Sunroof buffer structure assembly with anti-shock slow-release function and data center

Abstract

The application provides a skylight buffering structure assembly with anti-shock slow-release function and a data center, and belongs to the technical field of data centers, and comprises a window frame, a skylight, a magnetic lock, a damping buffer and a self-pulling structure; the skylight is rotatably arranged in the window frame through a rotating shaft, the magnetic lock is connected between the skylight and the window frame, and the damping buffer is tightly abutted between the side of the skylight where the rotating shaft is located and the corresponding side wall of the window frame; the self-pulling structure is arranged between the window frame and the skylight, is located between the rotating shaft and the upper turning edge of the skylight, and can make the turning edge of the skylight away from the window frame when the magnetic lock is unlocked. The damping buffer weakens the vibration amplitude of the skylight, and improves the problem of skylight vibration; the self-pulling structure is arranged on the side where the upper turning edge of the skylight is located, the pushing force provided by the self-pulling structure and the gravity of the lower turning edge of the skylight are superimposed on each other, and it is ensured that the skylight can be slowly and stably turned and opened.

Description

Technical Field

[0001] The present invention belongs to the technical field of data centers, and in particular relates to a skylight buffer structure assembly with seismic resistance and slow-release functions and a data center. Background Art

[0002] Data centers are globally collaborative network devices used to transmit, accelerate, display, compute, and store data on the internet infrastructure. With the widespread use of data centers, the emergence of artificial intelligence and cybersecurity, and the increasing access to online and mobile applications, the importance of data centers has become increasingly prominent. During the construction of data center rooms, enclosed cold aisles or hot aisles are often employed to improve data cooling efficiency and reduce cooling losses. For fire safety reasons, rooftop windows are often installed in enclosed cold and hot aisles. In the event of a fire, these windows can be opened to allow firefighting gases to enter the cold and hot aisles.

[0003] In existing flip skylights, the skylight often tilts, the skylight frame deforms and warps, and the skylight rubs against the window frame, resulting in the skylight being difficult to close or unable to flip automatically, affecting the reliability and safety of the skylight. Summary of the Invention

[0004] The embodiments of the present invention provide a skylight buffer structure assembly and a data center with anti-seismic and slow-release functions, aiming to solve the problem that the glass outer frame of the existing skylight is deformed and difficult to flip smoothly.

[0005] To achieve the above object, the technical solution adopted by the present invention is:

[0006] In a first aspect, a skylight buffer structure assembly with a seismic resistance and slow-release function is provided, comprising:

[0007] window frame;

[0008] a skylight rotatably disposed in the window frame via a rotating shaft;

[0009] a magnetic lock connected between the skylight and the window frame;

[0010] A damping buffer member is tightly abutted between the side of the skylight where the rotating shaft is located and the corresponding side wall of the window frame;

[0011] A self-elastic structure is provided between the window frame and the skylight. The self-elastic structure is located between the rotating shaft and the upper flange of the skylight, and can move the flip edge of the skylight away from the window frame when the magnetic lock is unlocked.

[0012] In combination with the first aspect, in a possible implementation manner, a vertical distance between the self-rebound structure and the upper turning edge is defined as H1, and a vertical distance between the self-rebound structure and the rotating shaft is defined as H2, and H1 < H2.

[0013] In some embodiments, the magnetic attraction lock is located between the rotating shaft and the upper turning edge, a vertical distance between the magnetic attraction lock and the upper turning edge is defined as L1, and a vertical distance between the magnetic attraction lock and the rotating shaft is defined as L2, and L1 < L2.

[0014] In some embodiments, a vertical distance between the self-rebound structure and the upper turning edge is defined as H1, and a vertical distance between the self-rebound structure and the rotating shaft is defined as H2, and H1 < H2, and H1 = L1 and H2 = L2.

[0015] In some embodiments, the magnetic attraction lock comprises a first lock body and a second lock body capable of mutual attraction, the first lock body is arranged on one of the skylight and the window frame, and the second lock body is arranged on the other one of the skylight and the window frame; the self-rebound structure is fixed to the second lock body and forms a pushing end for pushing the skylight or the window frame.

[0016] In some embodiments, the skylight buffer structure assembly with the anti-seismic and slow-release function further comprises a first magnetic attraction body, the first magnetic attraction body is arranged on one of the skylight and the window frame and is capable of being magnetically attracted to the other one of the skylight and the window frame, and the magnetic attraction lock and the first magnetic attraction body are diagonally arranged relative to the skylight.

[0017] In combination with the first aspect, in a possible implementation manner, the damping buffer member is a damping ring, the damping buffer member is sleeved on an outer periphery of the rotating shaft, and two shaft end faces are in close abutment with the skylight and the window frame respectively.

[0018] In combination with the first aspect, in a possible implementation manner, the skylight buffer structure assembly with the anti-seismic and slow-release function further comprises a limiting buffer member, the limiting buffer member is fixed to an upper side of the window frame, an elastic buffer surface of the limiting buffer member is at least partially located on a side of the rotating shaft facing the upper turning edge, and the elastic buffer surface is capable of being in abutment with a region of the skylight close to the upper turning edge.

[0019] In some embodiments, the elastic buffer surface is a plane inclined in a vertical direction, and a distance between the elastic buffer surface and an upper surface of the window frame gradually increases in a direction close to the upper turning edge.

[0020] Compared with the prior art, the scheme shown in the embodiments of the present application has the following beneficial effects:

[0021] 1) The damping buffer is arranged between the side of the rotating shaft of the sunroof and the window frame, that is, the damping buffer is arranged between the assembly gap of the sunroof and the window frame. Since the size of the damping buffer on both sides is easy to control, through the limitation of the damping buffer, the gap on both sides of the sunroof can be kept uniform and consistent during installation. During the turning process of the sunroof, the damping buffer provides damping friction force between the sunroof and the window frame, and effectively limits the displacement of the sunroof in the axial direction of the rotating shaft. The limiting effect of the damping buffer keeps the sunroof from being tilted after installation. The damping force of the damping buffer also effectively absorbs the vibration energy generated during the turning process of the sunroof, reduces the vibration amplitude of the sunroof, effectively improves the problem of vibration caused by attitude change during the turning process of the sunroof, and avoids the generation of excessive inertia force due to the excessive turning speed of the sunroof, thereby avoiding the occurrence of strong rigid impact between the sunroof and the window frame. In addition, the damping buffer can also effectively prevent the vibration of the sunroof from being transmitted to the window frame, thereby avoiding the problems of connection loosening and structural damage of the window frame and the surrounding structure caused by vibration.

