodiments, the upper edge of the side support plate is bent toward the direction of the operating clearance space to form a transition reinforcement flange.

[0014] In some embodiments, the main support plate is also connected to an auxiliary transition support plate on the side facing the skylight support bracket. The surface of the auxiliary transition support plate is perpendicular to the vertical direction and can fit against the upper surface of the cabinet row. The auxiliary transition support plate is provided with a second cabinet connection position. The auxiliary transition support plate bends upward toward the side of the sunroof support bracket to form a bottom plate connecting flange. The bottom plate connecting flange can fit against the sunroof support bracket and can also connect with the transition connection position.

[0015] Secondly, embodiments of this application also provide a data center, including multiple rack rows and the aforementioned width-compatible skylight system, wherein a data center channel is formed between two adjacent rack rows, and the skylight support bracket in the width-compatible skylight system is connected to the top surface of the rack row through a first rack connection position, and the adapter support bracket extends along the direction toward the center line of the data center channel and protrudes from the corresponding side of the rack row.

[0016] Compared with the prior art, the solution shown in this application embodiment, by adopting the above-mentioned wide-compatible skylight system, allows the same skylight body and skylight support bracket to adapt to the assembly requirements of different width channel design schemes. The component customization cycle can be effectively shortened, which is conducive to improving the construction efficiency of data centers and reducing construction costs.

[0017] In conjunction with the second aspect, in one possible implementation, the rack array includes multiple racks distributed along a first horizontal direction, each rack corresponding one-to-one with a transition support frame in the width-compatible skylight system, wherein the width of the transition support frame in the first horizontal direction is adapted to the width of the corresponding rack.

[0018] In some embodiments, the adapter support frame includes a main support plate and two side support plates. The main support plate is positioned facing the data center channel, and a first main board connection flange is formed on the side of the main support plate facing the centerline of the data center channel. The first main board connection flange forms the second second window connection position. The two side support plates are distributed along a first horizontal direction and are respectively connected to both sides of the main support plate. A side plate connection flange is formed on the side of the side support plate facing away from the data center channel. The side plate connection flange can be connected to the adapter connection position. A first splicing position is formed on the side support plate, and the first splicing position can be connected with the first splicing position on the adjacent side support plate to realize the connection and fixation of the two adjacent transition support frames. Attached Figure Description

[0019] To more clearly illustrate the technical solutions in the embodiments of this application, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0020] Figure 1 A perspective view of the sunroof system with width compatibility provided in the embodiments of this application; Figure 2 A top-view perspective view of a sunroof system with width compatibility provided in an embodiment of this application; Figure 3 A front view sectional view of the assembly of the width-compatible skylight system and the cabinet provided in the embodiments of this application; Figure 4 for Figure 3 A partial sectional view of the central sunroof support bracket, the transition support bracket, and the main body of the sunroof; Figure 5 The assembly three-dimensional form of the sunroof support bracket and adapter support frame used in the embodiments of this application. Figure 1 ; Figure 6 The assembly three-dimensional form of the sunroof support bracket and adapter support frame used in the embodiments of this application. Figure 2 ; Figure 7 The three-dimensional adapter support frame used in the embodiments of this application Figure 1 ; Figure 8 The three-dimensional adapter support frame used in the embodiments of this application Figure 2 .

[0021] In the diagram: 100, Skylight support bracket; 101, First cabinet connection position; 102, Adapter connection position; 103, First skylight connection position; 104, Support reinforcement connection position; 105, Second splicing position; 110, Support mainboard; 120, Support enclosure; 130, Support reinforcement flange; 200, Adapter support frame; 201, Second skylight connection position; 202, Alternating slope; 203, Operating alternate space; 204, Second cabinet connection position; 205, First splicing position; 210, Main support plate; 220. Side support plate; 230. First main board connecting flange; 240. Side plate connecting flange; 250. Adapter reinforcing flange; 260. Auxiliary adapter support plate; 270. Bottom plate connecting flange; 280. Auxiliary extension support plate; 300. Skylight body; 301. Body connection position; 310. Window frame; 320. Skylight body; 330. Opening and closing drive device; 400. Auxiliary support bracket; 500. Cabinet; 600. Data center channel; 700. Channel lighting fixture; 800. Auxiliary lighting fixture. Detailed Implementation

[0022] To make the technical problems, technical solutions, and beneficial effects to be solved by this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and are not intended to limit the scope of this application.

