Modular server cabinet wiring system and optimization method

Abstract

This invention discloses a modular server rack cabling system and optimization method. Through an intelligent identification module, cable identification information is associated and stored with basic information and connection device information. This information is updated promptly when equipment changes or cables are replaced, ensuring accuracy. During later management and troubleshooting, a wireless reading device can quickly identify the identification, improving cable identification efficiency and accuracy, saving time and effort, quickly locating problematic cables, and reducing business interruptions. Secondly, by counting the number of times the cable management module can be disassembled, the frequency of cable additions and replacements can be determined, reflecting the flexibility and scalability of the cabling system. The connection count of the connection interface module helps managers understand connection activity and interface load. The intelligent identification module visually presents the actual number and management status of cables, and the cabling efficiency evaluation module calculates efficiency values ​​based on this, assesses system efficiency, and generates reports, allowing managers to fully understand the cabling resource usage.

Description

Technical Field

[0001] This invention relates to the field of server rack cabling technology, and in particular to a modular server rack cabling system and optimization method. Background Technology

[0002] In today's digital age, data centers, as the core hubs for information storage and processing, are constantly expanding in scale, and the number of server racks is also increasing. The cabling system within the server racks plays a crucial role in the stable operation, efficient management, and flexible expansion of data centers. However, traditional server rack cabling methods have many problems and are difficult to meet the development needs of modern data centers.

[0003] In terms of cable identification management, traditional cabling systems use manual labeling. This method is not only inefficient, but the labels are also prone to falling off, being damaged, or having illegible writing, making it difficult to accurately identify cables during later management and troubleshooting. This increases the workload and time cost for maintenance personnel. Especially in large data centers, where there are a large number of cables, the lack of an effective identification management system leads to chaotic cable management. Once a fault occurs, it is difficult to quickly locate the problematic cable, affecting the timeliness of fault repair.

[0004] In addition, traditional cabling systems lack effective means of evaluating cabling efficiency. Data center managers cannot accurately understand the operating efficiency and usage of the cabling system, making it difficult to plan and optimize cabling resources rationally. As data center business continues to grow, the performance bottleneck of the cabling system may gradually emerge, affecting the service quality and competitiveness of the entire data center. Summary of the Invention

[0005] In view of this, the present invention proposes a modular server rack cabling system and optimization method, which can effectively solve the defects of the existing technology, such as difficulty in accurately identifying cables during later management and troubleshooting due to manual labeling, and the inability to accurately understand the operating efficiency and usage status of the cabling system.

[0006] The technical solution of this invention is implemented as follows:

[0007] A modular server rack cabling system, comprising:

[0008] The cable management module is used for the detachable addition, removal, and replacement of cables;

[0009] A connection interface module is configured between the cable management module and the device to enable plug-and-play functionality between the cable and the device.

[0010] The intelligent identification module, integrated into the cable management module, is used to uniquely identify each cable;

[0011] The cabling efficiency evaluation module is used to evaluate cabling efficiency based on the number of times the cable management module can be disassembled, the number of times the connection interface module can be connected, and the number of cables identified by the smart identification module.

[0012] As a further optional solution to the modular server rack cabling system, the cable management module includes:

[0013] A detachable cable holder is used to secure cables and prevent them from becoming loose or tangled.

[0014] Cable guide groove, used to guide the cable route;

[0015] The cable port interfaces with the connection interface module to enable cable connection and disconnection.

[0016] As a further optional solution to the modular server rack cabling system, the connection interface module includes:

[0017] Plug assembly for connecting to cables;

[0018] A socket assembly, which is matched with the plug assembly, is used to connect to the device and enable plug-and-play functionality.

[0019] As a further optional solution to the modular server rack cabling system, the connection interface module also includes:

[0020] A locking mechanism is used to ensure a secure connection between the plug assembly and the socket assembly.

[0021] As a further optional solution to the modular server rack cabling system, the intelligent identification module includes:

[0022] A tag is attached to each cable to store the cable's unique identification information;

[0023] The identification reader, integrated into the cable management module, is used to read the identification information of the cable.