[0022] 2) The self-spring structure is arranged on the side of the upper turning edge of the sunroof. When the magnetic lock is unlocked, the lower turning edge of the sunroof has a downward movement tendency under the action of gravity. The damping friction force of the damping buffer hinders the downward movement of the lower turning edge of the sunroof. At the same time, the self-spring structure provides an upward thrust force on the side of the upper turning edge. The thrust force and the gravity of the lower turning edge of the sunroof are superimposed on each other, which can overcome the resistance caused by the damping friction, and even if the rotating shaft area is deformed, it can effectively overcome the jamming caused by the deformation, so as to ensure that the sunroof can be slowly and smoothly turned open.

[0023] In a second aspect, the embodiment of the present application also provides a data center comprising the sunroof buffer structure assembly with the anti-vibration slow-release function.

[0024] Compared with the prior art, the damping buffer of the scheme shown in the embodiment of the present application reduces the vibration amplitude of the sunroof, improves the problem of sunroof vibration, avoids the occurrence of strong rigid impact between the sunroof and the window frame, and effectively prevents the vibration of the sunroof from being transmitted to the window frame, thereby avoiding the problems of connection loosening and structural damage of the window frame and the surrounding structure caused by vibration. The self-spring structure is arranged on the side of the upper turning edge of the sunroof, and the thrust force provided by the self-spring structure and the gravity of the lower turning edge of the sunroof are superimposed on each other, so as to ensure that the sunroof can be normally turned. The data center of the present application has a sunroof structure with more stable and reliable use performance, which is conducive to improving the overall structural stability and use reliability of the data center. BRIEF DESCRIPTION OF DRAWINGS

[0025] Figure 1 The top view of the sunroof buffer structure assembly with the anti-vibration slow-release function provided by the embodiment of the present application;

[0026] Figure 2A perspective view of the sunroof cushion structure assembly with anti-shock and slow-release functions provided by the embodiment of the present application Figure 1 ;

[0027] Figure 3 A perspective view of the sunroof cushion structure assembly with anti-shock and slow-release functions provided by the embodiment of the present application Figure 2 ;

[0028] Figure 4 An enlarged view of part A of Figure 3 ;

[0029] Figure 5 A view of part B of Figure 4 , wherein the window frame is not shown

[0030] Figure 6 A side view of the sunroof cushion structure assembly with anti-shock and slow-release functions provided by the embodiment of the present application Figure 1 , wherein the window frame and the support base are not shown

[0031] Figure 7 A side view of the sunroof cushion structure assembly with anti-shock and slow-release functions provided by the embodiment of the present application Figure 1 , wherein the window frame, the support base and the fastener are not shown

[0032] Figure 8 An assembly perspective view of the magnetic lock and the sunroof adopted by the embodiment of the present application

[0033] Figure 9 An assembly perspective view of the window frame, the limiting cushion member and the damping cushion member adopted by the embodiment of the present application Figure 1 ;

[0034] Figure 10 An assembly perspective view of the window frame, the limiting cushion member and the damping cushion member adopted by the embodiment of the present application Figure 2 ;

[0035] Figure 11 An exploded view of the window frame, the limiting cushion member and the damping cushion member adopted by the embodiment of the present application Figure 1 ;

[0036] Figure 12 An exploded view of the window frame, the limiting cushion member and the damping cushion member adopted by the embodiment of the present application Figure 2 ;

[0037] BRIEF DESCRIPTION OF THE DRAWINGS

[0038] 1, window frame; 101, connecting position; 2, sunroof; 201, upper turning edge; 202, lower turning edge; pivot 210, pivot; 3, magnetic lock; 310, first lock body; 311, first support; 312, first lock part; 320, second lock body; 321, second support; 322, second lock part; 323, connecting turning edge; 324, connecting hole; 4, damping buffer; 5, self-ejecting structure; 510, elastic ejecting unit; 511, fixed seat; 512, elastic ejecting piece; 513, limiting pad; 501, ejecting end; 520, supporting seat; 521, supporting plate; 522, ejecting plate; 523, connecting turning edge; 530, connecting seat; 531, adjusting hole; 532, first connecting plate; 533, second connecting plate; 6, limiting buffer; 601, elastic buffer surface; 602, mounting position; 611, mounting hole; 6111, flat cutting wall; 612, first fixed plate; 613, second fixed plate; 614, mounting plate; 615, reinforcing turning edge; 621, buffer main body; 6221, flat cutting surface; 6222, guide main body; 6223, connecting main body; 7, first magnetic body; 8, second magnetic body; 9, fastener. DETAILED DESCRIPTION

[0039] In order to make the technical problems to be solved by the present application, technical solutions and beneficial effects more clearly, the present application will be further described in detail below in combination with the drawings and examples. It should be understood that the specific examples described herein are only used to explain the present application, and are not used to limit the present application.

[0040] In the claims, specification, and above drawings of the present application, unless otherwise expressly specified, the use of the terms "first", "second", or "third" etc. is merely to distinguish different objects, and is not used to describe a specific order.

[0041] In the claims, specification, and above drawings of the present application, unless otherwise expressly specified, for the orientation words, such as the use of the terms "center", "lateral", "longitudinal", "horizontal", "vertical", "top", "bottom", "inner", "outer", "upper", "lower", "front", "back", "left", "right", "clockwise", "counterclockwise", "high", "low" etc. indicate the orientation or positional relationship based on the orientation and positional relationship shown in the drawings, and are only used to facilitate the description of the present application and simplify the description, and cannot be understood as indicating or implying that the devices or elements referred to must have a specific orientation or be constructed and operated in a specific orientation, so it cannot be understood as limiting the specific protection scope of the present application.

[0042] In the claims, the specification, and the drawings of the present application, terms such as "fixedly connected" or "fixedly connected" should be construed broadly unless otherwise explicitly defined, that is, any connection mode between the two without displacement relationship and relative rotation relationship, that is, it includes irremovable fixed connection, detachable fixed connection, integration and fixed connection through other devices or elements.

[0043] In the claims, the specification, and the above drawings of the present application, the terms "including", "having" and their variants are intended to mean "containing but not limited to".