[0023] It should be noted that when an element is referred to as being "set on" another element, it can be directly on or indirectly on that other element. It should be understood that the terms "length," "width," "upper," "lower," "front," "rear," "top," "bottom," "inner," and "outer," etc., indicating orientation or positional relationships, are based on the orientation or positional relationships shown in the accompanying drawings and are used only for the convenience of describing this application and simplifying the description, and are not intended to 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.

[0024] The terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, "multiple" means two or more, unless otherwise explicitly specified.

[0025] Existing skylight systems mainly consist of the skylight body, frame, and opening / closing drive mechanism. A support plate is installed on top of the server rack, and the frame is mounted on the corresponding support plate on each side. In data centers with standard-width aisle designs, the dimensions of the skylight body and frame are adapted to the aisle width. The power and drive scheme of the opening / closing drive mechanism are also designed based on the skylight body's dimensions, ensuring reliable skylight opening and closing while reducing energy consumption. Widening the aisle design means increasing the distance between two server rack rows, and consequently, the distance between the two sets of support plates. To accommodate a wider aisle design, the window width and skylight dimensions are typically changed, and the opening / closing drive mechanism is redesigned accordingly. This means that the core components of the skylight system need to be redesigned and manufactured, lengthening the component customization cycle and impacting the overall construction cost and efficiency of the data center.

[0026] To resolve this issue, please refer to the following: Figures 1 to 8 The width-compatible skylight system provided in this application is described below. The width-compatible skylight system includes a skylight support bracket 100, a transition support frame 200, and a skylight body 300. The skylight support bracket 100 has a first cabinet connection position 101 at its bottom, a transition connection position 102 on the side of the skylight support bracket facing the data center channel 600, and a first skylight connection position 103 at its top. The transition support frame 200 can connect to the transition connection position 102 on its side away from the central channel, and a second skylight connection position 201 is located at the top of the side of the transition support frame facing the data center channel 600. The skylight body 300 has body connection positions 301 on both sides, and one of the body connection positions 301 can be selectively connected to either the first skylight connection position 103 or the second skylight connection position 201 on the corresponding side.

[0027] In this embodiment, the skylight body 300 includes a window frame 310, a skylight body 320, and an opening and closing drive device 330. The window frame 310 is provided with a main body connection position 301, and the skylight body 320 is rotatably connected to the open space of the window frame 310. The opening and closing drive device 330 is provided on the window frame 310 and connected to the skylight body 320. The opening and closing drive device 330 can drive the skylight body 320 to open and close.

[0028] In this embodiment, the adapter support frame 200 extends along the direction toward the data center channel 600 and protrudes from one side of the rack row toward the data center channel 600. The width of the widened data center channel 600 is mainly determined by the length of the adapter support frame 200 extending out of the rack row.

[0029] Additionally, the adapter support frames 200 extending from the rack rows on both sides extend by the same length, thus aligning the centerline of the skylight body 300 with the centerline of the data center aisle 600. Alternatively, the adapter support frames 200 extending from the rack rows on both sides extend by different lengths, in which case the centerline of the skylight body 300 is offset from the centerline of the data center aisle 600 along a second horizontal direction. This second horizontal direction is parallel to the width direction of the data center aisle 600. Figure 1 The solid arrow in the diagram is shown.