[0024] As a further optional solution for the modular server rack cabling system, the cabling efficiency evaluation module uses a cabling efficiency evaluation formula to evaluate the cabling efficiency. The specific cabling efficiency evaluation formula is as follows:

[0025] ;

[0026] in, This represents the actual number of times the cable management module can be disassembled. This represents the theoretically designed number of times the cable management module can be disassembled. This represents the actual number of successful connections made to the connection interface module. This represents the theoretical design number of connections for the connection interface module. This represents the number of cables actually identified by the intelligent identification module. This represents the total number of cables inside the cabinet. , and These are the weighting coefficients.

[0027] As a further optional solution to the modular server rack cabling system, the system also includes:

[0028] The temperature monitoring module, integrated into the cable management module, is used to monitor the temperature of cables and equipment.

[0029] An optimization method for a modular server rack cabling system, specifically including:

[0030] The cable management module is used to perform detachable addition, removal, and replacement operations on cables. During the operation, the number of detachable operations of the cable management module is recorded, and the relevant data is transmitted to the cabling efficiency evaluation module.

[0031] The connection interface module enables plug-and-play connection between cables and devices. When devices are connected or removed, the connection interface module counts the number of connections and feeds the data back to the cabling efficiency evaluation module.

[0032] Each cable is uniquely identified by the intelligent identification module, the identification status of the cables is monitored in real time, and the number of identified cables is transmitted to the cabling efficiency evaluation module.

[0033] The cabling efficiency assessment module calculates the cabling efficiency value based on the number of detachable operations of the cable management module, the number of connections of the connection interface module, and the number of cables identified by the intelligent identification module. Based on the calculated cabling efficiency value, it assesses the efficiency status of the current cabling system and generates a corresponding assessment report.

[0034] A computing device includes a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of the above-described optimization method for a modular server rack cabling system.

[0035] A computer-readable storage medium storing a computer program that, when executed by a processor, implements the steps of the above-described optimization method for a modular server rack cabling system.

[0036] The beneficial effects of this invention are as follows: The intelligent identification module can associate and store cable identification information with basic cable information and connection device information. When the cable connection device changes or the cable itself is replaced, the relevant information can be updated promptly and accurately, ensuring that the identification information is always consistent with the actual situation. During later management and troubleshooting, the wireless reading device can quickly scan and identify the cable identification information, greatly improving the efficiency and accuracy of cable identification. Managers no longer need to manually check each label, saving significant time and effort. Problem cables can be quickly located and repaired promptly, reducing business interruptions caused by difficulties in cable identification. Secondly, by statistically analyzing the number of detachable operations of the cable management module, the frequency of cable additions, removals, and replacements can be understood, reflecting the flexibility and scalability of the cabling system. The connection count statistics of the connection interface module help managers grasp the connection activity of devices and cables and judge the interface usage load. The number of cables identified by the intelligent identification module directly reflects the actual number and management status of cables in the cabling system. The cabling efficiency evaluation module can calculate the cabling efficiency value based on the number of detachable operations, connection counts, and cable identification counts. Based on the calculated cabling efficiency value, the efficiency status of the current cabling system is evaluated, and a corresponding evaluation report is generated, providing a comprehensive understanding of the cabling resource usage. Attached Figure Description

[0037] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0038] Figure 1 This is a schematic diagram of the composition of a modular server rack cabling system according to the present invention;

[0039] Figure 2 This is a flowchart illustrating an optimization method for a modular server rack cabling system according to the present invention.

[0040] Figure 3 This is a schematic diagram of the composition of a computing device according to the present invention. Detailed Implementation

[0041] The technical solutions in the embodiments of the present invention will be clearly and completely described below. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0042] refer to Figures 1 to 3 A modular server rack cabling system includes a cable management module, a connection interface module, an intelligent identification module, a cabling efficiency evaluation module, and a temperature monitoring module, wherein:

[0043] A cable management module for the detachable addition, removal, and replacement of cables; in some embodiments, the cable management module includes:

[0044] A detachable cable holder is used to secure cables and prevent them from becoming loose or tangled.

[0045] Cable guide groove, used to guide the cable route;

[0046] The cable port interfaces with the connection interface module to enable cable connection and disconnection.