[0044] The inventor found that in the existing flip window, the glass outer frame is generally made of metal material and is spliced to form a larger quadrilateral frame. In order to ensure that the window can be effectively flipped after being unlocked, a larger gap is generally reserved between the window and the window frame. During normal installation, the gaps on both sides of the window need to be kept uniform, but during actual installation, it is inevitable that the window will be skewed, resulting in uneven and inconsistent gaps on both sides. In addition, under the combined influence of gravity, rotational inertia and the surrounding gap, the window will vibrate during flipping, which will cause the glass outer frame to deform and warp after long-term use. The misalignment caused by the installation will cause the window to rub against the window frame, and even the window will be difficult to close. In addition, most existing windows are locked by magnetic locks. Generally, the magnetic lock is unlocked after power off, and the window can be flipped automatically. However, the vibration of the window during flipping can also cause the position of the shaft to deform, and the window will not be able to automatically flip, affecting the reliability and safety of use.

[0045] Please see Figures 1 to 12 , now the window buffer structure assembly with anti-shock and slow-release function provided by the present application will be described. The window buffer structure assembly with anti-shock and slow-release function comprises a window frame 1, a window 2, a magnetic lock 3, a damping buffer 4 and a self-popping structure 5. The window 2 is rotatably arranged in the window frame 1 through a shaft 210, the magnetic lock 3 is connected between the window 2 and the window frame 1, the damping buffer 4 is tightly abutted between the side of the shaft 210 of the window 2 and the corresponding side wall of the window frame 1, and the self-popping structure 5 is arranged between the window frame 1 and the window 2. The self-popping structure 5 is located between the shaft 210 and the upper turning edge 201 of the window 2, and can make the turning edge of the window 2 away from the window frame 1 when the magnetic lock 3 is unlocked.

[0046] In this embodiment, in order to realize the automatic flipping of the window 2, the shaft of the window 2 is generally arranged at a position deviating from the center line of the window 2, and the position of the central axis of the shaft 210 is as shown in Figure 1As shown by the dashed line in the figure, one of the turning sides of the sunroof 2 is relatively closer to the rotating shaft 210, and the other turning side is relatively farther from the rotating shaft 210. The turning side closer to the rotating shaft 210 is the upper turning side 201, and the other turning side is the lower turning side 202. The turning sides of the sunroof 2 refer to the upper turning side 201 and the lower turning side 202.

[0047] In this embodiment, in order to ensure the stability and uniformity of the force of the assembly of the sunroof 2 and the window frame 1, the rotating shaft 210 is arranged on each side of the sunroof 2, and the damping buffer 4 is arranged on each side of the sunroof 2.

[0048] When the sunroof 2 is closed, the magnetic attraction lock 3 provides a magnetic attraction locking force for the sunroof 2, so as to prevent the sunroof 2 from being warped or falling off, and ensure the flatness of the sunroof 2 after being closed. At the same time, under the magnetic attraction of the magnetic attraction lock 3, the self-spring structure 5 is compressed and elastically deformed. When the sunroof 2 needs to be opened, the magnetic attraction lock 3 is powered off. At this time, the elastic potential energy of the self-spring structure 5 is released, the self-spring structure 5 pushes the sunroof 2 to rotate, and the sunroof 2 is opened.

[0049] In this embodiment, in order to ensure the reliability of the magnetic attraction lock 3, the magnetic attraction force of the magnetic attraction lock 3 in the normal working state needs to be much greater than the elastic pushing force of the self-spring structure 5, so as to avoid the phenomenon that the sunroof 2 shakes or is pushed open by the self-spring structure 5 in the normal closed state.

[0050] Compared with the prior art, the sunroof buffer structure assembly with the anti-shock and slow-release functions provided in this embodiment has the following beneficial effects:

[0051] 1) The damping buffer 4 is arranged between the side edge of the sunroof 2 on which the rotating shaft 210 is arranged and the window frame 1, that is, the damping buffer 4 is arranged between the assembly gap of the sunroof 2 and the window frame 1. Since the size of the damping buffer 4 on each side is easy to control, through the limitation of the damping buffer 4, it can be ensured that the gaps on both sides of the sunroof 2 remain uniform and consistent during installation. During the turning of the sunroof 2, the damping buffer 4 provides a damping friction force between the sunroof 2 and the window frame 1, and effectively limits the displacement of the sunroof 2 in the axial direction of the rotating shaft 210. The limiting action of the damping buffer 4 keeps the sunroof 2 from being skewed after installation. The damping force of the damping buffer 4 also effectively absorbs the vibration energy generated during the turning of the sunroof 2, reduces the vibration amplitude of the sunroof 2, and effectively improves the problem of vibration caused by changes in the posture of the sunroof 2 during turning. At the same time, it can also avoid the generation of excessive inertial force due to the too fast turning speed of the sunroof 2, thereby avoiding the occurrence of strong rigid impact between the sunroof 2 and the window frame 1. In addition, the damping buffer 4 can also effectively avoid the transmission of the vibration of the sunroof 2 to the window frame 1, thereby avoiding the problems of connection loosening and structural damage caused by vibration of the window frame 1 and the surrounding structure.

[0052] 2) The self-spring structure 5 is arranged on the side of the upper edge 201 of the sunroof 2. When the magnetic lock 3 is unlocked, the lower edge 202 of the sunroof 2 has a downward movement trend under the action of gravity. The damping friction force of the damping buffer 4 hinders the downward movement of the lower edge 202 of the sunroof 2. At the same time, the self-spring structure 5 provides an upward thrust force on the side of the upper edge 201. The thrust force and the gravity of the lower edge 202 of the sunroof 2 are superimposed on each other, which can overcome the resistance caused by the damping friction, and even if the deformation occurs in the area of the rotating shaft 210, it can effectively overcome the jamming caused by the deformation, and ensure that the sunroof 2 can be slowly and smoothly opened.

[0053] In some embodiments, referring to Figure 1 , the vertical distance between the self-spring structure 5 and the upper edge 201 is defined as H1, and the vertical distance between the self-spring structure 5 and the rotating shaft 210 is defined as H2, H1 < H2. Wherein, H1 specifically refers to the shortest distance between the center line of the self-spring structure 5 and the upper edge 201 in the direction parallel to the glass surface of the sunroof 2; H2 specifically refers to the shortest distance between the center line of the self-spring structure 5 and the center axis of the rotating shaft 210 in the direction parallel to the glass surface of the sunroof 2. In this embodiment, the sunroof 2 is similar to a lever structure with the rotating shaft 210 as the fulcrum. The self-spring structure 5 is arranged far away from the rotating shaft 210, and the force arm of this side is longer. Therefore, the self-spring structure 5 can achieve effective self-spring effect under the premise of providing smaller thrust force, and the rigidity requirement of the self-spring structure 5 is lower. Therefore, the self-spring structure 5 can adopt a relatively simple and small design, which is more conducive to reducing manufacturing and maintenance costs.