[0030] The width-compatible skylight system provided in this application, compared with the prior art, allows for the following modifications: For constructing a data center with a conventional aisle width, the first rack connection position 101 on the skylight support bracket 100 is installed above the corresponding rack row, and the main body connection positions 301 on both sides of the skylight body 300 are connected to the first skylight connection position 103 on the corresponding skylight support bracket 100. For constructing a data center with a wider aisle width, the first rack connection position 101 on the skylight support bracket 100 is installed above the corresponding rack row, the adapter support frame 200 is connected to the adapter connection position 102 on the skylight support bracket 100, and the main body connection positions 301 on both sides of the skylight body 300 are connected to the second skylight connection position 201 on the corresponding adapter support frame 200. Since the second skylight connection position 201 is closer to the center of the data center aisle 600 than the first skylight connection position 103, the skylight body 300 can be installed without changing its dimensions.

[0031] The skylight body 300 includes core components such as the window frame 310, the skylight body 320, and the opening and closing drive device 330. By selectively setting the adapter support frame 200, this application can make the skylight system compatible with the assembly requirements of conventional width channel designs and also adaptable to the assembly requirements of widened channel designs. There is no need to change the core components of the skylight body 300 or the size and structure of the skylight support frame, that is, no need to customize the components separately. The skylight body 300 and the skylight support frame achieve a universal and standardized design, which can ultimately effectively improve the construction efficiency of the data center.

[0032] In some specific embodiments, the first cabinet connection position 101 is a connection hole, and the first cabinet connection position 101 is fixedly connected to the cabinet row by threaded fasteners. The adapter connection position 102 is a connection hole, and the adapter connection position 102 is fixedly connected to the adapter support frame 200 by threaded fasteners. The main body connection position 301, the first window connection position 103, and the second window connection position 201 are all connection holes, and the first window connection position 103 or the second window connection position 201 is fixedly connected to the main body connection position 301 by threaded fasteners.

[0033] In some specific embodiments where the adapter support frame 200 is adapted to the data center channel 600, see [link to relevant documentation]. Figure 1 , Figure 3 , Figure 4 and Figure 8 The adapter support frame 200 forms a clearance slope 202 on the side facing the data center aisle 600. From top to bottom, the clearance slope 202 gradually slopes away from the data center aisle 600. The design of the clearance slope 202 reduces the encroachment of the adapter support frame 200 on the space of the data center aisle 600, avoids the problem of personnel bumping into things inside the data center aisle 600, and also maintains a certain level of aesthetics.

[0034] Optionally, the lower edge of the avoidance slope 202 does not protrude from the side of the rack row facing the data center channel 600, thus preventing the lower edge of the adapter support frame 200 from protruding from the rack row, thereby preventing the edge from hitting the operator and further optimizing the appearance.

[0035] Optionally, the recessed ramp 202 can be a flat surface, which allows for easy placement of electrical components such as lighting fixtures. Alternatively, the recessed ramp 202 can be an upward-arched surface, further reducing its encroachment on the space of the data center corridor 600.

[0036] In other specific embodiments where the adapter support 200 is adapted to the data center channel 600, the side of the adapter support 200 facing the data center channel 600 includes at least two interconnected planes, forming a shape that protrudes towards the data center channel 600. For example, the cross-section of the adapter support 200 is rectangular, including two interconnected L-shaped planes. Other embodiments are not listed one by one.

[0037] In some embodiments, see Figure 1 , Figure 3 and Figure 4The inclined surface 202 has a channel lighting connection point, and the channel lighting fixture 700 can connect to the channel lighting connection point to realize the channel lighting function. In data centers with standard-width channels, lighting fixtures are usually installed at the bottom of the skylight, as close as possible to the rack rows to avoid affecting the skylight's rotation. In data centers with widened channel designs, in order to meet the requirement of installation close to the rack rows, the channel lighting connection point is integrated on the inclined surface 202 to meet the connection requirements of the channel lighting fixture 700 and further integrate the function of the adapter support frame 200.

[0038] Optionally, the channel lighting connection point is a connection hole located on the retaining slope 202. A lamp connecting bracket is provided on the back of the channel lighting fixture 700, and the lamp connecting bracket can be connected to the channel lighting connection point by a threaded fastener. Alternatively, the channel lighting connection point is a stud located on the retaining slope 202. A lamp connecting bracket is provided on the back of the channel lighting fixture 700, and the lamp connecting bracket has a through hole through which the stud passes and is locked by a nut. Other embodiments are not listed here. It should be noted that the lamp connecting bracket is designed according to actual installation requirements. For example, it can be designed as a Z-shaped bracket spanning both sides of the lamp, as long as it meets the assembly requirements. These are not listed here.

