Cabinet and electronic equipment

Abstract

The invention discloses a cabinet and electronic equipment, and relates to the technical field of computers, the cabinet comprises a cabinet body, a damping mechanism, a movable mechanism and a locking mechanism, the damping mechanism comprises a damper and a sensor, the damper is connected with the cabinet body and a supporting plate, the movable mechanism is arranged on the supporting plate, and the movable mechanism is movably connected with a bracket. The locking mechanism is used for locking the movable mechanism. When the sensor detects that the impact force exceeds a first preset value, the damping force of the damper can be automatically adjusted according to the magnitude of the impact force, so that the impact force transmitted to the electronic node is reduced, under the normal condition, the locking mechanism locks the movable mechanism, and when the sensor detects that the impact force exceeds a second preset value, the damping force of the damper is automatically adjusted according to the magnitude of the impact force. And the locking mechanism can automatically unlock the movable mechanism, so that the bracket can freely move on the supporting plate, thereby further relieving the direct influence of the impact force on the electronic node, preventing the electronic node from being damaged, improving the protection capability of the cabinet, and enabling the whole equipment to be more stable and reliable.

Description

Technical Field

[0001] The present application relates to the field of computer technology, and in particular to a cabinet and electronic equipment. Background Art

[0002] With the development of society and economy, especially with the advancement of artificial intelligence technology, the demand for IT equipment such as servers is increasing. Among them, the core components of IT equipment, such as servers, have very strict requirements on stability. Once a failure occurs, it usually causes the entire equipment to stop operating.

[0003] Currently, IT equipment such as servers is typically stored and accommodated in cabinets. During movement, these cabinets are often subject to collisions, impacting the core components within. Existing cabinets rely solely on rubber pads for shock absorption, making them susceptible to damage from sudden impacts such as collisions. Summary of the Invention

[0004] The present application provides a cabinet and electronic equipment to achieve anti-collision and avoid the problem of electronic nodes being damaged due to excessive impact.

[0005] The present application provides a cabinet, comprising a cabinet body, a shock absorbing mechanism, a movable mechanism, and a locking mechanism;

[0006] The cabinet body is provided with a support plate and a bracket, and the bracket is used to fix the electronic node;

[0007] The shock absorption mechanism includes a damper and a sensor, the damper is connected to the cabinet body and the support plate, the sensor is provided on the support plate and is electrically connected to the damper, so as to adjust the damping force of the damper when the detection value of the sensor is greater than a first preset value, and the movable mechanism is provided on the support plate and movably connected to the bracket;

[0008] The locking mechanism is used to lock the movable mechanism. The locking mechanism is electrically connected to the sensor to release the lock on the movable mechanism when the detection value of the sensor is greater than a second preset value. The second preset value is greater than the first preset value.

[0009] The present application provides an electronic device, including the above-mentioned cabinet and electronic node.

[0010] Through the cabinet and electronic equipment of the present application, since a shock absorbing mechanism is introduced into the cabinet body, the damper and sensor in the shock absorbing mechanism can combine their functions to effectively absorb and alleviate external impact forces. When the sensor detects that the impact force exceeds the first preset value, the damping force of the damper will automatically adjust according to the magnitude of the impact force, thereby reducing the impact force transmitted to the electronic node and protecting the stability and safety of the electronic node. Through the cooperation of the movable mechanism and the locking mechanism, under normal circumstances, the locking mechanism locks the movable mechanism to keep the cabinet stable, and when the sensor detects that the impact force exceeds the second preset value, that is, when it is subjected to a large impact, the locking mechanism can automatically release the lock on the movable mechanism, allowing the bracket to move freely on the support plate, thereby further alleviating the direct impact of the impact force on the electronic node. The application of sensors enables the cabinet to monitor changes in the external environment in real time, respond intelligently, and quickly adjust the internal structure to avoid damage to the electronic node, thereby improving the protection capability of the cabinet, making the equipment as a whole more stable and reliable, and extending the service life of the electronic node and its related equipment, reducing maintenance and replacement costs. By flexibly adjusting the preset threshold of the cabinet, it can adapt to impacts of different intensities, be suitable for various complex usage environments, and improve the applicability of the cabinet. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] In order to more clearly illustrate the embodiments of the present application, the following is a brief introduction to the drawings required for use in the embodiments. Obviously, the drawings described below are only some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without any creative work.

[0012] Figure 1 A schematic diagram of the structure of a cabinet provided in an embodiment of the present application;

[0013] Figure 2 for Figure 1 A schematic structural diagram of the shock absorbing mechanism of the cabinet shown;

[0014] Figure 3 for Figure 1 A schematic diagram of a partially exploded structure of the movable mechanism of the cabinet shown;

[0015] Figure 4 for Figure 1 A schematic structural diagram of the locking mechanism of the cabinet shown;

[0016] Figure 5 for Figure 1 A schematic diagram of the structure of the locking mechanism and the movable mechanism of the cabinet shown;

[0017] Figure 6 for Figure 1 One of the structural diagrams of the buffer mechanism of the cabinet shown;

[0018] Figure 7 for Figure 1 The second structural diagram of the buffer mechanism of the cabinet shown;

[0019] Figure 8 for Figure 6 A schematic structural diagram of the second buffer assembly of the buffer mechanism shown;

[0020] Figure 9 for Figure 1 Schematic diagram of the structure of the cable guide mechanism of the cabinet shown.

[0021] The above drawings include the following reference numerals:

[0022] 100-cabinet; 10-cabinet body; 11-support plate; 12-bracket; 121-mounting hole; 122-second guide block; 123-first locking hole; 20-shock absorption mechanism; 21-damper; 22-sensor; 30-movable mechanism; 31-first guide plate; 311-first movable groove; 312-third locking hole; 32-second guide plate; 321-first guide block; 322-second movable groove; 323-second locking hole; 33-first buffer; 34-second buffer; 40-locking mechanism; 41-locking rod; 42-connecting plate; 43-locking drive assembly; 431-support seat; 432-rotating shaft; 433-first synchronous wheel; 434-second synchronous wheel; 435-synchronous belt; 436-locking drive member; 50-buffer mechanism; 51-first buffer assembly; 511- Mounting seat; 512-mounting shaft; 513-first torsion spring; 514-first buffer plate; 5141-connecting tube; 515-first limit plate; 516-first protective strip; 52-second buffer assembly; 521-connecting seat; 522-connecting shaft; 523-second torsion spring; 524-second buffer plate; 525-second limit plate; 526-stop drive member; 527-baffle; 528-second protective strip; 60-cable guiding mechanism; 61-guide plate; 611-guide groove; 62-first guide rod; 63-second guide rod; 64-lifting assembly; 641-matching rack; 642-matching shaft; 643-matching wheel; 644-driven wheel; 645-driving wheel; 646-driving belt; 65-matching plate; 651-lifting groove; 200-electronic node; 201-cable; 202-connecting terminal. DETAILED DESCRIPTION

[0023] The following will be combined with the accompanying drawings in the embodiments of this application to clearly and completely describe the technical solutions in the embodiments of this application. Obviously, the embodiments described are only part of the embodiments of this application, not all of them. Based on the embodiments in this application, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of this application.