[0054] In some embodiments, referring to Figure 1 , the magnetic lock 3 is located between the rotating shaft 210 and the upper edge 201. The vertical distance between the magnetic lock 3 and the upper edge 201 is defined as L1, and the vertical distance between the magnetic lock 3 and the rotating shaft 210 is defined as L2, L1 < L2. Wherein, L1 specifically refers to the shortest distance between the center line of the magnetic lock 3 and the upper edge 201 in the direction parallel to the glass surface of the sunroof 2; L2 specifically refers to the shortest distance between the center line of the magnetic lock 3 and the center axis of the rotating shaft 210 in the direction parallel to the glass surface of the sunroof 2.

[0055] The adsorption position of the magnetic lock 3 is closer to the upward turning edge 201. On the one hand, since the rotation path of the upward turning edge rotating shaft 210 is relatively short, during the closing process of the skylight 2, the magnetic attraction force provided by the magnetic lock 3 can intervene earlier in the approaching action between the skylight 2 and the window frame 1, reducing the difficulty of closing the skylight 2. On the other hand, the installation position of the magnetic lock 3 is closer to the self-elastic structure 5, which is beneficial for the self-elastic structure 5 to achieve a more effective elastic pushing effect and is also convenient for the management and maintenance of the magnetic lock 3. On the other hand, the overall skylight 2 is similar to a lever structure with the rotating shaft 210 as the fulcrum. Setting the magnetic lock 3 at a relatively far distance from the rotating shaft 210 makes the lever arm on this side longer. Then, the magnetic lock 3 can achieve an effective locking effect under the premise of providing a relatively small magnetic attraction force, with lower requirements for the energy consumption and size of the magnetic lock 3. Based on this, the magnetic lock 3 can adopt a design with lower power consumption and smaller size, which is more conducive to reducing the manufacturing and maintenance costs.

[0056] On the basis of the above embodiment, referring to Figure 1 , in order to improve the compactness of the structure, define the vertical distance between the self-elastic structure 5 and the upward turning edge 201 as H1, and the vertical distance between the self-elastic structure 5 and the rotating shaft 210 as H2, where H1 < H2, and H1 = L1, H2 = L2. Among them, since the midline of the self-elastic structure 5 coincides with the midline of the magnetic lock 3, so Figure 1 only shows L1 and L2 as examples in , and the distribution of H1 and H2 is the same, which will not be elaborated here. It should also be understood that this design not only improves the compactness of the structure but also roughly coincides the self-elastic pushing positioning and the magnetic adsorption point in the direction perpendicular to the rotating shaft 210. After the magnetic lock 3 is powered off and unlocked, if the skylight does not pop open in time after the magnetic lock 3 is powered off, under certain conditions (such as when monitoring and testing power off, the fire alarm linkage is not continuous power off), the magnetic lock 3 will be re-powered on and automatically attracted. The elastic pushing force in this embodiment can directly exert force corresponding to the magnetic adsorption position, avoiding the magnetic lock 3 from being adsorbed again, and the pushing and popping effect is more reliable.

[0057] More specifically, referring to Figures 4 to 8 , the magnetic lock 3 includes a first lock body 310 and a second lock body 320 that can adsorb each other. The first lock body 310 is provided on one of the skylight 2 and the window frame 1, and the second lock body 320 is provided on the other of the skylight 2 and the window frame 1; the self-elastic structure 5 is fixed to the second lock body 320 and forms a pushing end 501 for pushing the skylight 2 or the window frame 1. In this embodiment, the self-elastic structure 5 is integrated on the magnetic lock 3, and the compact and integrated design of the structure is also maximally realized in the direction parallel to the rotating shaft 210, avoiding the problem that the strength of the components is affected by opening too many installation holes on the skylight 2 and the window frame 1, and at the same time, the production difficulty is relatively high.

[0058] On the premise that the magnetic lock 3 is located between the upward turning edge 20Figures 1 to 3 The skylight buffering structure assembly with anti-vibration and slow-release functions further comprises a first magnetic body 7, which is arranged on one of the skylight 2 and the window frame 1 and can be magnetically adsorbed on the other one of the skylight 2 and the window frame 1. The magnetic lock 3 and the first magnetic body 7 are diagonally arranged relative to the skylight 2. The power coil is arranged in the first lock body 310, and the second lock body 320 is a magnet or a ferromagnetic body. The magnetic lock 3 is arranged on one side of the skylight 2, and the first magnetic body 7 is arranged on the other side. After the skylight 2 is closed, the magnetic lock 3 and the first magnetic body 7 provide magnetic attraction forces on both sides of the skylight 2, preventing the skylight 2 from being warped or falling off and ensuring the flatness of the closed skylight 2. When the skylight 2 needs to be opened, the magnetic lock 3 is powered off, and the first magnetic body 7 on the other side remains in the adsorbed state all the time and is not affected by power. At this time, the elastic potential energy of the self-pulling structure 5 is released, the self-pulling structure 5 pushes the skylight body to rotate, the magnetic attraction force of the first magnetic body 7 is smaller than the pushing force provided by the self-pulling structure 5, the adsorbed state of the first magnetic body 7 is released, and the skylight 2 is opened.

[0059] The embodiment ensures the uniformity of the force applied to the skylight 2 by arranging the magnetic lock 3 on one side and the first magnetic body 7 on the other side, and further ensures the flatness of the closed skylight 2. In addition, the use of the magnetic lock 3 is reduced by the single-sided magnetic lock arrangement, the power consumption for locking after the skylight 2 is closed is low, and the structure of the first magnetic body 7 relative to the magnetic lock 3 is simpler, which is conducive to reducing the manufacturing and use costs. The embodiment exemplarily shows that one magnetic lock 3 and one first magnetic body 7 are arranged, which can meet the embodiment of the magnetic locking of the skylight 2.

[0060] The embodiment in which the first magnetic body 7 is fixed on the window frame 1 is described as follows: The first magnetic body 7 is a magnet itself, based on which the window frame of the skylight 2 can be made of a ferromagnetic component, and then the direct magnetic adsorption of the first magnetic body 7 and the skylight 2 is realized. Alternatively, the window frame of the skylight 2 is made of a material with weak ferromagnetism such as stainless steel, and a ferromagnetic component is additionally arranged on the window frame. It should be understood that when the first magnetic body 7 is fixed on the window frame of the skylight 2, the similar setting principle is also applicable, which is not described herein again.