[0039] In some embodiments, see Figures 2 to 7 The adapter support frame 200 is a hollow component, forming an operating space 203 within it. This provides operational space for connecting to the main skylight 300 and the rack array, improving the convenience of assembly operations. Simultaneously, the hollow design reduces the weight of the adapter support frame 200, making it easier for operators to lift during assembly. Furthermore, the operating space 203 can accommodate cables and other electrical components, allowing for the installation of functional modules (such as temperature sensors) on the adapter support frame 200 according to actual needs, making the data center's functional design more flexible.

[0040] In some specific embodiments of the adapter support 200, see [reference needed]. Figures 4 to 8The adapter support frame 200 includes a main support plate 210 and two side support plates 220. The main support plate 210 is positioned facing the data center channel 600, and its surface is parallel to a first horizontal direction, which is parallel to the extension direction of the data center channel 600. A first main board connecting flange 230 is formed on one side of the main support plate 210 facing the center line of the data center channel 600. The first main board connecting flange 230 can fit against the lower surface of the skylight body 300, and a second skylight connecting position 201 is formed on the first main board connecting flange 230. The main support plate 210 forms a clearance slope 202; two side support plates 220 are distributed along a first horizontal direction and are respectively connected to both sides of the main support plate 210. The surface of the side support plate 220 is perpendicular to the first horizontal direction. A side plate connecting flange 240 is formed on the side of the side support plate 220 away from the data center channel 600. The side plate connecting flange 240 can fit with the skylight support bracket 100 and can connect with the transition connection position 102. The main support plate 210 and the two side support plates 220 enclose an operation clearance space 203. Wherein, the first horizontal direction is as follows: Figure 1 As shown by the hollow arrow, it is parallel to the centerline of the data center channel 600 (i.e., the direction of extension of the data center channel 600).

[0041] In this embodiment, the adapter support frame 200 is an open box structure formed by the main support plate 210 and two side support plates 220. This gives the adapter support frame 200 the structural strength to meet the assembly requirements of the sunroof body 300, avoiding deformation and other problems. At the same time, the overall structure of the adapter support frame 200 is simple, which can better achieve lightweight design. In addition, since the adapter support frame 200 is relatively open, it is easier to set corresponding connecting flanges (i.e., the first main plate connecting flange 230 and the side plate connecting flange 240) on its top and the side facing the sunroof support bracket 100 to meet assembly requirements.

[0042] Optionally, if the adapter support frame 200 has a clearance ramp 202, then the main support plate 210 forms the clearance ramp 202, and the shape of the main support plate 210 is adapted to the clearance ramp 202.

[0043] Optionally, to enhance the overall integrity and structural strength of the transition support frame 200, the main support plate 210 and the two side support plates 220 are integrally formed by bending.

[0044] Based on the above embodiments, see Figures 5 to 7 The upper edge of the side support plate 220 is bent toward the operating space 203 to form a transition reinforcement flange 250, so as to improve the bending strength of the side support plate 220, thereby improving the overall structural strength of the transition support frame 200 and preventing it from deforming under the pressure of the sunroof body 300.

[0045] In some embodiments, see Figures 5 to 8 An auxiliary transition support plate 260 is connected to the side of the main support plate 210 facing the skylight support bracket 100. The surface of the auxiliary transition support plate 260 is perpendicular to the vertical direction and can fit against the upper surface of the rack row. The auxiliary transition support plate 260 is provided with a second rack connection position 204. The side of the auxiliary transition support plate 260 facing the skylight support bracket 100 is bent upward to form a bottom plate connecting flange 270. The bottom plate connecting flange 270 can fit against the skylight support bracket 100 and can connect with the transition connection position 102. The auxiliary transition support plate 260 and the main support plate 210 are integrally bent and formed.