[0047] Specifically, the cable holder is made of high-strength plastic and is designed as a detachable structure. It consists of multiple snap-fit ​​components, each of which can be flexibly combined according to the number and thickness of the cables. Inside the cabinet, the cable holder is installed in a suitable position according to the cable layout plan, such as the two side columns or the back panel of the cabinet. When it is necessary to add or remove cables, simply open the snaps, put the cables in or take them out, and then snap the snaps back on. For example, when adding a batch of servers, it is necessary to add corresponding network cables and power cables. Operators can easily open the snaps of the cable holder to fix the new cables in place, ensuring that the cables will not be loose or tangled.

[0048] The cable guide channel is made of metal with a smooth surface to reduce cable friction during the guiding process. The guide channel is installed along the layout of the equipment in the rack, guiding cables from different areas to their corresponding connection positions. In the server rack, the guide channel starts from the cable entry point and extends along the side or bottom of the rack, accurately guiding the cables to the interfaces of each server. For some bends, the guide channel is designed with a suitable radius of curvature to ensure that the cables are not excessively stretched or squeezed when bending. For example, at the corner of the rack, the radius of curvature of the guide channel is designed according to the minimum bending radius of the cables used to ensure that the cables are not damaged when turning.

[0049] The cable ports adopt a standardized interface design that matches the connection interface module. Each cable port is clearly labeled to distinguish different types of cables. When connecting cables to the cabinet, operators only need to insert one end of the cable into the corresponding cable port, and guide the other end to the connection interface module of the target device through the cable guide groove for quick connection. For example, network cables are inserted into the cable port labeled "NET", and power cables are inserted into the cable port labeled "POWER". When it is necessary to replace the cable, simply unplug the old cable from the cable port and insert the new cable. The operation is simple and convenient.

[0050] Thus, the detachable cable management system makes adding, removing, and replacing cables extremely convenient. In the context of frequent data center equipment upgrades, it can quickly adapt to changes in cable quantity, reducing cable management time and manpower costs. The rational design of the cable guide channels ensures neat and orderly cable routing, avoiding cable crossings and tangles, improving the space utilization within the cabinet, and facilitating subsequent cable maintenance and troubleshooting. Secondly, the cable management system effectively prevents cables from loosening and shaking, reducing interface loosening and signal interruption issues caused by cable movement. The cable guide channels also protect the cables from bending and friction. Damage during the process extends the cable's lifespan. The standardized cable port design ensures the connection quality between the cable and the equipment, reducing failures caused by loose connections or poor contact, and improving the reliability of the entire cabling system. In addition, due to the cable management module's excellent detachability and flexibility, when the data center needs to be expanded, new cables and equipment can be easily added, and cabling work can be completed quickly without large-scale modifications to the entire cabling system, reducing expansion costs and difficulties. At the same time, clear cable labeling and neat cable layout also facilitate subsequent maintenance and management, making the data center upgrade process smoother.

[0051] A connection interface module is configured between the cable management module and the device to enable plug-and-play functionality between the cable and the device; in some embodiments, the connection interface module includes:

[0052] Plug assembly for connecting to cables;

[0053] A socket assembly, which is matched with the plug assembly, is used to connect to the device and enable plug-and-play functionality.

[0054] Specifically, the plug assemblies are designed according to the cable type and transmission requirements. For network cables, RJ45 plug assemblies are used. The outer shell is made of high-strength engineering plastic, which has good wear resistance and impact resistance. The metal contacts inside the plug are precision machined to ensure reliable connection with the cable core wires and have good conductivity and oxidation resistance. When manufacturing the cable, the core wires of the network cable are inserted into the RJ45 plug according to the standard wiring sequence, and the plug and cable are firmly fixed with a special crimping tool. For fiber optic cables, SC type plug assemblies are used. They have a precise mating structure that can ensure accurate mating of the fiber end face and reduce optical signal loss. During installation, the fiber is inserted into the SC type plug and fixed with a threaded or snap-fit ​​structure.

