Data center switch installation structure

Abstract

The invention relates to the technical field of switch installation structures, in particular to a data center switch installation structure which comprises a protection mechanism, an installation mechanism and a shell mechanism. The installation mechanisms are arranged in the protection mechanism in a linear array mode, the shell mechanism is installed in the middle of the installation mechanisms, and a switch is arranged in the shell mechanism. The mounting mechanism comprises a mounting frame, a hollow groove, a gas exchange port, a visible groove, a dustproof assembly, a hanging lug and a notch; the mounting frame is arranged as a main body part of the mounting mechanism, the mounting frame is of a hollow structure with an opening in the front, the hollow groove is formed in the upper surface of the mounting frame, the gas exchange port is formed in the side surface of the air groove, and the visible grooves are formed in the upper surface and the lower surface of the mounting frame; the dustproof assembly is installed on the side face of the installation frame, the hanging lugs are installed on the side face of the installation frame, and the notch is formed in the front face of the installation frame.

Description

Technical Field

[0001] The present invention relates to the technical field of switch installation structures, and in particular to a data center switch installation structure. Background Art

[0002] A switch is a network device used to connect multiple devices. It mainly works at the data link layer and is used to forward data between devices in the same local area network. The switch can quickly forward the received data packets according to the MAC address of the target device, thereby ensuring that the data is only sent to the target device where it is needed, rather than broadcasting to the entire network. This point-to-point communication method can reduce network congestion and improve data transmission efficiency. Data forwarding: The switch can identify different devices based on the MAC address and accurately forward the data packet to the corresponding port. Low latency: Because the switch handles data forwarding through hardware, its latency is usually low, which is suitable for high-speed data transmission. Full-duplex communication: The switch supports full-duplex communication, which means that data can be transmitted in both directions at the same time. Network isolation: When forwarding data, the switch will only send it to a specific port instead of broadcasting it to all ports, which reduces unnecessary data traffic and improves network efficiency.

[0003] Data center switches are high-performance network devices designed specifically for data centers. Their main function is to process and manage the huge amount of data traffic within the data center and ensure high-speed, low-latency communication. They play a key role at the core of the data center network, connecting servers, storage devices and other network devices to provide support for the stable and efficient operation of the data center. Their main functions include: High-bandwidth transmission: Data center switches usually support high-speed Ethernet and can meet the needs of massive data transmission in data centers. Low latency: Data centers need to respond to requests quickly and handle a large number of concurrent tasks. Data center switches use optimized hardware and forwarding mechanisms to reduce data transmission latency and improve business response speed. Support for large-scale expansion: Data center switches have strong scalability. Multiple switches can be combined through stacking or virtualization technology to meet the needs of data center scale growth and support the connection of thousands of devices. Hierarchical architecture support: Data center switches usually use a hierarchical architecture (such as core layer, aggregation layer, access layer) for network design to optimize traffic management and improve network reliability and redundancy. In the network architecture of the data center, the switch is the backbone of data transmission, ensuring fast and stable connections between servers and between servers and storage devices. With the development of technologies such as cloud computing and big data, data center switches are becoming increasingly important in achieving high-performance and high-reliability network infrastructure.

[0004] The existing switch installation structure relies on bolt installation. On the one hand, this installation method is not stable and accurate, which easily leads to low utilization of the installation space and poor heat dissipation. On the other hand, the traditional bolt installation method may have certain limitations in heat dissipation and stability. The switch generates a lot of heat during operation, especially in environments such as data centers, where heat dissipation is particularly critical. The bolt installation structure usually makes the device close to the mounting bracket, restricting air flow and resulting in unsatisfactory heat dissipation. In addition, although bolt fixing can provide a certain degree of stability, it is not convenient for maintenance and adjustment.

[0005] In view of the above situation, in order to overcome the above technical problems, the present invention designs a data center switch installation structure to solve the above technical problems. Summary of the invention

[0006] The technical objectives to be achieved by the present invention are: to design a data center switch installation structure to ensure positioning accuracy and installation smoothness during the installation process; to ensure structural stability and the heat dissipation requirements of the switch; to set up reasonable air flow channels to ensure rapid air circulation and achieve efficient air cooling and heat dissipation.

