A cable quality inspection tool management interaction method, system, device and medium

Abstract

The application provides a cable quality inspection tool management interaction method, system, device and medium, relating to the technical field of intelligent quality inspection. The method integrates batch number input, tool recommendation, AR guidance and traceability report generation control through the main interface; specifically, after inputting the batch number, the cable quality inspection database is automatically associated, the optimal tool combination is dynamically recommended based on the multi-source data fusion algorithm, and precise positioning and access are realized through the linkage of the intelligent tool rack. In terms of AR guidance, the context perception engine is combined to push adaptive teaching videos and operation layers, and the user is guided to operate in a standard manner in real time; the traceability report of the unique associated batch is generated by integrating the whole link data, covering tool usage records, parameter configuration and quality inspection conclusion. The application realizes the whole-process closed-loop management of cable quality inspection, effectively improves the detection efficiency and accuracy, and at the same time guarantees the operation verifiability and quality inspection traceability.

Description

Technical Field

[0001] The present application relates to the field of intelligent quality inspection technology, and in particular to a cable quality inspection tool management interaction method, system, device and medium. Background Art

[0002] As a vital carrier for power transmission and communications, the quality of cables is directly related to the safe and stable operation of power grids and communication networks. Therefore, ensuring the quality of each batch of cables is crucial. Existing cable quality inspection technology relies primarily on manual experience for tool selection and operational process execution. This approach is not only inefficient but also prone to deviations in test results due to incorrect tool selection and a lack of standardized operational procedures. Furthermore, the disconnect between quality data and production batches makes it difficult to quickly locate the root cause of quality issues. For example, it is impossible to quickly identify problems caused by insufficient cleanliness in a batch of cables. These issues collectively lead to inefficiency, high error rates, and difficulty in traceability during the cable quality inspection process. Summary of the Invention

[0003] The present application provides a cable quality inspection tool management interaction method, system, device and medium to solve one or more technical problems existing in the prior art and at least provide a beneficial option or create conditions.

[0004] In one aspect, the present application provides a cable quality inspection tool management interaction method, comprising the following steps:

[0005] Displays the main interface for cable quality inspection tool management interaction; wherein the main interface includes a batch number input control, a tool recommendation control, an AR guidance control, and a traceability report generation control;

[0006] In response to a trigger instruction on the batch number input control, a batch number input sub-interface is displayed, the batch number of the acquired cable is input, and the cable quality inspection database is associated;

[0007] In response to a trigger instruction for the tool recommendation control, a tool recommendation sub-interface is displayed, and a recommended quality inspection tool combination is dynamically generated according to the batch number, based on the cable quality inspection database and a multi-source data fusion algorithm, and the quality inspection tool combination is located and retrieved through intelligent tool rack linkage;

[0008] In response to a trigger instruction for the AR guidance control, an AR guidance sub-interface is displayed, and a teaching video and operation guidance layer corresponding to the quality inspection tool combination are generated through a context perception engine, and confirmation of operation steps is supported;

[0009] In response to the trigger instruction of the traceability report generation control, the traceability report sub-interface is displayed, the full-link operation data is integrated to generate and display a traceable quality inspection report, and it is uniquely associated with the batch number.

[0010] Furthermore, the batch number input sub-interface includes a work order input area, a manual input control, and a database association control;

[0011] In the batch number input sub-interface, enter the batch number of the acquired cable and associate it with the cable quality inspection database, including the following steps:

[0012] In the work order input area, the batch number is automatically parsed based on the electronic quality inspection work order;

[0013] In response to a trigger instruction of the manual input control, a batch number input window is displayed, the batch number input by the user is received, and the batch number is verified to match the batch number with the cable quality inspection database;

[0014] In response to a trigger instruction for the database-associated control, based on the parsed or input batch number, the production parameters and historical quality inspection records of the cable are retrieved and displayed from the cable quality inspection database.

[0015] Furthermore, the tool recommendation sub-interface includes a tool combination generation control and a tool highlight positioning control;

[0016] In the tool recommendation sub-interface, a recommended quality inspection tool combination is dynamically generated according to the batch number, based on the cable quality inspection database and the multi-source data fusion algorithm, and the positioning and access of the quality inspection tool combination are realized through the linkage of the intelligent tool rack, including the following steps:

[0017] In response to a trigger instruction for generating a control for the tool combination, the multi-source data fusion algorithm is called according to the batch number, and a tool recommendation list is generated by dynamic matching based on the production parameters and historical quality inspection records of the cable in the cable quality inspection database. The electronic tag data of the smart tool rack is read in real time to display the status of each tool in the quality inspection tool combination and its location in the smart tool rack. The tool recommendation list includes multiple recommended quality inspection tool combinations, allowing users to select according to actual needs.