[0055] The socket assemblies are installed on equipment such as servers and switches, and are matched with corresponding plug assemblies. On the front panel of the server, RJ45 socket assemblies are installed, neatly arranged for easy insertion of network cables. The sockets also use high-quality metal contacts inside, ensuring a tight contact with the plug and guaranteeing stable data transmission. For SC-type socket assemblies connecting fiber optic equipment, installed at the optical interface, they provide dust protection and automatically align and lock when the plug is inserted, preventing accidental dislodgement. When connecting equipment, operators simply insert the cable with the plug assembly directly into the corresponding socket assembly on the equipment for plug-and-play functionality. For example, when adding a new server, simply insert the pre-made network cable and fiber optic cable plugs into the corresponding RJ45 and SC-type sockets on the server, respectively. No complex configuration or debugging is required, and the server can quickly connect to the network and begin operation.

[0056] Thus, the plug-and-play feature of the connection interface module significantly shortens the connection time between cables and devices. In traditional cabling methods, connecting cables and devices requires cumbersome wiring and debugging work. However, the connection interface module of this technical solution allows operators to simply plug the plug into the socket to complete the connection, reducing installation and debugging steps and improving the efficiency of cabling work. Especially in large-scale data center cabling projects, it can significantly shorten the project duration. Secondly, when equipment malfunctions or needs to be upgraded or replaced, due to the plug-and-play feature of the connection interface module, operators can quickly unplug the cable from the original equipment and plug it into the corresponding socket of the new equipment without having to perform complex re-wiring and configuration work. This greatly simplifies the equipment maintenance and replacement process, reduces maintenance time and costs, and improves the operation and maintenance efficiency of the data center.

[0057] In some embodiments, the connection interface module further includes:

[0058] A locking mechanism is used to ensure a secure connection between the plug assembly and the socket assembly.

[0059] Specifically, the locking mechanism mainly consists of a spring clip and an unlock button. The spring clip, made of high-strength stainless steel, has a certain degree of elastic deformation capability. The corresponding slot on the socket assembly provides this capability. When the plug is inserted into the socket assembly, the spring clip is compressed by the edge of the socket assembly, causing it to deform elastically. Once the plug is fully inserted, the spring clip springs out under its own elastic force and locks into the slot on the socket assembly, achieving a secure connection between the plug and socket. The unlock button is mounted on the surface of the plug assembly and is connected to the spring clip via a linkage mechanism. To remove the plug, simply press the unlock button. The spring clip retracts inward via a linkage mechanism, disengaging from the slot and allowing the plug assembly to be easily removed. For example, in the network cabling of this data center, a large number of network cables are connected to the network interfaces of servers and switches through RJ45 connector modules with this locking mechanism. In fiber optic cabling, the SC-type connector module is also equipped with a similar locking mechanism to ensure a reliable connection between the fiber optic plug and socket. During daily operation, even if the cable is subjected to a certain degree of vibration or external force, the locking mechanism can ensure that the plug and socket will not easily separate, maintaining stable transmission of network and optical signals.

[0060] Thus, the locking mechanism, through the cooperation of the spring latch and the slot, provides a secure mechanical connection between the plug and socket assemblies. In the complex environment of a data center, vibrations generated during equipment operation, personnel movement, or accidental tension on cables can all cause plugs to loosen or fall off under traditional connection methods. This locking mechanism can effectively resist these external forces, ensuring that the plug and socket always maintain a tight connection, greatly reducing the probability of signal interruption, data loss, and other faults caused by loose connections, and improving the reliability of the entire cabling system. Secondly, when it is necessary to maintain or replace equipment or adjust cables, the unlocking button design of the locking mechanism makes the plug removal operation simple and convenient. Maintenance personnel can easily remove the plug by simply pressing the unlocking button, without the need for special tools or complicated operations. This not only improves maintenance efficiency and reduces maintenance time, but also reduces the risk of damage to the connection interface due to improper operation.

[0061] A smart identification module, integrated into the cable management module, is used to uniquely identify each cable; in some embodiments, the smart identification module includes:

[0062] A tag is attached to each cable to store the cable's unique identification information;

[0063] The identification reader, integrated into the cable management module, is used to read the identification information of the cable.