[0007] In order to achieve the above technical objectives, the present invention provides the following technical solutions: A data center switch installation structure includes a protection mechanism, a mounting mechanism, and a shell mechanism. The protection mechanism is used to surround and protect the core part of the installation structure, and the installation mechanism is arranged in a linear array inside the protection mechanism to ensure the structural stability and operational convenience between the components. The shell mechanism is installed in the central position of the mounting mechanism, providing a solid external support for the switch, so that the core component of the entire system, the switch, can be reliably fixed and protected. In addition, the design of the shell mechanism effectively ensures the neatness and protection of the internal components of the switch.

[0008] The mounting mechanism is one of the core structures of this design, including the mounting frame, hollow slots, gas exchange ports, visual slots, dustproof components, mounting ears and notches, which are responsible for the fixation, heat dissipation and protection of the switch. As the main part of the mounting mechanism, the mounting frame adopts a hollow structure with an opening in the front to facilitate equipment installation and air circulation. A hollow slot is designed on the top of the frame to form an airflow channel between the switch installation space and the outside air. Through this structure, air can smoothly enter and exit the device to achieve the purpose of efficient heat dissipation. The gas exchange port is located on the side of the air slot, providing more channels for the entry and exit of heat dissipation airflow, which helps to maintain the temperature stability of the equipment when it is running under high load.

[0009] In addition, both the upper and lower sides of the mounting frame are equipped with visual slots, which are convenient for observing the internal status of the switch or the wiring at any time when the device is running. The visual slots can also further improve the heat dissipation capacity. In this way, the operation and status of the device can be intuitively monitored without removing any parts, which enhances the convenience of maintenance. The dustproof component is installed on the side of the frame to prevent dust and other tiny particles from entering the interior of the device, keeping the system clean and running stably in the long term. The mounting ears are located on the side of the frame to facilitate the installation and fixation of the device, and the notch designed in the front provides a certain space in the front, making the operation more flexible when maintaining or replacing components.

[0010] This structure not only enhances the flexibility and safety of installation, but also optimizes the heat dissipation effect of the equipment through designs such as hollow slots and gas exchange ports. At the same time, detailed designs such as visible slots, dustproof components and mounting ears increase the durability and maintenance convenience of the equipment, making it suitable for use in data centers.

[0011] The protection mechanism is mainly composed of a protection frame, ventilation slots, cooling fans, support frames, fixing blocks, positioning slots and fixing pins. The protection frame, as the main part of the entire protection mechanism, provides external support and basic protection for the equipment. Ventilation slots are provided at the rear of the protection frame, providing a dedicated channel for heat dissipation of internal equipment. The cooling fan is installed in the middle of the ventilation slots, which can accelerate air circulation, discharge the heat generated by the switch in time, and ensure that the temperature of the equipment is maintained within a safe range.

[0012] The protection frame is equipped with a support frame to support and stabilize the internal components so that they remain stable during operation. The fixing block is installed on the inner side of the protection frame, providing a foundation for the installation of switches or other equipment. A positioning slot is provided above the fixing block to cooperate with the mounting ear to locate the installation position and ensure accuracy and consistency during the installation process. In addition, the fixing pin is inserted into the positioning slot to further stabilize the installation structure and prevent the device from shifting during operation. This combined design enables the protection mechanism to effectively improve heat dissipation and equipment stability while providing safe support.

[0013] The support frame adopts a cross-shaped hollow structure. This design not only provides excellent structural stability, but also takes into account the heat dissipation requirements. The cross-shaped geometric layout enables the support frame to evenly disperse the force when bearing load, thereby effectively improving the overall stability of the equipment and ensuring the safety and reliability of the switch at work. The hollow design reduces excess material in the structure, which not only reduces the weight of the equipment, but also creates a ventilation path to allow air to flow freely. The hollow structure provides multiple open spaces for air to flow through the inside of the support frame, accelerate the discharge of heat, and avoid heat accumulation inside the equipment. This design is particularly suitable for the operation of switches in high-temperature and high-density environments, and can provide good heat dissipation conditions without affecting the structural strength of the equipment. Therefore, the cross-shaped hollow support frame takes into account both stability and heat dissipation efficiency, making the equipment more suitable for long-term and high-load data center environments.

[0014] The design of the mounting frame includes sliding grooves, guide bars, mounting grooves, rotating shafts and fixing interfaces. These components cooperate with each other to achieve stable and convenient installation of the switch equipment. The sliding grooves are set on the two inner sides of the mounting frame as the key connection part, which is used to cooperate with the mounting blocks to fix the shell mechanism of the switch. The existence of the sliding groove not only makes the equipment installation more stable, but also enables quick disassembly when necessary, which is convenient for maintenance and replacement.