[0018] In response to the trigger instruction of the tool highlight positioning control, the LED indicator light of the smart tool rack is activated, and the LED indicator light is highlighted and flashed to locate the shelf position of the quality inspection tool combination.

[0019] Furthermore, the AR guidance sub-interface includes a teaching video start control, an AR guidance overlay control, and a step confirmation control;

[0020] In the AR guidance sub-interface, a context-aware engine is used to generate a teaching video and operation guidance layer corresponding to the quality inspection tool combination, and support confirmation of operation steps, including the following steps:

[0021] In response to a trigger instruction for the teaching video startup control, the batch number, production parameters and historical quality inspection records of the cable are retrieved based on the cable quality inspection database, and a teaching video adapted to the quality inspection tool is dynamically loaded and displayed through the context perception engine;

[0022] In response to a trigger instruction for the AR guidance overlay control, an AR guidance overlay window is displayed, and the operation guidance layer is superimposed in real time based on the teaching video, and key operation areas are highlighted synchronously;

[0023] In response to the trigger instruction of the step confirmation control, the operation steps completed by the user, the step execution timestamp, the operator information and the quality inspection results are recorded and stored in the cable quality inspection database.

[0024] Furthermore, the AR guidance sub-interface also includes a remote collaboration support control;

[0025] In response to the trigger instruction of the remote collaboration support control, the AR real-time annotation layer is activated, the annotation information input by the remote expert is received, and a two-way voice communication link is established to synchronously transmit the operation site audio and the expert guidance audio.

[0026] Furthermore, the traceability report sub-interface includes a quality inspection batch acquisition area, a report viewing control, and a report export control;

[0027] In the traceability report sub-interface, the full-link operation data is integrated to generate and display a traceable quality inspection report, which is uniquely associated with the batch number, including the following steps:

[0028] In the quality inspection batch acquisition area, the batch number input by the user is obtained, and the production parameters and historical quality inspection records corresponding to the batch number are retrieved from the cable quality inspection database. The quality inspection tool combination and its positioning in the intelligent tool rack, the operation steps, the step execution timestamp, the operator information and the quality inspection results are combined to generate the traceable quality inspection report, and the barcode corresponding to the batch number is added to the header of the report;

[0029] In response to a trigger instruction for the report viewing control, a report viewing window is displayed to display the traceable quality inspection report;

[0030] In response to a trigger instruction for the report export control, a report export window is displayed, supporting exporting the traceable quality inspection report in multiple formats.

[0031] Furthermore, the main interface also includes a tool management control;

[0032] In response to a triggering instruction of the tool management control, a tool management sub-interface is displayed; the tool management sub-interface includes a tool health degree dashboard, an automatic repair control, and an environment adaptation control;

[0033] In the tool management sub-interface, the intelligent tool rack and its environment are managed, including the following steps:

[0034] In the tool health degree dashboard, real-time monitoring data on the intelligent tool rack is displayed, including the usage state of each tool and the remaining calibration days;

[0035] In response to a triggering instruction of the automatic repair control, a maintenance work order is generated and synchronized to a maintenance system, triggering a tool calibration or replacement process;

[0036] In response to a triggering instruction of the environment adaptation control, the environment humidity and temperature of the intelligent tool rack are monitored; if the environment humidity and temperature exceed a preset safety threshold, an alarm is triggered.