[0046] In this embodiment, by setting an auxiliary transition support plate 260, the contact surface with the cabinet row is increased. Using this contact surface, a second cabinet connection position 204 is added, which increases the bonding strength between the transition support plate, the skylight support bracket 100 and the cabinet row, thereby improving the reliability of the skylight body 300 assembly and fixation.

[0047] In some embodiments, see Figures 5 to 8 An auxiliary extension support plate 280 is connected to the side of the main support plate 210 away from the skylight support bracket 100. The surface of the auxiliary extension support plate 280 is parallel to the vertical direction, and its upper edge is connected to the first main board connecting flange 230. The auxiliary extension support plate 280 and the main support plate 210 are integrally bent and formed. If the first main board connecting flange 230 were directly connected to the main support plate 210, a sharp edge would be created. This design not only affects the structural strength of that area but also easily scratches workers during assembly. By setting the auxiliary extension support plate 280, sharp edges are avoided, thus improving both structural strength and operational safety.

[0048] In some embodiments, see Figures 4 to 6 The skylight support bracket 100 includes a main support plate 110 and a support surrounding plate 120. The surface of the main support plate 110 is parallel to the vertical direction and the first horizontal direction. The support surrounding plate 120 surrounds the main support plate and extends away from the data center channel 600. The top support surrounding plate 120 has a first skylight connection position 103, the bottom support surrounding plate 120 has a second skylight connection position 201, and the main support plate 110 has a transition connection position 102. In this embodiment, the main support plate 110 and the support surrounding plate 120 make the skylight support bracket a box structure with an opening away from the data center channel 600. This not only meets the setting requirements of each connection position, but also, when one side of the main support plate 110 is subjected to torsional force, this force will be effectively transmitted to the overall structure in the form of "shear flow" through the surrounding support surrounding plate 120, avoiding torsional deformation and improving the structural strength of the skylight support bracket 100.

[0049] Optionally, the supporting motherboard 110 and the supporting enclosure 120 enclose a supporting space. The edge of the supporting enclosure 120 opposite to the supporting motherboard 110 is bent towards the supporting space to form a supporting reinforcing flange 130. The supporting reinforcing flange 130 is provided with a supporting reinforcing connection position 104. At the top of the rack row, an auxiliary supporting bracket 400 is provided. The auxiliary supporting bracket 400 is connected to both the rack row and the supporting reinforcing connection position 104 on the supporting reinforcing flange 130 to form a reinforcing support between the skylight supporting bracket 100 and the rack row, preventing the skylight supporting bracket 100 from tipping over.

[0050] Based on the same inventive concept, this application embodiment also provides a data center, including multiple rack rows and the above-mentioned width-compatible skylight system, with a data center channel 600 formed between two adjacent rack rows. The skylight support bracket 100 in the width-compatible skylight system is connected to the top surface of the rack row through the first rack connection position 101, and the transition support bracket 200 extends along the direction toward the center line of the data center channel 600 and protrudes from the corresponding side of the rack row.

[0051] Compared with existing technologies, the data center provided in this application, by adopting the aforementioned width-compatible skylight system, allows the same skylight body 300 and skylight support bracket 100 to adapt to the assembly requirements of different width channel design schemes. The component customization cycle can be effectively shortened, which is conducive to improving the construction efficiency of the data center and reducing construction costs.

[0052] In some embodiments, see Figure 1 and Figure 2 The rack array comprises multiple racks 500 distributed along a first horizontal direction. Each rack 500 has a different function, such as data storage, data processing, and cooling. The function and size of each rack 500 are set according to actual usage requirements, but the height of each rack 500 remains basically the same. Each rack 500 corresponds one-to-one with a transition support frame 200 in a width-compatible skylight system. In the first horizontal direction, the width of the transition support frame 200 is adapted to the width of the corresponding rack 500. When the rack 500 layout needs to be adjusted, each independent transition support frame 200 can be easily moved and repositioned without affecting the assembly of other racks 500 and transition support frames 200.