[0015] To further improve the installation accuracy, guide strips are designed on the upper and lower bottom surfaces of the sliding groove. The role of the guide strips is not limited to simple positioning, but also guides the installation block to slide smoothly, avoiding jams during installation and making the entire assembly process smoother. In this way, even in a complex operating environment, the installation of the switch can still be carried out efficiently and smoothly.

[0016] The installation slots are arranged in a linear array at the front of the installation frame, providing multiple position options to facilitate the adjustment of the specific position of the equipment during installation. The middle part of the installation slot is equipped with a rotating shaft to ensure flexible rotation during installation and adjustment, facilitating multi-angle positioning of the equipment to meet different installation requirements. The fixing interface at the lower front end of the frame is a key stabilizing component. By cooperating with the buckle, the equipment can be firmly fixed in the specified position to prevent the equipment from loosening or shifting during operation.

[0017] The design of the sliding groove is divided into two parts, one of which is rectangular in cross section near the hollow groove, and the other is trapezoidal in cross section. This segmented design provides different guiding effects during the installation process. When installing the shell mechanism, the operator can use the rectangular section to more easily align the mounting block with the sliding groove, making the initial installation positioning faster and more reliable. The other section of the trapezoidal cross section gradually narrows during the pushing process, thereby guiding the mounting block to move smoothly along the sliding groove. This design enables the shell mechanism to automatically align the center during the pushing process, ensuring the smoothness and stability of the installation.

[0018] When the mounting block gradually slides into the middle area of ​​the sliding groove, the housing mechanism will be firmly fixed in the installation position. This ingenious design allows operators to complete the installation in a short time, which not only improves the installation efficiency, but also enhances the stability of the equipment, helping to ensure the accuracy and safety of the installation.

[0019] The guide bar is installed on the central axis of the upper and lower bottom surfaces of the sliding groove to ensure that the equipment can be accurately aligned during installation and improve the smoothness of sliding. The surface of the guide bar is designed to be an arc surface, which can effectively reduce wear when the equipment slides in contact, further ensuring the smoothness and durability of operation. This arc surface design reduces friction, making the equipment easier and smoother during installation and adjustment, and effectively extending the service life of the guide bar and mounting block. Therefore, the guide bar not only improves the convenience of operation, but also enhances the durability of the overall structure, which is very suitable for installation environments with frequent operations.

[0020] The design of the dustproof component includes a rotating hole, a dustproof cloth and a buckle, which work together to ensure that the device is protected from dust during use. The rotating hole is opened in the middle of the dustproof component, which serves as the center point for the entire dustproof cloth to be rolled up. The dustproof cloth is rolled around the outer periphery of the rotating hole to effectively prevent dust from entering the interior of the device. The dustproof cloth is made of elastic material and can automatically expand and contract as needed. Through the function of the rotating hole, the dustproof cloth can be unfolded at any time to cover the area that needs protection, thereby blocking dust and impurities. At the same time, when the device does not need dust protection, the dustproof cloth will automatically rebound and retract into the installation slot to ensure the neat appearance of the device and avoid affecting other operations.

[0021] The automatic rebound function of the dustproof cloth makes the dustproof component convenient and space-saving, and the dustproof cloth can be retracted without manual operation. This design greatly simplifies the equipment maintenance process and improves the convenience of equipment use. In addition, a buckle is set at one end of the dustproof cloth. The buckle adopts an arc structure and the front end is designed to be arrow-shaped, which is convenient for staff to pull, snap and other operations. The arrow-shaped design can help staff easily fix the dustproof cloth in the required position, ensuring that the dustproof cloth will not accidentally loosen during use, while improving the convenience and efficiency of operation. This design not only improves the dustproof effect, but also reduces the complexity of maintenance and operation, ensuring that the equipment always maintains the best working condition.

[0022] The shell mechanism is a key component for installing the switch. It includes the shell body, switching interface, mounting handle, mounting block and guide groove. The design focuses on practicality and ease of operation to ensure safe fixing and efficient heat dissipation of the equipment. The shell body is installed inside the mounting mechanism and serves as the external frame of the switch, protecting the internal components and providing structural support. The switching interface is opened on the front of the shell body, providing a connection channel with the external network or device to ensure the stability and high speed of data transmission. The mounting handle is installed at the bottom of the shell body. Its main function is to provide additional assistance in the final stage of the shell mechanism installation. When the staff installs the shell body, it may be very difficult to hold the side of the shell body due to its large size, so the design of the mounting handle makes the operation more convenient. After the installation is completed, the mounting handle is cleverly set in the gap to ensure that the handle does not interfere with other parts, and it is also convenient for the staff to quickly remove the shell body when needed.