[0064] Specifically, RFID tags are attached to each cable. These RFID tags are made of flexible material, which can fit tightly to the surface of cables of different thicknesses and materials, and have good bending and abrasion resistance. They can adapt to various bending and stretching conditions of the cables during the cabling process. Each RFID tag stores the unique identification information of the cable, including the cable number, type (such as network cable, power cable, etc.), starting and ending device information, laying date, and other details. For example, a network cable connecting server A and network switch B has an RFID tag with the number "NET-001", type "Category 6 network cable", starting device "server A-port 1", ending device "network switch B-port 5", and laying date "2024-07-15".

[0065] The tag readers are integrated into the cable management module, employing a combination of fixed and handheld methods. Fixed tag readers are installed in key locations within the cabinet, such as cable entry / exit points and equipment connection areas, enabling real-time reading of cable tag information passing through these areas and transmitting the data to the data center's management system. Handheld tag readers are used by maintenance personnel for convenient reading of cable tag information during localized inspections or troubleshooting within the cabinet. The tag readers communicate with RFID tags via radio frequency technology, enabling rapid and accurate reading of tag information within a short time. During cabling, operators lay cables with RFID tags according to the plan, connecting both ends of the cables to the corresponding devices. Once the cabling is complete, the fixed tag readers automatically read the cable tag information and upload it to the management system, completing automatic registration of cable information. During routine maintenance, maintenance personnel can use handheld tag readers to quickly query detailed cable information and promptly update relevant information in the management system when cables need to be replaced or adjusted.

[0066] In this way, the intelligent tagging module realizes automated management of cable information. During the cabling phase, fixed tag readers automatically read cable tag information and upload it to the management system, eliminating the tedious process of manually registering cable information, greatly shortening cabling time and improving cabling efficiency. In later maintenance, maintenance personnel can use handheld tag readers to quickly obtain detailed cable information without having to search paper records or manually recall cable laying details. This allows for rapid location and handling of problematic cables, reducing maintenance time and workload. Secondly, the unique identification information stored in RFID tags is accurate and less prone to error. Compared with manually affixing tags and manually recording information, it avoids identification errors or information loss caused by human negligence. The tag readers can quickly and accurately read tag information, reliably completing cable identification work whether in dimly lit cabinets or in environments with a large number of dense cables, improving the accuracy and reliability of cable identification. In addition, when cables are added, removed, replaced, or connected to different equipment, it is only necessary to update the relevant information in the RFID tags and synchronize the updated information to the management system through the tag readers. This ensures that cable information always remains consistent with the actual situation, providing accurate data support for data center management.

[0067] The cabling efficiency evaluation module is used to evaluate cabling efficiency based on the number of detachable operations of the cable management module, the number of connections of the connection interface module, and the number of cables identified by the intelligent identification module. In some embodiments, the cabling efficiency evaluation module uses a cabling efficiency evaluation formula to evaluate cabling efficiency, and the cabling efficiency evaluation formula is as follows:

[0068] ;

[0069] in, This represents the actual number of times the cable management module can be disassembled. This represents the theoretically designed number of times the cable management module can be disassembled. This represents the actual number of successful connections made to the connection interface module. This represents the theoretical design number of connections for the connection interface module. This represents the number of cables actually identified by the intelligent identification module. This represents the total number of cables inside the cabinet. , and These are the weighting coefficients.

[0070] Specifically, the cable management module adopts a detachable cable holder and guide groove structure. After a period of operation and statistics, the actual number of detachable operations of the cable management module was recorded. The theoretical design limit for the cable management module is 120 times, while the theoretical maximum number of times it can be disassembled is... The number of successful connections was 200. The connection interface module uses a standardized plug and socket assembly with a locking mechanism. The actual number of successful connections by the connection interface module was calculated. The theoretical design number of connections for the interface module is 300. The number of times is 500; the smart identification module uses RFID tags to uniquely identify each cable, and the actual number of cables identified by the smart identification module is... The total number of cables in the cabinet is 800. The number of cabling cables is set to 1000; a weighting factor is determined based on the actual conditions of the data center and the importance of the cabling system. =0.3、 =0.5、 =0.2; Substituting these data into the cabling efficiency evaluation formula, we obtain... ;