[0061] In some embodiments, in order to improve the convenience of magnetic adsorption with the first magnetic body 7 and avoid greatly changing the overall design of the skylight 2, the skylight buffering structure assembly with anti-vibration and slow-release functions further comprises a second magnetic body 8, which is arranged on the other one of the skylight 2 and the window frame 1 and can be magnetically adsorbed with the first magnetic body 7. In specific implementation, the first magnetic body 7 is fixed on the window frame 1, and the second magnetic body 8 is a ring-shaped component which is fixed on the window frame of the skylight 2 through a threaded fastener. More specifically, the first magnetic body 7 is a sheet-shaped component.

[0062] More specifically, the oblong hole in the second magnetic body 8 allows the second magnetic body 8 to move closer to or further from the first magnetic body 7 in a direction perpendicular to the opening of the window frame 1, thereby adjusting the area of ​​engagement between the first and second magnetic bodies 7, and ultimately the magnetic attraction between them. During use, if the rebound force of the self-elastic structure 5 is too strong, the area of ​​engagement between the first and second magnetic bodies 7, 8 can be appropriately increased to increase the magnetic attraction force and ensure balanced force when the sunroof 2 is closed. Conversely, the area of ​​engagement between the first and second magnetic bodies 7, 8 can be reduced.

[0063] In some embodiments, the self-elastic structure 5 can be formed as follows: Figures 4 to 8 In the structure shown, the self-elastic structure 5 includes at least one elastic pushing unit 510, which includes a fixing seat 511 and an elastic pushing member 512. The fixing seat 510 is fixed to one of the skylight 2 and the window frame 1, and the elastic pushing member 512 is provided on the fixing seat 511 and forms a pushing end 501 for pushing the other of the skylight 2 and the window frame 1. The fixing seat 510 can be directly fixed to one of the skylight 2 and the window frame 1, or it can be indirectly fixed to one of the skylight 2 and the window frame 1 through other components. In addition, this embodiment exemplarily shows an embodiment in which the fixing seat 510 is fixed to the skylight 2 and the pushing end 501 pushes the window frame 1.

[0064] In this embodiment, the number of elastic pushing units 510 provided is related to the size of the required elastic force and the parameters of the elastic pushing units 510 themselves, and is not a sole limitation here. In addition, under the premise that multiple elastic pushing units 510 are provided, this embodiment arranges multiple elastic pushing units 510 to be distributed in a direction perpendicular to the rotating shaft 210. On the one hand, this makes the structure more compact. On the other hand, with the rotating shaft 210 as the fulcrum, the force arms of multiple pushing points gradually increase in a direction away from the rotating shaft 210. The distal pushing point can more effectively pry the skylight 2, ensuring that the skylight 2 can be flipped. This embodiment exemplarily shows an embodiment in which two elastic pushing units 510 are provided in a direction perpendicular to the rotating shaft 210. The remaining embodiments are not listed here one by one.

[0065] In addition, the distribution of the fixing seat 511 and the elastic pushing member 512 makes the size of the elastic pushing unit 510 in the direction perpendicular to the pushing direction smaller, meeting the miniaturization design requirements and also facilitating the distribution requirements of multiple elastic pushing units 510.

[0066] Based on the above embodiment, a specific implementation of the fixing seat 511 and the elastic pusher 512 is that the fixing seat 511 is a rigid component, and the elastic pusher 512 is elastic and can be elastically expanded and contracted, and the elastic pusher 512 itself acts as a provider of elastic potential energy. Specific implementations of the elastic pusher 512 include, but are not limited to, a compression spring, a rubber sleeve, an elastic rubber column, etc.

[0067] If the elastic pushing member 512 is a tubular elastic member such as a compression spring or a rubber sleeve, a telescopic rod is further provided on the fixing seat 511. The telescopic rod can be freely extended and retracted. The compression spring and the rubber sleeve are sleeved on the outer circumference of the telescopic rod and limit the displacement of the compression spring and the rubber sleeve in the radial direction of the telescopic rod to prevent the compression spring and the rubber sleeve from being deflected.

[0068] Based on the above embodiment, another specific implementation of the fixed seat 511 and the elastic pushing member 512 is that the elastic pushing member 512 includes a pushing body and an elastic member. The pushing body is slidably inserted into the fixed seat 511 and forms a pushing end 501. The elastic member is disposed between the pushing body and the fixed seat 511 and is configured with a preload force to cause the pushing body to extend out of the fixed seat 511. In this embodiment, the pushing body is a rigid component, and the elastic member acts as a provider of elastic potential energy. Specific implementations of the pushing body include, but are not limited to, a cylinder, a prism, and the like.

[0069] In some embodiments, the self-elastic structure 5 further includes a support seat 520, such as Figure 4 and Figure 8 As shown, the support base 520 is provided on the other of the skylight 2 and the window frame 1, and the pushing end 501 abuts against the upper surface of the support base 520. In this embodiment, the support base 520 is used to form a protruding support, so that the pushing end 501 of the elastic pushing member 512 can more effectively interact with the skylight 2 or the window frame 1, ensuring the reliability of the pushing contact.

[0070] Based on the above embodiment, the support base 520 can be used as follows: Figure 4 and Figure 8 In the structure shown, the support base 520 includes a support plate 521 and a push plate 522. Two support plates 521 are provided, and the two support plates 521 are arranged opposite each other. The lower ends of the support plates 521 are bent to form connecting flanges 523, which are closely connected to the skylight 2 or the window frame 1. The two sides of the push plate 522 are respectively fixed to the free ends of the two support plates 521, and the push end 501 can abut against the push plate 522. The support base 520 is generally in the shape of a "F" (a cross), which has high bonding strength and can avoid deformation when abutting against the push end 501. It has a longer service life and better reliability. It also has a simple structure and can be formed in one piece by stamping and bending, which has low manufacturing costs.