[0023] In addition, the mounting block is set on the side of the shell body, providing a more stable fixing method for the entire shell, ensuring that it will not loosen during long-term operation. The mounting block is provided with guide grooves on its upper and lower surfaces, which play a role in ensuring a smooth installation process. When the shell body is docked with other parts of the mounting mechanism, the guide grooves can help with precise positioning, prevent misalignment, and ensure the accuracy and smoothness of the installation process.

[0024] The beneficial effects of the present invention are as follows: 1. The present invention realizes the rapid installation of the shell mechanism by opening a sliding groove on the inner side of the installation frame and cooperating with the installation block. The design of the sliding groove and the installation block makes the installation process simpler and faster, and the operator can easily align and slide the shell mechanism to the predetermined position, thereby greatly improving the installation efficiency of the equipment. At the same time, guide grooves and guide bars are set in the installation frame, and the existence of these components ensures that the shell mechanism can be accurately aligned during the installation process. The guide bar not only plays a positioning role, but also improves the smoothness of the installation process, avoids jamming and offset during installation, and ensures that the equipment can be installed quickly and smoothly. In order to further enhance the stability and accuracy during the installation process, the invention ensures the fixed distance fixation of the installation mechanism through the cooperation of the hanging ear and the fixing pin. This design enables the installation mechanism to be firmly fixed on the rack to prevent any loosening or displacement, thereby ensuring the stability of the equipment in long-term operation. At the same time, the fixed distance fixed design also provides sufficient space for the heat dissipation of the switch, avoiding the influence of the overly compact structure on the heat dissipation effect.

[0025] 2. The support frame adopts a cross-shaped hollow structure, which has dual advantages: on the one hand, it provides stable support, which can effectively support the weight of the shell mechanism and the switch, and prevent instability caused by vibration or external force; on the other hand, the hollow design provides sufficient space for heat dissipation, promotes air circulation, and avoids heat accumulation. This support frame design meets the needs of efficient heat dissipation and helps the equipment maintain a low operating temperature under high load conditions. In addition, ventilation slots and cooling fans are set on the protection mechanism. These designs help optimize the heat dissipation path and take away the heat generated by the equipment during operation by enhancing air circulation. Combined with the hollow slots and gas exchange ports on the mounting mechanism, an efficient air flow channel is formed, allowing the air inside and outside the device to circulate smoothly, thereby achieving a good air-cooled heat dissipation effect. These designs work together to ensure that the switch can maintain a stable temperature under high load operation, extend the service life of the equipment and improve the reliability of the system.

[0026] In general, the present invention not only improves the installation efficiency and stability of the switch through a carefully designed structure, but also fully considers the heat dissipation requirements of the equipment, thereby ensuring the efficient operation of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] In order to more clearly illustrate the specific implementation methods of the present invention or the technical solutions in the prior art, the drawings required for use in the specific implementation methods or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are some implementation methods of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0028] The above and other aspects of the present invention will now be described, by way of example only, with reference to the accompanying drawings, in which: Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the back side of the protection mechanism of the present invention; Figure 3 It is a schematic diagram of the internal structure of the protection mechanism of the present invention; Figure 4 It is a structural schematic diagram of the installation mechanism of the present invention; Figure 5 It is a schematic diagram of the internal structure of the installation frame of the present invention; Figure 6 It is a schematic diagram of the structure of the dustproof component of the present invention; Figure 7 It is a structural schematic diagram of the shell mechanism of the present invention.

[0029] In the figure: 1. protection mechanism; 11. protection frame; 12. ventilation slot; 13. cooling fan; 14. support frame; 15. fixing block; 16. positioning slot; 17. fixing pin; 2. installation mechanism; 21. installation frame; 211. sliding slot; 212. guide bar; 213. installation slot; 214. rotating shaft; 215. fixing interface; 22. hollow slot; 23. gas exchange port; 24. visual slot; 25. dustproof component; 251. rotating hole; 252. dustproof cloth; 253. buckle; 26. hanging ear; 27. notch; 3. shell mechanism; 31. shell body; 32. exchange interface; 33. installation handle; 34. installation block; 35. guide slot. DETAILED DESCRIPTION

[0030] In order to better understand the above technical solution, the above technical solution will be described in detail below in conjunction with the accompanying drawings and specific implementation methods.