[0024] It should be noted that the terms "center," "longitudinal," "transverse," "length," "width," "thickness," "upper," "lower," "front," "back," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," "clockwise," "counterclockwise," "axial," "radial," "circumferential," and the like, indicating positions or relationships, are based on the positions or relationships shown in the accompanying drawings and are intended solely for ease of description and simplification of the present application. They are not intended to indicate or imply that the devices or components referred to must have, be constructed, or operate in a specific orientation, and therefore should not be construed as limiting the present application. The terms "mounted," "connected," and "connected" should be interpreted broadly, and may include, for example, fixed, removable, or integral connections; mechanical or electrical connections; direct or indirect connections through an intermediary; and internal communication between two components. The terms "parallel," "perpendicular," and "equal" encompass the described conditions and conditions similar to the described conditions, provided that the range of the similar conditions is within an acceptable range of deviation, as determined by a person of ordinary skill in the art taking into account the measurement in question and the errors associated with the measurement of the particular quantity (i.e., the limitations of the measurement system). For example, "parallel" includes both absolute parallelism and approximate parallelism, where the acceptable deviation range for approximate parallelism may be, for example, within 5°; "perpendicular" includes both absolute perpendicularity and approximate perpendicularity, where the acceptable deviation range for approximate perpendicularity may also be, for example, within 5°. "Equal" includes both absolute equality and approximate equality, where the acceptable deviation range for approximate equality may be, for example, that the difference between the two is less than or equal to 5% of either. Those skilled in the art will understand the specific meanings of the above terms in this application based on the specific circumstances.

[0025] In order to enable those skilled in the art to better understand the present application, the present application is further described in detail below with reference to the accompanying drawings and specific implementation methods.

[0026] An embodiment of the present application provides a cabinet 100 , and the device is described in detail in combination with the structure and working principle of the cabinet 100 .

[0027] like Figure 1As shown, the cabinet 100 provided in the embodiment of the present application is used to store and accommodate electronic nodes 200. The cabinet 100 can protect the electronic nodes 200 installed therein, thereby preventing the electronic nodes 200 from being damaged by sudden impacts such as collisions and kicks.

[0028] In some possible implementations, a cabinet 100 includes a cabinet body 10, a shock-absorbing mechanism 20, a movable mechanism 30, and a locking mechanism 40. The cabinet body 10 is provided with a support plate 11 and a bracket 12. The bracket 12 is used to secure the electronic node 200. The shock-absorbing mechanism 20 connects the cabinet body 10 and the support plate 11. The movable mechanism 30 is provided on the support plate 11 and is movably connected to the bracket 12. The locking mechanism 40 is provided on the support plate 11.

[0029] In some possible implementations, the electronic node 200 includes but is not limited to IT hardware such as server nodes, storage devices, and switches.

[0030] In some possible implementations, the side of the support plate 11 is fixedly connected to the cabinet body 10 .

[0031] In some possible implementations, the bracket 12 is provided with a mounting hole 121. The electronic node 200 is fixed to the bracket 12 by fasteners such as screws.

[0032] The shock absorbing mechanism 20 is used to reduce the shock of the electronic node 200 when the external impact force is small. The movable mechanism 30 and the locking mechanism 40 are used to cooperate with the shock absorbing mechanism 20 to reduce the shock of the electronic node 200 when the external impact force is large.

[0033] like Figure 2 As shown, the shock absorption mechanism 20 includes a damper 21 and a sensor 22. The damper 21 connects the cabinet body 10 and the support plate 11. The sensor 22 is disposed on the support plate 11 and electrically connected to the damper 21. The sensor 22 is configured to detect the instantaneous pressure increase on the support plate 11. When the value detected by the sensor 22 exceeds a first preset value, the damping force of the damper 21 is adjusted.

[0034] In some possible implementations, the sensor 22 is a pressure sensor.

[0035] In some possible implementations, the bottom of the damper 21 is connected to the bottom plate of the cabinet body 10, and the top of the damper 21 is connected to the support plate 11. The movable mechanism 30 is disposed on a side of the support plate 11 away from the damper 21. The bracket 12 is disposed on a side of the movable mechanism 30 away from the support plate 11.

[0036] In some possible implementations, the damper 21 is a magnetorheological damper. The magnetorheological damper automatically controls the damping force by automatically adjusting the current. When the detection value of the sensor 22 is greater than a first preset value, the magnetorheological damper increases the current, thereby increasing the damping force to suppress the vibration of the support plate 11, thereby alleviating the impact force on the electronic node 200.

[0037] By incorporating shock absorption mechanism 20 into cabinet body 10, damper 21 and sensor 22 within shock absorption mechanism 20 combine their functions to effectively absorb and mitigate external impact forces. When sensor 22 detects an impact force exceeding a first preset value, damper 21 automatically adjusts its damping force based on the magnitude of the impact force, thereby reducing the impact force transmitted to electronic node 200 and protecting the stability and safety of electronic node 200.

[0038] The locking mechanism 40 is used to lock the movable mechanism 30. The locking mechanism 40 is electrically connected to the sensor 22. When the detection value of the sensor 22 is greater than the second preset value, the locking mechanism 40 releases the lock on the movable mechanism 30.

[0039] The second preset value is greater than the first preset value.

[0040] In some possible implementations, the first preset value is 3N, and the second preset value is 10N.

[0041] Through the cooperation between the movable mechanism 30 and the locking mechanism 40, under normal circumstances, the locking mechanism 40 locks the movable mechanism 30, thereby maintaining the stability of the cabinet body 10. However, when the sensor 22 detects that the impact force exceeds a second preset value, that is, when subjected to a large impact, the locking mechanism 40 automatically releases the lock on the movable mechanism 30, allowing the bracket 12 to move freely on the support plate 11, thereby further alleviating the direct impact of the impact force on the electronic node 200.

[0042] The use of sensor 22 enables cabinet body 10 to monitor changes in the external environment in real time and intelligently respond, rapidly adjusting its internal structure to prevent damage to electronic node 200. This improves the protection capabilities of cabinet body 10, making the overall equipment more stable and reliable, extending the service life of electronic node 200 and its related equipment, and reducing maintenance and replacement costs. By flexibly adjusting the preset thresholds of cabinet body 10, it can adapt to impacts of varying intensities, making it suitable for a variety of complex operating environments and expanding the scope of application of cabinet body 10.

[0043] In some possible implementations, the shock absorbing mechanism 20 includes a plurality of dampers 21 and sensors 22. The plurality of dampers 21 are respectively arranged on the support plate 11. The sensors 22 correspond to the dampers 21 one by one and are adjacent to the corresponding dampers 21.

[0044] By arranging multiple dampers 21 on the support plate 11, distributed vibration reduction can be achieved, more evenly distributing and absorbing impact forces from different directions and positions, thereby providing more comprehensive protection. Because each damper 21 has a limited range of action, the combination of multiple dampers 21 can effectively reduce the transmission of vibrations on the support plate 11, thereby reducing the impact on the electronic node 200.