[0053] In some embodiments, see Figure 1 and Figure 2 , Figures 5 to 8The adapter support frame 200 includes a main support plate 210 and two side support plates 220. The main support plate 210 is positioned facing the data center channel 600. A first main board connecting flange 230 is formed on one side of the main support plate 210 facing the center line of the data center channel 600, and a second second window connecting position 201 is formed on the first main board connecting flange 230. The two side support plates 220 are distributed along a first horizontal direction and are respectively connected to both sides of the main support plate 210. A side plate connecting flange 240 is formed on the side of the side support plate 220 away from the data center channel 600, and an adapter connecting position 102 is formed on the side plate connecting flange 240. A first splicing position 205 is formed on the side support plate 220, and the first splicing position 205 can be connected with the first splicing position 205 on the adjacent side support plate 220 to realize the connection and fixation of the two adjacent adapter support frames 200.

[0054] In this embodiment, the various transition support frames 200 on the same side are interconnected to form a whole. This distributes the load borne by each independent transition support frame 200 to the overall structure, greatly improving the total load-bearing capacity of the transition support structure and preventing overloading of individual transition support frames 200. Simultaneously, whether it's slight vibrations from the ground, collisions with people, or in earthquake-prone areas, the overall transition support structure can more effectively disperse and absorb energy, preventing the skylight main body 300 from deforming or falling, thus greatly improving the safety of the equipment.

[0055] In some embodiments, see Figure 1 , Figure 2 , Figure 5 and Figure 6 The skylight support bracket 100 includes a support main board 110 and a support enclosure 120. The surface of the support main board 110 is parallel to the vertical direction and the first horizontal direction. The support enclosure 120 surrounds the support main board 110 and extends in a direction away from the data center channel 600. The support main board 110 is provided with a transition connection position 102, the top support enclosure 120 is provided with a first skylight connection position 103, and the bottom support enclosure 120 is provided with a second skylight connection position 201.

[0056] Based on this, the cabinet 500 and the skylight support bracket 100 correspond one-to-one. In the first horizontal direction, the width of the skylight support bracket 100 is adapted to the width of the corresponding cabinet 500. The support panel 120 located on the side is provided with a second splicing position 105, which can be connected with the second splicing position 105 on the adjacent support panel 120 to realize the connection and fixation of two adjacent skylight support brackets 100.

[0057] When the layout of the rack 500 needs to be adjusted, each independent skylight support bracket 100 can be easily moved and repositioned without affecting the assembly of other racks 500 and skylight support brackets 100. Furthermore, this embodiment connects the skylight support brackets 100 on the same side to form a whole, distributing the load borne by each independent skylight support bracket 100 across the overall structure, greatly improving the overall load-bearing capacity of the support structure and preventing overloading of individual skylight support brackets 100. It can more effectively disperse and absorb energy, preventing deformation and fall of the skylight body 300, and greatly improving equipment safety.

[0058] In some embodiments, see Figure 2 and Figure 3 If the adapter support frame 200 has an operating clearance space 203, an auxiliary lighting fixture 800 is installed on the top of the operating clearance space 203 to provide auxiliary lighting during maintenance. More specifically, if multiple adapter support frames 200 are provided along the first horizontal direction, the auxiliary lighting fixture 800 is a strip light fixture, which is installed through the adapter support frame 200 along the first horizontal direction, and can illuminate multiple operating clearance spaces 203 simultaneously.

[0059] The above description is merely a preferred embodiment of this application and is not intended to limit this application. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this application should be included within the protection scope of this application.

Claims

1. A sunroof system with width compatibility, characterized in that, include: A skylight support bracket (100) is provided at the bottom of the skylight support bracket (100) with a first cabinet connection position (101), a transition connection position (102) is provided on the side of the skylight support bracket (100) facing the data center channel (600), and a first skylight connection position (103) is provided at the top of the skylight support bracket (100). The adapter support frame (200) is connected to the adapter connection position (102) on the side away from the central channel. The adapter support frame (200) has a second window connection position (201) on the top of the side facing the data center channel (600). The main body of the skylight (300) has main body connection positions (301) formed on both sides. The main body connection position (301) is selectively connected to the first skylight connection position (103) or the second skylight connection position (201) on the corresponding side.