[0031] like Figure 1-7 As shown, a data center switch installation structure includes a protection mechanism 1, a mounting mechanism 2 and a shell mechanism 3. The protection mechanism 1 is used to surround and protect the core part of the installation structure, and the mounting mechanism 2 is arranged in a linear array inside to ensure the structural stability and operational convenience between the components. The shell mechanism 3 is installed in the central position of the mounting mechanism 2, providing a solid external support for the switch, so that the core component of the entire system, the switch, can be reliably fixed and protected. In addition, the design of the shell mechanism 3 effectively ensures the neatness and protection of the internal components of the switch.

[0032] The mounting mechanism 2 is one of the core structures of this design, including a mounting frame 21, a hollow groove 22, a gas exchange port 23, a visible groove 24, a dustproof component 25, a mounting ear 26 and a notch 27, which are responsible for the fixation, heat dissipation and protection of the switch. The mounting frame 21, as the main part of the mounting mechanism 2, adopts a hollow structure with an opening at the front, which is convenient for equipment installation and air circulation. A hollow groove 22 is designed on the top of the frame to form an airflow channel between the switch installation space and the external air. Through this structure, air can smoothly enter and exit the device to achieve the purpose of efficient heat dissipation. The gas exchange port 23 is located on the side of the air groove, which provides more channels for the entry and exit of the heat dissipation airflow, which helps to maintain the temperature stability of the equipment when it is running under high load.

[0033] In addition, both the upper and lower sides of the mounting frame 21 are provided with visual slots 24, which are convenient for observing the internal status or wiring of the switch at any time when the device is running. The visual slots 24 can also further improve the heat dissipation capacity. In this way, the operation and status of the device can be intuitively monitored without removing any parts, which enhances the convenience of maintenance. The dustproof component 25 is installed on the side of the frame to prevent dust and other tiny particles from entering the interior of the device, keeping the system clean and running stably in the long term. The hanging ear 26 is located on the side of the frame to facilitate the installation and fixation of the device, and the notch 27 designed in the front provides a certain space in the front, making the operation more flexible when maintaining or replacing components.

[0034] This structure not only enhances the flexibility and safety of installation, but also optimizes the heat dissipation effect of the equipment through the design of hollow slots 22 and gas exchange ports 23. At the same time, detailed designs such as visual slots 24, dustproof components 25 and mounting ears 26 increase the durability and maintenance convenience of the equipment, making it suitable for use in data centers.

[0035] like Figure 2-3 As shown, the protection mechanism 1 is mainly composed of a protection frame 11, a ventilation slot 12, a cooling fan 13, a support frame 14, a fixing block 15, a positioning slot 16 and a fixing pin 17. The protection frame 11, as the main part of the entire protection mechanism 1, provides external support and basic protection for the equipment. A ventilation slot 12 is provided at the rear of the protection frame 11, which provides a dedicated channel for heat dissipation of the internal equipment. The cooling fan 13 is installed in the middle of the ventilation slot 12, which can accelerate air circulation, discharge the heat generated by the switch when it is working in time, and ensure that the temperature of the equipment is maintained within a safe range.

[0036] A support frame 14 is installed inside the protection frame 11 to support and stabilize the internal components so that they remain stable during operation. A fixing block 15 is installed on the inner side of the protection frame 11, providing a foundation for the installation of a switch or other equipment. A positioning groove 16 is provided above the fixing block 15 to cooperate with the mounting ear 26 to locate the installation position and ensure accuracy and consistency during the installation process. In addition, a fixing pin 17 is inserted into the positioning groove 16 to further stabilize the installation structure and prevent the device from shifting during operation. This combined design enables the protection mechanism 1 to effectively improve heat dissipation and equipment stability while providing safe support.