[0045] Each sensor 22 is positioned adjacent to its corresponding damper 21, enabling it to more quickly and accurately detect localized impact changes. This allows each damper 21 to be independently adjusted based on the actual needs of its location, improving the overall response speed and efficiency of the shock absorption system. This one-to-one correspondence between sensors 22 and dampers 21 enables differentiated impact force processing in different areas. This allows for dynamic adjustment of the damping force of the damper 21 based on the force applied to each area, optimizing the overall shock absorption effect.

[0046] This modular design allows the number and location of dampers 21 and sensors 22 to be adjusted as needed to accommodate electronic nodes 200 of varying sizes and weights, allowing the cabinet body 10 to adapt to a variety of application scenarios. Furthermore, because each damper 21 and sensor 22 operates independently, even if one component fails, the others can still operate normally, improving the reliability and fault tolerance of the entire damping system.

[0047] In some possible implementations, dampers 21 and sensors 22 are respectively provided at the four corners of the support plate 11 .

[0048] like Figure 3 As shown, in some possible implementations, the movable mechanism 30 includes a first guide plate 31 and a second guide plate 32. The first guide plate 31 is disposed on the support plate 11. The second guide plate 32 is movably disposed on the first guide plate 31 along a first direction x. The bracket 12 is movably disposed on the second guide plate 32 along a second direction y.

[0049] There is an angle between the second direction y and the first direction x.

[0050] In a possible implementation, the second direction y and the first direction x are perpendicular to each other.

[0051] In a possible implementation, the first direction x is the width direction of the cabinet body 10 , and the second direction y is the length direction of the cabinet body 10 .

[0052] In a possible implementation, the extension directions of the first guide plate 31 and the second guide plate 32 are perpendicular to each other.

[0053] In a possible implementation, four first guide plates 31 are provided, and the four first guide plates 31 are respectively located at the four corners of the support plate 11 . Two second guide plates 32 are provided, and the second guide plates 32 are slidably provided on the corresponding two first guide plates 31 .

[0054] By providing the first guide plate 31 and the second guide plate 32, the bracket 12 can move in two different directions. This multi-dimensional mobility allows the bracket 12 to more flexibly respond to impacts or vibrations from different directions, thereby more effectively protecting the electronic node 200. When the cabinet body 10 is impacted, the bracket 12 can move freely in both directions, more flexibly responding to complex impact situations and better protecting the electronic node 200 from accidental damage. Because the bracket 12 can move in both directions, the impact force is not concentrated in a single direction or point, but is instead distributed over a larger area, thereby reducing potential damage to the electronic node 200 caused by stress concentration. Due to the angle between the second direction y and the first direction x, the movement path of the bracket 12 is not a simple straight line, which can better disperse and absorb forces from different directions and enhance the overall shock absorption effect. The presence of the angle provides better support and balance for the bracket 12 during movement, reducing the instability that may be caused by single-directional movement and helping to maintain the stability of the electronic node 200 within the cabinet body 10.

[0055] By moving in two directions, the bracket 12 can more effectively utilize the internal space of the cabinet body 10 , can adapt to electronic nodes 200 of different sizes and shapes, and improve the versatility and adaptability of the cabinet body 10 .

[0056] In some possible implementations, the first guide plate 31 is provided with a first movable slot 311 extending along the first direction x. The second guide plate 32 is provided with a first guide block 321. The first guide block 321 is movably disposed in the first movable slot 311. The first movable slot 311 is disposed on a side of the first guide plate 31 facing the second guide plate 32. The first guide block 321 is disposed on a side of the second guide plate 32 facing the first guide plate 31.

[0057] In some possible implementations, the second guide plate 32 is provided with a second movable slot 322 extending along the second direction y. The bracket 12 is provided with a second guide block 122. The second guide block 122 is movably disposed in the second movable slot 322. The second movable slot 322 is disposed on the side of the second guide plate 32 facing the bracket 12. The second guide block 122 is disposed on the side of the bracket 12 facing the second guide plate 32.

[0058] The combination of the first movable groove 311 and the first guide block 321, and the second movable groove 322 and the second guide block 122 provides a precise guiding function, ensuring that the movement of the second guide plate 32 and the bracket 12 in their respective directions is stable and controlled, reducing offset and error during the movement.

[0059] The design of the movable slot and guide block allows the second guide plate 32 and the bracket 12 to achieve smooth linear motion during movement, reducing friction and resistance, and improving the efficiency and durability of the entire system. By confining the guide block to the movable slot, the second guide plate 32 and the bracket 12 gain additional support and stability during movement, reducing the shaking and instability of the moving parts, and improving the overall stability of the system. The movement path of the guide block in the movable slot is fixed, which reduces unnecessary friction and wear and extends the service life of the second guide plate 32 and the bracket 12. The length and position of the movable slot can be designed and adjusted according to actual needs, allowing the system to adapt to different application scenarios and needs, and improving the applicability and versatility of the cabinet. The design of the guide block and movable slot makes installation and maintenance simpler and more intuitive. Components can be disassembled and replaced without affecting the overall structure, reducing maintenance costs and complexity.

[0060] In some possible implementations, the first movable groove 311 and the second movable groove 322 are dovetail grooves, and the first guide block 321 and the second guide block 122 are dovetail blocks, so that the bracket 12 will not detach from the third direction z.

[0061] There are angles between the third direction z, the second direction y, and the first direction x.

[0062] In a possible implementation, the third direction z is perpendicular to the second direction y and the first direction x.

[0063] In a possible implementation, the third direction z is the height direction of the cabinet body 10 .

[0064] In some possible implementations, the movable mechanism 30 further includes a first buffer 33 and a second buffer 34. The first buffer 33 is disposed in the first movable groove 311, with one end of the first buffer 33 abutting the first guide block 321 and the other end of the first buffer 33 abutting the groove wall of the first movable groove 311.

[0065] The second buffer member 34 is disposed in the second movable groove 322 , with one end of the second buffer member 34 abutting against the second guide block 122 , and the other end of the second buffer member 34 abutting against the groove wall of the second movable groove 322 .

[0066] The addition of the first buffer member 33 and the second buffer member 34 can effectively absorb and alleviate the impact force and vibration generated when the first guide block 321 and the second guide block 122 move in the first movable groove 311 and the second movable groove 322, further improving the overall shock absorption capability of the cabinet body 10 and protecting the internal electronic node 200 from physical impact.

[0067] When the cabinet body 10 is subjected to a collision force, part of the collision force is offset by the damper 21, part of the collision force is adaptively weakened by the second guide plate 32 under the action of the first buffer 33, and part of the collision force is adaptively weakened by the bracket 12 under the action of the second buffer 34, so the collision force is hardly transmitted to the electronic node 200.