[0071] In order to facilitate assembly, the first lock body 310 comprises a first bracket 311 and a first lock portion 312 arranged on the first bracket 311, and the second lock body 320 comprises a second bracket 321 and a second lock portion 322 arranged on the lower side of the second bracket 321; the first bracket 311 is fixedly connected with the window frame 1, and the second bracket 321 is fixedly connected with the window frame of the sunroof 2. Based on this, in order to facilitate connection with the second lock body 320, the self-ejecting structure 5 further comprises a connecting seat 530, as shown in Figures 4 to 8 The fixing seat 511 is fixed on the connecting seat 530, the connecting seat 530 is provided with an adjusting hole 531, the second lock body 320 is provided with a connecting hole 324 corresponding to the adjusting hole 531, and the connecting seat 530 and the second lock body 320 are connected through the fastener 9 penetrating through the adjusting hole 531 and the connecting hole 324; wherein one of the adjusting hole 531 and the connecting hole 324 is an oblong hole, the long axis of the oblong hole is perpendicular to the rotating shaft 210, and the fixing seat 511 can move along the oblong hole in a guided manner to adjust the compression degree of the elastic pushing piece 512 in the closed state of the sunroof 2, so as to finally control the size of the rebounding force (i.e. the pushing force). Through the design of the oblong hole in the embodiment, the relative position of the connecting seat 530 and the second lock body 320 in the direction of the long axis of the oblong hole can be adjusted, and then the compression degree of the abutting compression of the pushing end 501 and the supporting seat 520 in the magnetic attraction locking state can be adjusted. In the magnetic attraction locking state of the first lock body 310 and the second lock body 320, the closer the connecting seat 530 is to the corresponding side of the sunroof 2 or the window frame 1, the greater the abutting force is, and the greater the pushing force that can be provided after unlocking is. Figure 7 As shown in Figure 7 , if the attraction force of the first magnetic attraction body 7 and the second magnetic attraction body 8 is too large during use, the abutting compression degree of the pushing end 501 and the supporting seat 520 in the magnetic attraction locking state can be appropriately increased to increase the rebounding force, so as to ensure that the sunroof 2 can be smoothly opened; otherwise, the abutting compression degree of the pushing end 501 and the supporting seat 520 in the magnetic attraction locking state can be reduced.

[0072] On the basis of the above embodiment, referring to Figures 4 to 8 , in order to facilitate the assembly of the second lock body 320 and the connecting seat 530, the edge of the second lock body 320 is bent away from the first lock body 310 to form a lock body connecting flange 323, and the connecting flange 323 is provided with a connecting hole 324; the connecting seat 530 comprises a first connecting plate 532 and a second connecting plate 533 connected perpendicularly to each other, and the plate surface of the second connecting plate 533 is parallel to the rotating shaft 210 of the sunroof 2; the first connecting plate 532 is attached to the lock body connecting flange 323, and the first connecting plate 532 is provided with an adjusting hole 531; and the fixing seat 511 is fixedly arranged on the second connecting plate 533. Wherein, the lock body connecting flange 323 is formed by bending the edge of the second bracket 321.

[0073] Referring toFigures 4 to 8 In some embodiments, in order to further compress the volume of the elastic pushing unit 310, a second connecting plate 533 is arranged on the first connecting plate 532 near one side edge of the first lock body 310, and the end of the fixing seat 511 is provided with a limiting pad 513 located on the side of the second connecting plate 533 facing the first lock body 310. Based on this, the limiting pad 513 realizes elastic support on the side of the second connecting plate 533 facing the first lock body 310, avoiding the second connecting plate 533 from directly bumping against the supporting seat 520.

[0074] In some specific embodiments of the damping buffer 4, referring to Figures 9 to 12 In order to simplify the structure of the damping buffer 4, the damping buffer 4 is a damping ring, which is sleeved on the outer periphery of the rotating shaft 210, and the two shaft end faces are in close abutment with the sunroof 2 and the window frame 1 respectively. In this embodiment, the two sides of the sunroof 2 are respectively provided with rotating shafts 210, and a damping ring is sleeved on each rotating shaft 210. In this embodiment, the damping ring has the following beneficial effects:

[0075] (1) The overall structure of the damping buffer 4 is simple, and in terms of providing damping effect, its action position is close to the rotating shaft 210, and it forms a covering on the rotating shaft 210, which is conducive to maintaining the uniformity of the force on the rotating shaft 210, reducing the risk of deformation of the rotating shaft 210, and further reducing the risk of jamming caused by the deformation of the rotating shaft 210 and its surrounding area.

[0076] (2) If the damping buffer 4 is arranged at a position far away from the rotating shaft 210 (for example, the damping buffer 4 is clamped in the area near the corner of the sunroof 2), in order to ensure that the damping buffer 4 can be in close abutment with the window frame when the sunroof 2 is closed, after the sunroof 2 is opened, the elastic deformation of the damping buffer 4 is released, and the width of the damping buffer 4 will be wider than the specified gap width between the sunroof 2 and the window frame 1. In this way, when the sunroof 2 is closed, the damping buffer 4 will directly bump into the upper surface or lower surface of the window frame 1, causing the problem of the damping buffer 4 falling off; and after the sunroof 2 is opened, the damping buffer 4 is released from the restriction of the window frame 1, and the limiting effect of the rotating shaft 210 in the axial direction disappears, and the gap between the sunroof 2 and the window frame 1 may not be consistent due to uneven stress. By using the damping ring in this embodiment, the damping buffer 4 can always be in effective abutment with the sunroof 2 and the window frame 1 during the turning process of the sunroof 2, avoiding the failure of the limiting and restraining effect of the damping buffer 4, and the damping buffer 4 will not fall off due to bumping; at the same time, since the damping buffer 4 is close to the rotating shaft 210, the force arm of the damping friction force is small, and the damping friction force itself also has a small hindering effect on the sunroof 2, which reduces the hindering effect on the opening of the sunroof 2 in the instant of turning, and ensures that the self-ejection structure 5 can smoothly exert the pushing effect.

[0077] In other specific embodiments of the damping buffer member 4, the damping buffer member 4 can also be a damping strip / damping block arranged on the skylight 2 or the window frame 1, which can meet the requirements of providing axial limitation and damping friction to the skylight 2 during the flipping process of the skylight 2. This is not the only limitation here.