[0071] Thus, by using the cabling efficiency evaluation formula, multiple key factors such as the detachable operation of the cable management module, the connection status of the interface module, and the cable identification status of the intelligent identification module are quantified and integrated to derive a specific cabling efficiency value. In the above example, the calculated This value directly reflects the current efficiency level of the cabling system, giving data center managers a clear understanding of its operational status. Secondly, based on the proportion of each parameter in the evaluation formula and their actual values, the specific factors affecting cabling efficiency can be analyzed. For example, in the above calculation, if it is found that ( A low value indicates that the actual number of times the cable management module can be disassembled is far less than the theoretical design number, which may indicate problems such as severe wear of the cable management module or unreasonable design; if ( If the value of ) is not ideal, it may indicate a problem with the connection stability or compatibility of the interface module; while ( A low value for the intelligent tagging module may indicate a recognition failure or damaged tags. This allows for precise identification of problems in the cabling system, providing a clear direction for subsequent optimization and improvement. Furthermore, based on the cabling efficiency assessment results, data center managers can rationally plan future cabling resource allocation. If the assessment shows low cabling efficiency, primarily due to problems with the cable management module, then investment in the cable management module can be appropriately increased in subsequent equipment procurement and cabling planning, selecting higher-quality, more rationally designed products. If the efficiency of the connection interface module is low, upgrading the interface protocol or replacing it with a more reliable connection interface component can be considered. This approach avoids resource waste and improves the utilization efficiency of cabling resources.

[0072] It should be noted that the weighting coefficients , and The value of is dynamically adjusted based on the following conditions:

[0073] When the maintenance frequency of the cable management module exceeds a preset threshold, increase... value;

[0074] When the failure rate of the fast connection interface exceeds a preset threshold, increase... value;

[0075] When the recognition accuracy of the intelligent identification system is lower than a preset threshold, increase... value.

[0076] The temperature monitoring module, integrated into the cable management module, is used to monitor the temperature of cables and equipment.

[0077] Specifically, the temperature monitoring module employs high-precision digital temperature sensors, cleverly integrated into the cable management module. Specifically, multiple temperature sensors are evenly distributed and installed at key locations within the cable management module, such as densely packed cable areas and near cables close to heat-generating equipment (e.g., server power modules, high-performance processor locations). These temperature sensors are miniaturized and low-power, ensuring they do not interfere with cable layout or equipment operation. The temperature sensors connect to the data center's monitoring and management system via standard communication interfaces (e.g., I2C or single-bus interfaces). During cabling system operation, the temperature sensors collect real-time temperature data of the cables and surrounding environment, transmitting the data to the monitoring and management system as digital signals. For example, during hot summer months, when servers operate under high load for extended periods, the heat generated by cables and equipment increases. The temperature sensors can promptly detect temperature changes and send the collected temperature data to the monitoring and management system at regular intervals (e.g., every minute). Upon receiving the temperature data, the monitoring and management system stores, analyzes, and displays it. Administrators can view the temperature information of various locations in real-time through the monitoring system's interface and set temperature threshold alarms. When the temperature in a certain area exceeds a preset threshold (e.g., 60°C), the monitoring system immediately issues an alarm, alerting administrators to take appropriate measures.

[0078] Thus, the temperature monitoring module can monitor the temperature changes of cables and equipment in real time and accurately. During data center operation, excessively high temperatures in cables and equipment may cause safety hazards such as fires and equipment failures. By monitoring the temperature in real time, once an abnormal temperature rise is detected, managers can take timely measures, such as adjusting server load and adding ventilation and heat dissipation equipment, to effectively prevent safety accidents and ensure the safe and stable operation of server rack cabling systems and related equipment. Secondly, based on temperature monitoring data, managers can perform preventative maintenance. By analyzing temperature change trends, areas or equipment that may have heat dissipation problems can be identified in advance, allowing for repairs or replacements of parts before failures occur. Compared to traditional post-failure repairs, preventative maintenance can reduce equipment downtime, minimize business interruption losses due to equipment failures, and extend the lifespan of equipment, thereby reducing data center operation and maintenance costs.

[0079] An optimization method for a modular server rack cabling system, specifically including:

[0080] The cable management module is used to perform detachable addition, removal, and replacement operations on cables. During the operation, the number of detachable operations of the cable management module is recorded, and the relevant data is transmitted to the cabling efficiency evaluation module.