[0068] The buffer can provide a soft contact interface between the guide block and the movable groove wall, reducing the noise caused by hard contact, helping to reduce the noise generated by the cabinet body 10 when it moves or is impacted, and improving the quiet performance of the equipment. The buffer can reduce the direct friction and collision between the guide block and the movable groove wall, thereby reducing wear and extending the service life of the second guide plate 32 and the bracket 12. The buffer provides additional support and stability when the guide block moves, making the movement smoother and more controlled, reducing shaking and instability during the movement, and improving the reliability of the system. The buffer can provide resistance when the guide block approaches the extreme position of the movable groove, preventing structural damage caused by excessive movement, and helping to protect the integrity of the movable mechanism 30. The material and size of the buffer can be adjusted according to actual needs to adapt to shocks and vibrations of different intensities, so that the cabinet body 10 can provide effective protection in various environments.

[0069] In some possible implementations, the first buffer member 33 and the second buffer member 34 are both springs, and two are provided respectively. The two first buffer members 33 are respectively located on both sides of the first guide block 321, and the two second buffer members 34 are respectively located on both sides of the second guide block 122, so as to provide buffering from both sides of the first guide block 321 or the second guide block 122.

[0070] The bracket 12 , the first guide plate 31 , and the second guide plate 32 are locked to each other via a locking mechanism 40 .

[0071] like Figure 4 As shown, in some possible implementations, the locking mechanism 40 includes a locking rod 41, a connecting plate 42, and a locking drive assembly 43. The bracket 12 is provided with a first locking hole 123. The first locking hole 123 extends through the bracket 12. The second guide plate 32 is provided with a second locking hole 323. The second locking hole 323 extends through the second guide plate 32. The first guide plate 31 is provided with a third locking hole 312. One side of the connecting plate 42 is connected to the locking rod 41, and the other side of the connecting plate 42 is connected to the locking drive assembly 43.

[0072] like Figure 5 As shown, the locking drive assembly 43 is electrically connected to the sensor 22 , and the locking drive assembly 43 is used to drive the connecting plate 42 to drive the locking rod 41 to sequentially penetrate the first locking hole 123 , the second locking hole 323 and the third locking hole 312 to lock the movable mechanism 30 .

[0073] When the electronic node 200 operates normally, the locking drive assembly 43 drives the connecting plate 42 to locate the locking rod 41 in the first locking hole 123 , the second locking hole 323 and the third locking hole 312 .

[0074] When the sensor 22 detects that the instantaneous pressure increase value is greater than the second preset value, the locking drive assembly 43 drives the connecting plate 42 to disengage the locking rod 41 from the first locking hole 123, the second locking hole 323 and the third locking hole 312, so that the bracket 12, the second guide plate 32 and the first guide plate 31 can move.

[0075] By inserting the locking rod 41 through the first locking hole 123, the second locking hole 323, and the third locking hole 312, the various components of the movable mechanism 30 are securely fastened together. This allows the bracket 12, the second guide plate 32, and the first guide plate 31 to be locked in a stable position when needed, preventing unwanted movement and improving the overall stability of the cabinet body 10. The locking mechanism 40 can unlock the movable mechanism 30 in the event of a significant external impact, allowing the electronic node 200 to move relative to the movable mechanism 30, thereby mitigating the impact. This design enhances equipment safety, particularly when the cabinet body 10 is frequently moved or installed in an unstable environment.

[0076] The locking drive assembly 43 can quickly drive the connecting plate 42 and the locking rod 41 to quickly lock and unlock the movable mechanism 30, allowing the cabinet body 10 to flexibly switch between different operating modes and improve operational efficiency. Through mechanical locking, the movable mechanism 30 will not be accidentally moved during operation when locked, thus facilitating normal operation of the electronic node 200.

[0077] The design of the locking mechanism 40 allows the locking and unlocking processes to be completed by a single locking drive assembly 43, simplifying the operation process, reducing operational complexity and the need for manual intervention. The flexibility of the locking mechanism 40 allows the cabinet body 10 to adapt to various application scenarios. Whether during transportation, installation, or maintenance, it can be locked or unlocked as needed, providing greater applicability.

[0078] In some possible implementations, the locking drive assembly 43 includes a support base 431, a rotating shaft 432, a first synchronous wheel 433, a second synchronous wheel 434, a synchronous belt 435, and a locking drive member 436. The support base 431 is disposed on the support plate 11. The rotating shaft 432 is rotatably disposed on the support base 431. The other side of the connecting plate 42 is connected to the rotating shaft 432, thereby driving the locking rod 41 to rotate when the rotating shaft 432 rotates. The first synchronous wheel 433 is fixed to the rotating shaft 432. The second synchronous wheel 434 is fixed to the locking drive member 436. The synchronous belt 435 is sleeved on the first synchronous wheel 433 and the second synchronous wheel 434. The locking drive member 436 is electrically connected to the sensor 22 and is used to drive the second synchronous wheel 434 to rotate, thereby driving the rotating shaft 432 to rotate, causing the connecting plate 42 to rotate.

[0079] By using the combination of the first synchronous wheel 433, the second synchronous wheel 434, and the synchronous belt 435, the locking drive assembly 43 can achieve precise mechanical transmission, ensuring that the movement of the locking rod 41 is controllable, and can accurately enter or exit the first locking hole 123, the second locking hole 323 and the third locking hole 312, thereby improving the reliability of the locking and unlocking process.

[0080] The synchronous belt 435 transmission has efficient energy transmission capabilities and can achieve efficient mechanical movement with lower energy consumption, thereby improving the overall efficiency of the locking drive assembly 43 and reducing energy loss. The synchronous belt 435 transmission has lower friction and wear than the gear transmission, which extends the service life of the locking drive assembly 43 and reduces maintenance requirements and costs. The synchronous belt 435 transmission provides a smooth movement path, reduces vibration and noise during the locking and unlocking process, and improves the smoothness and comfort of operation. By adjusting the size of the first synchronous pulley 433 and the second synchronous pulley 434 and the length of the synchronous belt 435, the transmission ratio can be flexibly changed to adapt to different operating requirements, providing higher flexibility and adaptability, so that the locking drive assembly 43 can be adapted to a variety of application scenarios. The synchronous belt transmission system usually takes up less space, so that the entire locking drive assembly 43 can be integrated into the cabinet body 10 in a compact form, optimizing space utilization and being suitable for achieving complex mechanical movement within a limited space.

[0081] In some possible implementations, the first synchronous wheel 433 and the second synchronous wheel 434 are synchronous gears, and the synchronous belt 435 is a synchronous toothed belt that meshes with both the first synchronous wheel 433 and the second synchronous wheel 434.

[0082] In some possible implementations, the locking driver 436 is a micro motor disposed on the support plate 11 .

[0083] In some possible implementations, the cabinet 100 further includes a buffer mechanism 50 . The buffer mechanism 50 is disposed on the support plate 11 . The buffer mechanism 50 is used to limit the movement of the electronic node 200 .