[0078] In some embodiments, see Figures 1 to 3 、 Figures 9 to 12 The skylight buffer structure assembly with anti-seismic and slow-release functions also includes a position-limiting buffer 6, which is fixed to the upper side of the window frame 1. The elastic buffer surface 601 of the position-limiting buffer 6 is at least partially located on the side of the rotating shaft 210 facing the upper flange, and the elastic buffer surface 601 can abut against the area of ​​the skylight 2 adjacent to the upper flange 201 to limit the position. In this embodiment, in order to avoid occupying the internal space of the data center, the position-limiting buffer 6 is fixed to the upper side of the window frame 1. Based on this, the elastic buffer surface 601 of the position-limiting buffer 6 is at least partially located on the side of the rotating shaft 210 facing the upper flange 201 of the skylight 2, which can contact and limit the skylight 2 before the skylight 2 flips to be flush with the vertical surface, effectively avoiding the problem of the skylight 2 flipping at an excessively large angle and reducing the kinetic energy of the skylight 2 at the moment of contact with the elastic buffer surface 601. By setting a limit buffer 6, the elastic buffer surface 601 of the limit buffer 6 generates elastic contact with the sunroof 2 when the sunroof 2 is flipped to a certain angle, effectively absorbing the flipping kinetic energy of the sunroof 2, reducing the impact force brought by the sunroof 2, and limiting the flipping angle of the sunroof 2, avoiding the direct rigid collision between the sunroof 2 and the window frame 1, and effectively improving the problem of structural damage to the sunroof 2 itself and the surrounding window frame 1 caused by the flipping of the sunroof 2.

[0079] This embodiment is not only applicable to the scenario of a single skylight 2, but also to the usage scenario with multiple skylights 2 distributed in rows. By setting the elastic buffer surface 601 in the unified limiting buffer 6, the multiple skylights 2 in a row can have a unified flipping angle, so that the skylights 2 can maintain the neatness of their posture after flipping, so that the fire gas can effectively pass through each skylight 2 into the data center.

[0080] In some embodiments, see Figures 9 to 12 The elastic buffer surface 601 is a plane inclined in the vertical direction, and the distance between the elastic buffer surface 601 and the upper surface of the window frame 1 gradually increases as it approaches the upper flange. This flat design helps increase the contact area between the elastic buffer surface 601 and the skylight 2, reducing impact pressure and preventing damage to the skylight 2 or the buffer stop 4. More specifically, to ensure reliable surface contact, the extended surface of the elastic buffer surface 601 overlaps the central axis of the rotating shaft 210.

[0081] In some specific embodiments of the position limiting buffer 6, see Figures 9 to 12The limiting and buffering piece 6 comprises a buffering support and a buffering head. The buffering support is fixed to the window frame 1 and has a mounting hole 611. The buffering head is inserted into the mounting hole 611, and the buffering head forms an elastic buffering surface 601. The buffering head and the buffering support of the embodiment are inserted and matched, simple in structure, convenient to install, and stable and reliable in use.

[0082] In some specific embodiments of the buffering head, in order to further reduce the assembly difficulty of the buffering support and the buffering head and simplify the assembly structure, the buffering head comprises a buffering body 621 and a buckle (as shown in Figures 9 to 12 ) connected to one side of the buffering body 621. The buckle is adapted to be connected to the mounting hole 611, and the side of the buffering body 621 away from the buckle is the elastic buffering surface 601. In specific implementation, the buffering body 621 and the buckle can be integrally formed by injection molding or other processes, reducing the connection gap between the buffering body 621 and the buckle, improving the structural strength and service life of the buffering head, and also simplifying the connection structure between the buffering body 621 and the buckle, reducing the design and production difficulty.

[0083] On the basis of the above embodiments, referring to Figure 11 and Figure 12 , the mounting hole 611 has at least one flat wall 6111, and the buckle has a flat surface 6221 corresponding to the flat wall 6111. The flat wall 6111 is attached to the flat surface 6221 to limit the displacement of the buckle in the circumferential direction of the mounting hole 611, thereby maintaining the stability of the position of the buffering head.

[0084] Specifically, the buckle has a guide body 6222 and a connecting body 6223 connected between the buffering body 621 and the guide body 6222. In order to improve the convenience of the buckle insertion, the guide body 6222 is a conical structure, and the large end of the guide body 6222 is connected to the connecting body 6223. When the buckle is inserted into the mounting hole 611, the taper surface of the guide body 6222 can guide the insertion, thereby facilitating the insertion. The outer diameter of the guide body 6222 is greater than the inner diameter of the mounting hole 611, and the outer diameter of the connecting body 6223 is not greater than the inner diameter of the mounting hole 611. In order to ensure the buffering contact area, the outer diameter of the buffering body 621 is greater than the outer diameter of the guide body 6222. A clamping groove structure is formed between the buffering body 621 and the guide body 6222 and clamped with the two end faces of the mounting hole 611, thereby ensuring the reliability of the buckle.

[0085] In a specific implementation, the cross sections of the guide body 6222, the connecting body 6223 and the buffer body 621 can be circular, polygonal or other regular or irregular shapes. The connecting body 6223 is a structure directly inserted into the mounting hole 611. In order to adapt to the design of the flat cutting edge provided on the connecting body 6223 and reduce the production and manufacturing difficulty, the cross sections of the guide body 6222, the connecting body 6223 and the buffer body 621 are regular polygonal structures, and the mounting hole 611 is a regular polygonal hole. The embodiment exemplarily shows an implementation in which the cross sections of the guide body 6222, the connecting body 6223 and the buffer body 621 are all square (i.e., the guide body 6222, the connecting body 6223 and the buffer body 621 are all regular quadrangular prisms), and the mounting hole 611 is a square hole. In this implementation, the four sides of the connecting body 6223 are all flat cutting surfaces 6221, the four side walls of the mounting hole 611 are all flat cutting walls 6111, and the remaining implementations are not listed one by one.

[0086] In some embodiments of the buffer support, the buffer support includes a first fixed plate 612, a second fixed plate 613 and a mounting plate 614 connected in sequence, as shown in Figures 9 to 12 The first fixed plate 612 is connected to the window frame 1 in a fit manner. The second fixed plate 613 is located on the side of the first fixed plate 612 facing the upper turning edge 201 and gradually inclines upward along the direction close to the upper turning edge 201. The mounting plate 614 is provided on the side of the second fixed plate 613 close to the sunroof 2, and the mounting plate 614 is provided with the mounting hole 611. The buffer support as a whole is a bent plate-shaped member, which is more compact in the up-down direction, occupies less space and facilitates the arrangement of other components above the window frame 1. At the same time, the buffer support has the second fixed plate 613 arranged in an inclined manner, which also facilitates the contact between the buffer head and the sunroof 2.

[0087] On the basis of the above-mentioned embodiments, referring to Figures 9 to 12 The edges of the first fixed plate 612 and the edges of the second fixed plate 613 are provided with reinforcing flanges 615, and the reinforcing flanges 615 on the first fixed plate 612 and the reinforcing flanges 615 on the second fixed plate 613 are integrally connected. In a specific implementation, the reinforcing flanges 615 on the first fixed plate 612 extend to the side edge of the first fixed plate 612 away from the second fixed plate 613, and the reinforcing flanges 615 on the second fixed plate 613 extend to the side edge of the second fixed plate 613 away from the first fixed plate 612.