[0037] like Figure 3 As shown, the support frame 14 adopts a cross-shaped hollow structure. This design not only provides excellent structural stability, but also takes into account the heat dissipation requirements. The cross-shaped geometric layout enables the support frame 14 to evenly disperse the force when bearing loads, thereby effectively improving the overall stability of the equipment and ensuring the safety and reliability of the switch during operation. The hollow design reduces excess material in the structure, which not only reduces the weight of the equipment, but also creates a ventilation path, allowing air to flow freely. The hollow structure provides multiple open spaces, allowing air to flow through the interior of the support frame 14, accelerating the discharge of heat and avoiding heat accumulation inside the equipment. This design is particularly suitable for the operation of switches in high-temperature, high-density environments, and can provide good heat dissipation conditions without affecting the structural strength of the equipment. Therefore, the cross-shaped hollow support frame 14 takes into account both stability and heat dissipation efficiency, making the equipment more suitable for long-term, high-load data center environments.

[0038] like Figure 5 As shown, the design of the mounting frame 21 includes a sliding groove 211, a guide bar 212, a mounting groove 213, a rotating shaft 214 and a fixing interface 215, and these components cooperate with each other to achieve stable and convenient installation of the switch equipment. The sliding groove 211 is set on the two inner sides of the mounting frame 21, as a key connecting part, and is used to cooperate with the mounting block 34 to fix the shell mechanism 3 of the switch. The existence of the sliding groove 211 not only makes the equipment installation more stable, but also enables quick disassembly when necessary, which is convenient for maintenance and replacement.

[0039] To further improve the installation accuracy, guide bars 212 are designed on the upper and lower bottom surfaces of the sliding groove 211. The function of the guide bars 212 is not limited to simple positioning, but can also guide the installation block 34 to slide smoothly, avoid jamming during the installation process, and make the entire assembly process smoother. In this way, even in a complex operating environment, the installation of the switch can still be carried out efficiently and smoothly.

[0040] The mounting slots 213 are arranged in a linear array at the front end of the mounting frame 21, providing multiple position options to facilitate adjustment of the specific position of the device during installation. The middle part of the mounting slot 213 is equipped with a rotating shaft 214 to ensure that it can be flexibly rotated during installation and adjustment, facilitating multi-angle positioning of the device to meet different installation requirements. The fixing interface 215 at the lower front end of the frame is a key stabilizing component. By cooperating with the buckle 253, the device can be firmly fixed in the specified position to prevent the device from loosening or shifting during operation.

[0041] The design of the sliding groove 211 is subdivided into two parts, one section near the hollow groove 22 is rectangular in cross section, and the other section is trapezoidal in cross section. Such a segmented design provides different guiding effects for the installation process. When installing the housing mechanism 3, the operator can more easily align the installation block 34 with the sliding groove 211 with the help of the rectangular section, making the initial installation positioning faster and more reliable. The other section of the trapezoidal cross section gradually narrows during the pushing process, thereby guiding the installation block 34 to move smoothly along the sliding groove 211. This design enables the housing mechanism 3 to automatically align with the center during the pushing process, ensuring the smoothness and stability of the installation.

[0042] When the mounting block 34 gradually slides into the middle area of ​​the sliding groove 211, the housing mechanism 3 will be firmly fixed at the mounting position. This ingenious design allows the operator to complete the installation in a short time, which not only improves the installation efficiency, but also enhances the stability of the equipment, and helps to ensure the accuracy and safety of the installation.

[0043] The guide bar 212 is installed on the central axis of the upper and lower bottom surfaces of the sliding groove 211 to ensure that the equipment can be accurately aligned during installation and improve the smoothness of sliding. The surface of the guide bar 212 is designed to be an arc surface, which can effectively reduce wear when the equipment slides in contact, further ensuring the smoothness and durability of operation. This arc surface design reduces friction, making the equipment easier and smoother during installation and adjustment, and effectively extending the service life of the guide bar 212 and the mounting block 34. Therefore, the guide bar 212 not only improves the convenience of operation, but also enhances the durability of the overall structure, which is very suitable for installation environments with frequent operations.

[0044] like Figure 6As shown, the design of the dustproof component 25 includes a rotating hole 251, a dustproof cloth 252 and a buckle 253, which work together to ensure that the device is protected from dust during use. The rotating hole 251 is opened in the middle of the dustproof component 25, serving as the center point for the entire dustproof cloth 252 to be wound. The dustproof cloth 252 is wrapped around the periphery of the rotating hole 251, which effectively prevents dust from entering the interior of the device. The dustproof cloth 252 is made of elastic material and can automatically expand and contract as needed. Through the action of the rotating hole 251, the dustproof cloth 252 can be unfolded at any time to cover the area that needs protection, thereby blocking dust and impurities. At the same time, when the device does not need to be dustproof, the dustproof cloth 252 will automatically rebound and retract into the mounting slot 213, ensuring the neat appearance of the device and avoiding affecting other operations.