[0084] The buffer mechanism 50 effectively limits the movement of the electronic node 200 within the cabinet body 10, particularly when the cabinet body 10 is subjected to external impact or vibration. This reduces the shaking and displacement of the electronic node 200 within the cabinet body 10, thereby reducing the risk of physical damage caused by collisions. By limiting the movement of the electronic node 200, the buffer mechanism 50 improves the stability of the electronic node 200 within the cabinet body 10, helping to maintain the normal operation of the electronic node 200 and prevent loosening or disconnection of connections due to movement. By reducing unnecessary movement and vibration, the buffer mechanism 50 helps extend the service life of the electronic node 200 and its internal components, reducing maintenance and replacement costs. The buffer mechanism 50 can be adjusted and optimized based on the size and weight of different electronic nodes 200 to accommodate a variety of electronic nodes 200, thereby enhancing the versatility and applicability of the cabinet body 10. The buffer mechanism 50 helps to secure the position of the electronic node 200 during installation, simplifying the installation process and improving installation efficiency. The buffer mechanism 50 reduces noise generated by the movement or vibration of the electronic node 200, thereby improving the quietness of the cabinet body 10.

[0085] The buffer mechanism 50 is generally made of a material with elastic or energy-absorbing properties, and can absorb and mitigate the energy transmitted to the electronic node 200 by external impact, further enhancing the overall shock absorption effect of the cabinet body 10 and protecting the internal components of the electronic node 200 .

[0086] like Figure 6 As shown, in some possible implementations, the buffer mechanism 50 includes a first buffer assembly 51. The first buffer assembly 51 is disposed on both sides of the electronic node 200 along a first direction x to limit movement of the electronic node 200 along the first direction x. In other words, the first buffer assembly 51 provides buffering in the width direction of the electronic node 200.

[0087] By providing the first buffer assembly 51 on both sides of the electronic node 200, the movement of the electronic node 200 along the first direction x can be effectively restricted. This directional protection can specifically absorb and mitigate impact forces from the first direction x, thereby better protecting the electronic node 200. The first buffer assembly 51 provides additional support and stability on both sides of the electronic node 200, preventing lateral movement of the electronic node 200 within the cabinet body 10. This helps maintain the stable operation of the electronic node 200 and prevents loosening or disconnection of connections caused by movement. The first buffer assembly 51 can be adjusted and optimized based on the size and weight of the electronic node 200 to accommodate electronic nodes 200 of different types and specifications, thereby improving the versatility and applicability of the cabinet body 10. By restricting the lateral movement of the electronic node 200, the first buffer assembly 51 reduces direct collisions between the electronic node 200 and other components within the cabinet body 10 or the cabinet walls, reducing the risk of physical damage.

[0088] In some possible implementations, the first buffer assembly 51 includes a mounting seat 511, a mounting shaft 512, a first torsion spring 513, and a first buffer plate 514. The mounting seat 511 is disposed on the support plate 11. The mounting shaft 512 is disposed on the mounting seat 511 and extends along the second direction y. The first buffer plate 514 is rotatably mounted on the mounting shaft 512. The first torsion spring 513 is disposed on the mounting shaft 512, with one end connected to the mounting seat 511 and the other end connected to the first buffer plate 514. The force applied by the first torsion spring 513 to the first buffer plate 514 can cause the first buffer plate 514 to rotate upward, thereby limiting the movement of the electronic node 200 in the first direction x on the side of the first buffer plate 514 away from the mounting shaft 512.

[0089] When the electronic node 200 moves along its width, that is, moves along the first direction x, the first buffer plate 514 swings adaptively under the action of the first torsion spring 513 , and the first buffer plate 514 provides support and resistance to the electronic node 200 to prevent the electronic node 200 from excessive displacement.

[0090] The mounting base 511 is fixed to the support plate 11, providing a stable foundation for the first buffer assembly 51 and ensuring that the first buffer assembly 511 does not shift when impacted, thereby improving the stability of the buffering effect. The first buffer plate 514 can rotate freely via the mounting shaft 512, and the first torsion spring 513 provides elastic force. This design enables the first buffer plate 514 to dynamically respond to external impacts or vibrations. When the electronic node 200 abuts the first buffer plate 514, it absorbs energy through rotation and elastic deformation, thereby providing an effective buffering effect. The design of the first torsion spring 513 ensures that the first buffer plate 514 automatically returns to its initial position after the impact force disappears, ensuring that the first buffer assembly 511 maintains its effective buffering capacity after multiple impacts, thereby improving the reliability and durability of the system. Because the first buffer plate 514 can rotate about the mounting shaft 512, the first buffer assembly 51 can adapt to impacts from different directions and angles, allowing the cabinet body 10 to provide stable protection in various complex environments.

[0091] By installing the first buffer plate 514 on the mounting shaft 512 and using the first torsion spring 513 to provide elastic force, the structure of the entire first buffer assembly 51 is relatively simple, which simplifies the manufacturing and maintenance processes and reduces costs.

[0092] In some possible implementations, a connecting tube 5141 is provided on the first buffer plate 514. The mounting shaft 512 passes through the connecting tube 5141, so that the first buffer plate 514 can rotate around the mounting shaft 512. The other end of the first torsion spring 513 is fixedly connected to the connecting tube 5141.

[0093] In some possible implementations, the first buffer assembly 51 further includes a first limiting plate 515. The first limiting plate 515 is disposed on the mounting base 511 and abuts the first buffer plate 514, tilting the first buffer plate 514. The first limiting plate 515 limits the rotation angle of the first buffer plate 514. By limiting the first limiting plate 515, the first buffer plate 514 can be brought closer to the electronic node 200 to limit its movement without affecting heat dissipation within the electronic node 200.

[0094] The first limiting plate 515 provides a simple and effective way to control the range of motion of the first buffer plate 514 , reducing the need for complex control mechanisms, thereby simplifying design and subsequent maintenance.

[0095] The first stopper 515 effectively limits the maximum rotation angle of the first buffer plate 514, preventing it from overrotating. This protects the first torsion spring 513 and the first buffer plate 514 from excessive stress, thereby extending the life of the components. By limiting the rotation angle of the first buffer plate 514, the first stopper 515 ensures that the first buffer plate 514 operates within an optimal range, thereby improving buffering efficiency and ensuring that the first buffer plate 514 provides optimal energy absorption when absorbing impacts. By limiting the rotation angle, the first stopper 515 ensures that the first buffer plate 514 behaves consistently during each impact event, helping to predict and control the response behavior of the cabinet body 10 under different conditions.

[0096] In some possible implementations, the first buffer assembly 51 further includes a first protective strip 516. The first protective strip 516 is disposed on a side of the first buffer plate 514 away from the mounting axis 512, that is, on a side of the first buffer plate 514 closer to the electronic node 200. This prevents damage to the electronic node 200 caused by contact between the first buffer plate 514 and the electronic node 200.

[0097] In some possible implementations, a side of the first buffer plate 514 close to the electronic node 200 is configured to be arc-shaped, and the first protective strip 516 is a silicone protective pad wrapped around the outer side of the arc.

[0098] like Figure 7 As shown, in some possible implementations, the buffer mechanism 50 further includes a second buffer assembly 52. ​​The second buffer assembly 52 is disposed on both sides of the electronic node 200 along the second direction y to limit movement of the electronic node 200 along the second direction y. In other words, the second buffer assembly 52 provides buffering along the length of the electronic node 200.