[0088] More specifically, the mounting plate 614 is arranged parallel to the second fixed plate 613, the side edge of the mounting plate 614 facing the upper turning edge 201 is flush with the side edge of the second fixed plate 613 facing the upper turning edge 201, and the length of the mounting plate 614 is less than the length of the second fixed plate 613.

[0089] More specifically, the first fixed plate 612, the second fixed plate 613, the mounting plate 614 and the reinforcing flange 615 are integrally formed by an integral bending process, reducing the connection gap and improving the overall structural strength of the buffer support, while also helping to reduce the production cost of the buffer support.

[0090] Referring to Figure 11 In some embodiments, the window frame 1 is provided with a plurality of connection positions 101 distributed in a direction perpendicular to the rotation axis, and the limiting buffer 6 is provided with a plurality of mounting positions 602, which are fixedly connected with the corresponding connection positions 101. In specific implementation, the connection positions 101 and the mounting positions 602 are both in a hole structure, and are fixed by a threaded fastener or the like. In order to improve the convenience and reliability of the connection, a plurality of mounting positions 602 are provided to correspond to the connection positions 101, so as to avoid the problem of rotation of the limiting buffer 6 after installation.

[0091] On the basis of the above-mentioned embodiments, the number of connection positions 101 is greater than the number of mounting positions 602, that is, at least three connection positions 101 are arranged in a direction perpendicular to the rotation axis 210, and two mounting positions 602 are arranged in a direction perpendicular to the rotation axis, and the spacing between the adjacent two connection positions 101 is the same, and the spacing between the two mounting positions 602 is the same as the spacing between the adjacent two connection positions 101. During installation, the two mounting positions 602 can be selectively mounted with any adjacent two connection positions 101, so that the limiting buffer 6 can be flexibly adjusted in a direction perpendicular to the rotation axis, and will not rotate after installation.

[0092] In specific implementation, in order to improve the convenience and reliability of the connection, the connection positions 101 and the mounting positions 602 are both in a hole structure, and are fixed by a threaded fastener or the like.

[0093] Based on the same inventive concept, the embodiments of the present application also provide a data center comprising the skylight buffer structure assembly with anti-seismic and slow-release functions.

[0094] The data center provided by the embodiments has a more stable and reliable skylight 2 structure, which is helpful to improve the overall structural stability and use reliability of the data center.

[0095] The above merely describes preferred embodiments of the present application, and is not used to limit the present application, any modification, equivalent replacement and improvement within the spirit and principle of the present application should be included in the protection scope of the present application.

Claims

1. A sunroof cushion structure assembly with anti-shock and slow-release functions, characterized in that, It comprises: a window frame (1); a sunroof (2) rotatable in the window frame (1) through a rotating shaft (210); a magnetic lock (3) connected between the sunroof (2) and the window frame (1); a damping buffer (4) tightly abutting between the side of the rotating shaft (210) on the sunroof (2) and the corresponding side wall of the window frame (1); a self-rebound structure (5) arranged between the window frame (1) and the sunroof (2), the self-rebound structure (5) being located between the rotating shaft (210) and the upper turning edge (201) of the sunroof (2) and enabling the turning edge of the sunroof (2) to move away from the window frame (1) when the magnetic lock (3) is unlocked; the sunroof buffer structure assembly with anti-shock and slow-release functions further comprises a first magnetic body (7) arranged on one of the sunroof (2) and the window frame (1) and capable of being magnetically adsorbed on the other one of the sunroof (2) and the window frame (1), the magnetic lock (3) and the first magnetic body (7) being diagonally arranged relative to the sunroof (2).

2. The sunroof cushion structure assembly with anti-shock and slow release function according to claim 1, characterized in that, The vertical distance between the self-rebound structure (5) and the upper turning edge (201) is defined as H1, and the vertical distance between the self-rebound structure (5) and the rotating shaft (210) is defined as H2, H1 3. The sunroof cushion structure assembly with anti-shock and slow release function according to claim 2, characterized in that, The magnetic lock (3) is located between the rotating shaft (210) and the upper turning edge (201), the vertical distance between the magnetic lock (3) and the upper turning edge (201) is defined as L1, and the vertical distance between the magnetic lock (3) and the rotating shaft (210) is defined as L2, L1 4. The sunroof cushion structure assembly with anti-shock and slow release function according to claim 3, characterized in that, The vertical distance between the self-rebound structure (5) and the upper turning edge (201) is defined as H1, and the vertical distance between the self-rebound structure (5) and the rotating shaft (210) is defined as H2, H1 5. The sunroof cushion structure assembly with anti-shock and slow release function according to claim 4, characterized in that, The magnetic lock (3) comprises a first lock body (310) and a second lock body (320) capable of being mutually adsorbed, the first lock body (310) being arranged on one of the sunroof (2) and the window frame (1), and the second lock body (320) being arranged on the other one of the sunroof (2) and the window frame (1); the self-rebound structure (5) is fixed to the second lock body (320) and forms a pushing end (501) for pushing the sunroof (2) or the window frame (1).

6. The sunroof cushion structure assembly with anti-shock and slow release function according to claim 1, characterized in that, The damping buffer (4) is a damping ring, which is sleeved on the outer periphery of the rotating shaft (210) and tightly abuts the sunroof (2) and the window frame (1) at two shaft end faces, respectively.

7. The sunroof cushion structure assembly with anti-shock and slow release function according to claim 1, characterized in that, The sunroof buffer structure assembly with anti-shock and slow-release functions further comprises a limiting buffer (6) fixed to the upper side of the window frame (1), an elastic buffer surface (601) of the limiting buffer (6) being at least partially located on the side of the rotating shaft (210) facing the upper turning edge (201), and the elastic buffer surface (601) being capable of abutting and limiting the area of the sunroof (2) close to the upper turning edge (201).

8. The sunroof cushion structure assembly with anti-shock and slow release function according to claim 7, characterized in that, The elastic buffering surface (601) is a plane inclined to the up-down direction, and the distance between the elastic buffering surface (601) and the upper surface of the window frame (1) gradually increases in the direction close to the upper turning edge (201).

9. A data center, characterized by, The sunroof buffering structure assembly with anti-shock and slow-release functions comprises the sunroof buffering structure assembly with anti-shock and slow-release functions as claimed in any one of claims 1-8.

Images