[0045] The automatic rebound function of the dustproof cloth 252 makes the dustproof component 25 convenient and space-saving, and the dustproof cloth 252 can be retracted without manual operation. This design greatly simplifies the equipment maintenance process and improves the convenience of using the equipment. In addition, a buckle 253 is provided at one end of the dustproof cloth 252. The buckle 253 adopts an arc structure, and the front end is designed to be arrow-shaped, which is convenient for the staff to pull, snap on and other operations. The arrow-shaped design can help the staff easily fix the dustproof cloth 252 in the required position, ensuring that the dustproof cloth 252 will not accidentally loosen during use, while improving the convenience and efficiency of operation. This design not only improves the dustproof effect, but also reduces the complexity of maintenance and operation, ensuring that the equipment always maintains the best working condition.

[0046] like Figure 7 As shown, the shell mechanism 3 is a key component for installing the switch, including a shell body 31, a switching interface 32, a mounting handle 33, a mounting block 34 and a guide groove 35. The design focuses on practicality and ease of operation to ensure safe fixation and efficient heat dissipation of the device. The shell body 31 is installed inside the mounting mechanism 2, and as the external frame of the switch, it protects the internal components and provides structural support. A switching interface 32 is provided in front of the shell body 31, providing a connection channel with an external network or device to ensure the stability and high speed of data transmission. The mounting handle 33 is installed at the lower part of the shell body 31, and its main function is to provide additional assistance in the final stage of the installation of the shell mechanism 3. When the staff installs the shell body 31, due to the large size of the shell body 31, it may be very difficult to hold the side, so the design of the mounting handle 33 makes the operation more convenient. After the installation is completed, the mounting handle 33 is cleverly set in the notch 27 to ensure that the handle does not interfere with other parts, and it is also convenient for the staff to quickly remove the shell body 31 when needed.

[0047] In addition, the mounting block 34 is arranged on the side of the housing body 31, providing a more stable fixing method for the entire housing, ensuring that it will not loosen during long-term operation. The mounting block 34 is provided with guide grooves 35, which are located on its upper and lower surfaces, and the guide grooves 35 play a role in ensuring a smooth installation process. When the housing body 31 is docked with other parts of the mounting mechanism 2, the guide grooves 35 can help with precise positioning, prevent misalignment, and ensure the accuracy and smoothness of the installation process.

[0048] During the working process of the present invention, the staff first needs to fix the installation mechanism 2 in the protection mechanism 1: The staff holds the installation frame 21, aligns the hanging ear 26 with the positioning groove 16, and then slowly lowers the installation frame 21 so that the fixing pin 17 passes through the through hole on the hanging ear 26. The hanging ear 26 and the fixing pin 17 are fixed with bolts or other devices. At this time, the vertical direction of the installation frame 21 has the upward support force of the support frame 14, and the horizontal direction is limited by the cooperation of the fixing pin 17 and the hanging ear 26. Thus, the installation of the installation mechanism 2 is completed. Repeat the above steps to complete the installation of all the installation mechanisms 2 from bottom to top. After the installation mechanism 2 is set up, continue to complete the installation of the shell mechanism 3: The staff holds the shell body 31, aligns the installation block 34 with the sliding groove 211 and inserts it. At this time, the guide bar 212 is located in the guide groove 35 to cooperate with each other to ensure the accuracy of installation. When most of the shell body 31 enters the installation mechanism 2, the staff relies on the installation handle 33 to complete the final pushing process. The staff inserts the data exchange line into the exchange interface 32. For the exchange interface 32 that is not used temporarily, the staff pulls the buckle 253 downward to make it snap into the fixed interface 215. The dustproof cloth 252 can protect these fixed interfaces 215 from being affected by dust. When the switch is working, the cooling fan 13 blows outside air into the protection frame 11, and the hollow structure of the support frame 14 cooperates with the hollow groove 22 and the gas exchange port 23 in the installation mechanism 2. The switch installed in the housing mechanism 3 is placed in an environment with a fast air circulation speed, which ensures its heat dissipation requirements and improves work efficiency.