[0099] By providing a second buffer assembly 52 on both sides of the electronic node 200, the movement of the electronic node 200 along the second direction y can be effectively restricted. This multi-directional protection design ensures that the electronic node 200 is effectively buffered and protected in multiple axial directions, thereby enhancing the overall protection capability. The second buffer assembly 52 provides additional support on both sides of the electronic node 200, preventing the electronic node 200 from rocking back and forth within the cabinet body 10, helping to maintain the stable operation of the electronic node 200 and preventing loosening or disconnection of connections due to movement. The second buffer assembly 52 can be adjusted and optimized based on the size and weight of the electronic node 200 to accommodate electronic nodes 200 of different types and specifications, thereby improving the versatility and applicability of the cabinet body 10. By restricting the back and forth movement of the electronic node 200, the second buffer assembly 52 reduces direct collisions between the electronic node 200 and other components within the cabinet body 10 or the cabinet walls, reducing the risk of physical damage.

[0100] In some possible implementations, the buffer mechanism 50 includes two first buffer components 51 and four second buffer components 52. Along a first direction x, the two first buffer components 51 are disposed on either side of the electronic node 200. Two second buffer components 52 are disposed on each first buffer component 51. Along a second direction y, the two second buffer components 52 on each first buffer component 51 are disposed on either side of the electronic node 200.

[0101] In some possible implementations, the second buffer assembly 52 includes a connecting seat 521, a connecting shaft 522, a second torsion spring 523, a second buffer plate 524, and a second limiting plate 525. The connecting seat 521 is disposed on the first buffer plate 514. The connecting shaft 522 is disposed on the connecting seat 521. The second buffer plate 524 is rotatably disposed on the connecting shaft 522. The second torsion spring 523 is disposed on the connecting shaft 522, with one end connected to the connecting seat 521 and the other end connected to the second buffer plate 524. The force applied by the second torsion spring 523 to the second buffer plate 524 can cause the second buffer plate 524 to rotate upward. The second limiting plate 525 is disposed on the first buffer plate 514 to limit the rotation angle of the second buffer plate 524.

[0102] In some possible implementations, the second limiting plate 525 is in a 7-shape, and the second limiting plate 525 is used to limit the second buffer plate 524 from rotating upward to the highest position to be in a horizontal state.

[0103] The arrangement of the connecting seat 521 and the second limiting plate 525 ensures that the second buffer plate 524 will not be displaced or excessively rotated when impacted, thereby improving the stability of the buffering effect.

[0104] The second buffer plate 524 is freely rotatable via the connecting shaft 522, and is elastically forced by the second torsion spring 523, allowing the second buffer plate 524 to dynamically respond to external impacts or vibrations. When the electronic node 200 abuts the second buffer plate 524, it absorbs energy through rotation and elastic deformation, providing an effective buffering effect. The design of the second torsion spring 523 allows the second buffer plate 524 to automatically return to its initial position after the impact force disappears, ensuring that the second buffer assembly 522 maintains its effective buffering capacity after multiple impacts, thereby improving the reliability and durability of the system. Because the rotational movement of the second buffer plate 524 is controlled by the second torsion spring 523, direct friction and wear are reduced, extending the service life of the second buffer assembly 52, and reducing maintenance requirements and costs. The second limit plate 525 limits the maximum rotation angle of the second buffer plate 524, preventing it from over-rotating, protecting the second torsion spring 523 and the second buffer plate 524 from excessive stress, and extending the service life of the assembly.

[0105] By installing the second buffer assembly 52 on the first buffer plate 514, the system achieves a multi-layered buffering effect, providing buffering in different directions and at different levels, enhancing overall protection. By integrating the second buffer assembly 52 into the first buffer plate 514, the design becomes more compact, saving space and optimizing space utilization within the cabinet body 10, while providing multi-directional buffering protection.

[0106] like Figure 8 As shown, in some possible implementations, the second buffer assembly 52 further includes a stopper driver 526 and a baffle 527. The stopper driver 526 is disposed on the first buffer plate 514. The baffle 527 is disposed at the driving end of the stopper driver 526 and abuts the second buffer plate 524. The baffle 527 is used to prevent the second buffer plate 524 from rotating upward, thereby allowing the second buffer plate 524 to abut against the first buffer plate 514.

[0107] The stop driving member 526 is electrically connected to the sensor 22 . The stop driving member 526 is used to drive the baffle 527 to move, so as to release the second buffer plate 524 , causing the second buffer plate 524 to rotate and abut against the second limiting plate 525 .

[0108] By electrically connecting the stop drive 526 to the sensor 22, the system can automatically control the state of the second buffer plate 524 according to the real-time detected environmental or operating conditions, thereby improving the responsiveness and flexibility of the buffer system.

[0109] When the sensor 22 detects that the instantaneous pressure increase value is greater than the second preset value, the stop drive 526 drives the baffle 527 to slide to disengage from the second buffer plate 524, and the second buffer plate 524 automatically rotates upward under the action of the second torsion spring 523 to abut against the second limit plate 525.

[0110] The stopper driver 526 controls the release and locking of the second buffer plate 524 via a baffle 527. When the buffering function is not required, the baffle 527 secures the second buffer plate 524 to the first buffer plate 514, reducing unnecessary movement. When buffering is not required, locking the second buffer plate 524 reduces system energy consumption and wear, improving overall efficiency and component life. Locking the second buffer plate 524 prevents obstruction during installation of the electronic node 200 and the installation of components such as hard drives within the electronic node 200.

[0111] When needed, the stopper driver 526 can move the baffle 527, releasing the second buffer plate 524, allowing it to rotate freely and provide cushioning. When impact or vibration is detected, the sensor 22 can trigger the stopper driver 526 to release the second buffer plate 524, enabling it to quickly respond and provide additional cushioning protection, enhancing the system's protection capabilities in dynamic environments. The rapid release of the second buffer plate 524 when needed protects the electronic node 200 from damage at critical moments, improving overall safety.

[0112] Through the precise detection of the sensor 22 and the control of the stop driving member 526 , the system can reduce unnecessary movement of the second buffer plate 524 caused by malfunction, thereby improving the reliability of the system.

[0113] In some possible implementations, the second buffer assembly 52 further includes a second protective strip 528. The second protective strip 528 is disposed on a side of the second buffer plate 524 close to the electronic node 200 to prevent damage to the electronic node 200 when the second buffer plate 524 abuts against the electronic node 200.

[0114] In some possible implementations, second protective strips 528 are silicone protective strips attached to the sides of second buffer plate 524. When second buffer plate 524 is horizontal, the silicone protective strips are located at both ends of the electronic node 200 along its length, thereby buffering the movement of the electronic node 200 along its length.

[0115] like Figure 9 As shown, in some possible implementations, the cabinet 100 further includes a cable guide mechanism 60 . The cable guide mechanism 60 is provided on the support plate 11 and is used to limit and guide the cables 201 of the electronic node 200 .