[0081] The connection interface module enables plug-and-play connection between cables and devices. When devices are connected or removed, the connection interface module counts the number of connections and feeds the data back to the cabling efficiency evaluation module.

[0082] Each cable is uniquely identified by the intelligent identification module, the identification status of the cables is monitored in real time, and the number of identified cables is transmitted to the cabling efficiency evaluation module.

[0083] The cabling efficiency assessment module calculates the cabling efficiency value based on the number of detachable operations of the cable management module, the number of connections of the connection interface module, and the number of cables identified by the intelligent identification module. Based on the calculated cabling efficiency value, it assesses the efficiency status of the current cabling system and generates a corresponding assessment report.

[0084] A computing device includes a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of the above-described optimization method for a modular server rack cabling system.

[0085] A computer-readable storage medium storing a computer program that, when executed by a processor, implements the steps of the above-described optimization method for a modular server rack cabling system.

[0086] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A modular server rack cabling system, characterized in that, include: The cable management module is used for the detachable addition, removal, and replacement of cables; A connection interface module is configured between the cable management module and the device to enable plug-and-play functionality between the cable and the device. The intelligent identification module, integrated into the cable management module, is used to uniquely identify each cable; The cabling efficiency evaluation module is used to evaluate cabling efficiency based on the number of times the cable management module can be disassembled, the number of times the connection interface module can be connected, and the number of cables identified by the smart identification module.

2. The modular server rack cabling system according to claim 1, characterized in that, The cable management module includes: A detachable cable holder is used to secure cables and prevent them from becoming loose or tangled. Cable guide groove, used to guide the cable route; The cable port interfaces with the connection interface module to enable cable connection and disconnection.

3. The modular server rack cabling system according to claim 2, characterized in that, The connection interface module includes: Plug assembly for connecting to cables; A socket assembly, which is matched with the plug assembly, is used to connect to the device and enable plug-and-play functionality.

4. The modular server rack cabling system according to claim 3, characterized in that, The connection interface module also includes: A locking mechanism is used to ensure a secure connection between the plug assembly and the socket assembly.

5. The modular server rack cabling system according to claim 4, characterized in that, The intelligent identification module includes: A tag is attached to each cable to store the cable's unique identification information; The identification reader, integrated into the cable management module, is used to read the identification information of the cable.

6. The modular server rack cabling system according to claim 5, characterized in that, The cabling efficiency evaluation module uses a cabling efficiency evaluation formula to evaluate the efficiency of cabling. The specific cabling efficiency evaluation formula is as follows: ； in, This represents the actual number of times the cable management module can be disassembled. This represents the theoretically designed number of times the cable management module can be disassembled. This represents the actual number of successful connections made to the connection interface module. This represents the theoretical design number of connections for the connection interface module. This represents the number of cables actually identified by the intelligent identification module. This represents the total number of cables inside the cabinet. , and These are the weighting coefficients.

7. The modular server rack cabling system according to claim 6, characterized in that, The system also includes: The temperature monitoring module, integrated into the cable management module, is used to monitor the temperature of cables and equipment.

8. An optimization method for a modular server rack cabling system, characterized in that, Specifically, it includes: The cable management module is used to perform detachable addition, removal, and replacement operations on cables. During the operation, the number of detachable operations of the cable management module is recorded, and the relevant data is transmitted to the cabling efficiency evaluation module. The connection interface module enables plug-and-play connection between cables and devices. When devices are connected or removed, the connection interface module counts the number of connections and feeds the data back to the cabling efficiency evaluation module. Each cable is uniquely identified by the intelligent identification module, the identification status of the cables is monitored in real time, and the number of identified cables is transmitted to the cabling efficiency evaluation module. The cabling efficiency assessment module calculates the cabling efficiency value based on the number of detachable operations of the cable management module, the number of connections of the connection interface module, and the number of cables identified by the intelligent identification module. Based on the calculated cabling efficiency value, it assesses the efficiency status of the current cabling system and generates a corresponding assessment report.

9. A computing device, characterized in that, It includes a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of the optimization method for the modular server rack cabling system of claim 8.

10. A computer-readable storage medium, characterized in that, The storage medium stores a computer program, which, when executed by a processor, implements the steps of the optimization method for the modular server rack cabling system of claim 8.

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