[0049] Various modifications to the present disclosure will be apparent to those of ordinary skill in the art, and the general principles defined herein may be applied to other variations without departing from the scope of the present disclosure. Therefore, the present disclosure is not limited to the examples and designs described herein, but should be given the widest scope consistent with the principles and novel features disclosed herein. Although one or more exemplary embodiments of the present disclosure have been described with reference to the accompanying drawings, it will be understood by those of ordinary skill in the art that various changes in form and detail may be made therein without departing from the spirit and scope of the present disclosure as defined in the appended claims.

Claims

1. A data center switch installation structure, characterized in that: It comprises a protection mechanism (1), a mounting mechanism (2) and a housing mechanism (3); The mounting mechanism (2) is arranged in a linear array inside the protection mechanism (1), the housing mechanism (3) is installed in the middle of the mounting mechanism (2), and a switch is arranged in the housing mechanism (3); The mounting mechanism (2) comprises a mounting frame (21), a hollow groove (22), a gas exchange port (23), a visual groove (24), a dustproof component (25), a hanging ear (26) and a notch (27); The mounting frame (21) is configured as a main body of the mounting mechanism (2); the mounting frame (21) is configured as a hollow structure with an opening at the front; the hollow groove (22) is provided on the top of the mounting frame (21); the gas exchange port (23) is provided on the side of the air groove; the visual groove (24) is provided on the upper and lower surfaces of the mounting frame (21); the dustproof component (25) is installed on the side of the mounting frame (21); the hanging ear (26) is installed on the side of the mounting frame (21); and the notch (27) is provided on the front of the mounting frame (21).

2. A data center switch installation structure according to claim 1, characterized in that: The protection mechanism (1) comprises a protection frame (11), a ventilation slot (12), a cooling fan (13), a support frame (14), a fixing block (15), a positioning slot (16) and a fixing pin (17); The protection frame (11) is the main body of the protection mechanism (1), the ventilation slot (12) is arranged at the rear of the protection frame (11), the cooling fan (13) is installed in the middle of the ventilation slot (12), the support frame (14) is installed inside the protection frame (11), the fixing block (15) is installed on the inner side of the protection frame (11), the positioning slot (16) is arranged on the upper surface of the fixing block (15), and the fixing pin (17) is installed on the positioning slot (16).

3. A data center switch installation structure according to claim 2, characterized in that: The support frame (14) is configured as a cross-shaped hollow structure.

4. A data center switch installation structure according to claim 1, characterized in that: The mounting frame (21) comprises a sliding groove (211), a guide bar (212), a mounting groove (213), a rotating shaft (214) and a fixing interface (215); The sliding groove (211) is formed on two inner side surfaces of the mounting frame (21), the guide strips (212) are arranged on the upper and lower bottom surfaces of the sliding groove (211), the mounting grooves (213) are formed in a linear array in front of the mounting frame (21), the rotating shaft (214) is installed in the middle of the mounting groove (213), and the fixing interface (215) is formed at the lower end in front of the mounting frame (21).

5. A data center switch installation structure according to claim 4, characterized in that: The sliding groove (211) is configured to be composed of two parts, wherein the cross-sectional shape of one part close to the hollow groove (22) is rectangular, and the cross-sectional shape of the other part is trapezoidal.

6. A data center switch installation structure according to claim 4, characterized in that: The guide strip (212) is arranged at the center axis position of the upper and lower bottom surfaces of the sliding groove (211).

7. A data center switch installation structure according to claim 1, characterized in that: The dustproof component (25) comprises a rotation hole (251), a dustproof cloth (252) and a buckle (253); The rotating hole (251) is opened in the middle of the dustproof component (25), the dustproof cloth (252) is rolled up around the periphery of the rotating hole (251), and the buckle (253) is installed at one end of the dustproof cloth (252).

8. A data center switch installation structure according to claim 7, characterized in that: The dustproof cloth (252) is rolled up with an elastic material, and the dustproof cloth (252) automatically rebounds around the rotating hole (251).

9. A data center switch installation structure according to claim 8, characterized in that: The buckle (253) is configured as an arc-shaped structure, and the front end of the buckle (253) is configured as an arrow shape.

10. A data center switch installation structure according to claim 1, characterized in that: The shell mechanism (3) comprises a shell body (31), an exchange interface (32), a mounting handle (33), a mounting block (34) and a guide groove (35); The shell body (31) is installed inside the installation mechanism (2), the exchange interface (32) is opened in front of the shell body (31), the installation handle (33) is installed below the shell body (31), the installation block (34) is arranged on the side of the shell body (31), and the guide groove (35) is opened on the upper and lower surfaces of the installation block (34).

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