[0116] The cable guide mechanism 60 effectively organizes and manages the cables 201 of the electronic node 200, preventing them from becoming tangled, knotted, or tangled. This helps maintain a clean interior of the cabinet body 10 and improves overall aesthetics and maintainability. By limiting and guiding the cables 201, the risk of damage to the cables 201 due to accidental pulling or squeezing is reduced, protecting the integrity of the cables 201 and reducing the risk of equipment downtime or data loss caused by cable 201 failures. The cable guide mechanism 60 streamlines the routing and management of the cables 201, simplifying maintenance and troubleshooting. Technicians can more quickly identify and replace faulty cables 201, reducing maintenance time and costs. By reducing physical stress and wear on the cables 201, the cable guide mechanism 60 improves the reliability of the cable 201 connection and reduces signal transmission issues caused by poor contact. Effective cable 201 management reduces obstruction to airflow within the cabinet body 10, optimizes the efficiency of the cooling system, helps maintain the normal operating temperature of the electronic node 200, and improves the performance and lifespan of the equipment. The cable guide mechanism 60 can be adjusted according to different electronic node 200 configurations and cable 201 requirements, providing higher flexibility and adaptability to meet the needs of various application scenarios.

[0117] In some possible implementations, the cable guide mechanism includes a guide plate 61, a first guide rod 62, a second guide rod 63, and a lifting assembly 64. The guide plate 61 is mounted on the bracket 12. The first guide rod 62 is connected to the side of the guide plate 61 away from the electronic node 200. The second guide rod 63 is located on the side of the guide plate 61 away from the electronic node 200. The first guide rod 62 and the second guide rod 63 are used to guide the winding direction of the cable 201. The lifting assembly 64 is used to drive the second guide rod 63 to move, so that the cable 201 is released or restrained under the cooperation of the first guide rod 62 and the second guide rod 63.

[0118] The combination of the first guide rod 62 and the second guide rod 63 provides a clear path for the cable 201, guides the winding direction of the cable 201, ensures that the cable 201 is arranged neatly and orderly in the cabinet body 10, and reduces the possibility of entanglement and confusion. The lifting assembly 64 can drive the second guide rod 63 to move, so that the cable 201 can be released or limited when needed. This dynamic adjustment function allows the tightness and position of the cable 201 to be flexibly adjusted according to actual needs, thereby improving the flexibility and adaptability of the management of the cable 201. Through reasonable guidance and limitation, the physical stress and wear on the cable 201 are reduced, the service life of the cable 201 is extended, and the maintenance and replacement costs caused by damage to the cable 201 are reduced. Through precise cable 201 guidance and management, the internal space of the cabinet body 10 is optimized, the interference of the cable 201 on other components is reduced, and the overall space efficiency of the cabinet body 10 is improved.

[0119] In some possible implementations, the guide plate 61 is provided with a guide groove 611 . The cable 201 led out from the terminal 202 of the electronic node 200 can pass through the guide groove 611 and be guided by the first guide rod 62 .

[0120] In some possible implementations, the lifting assembly 64 includes a mating rack 641, a mating shaft 642, a mating wheel 643, a driven wheel 644, a driving wheel 645, and a drive belt 646. The mating rack 641 is mounted on the second guide rod 63. The mating shaft 642 connects the mating wheel 643 and the driven wheel 644. The mating wheel 643 meshes with the mating rack 641. The driving wheel 645 is fixed to the rotating shaft 432. The drive belt 646 is sleeved over the driving wheel 645 and the driven wheel 644.

[0121] When the locking driver 436 rotates the rotating shaft 432, releasing the movable mechanism 30, the driving wheel 645 rotates synchronously with the rotating shaft 432, thereby driving the driven wheel 644 to rotate, causing the mating wheel 643 to rotate, thereby driving the mating rack 641 to move, driving the second guide rod 63 to move closer to the first guide rod 62, and releasing the cable 201 that was restrained by the first and second guide rods 62, 63. This loosens the cable 201 and allows it to expand, thereby accommodating the displacement of the electronic node 200's buffer. This prevents the electronic node 200 from pulling on the cable 201 and causing poor contact when the movable mechanism 30 moves.

[0122] At the same time, when the locking drive member 436 drives the rotating shaft 432 to rotate and locks the movable mechanism 30, the second guide rod 63 will move away from the first guide rod 62, so that the first guide rod 62 and the second guide rod 63 cooperate to limit the loose cable 201 and prevent the cable 201 from being messy.

[0123] With the cooperation of the cable guide mechanism 60, the cabinet 100 can not only move the bracket 12, the second guide plate 32, and the first guide plate 31 by disengaging the locking lever 41, allowing the electronic node 200 to move relative to the support plate 11 with cushioning, but also allow the cable 201 to extend and retract under the action of the cable guide mechanism 60, preventing it from being easily separated from the corresponding interface. Furthermore, when the locking lever 41 is locked, the cable 201 is restrained in place, preventing the cable 201 from becoming dislocated as the electronic node 200 moves.

[0124] In some possible implementations, the cable guide mechanism 60 further includes a mating plate 65. The mating plate 65 is provided with a lifting slot 651. The lifting slot 651 extends along the third direction z. The second guide rod 63 extends through the lifting slot 651 and connects to the mating rack 641. The lifting slot 651 is used to guide the movement direction of the second guide rod 63.

[0125] In some possible implementations, the mating plate 65 is disposed on the support plate 11 .

[0126] The cabinet 100 provided in the embodiment of the present application includes a cabinet body 10, a shock absorbing mechanism 20, a movable mechanism 30, and a locking mechanism 40. The cabinet body 10 is provided with a support plate 11 and a bracket 12. The bracket 12 is used to fix the electronic node 200. The shock absorbing mechanism 20 includes a damper 21 and a sensor 22. The damper 21 connects the cabinet body 10 and the support plate 11. The sensor 22 is provided on the support plate 11 and is electrically connected to the damper 21 so as to adjust the damping force of the damper 21 when the detection value of the sensor 22 is greater than a first preset value. The movable mechanism 30 is provided on the support plate 11 and is movably connected to the bracket 12. The locking mechanism 40 is used to lock the movable mechanism 30. The locking mechanism 40 is electrically connected to the sensor 22 so as to release the lock of the movable mechanism 30 when the detection value of the sensor 22 is greater than a second preset value. The second preset value is greater than the first preset value.