2. The sunroof system with width compatibility as described in claim 1, characterized in that, The adapter support frame (200) forms a clearance slope (202) on the side facing the data center channel (600), and the clearance slope (202) gradually tilts away from the data center channel (600) in the direction from top to bottom.

3. The sunroof system with width compatibility as described in claim 2, characterized in that, A channel lighting connection position is formed on the avoidance slope (202), and the channel lighting fixture (700) can be connected to the channel lighting connection position.

4. The sunroof system with width compatibility as described in any one of claims 1-3, characterized in that, The adapter support frame (200) is a hollow component, and an operation avoidance space (203) is formed inside the adapter support frame (200).

5. The sunroof system with width compatibility as described in claim 4, characterized in that, The adapter support frame (200) includes: The main support plate (210) is positioned facing the data center channel (600), and its surface is parallel to a first horizontal direction, which is parallel to the extension direction of the data center channel (600). A first main board connecting flange (230) is formed on one side of the main support plate (210) facing the center line of the data center channel (600). The first main board connecting flange (230) can fit against the lower surface of the skylight body (300). The second skylight connecting position (201) is formed on the first main board connecting flange (230). The main support plate (210) forms the clearance slope (202). Two side support plates (220) are distributed along the first horizontal direction and are respectively connected to both sides of the main support plate (210). The plate surface of the side support plate (220) is perpendicular to the first horizontal direction. A side plate connecting flange (240) is formed on the side of the side support plate (220) away from the data center channel (600). The side plate connecting flange (240) can fit with the skylight support bracket (100) and can be connected to the transition connection position (102). The main support plate (210) and the two side support plates (220) enclose the operation avoidance space (203).

6. The sunroof system with width compatibility as described in claim 5, characterized in that, The upper edge of the side support plate (220) is bent toward the operating clearance space (203) to form a transition reinforcement flange (250).

7. The sunroof system with width compatibility as described in claim 5, characterized in that, The main support plate (210) is connected to an auxiliary transition support plate (260) on the side facing the skylight support bracket (100). The surface of the auxiliary transition support plate (260) is perpendicular to the vertical direction and can fit against the upper surface of the cabinet row. The auxiliary transition support plate (260) is provided with a second cabinet connection position (204). The auxiliary transition support plate (260) bends upward toward the side of the sunroof support bracket (100) to form a bottom plate connecting flange (270). The bottom plate connecting flange (270) can fit against the sunroof support bracket (100) and can also be connected to the transition connection position (102).

8. A data center, characterized in that, It includes multiple rack rows and a width-compatible skylight system as described in any one of claims 1-7, forming a data center passage (600) between two adjacent rack rows, the skylight support bracket (100) in the width-compatible skylight system being connected to the top surface of the rack row via a first rack connection position (101), and the adapter support frame (200) extending along the direction toward the center line of the data center passage (600) and protruding from the corresponding side of the rack row.

9. The data center as described in claim 8, characterized in that, The rack array includes multiple racks (500) distributed along a first horizontal direction. Each rack (500) corresponds one-to-one with a transition support frame (200) in the width-compatible skylight system. In the first horizontal direction, the width of the transition support frame (200) is adapted to the width of the corresponding rack (500).

10. The data center as described in claim 9, characterized in that, The adapter support frame (200) includes a main support plate (210) and two side support plates (220). The main support plate (210) is positioned facing the data center channel (600). A first motherboard connecting flange (230) is formed on the side of the main support plate (210) facing the center line of the data center channel (600). The first motherboard connecting flange (230) forms the second second window connecting position (201). The two side support plates (220) are distributed along a first horizontal direction and are respectively connected to both sides of the main support plate (210). A side plate connecting flange (240) is formed on the side of the side support plate (220) facing away from the data center channel (600). The side plate connecting flange (240) can be connected to the adapter connecting position (102). A first splicing position (205) is formed on the side support plate (220), and the first splicing position (205) can be connected to the first splicing position (205) on the adjacent side support plate (220) to realize the connection and fixation of the two adjacent transition support frames (200).

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