[0127] Due to the introduction of the shock-absorbing mechanism 20 into the cabinet body 10, the damper 21 and sensor 22 in the shock-absorbing mechanism 20 can be functionally combined to effectively absorb and mitigate external impact forces. When the sensor 22 detects that the impact force exceeds a first preset value, the damping force of the damper 21 is automatically adjusted according to the magnitude of the impact force, thereby reducing the impact force transmitted to the electronic node 200 and protecting the stability and safety of the electronic node 200. Through the cooperation of the movable mechanism 30 and the locking mechanism 40, under normal circumstances, the locking mechanism 40 locks the movable mechanism 30, maintaining the stability of the cabinet body 10. When the sensor 22 detects that the impact force exceeds a second preset value, that is, when subjected to a larger impact, the locking mechanism 40 can automatically unlock the movable mechanism 30, allowing the bracket 12 to move freely on the support plate 11, thereby further mitigating the direct impact of the impact force on the electronic node 200. The use of sensor 22 enables cabinet body 10 to monitor changes in the external environment in real time and intelligently respond, rapidly adjusting its internal structure to prevent damage to electronic node 200. This improves the protection capabilities of cabinet body 10, making the overall equipment more stable and reliable, extending the service life of electronic node 200 and its related equipment, and reducing maintenance and replacement costs. By flexibly adjusting the preset thresholds of cabinet body 10, it can adapt to impacts of varying intensities, making it suitable for a variety of complex operating environments and expanding the scope of application of cabinet body 10.

[0128] An embodiment of the present application provides an electronic device, including the cabinet 100 and an electronic node 200 . The electronic node 200 is disposed in the cabinet 100 .

[0129] In some possible implementations, the electronic device includes, but is not limited to, a single-node server, a cabinet server, a storage device, a switch, and the like.

[0130] The above is a detailed introduction to a cabinet and electronic equipment provided by the present application. This article uses specific examples to illustrate the principles and implementation methods of the present application. The description of the above embodiments is only used to help understand the method and core ideas of the present application. It should be pointed out that for ordinary technicians in this technical field, without departing from the principles of the present application, several improvements and modifications can be made to the present application, and these improvements and modifications also fall within the scope of protection of the claims of the present application.

Claims

1. A cabinet, characterized in that: It includes a cabinet body, a shock absorbing mechanism, a movable mechanism and a locking mechanism; The cabinet body is provided with a support plate and a bracket, and the bracket is used to fix the electronic node; The shock absorbing mechanism includes a damper and a sensor, the damper connecting the cabinet body and the support plate, the sensor being provided on the support plate and electrically connected to the damper so as to adjust the damping force of the damper when a detection value of the sensor is greater than a first preset value, and the movable mechanism being provided on the support plate and movably connected to the bracket; The locking mechanism is used to lock the movable mechanism. The locking mechanism is electrically connected to the sensor to release the locking of the movable mechanism when the detection value of the sensor is greater than a second preset value, and the second preset value is greater than the first preset value.

2. The cabinet according to claim 1, characterized in that: The shock absorbing mechanism includes a plurality of dampers and sensors. The plurality of dampers are respectively arranged on the support plate. The sensors correspond to the dampers one by one and are adjacent to the corresponding dampers.

3. The cabinet according to claim 1, characterized in that: The movable mechanism includes a first guide plate and a second guide plate, the first guide plate is arranged on the support plate, the second guide plate is movably arranged on the first guide plate along a first direction, and the bracket is movably arranged on the second guide plate along a second direction; there is an angle between the second direction and the first direction.

4. The cabinet according to claim 3, characterized in that: The first guide plate is provided with a first movable groove extending along the first direction, the second guide plate is provided with a first guide block, the first guide block is movably arranged in the first movable groove, the second guide plate is provided with a second movable groove extending along the second direction, the bracket is provided with a second guide block, the second guide block is movably arranged in the second movable groove.

5. The cabinet according to claim 4, characterized in that: The movable mechanism also includes a first buffer and a second buffer. The first buffer is arranged in the first movable groove, and one end of the first buffer abuts the first guide block, and the other end of the first buffer abuts the groove wall of the first movable groove. The second buffer is arranged in the second movable groove, and one end of the second buffer abuts the second guide block, and the other end of the second buffer abuts the groove wall of the second movable groove.

6. The cabinet according to claim 3, characterized in that: The locking mechanism includes a locking rod, a connecting plate and a locking drive assembly. The bracket is provided with a first locking hole, the second guide plate is provided with a second locking hole, and the first guide plate is provided with a third locking hole. One side of the connecting plate is connected to the locking rod, and the other side of the connecting plate is connected to the locking drive assembly. The locking drive assembly is used to drive the connecting plate to drive the locking rod to penetrate the first locking hole, the second locking hole and the third locking hole to lock the movable mechanism.

7. The cabinet according to claim 6, characterized in that: The locking drive assembly includes a support seat, a rotating shaft, a first synchronous wheel, a second synchronous wheel, a synchronous belt and a locking drive member. The support seat is arranged on the support plate, the rotating shaft is rotatably arranged on the support seat, the other side of the connecting plate is connected to the rotating shaft, the first synchronous wheel is fixed on the rotating shaft, the second synchronous wheel is fixed on the locking drive member, the synchronous belt is sleeved on the first synchronous wheel and the second synchronous wheel, and the locking drive member is used to drive the second synchronous wheel to rotate, so as to drive the rotating shaft to rotate and rotate the connecting plate.

8. The cabinet according to any one of claims 1 to 7, characterized in that: The cabinet further includes a buffer mechanism, which is disposed on the support plate and is used to limit the movement of the electronic node.

9. The cabinet according to claim 8, characterized in that: The buffer mechanism includes a first buffer component. Along a first direction, the first buffer component is arranged on both sides of the electronic node to limit the movement of the electronic node along the first direction.

10. The cabinet according to claim 9, characterized in that: The first buffer assembly includes a mounting seat, a mounting shaft, a first torsion spring and a first buffer plate. The mounting seat is arranged on the support plate, the mounting shaft is arranged on the mounting seat and extends along the second direction, the first buffer plate is rotatably arranged on the mounting shaft, the first torsion spring is arranged on the mounting shaft, and one end is connected to the mounting seat and the other end is connected to the first buffer plate.

11. The cabinet according to claim 10, characterized in that: The first buffer assembly further includes a first limiting plate, which is disposed on the mounting seat to limit a rotation angle of the first buffer plate.

12. The cabinet according to claim 10, characterized in that The buffer mechanism further includes a second buffer component. Along the second direction, the second buffer component is arranged on both sides of the electronic node to limit the movement of the electronic node along the second direction.

13. The cabinet according to claim 12, characterized in that: The second buffer assembly includes a connecting seat, a connecting shaft, a second torsion spring, a second buffer plate and a second limiting plate. The connecting seat is arranged on the first buffer plate, the connecting shaft is arranged on the connecting seat, the second buffer plate is rotatably arranged on the connecting shaft, the second torsion spring is arranged on the connecting shaft, and one end is connected to the connecting seat and the other end is connected to the second buffer plate. The second limiting plate is arranged on the first buffer plate to limit the rotation angle of the second buffer plate.

14. The cabinet according to claim 13, characterized in that: The second buffer assembly also includes a stop driving member and a baffle. The stop driving member is arranged on the first buffer plate. The baffle is arranged at the driving end of the stop driving member and abuts the second buffer plate so that the second buffer plate is fitted with the first buffer plate. The stop driving member is electrically connected to the sensor. The stop driving member is used to drive the baffle to move to release the second buffer plate, so that the second buffer plate rotates and abuts the second limit plate.

15. An electronic device, characterized in that: include: electronic nodes; The cabinet according to any one of claims 1 to 14.

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