[0037] In another aspect, the application provides a cable quality inspection tool management interaction system, including a main interface module, a batch number input module, a tool recommendation module, an AR guidance module, a traceability report generation module, and a tool management module;

[0038] The main interface module is used to display the main interface of the cable quality inspection tool management interaction; wherein the main interface includes a batch number input control, a tool recommendation control, an AR guidance control, and a traceability report generation control;

[0039] The batch number input module is used to display a batch number input sub-interface in response to a triggering instruction of the batch number input control, input the batch number of the cable, and associate the cable quality inspection database;

[0040] The tool recommendation module is used to display a tool recommendation sub-interface in response to a triggering instruction of the tool recommendation control, dynamically generate a recommended quality inspection tool combination based on the cable quality inspection database and a multi-source data fusion algorithm according to the batch number, and realize positioning and use of the quality inspection tool combination through an intelligent tool rack linkage;

[0041] The AR guidance module is used to display an AR guidance sub-interface in response to a triggering instruction of the AR guidance control, generate a teaching video and an operation process guide corresponding to the quality inspection tool combination through a context perception engine, and support confirmation of operation steps;

[0042] The traceability report generation module is used to display a traceability report sub-interface in response to a triggering instruction of the traceability report generation control, integrate all-link operation data to generate and display a traceable quality inspection report, and uniquely associate with the batch number.

[0043] The tool management module is configured to display a tool management sub-interface in response to a triggering instruction of the tool management control, and manage the intelligent tool rack and an environment thereof.

[0044] In another aspect, the present application provides a cable quality inspection tool management interaction device, comprising an intelligent tool rack, a processor and a memory.

[0045] The intelligent tool rack is configured to store cable quality inspection tools, and comprises an LED indicator, a sensor group and a wireless communication module.

[0046] The LED indicator is configured to highlight and flash to position a target quality inspection tool on a shelf position.

[0047] The sensor group is configured to monitor state data of the quality inspection tools and environmental temperature and humidity of the intelligent tool rack in real time.

[0048] The wireless communication module is configured to be in communication connection with the processor.

[0049] The memory is configured to store a program; when the program is executed by the processor, the processor implements the foregoing cable quality inspection tool management interaction method.

[0050] In another aspect, the present application provides a computer readable storage medium, wherein a processor executable program is stored, and the processor executable program is used to implement the foregoing cable quality inspection tool management interaction method when executed by a processor.

[0051] The beneficial effects of the present application are as follows: the present application provides an interactive method for managing cable quality inspection tools. First, the method provides an integrated main interface, which includes a batch number input control, a tool recommendation control, an AR guidance control, and a traceability report generation control, providing users with an intuitive operating platform. Through the batch number input control, the batch number of the cable can be quickly obtained and associated with the cable quality inspection database to ensure the accuracy and real-time nature of the data. Based on this, the tool recommendation control is used to dynamically generate the most suitable quality inspection tool combination according to the specific situation of the cable, which not only improves the accuracy of tool selection, but also simplifies the tool access process through the linkage of the intelligent tool rack. In addition, the AR guidance control provides detailed teaching videos and operation guidance layers through the context perception engine, effectively guiding users to use the quality inspection tools correctly and reducing operational errors. Finally, the traceability report generation control integrates the full-link operation data and automatically generates a traceable quality inspection report uniquely associated with the batch number, effectively enhancing the quality traceability capability and making the entire quality inspection process more transparent and reliable. This method effectively improves the efficiency and accuracy of cable quality inspection while ensuring the verifiability and traceability of the test results. The present application also provides corresponding systems, devices and media. The beneficial effects of the systems, devices and media are similar to those of the methods and will not be repeated here.

[0052] Other features and advantages of the present application will be described in the following description, and in part will become apparent from the description, or will be understood by practicing the present application. The purposes and other advantages of the present application can be achieved and obtained through the structures particularly pointed out in the description, claims and drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0053] The accompanying drawings are used to provide a further understanding of the technical solution of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the technical solution of the present invention and do not constitute a limitation to the technical solution of the present invention.

[0054] Figure 1 It is a flow chart of the cable quality inspection tool management interaction method provided by this application;

[0055] Figure 2 This is a schematic diagram of the main interface of the cable quality inspection tool management interaction provided by this application;

[0056] Figure 3 This is a schematic diagram of the batch number input sub-interface provided by this application;

[0057] Figure 4 This is a schematic diagram of the tool recommendation sub-interface provided by this application;

[0058] Figure 5 This is a schematic diagram of the AR guidance sub-interface provided by this application;

[0059] Figure 6 This is a schematic diagram of the traceability report sub-interface provided by this application;

[0060] Figure 7 This is a schematic diagram of the tool management sub-interface provided by this application;

[0061] Figure 8 This is a structural diagram of the cable quality inspection tool management interactive system provided by this application;

[0062] Figure 9 This is a structural diagram of the cable quality inspection tool management interaction device provided in this application. DETAILED DESCRIPTION

[0063] In order to make the purpose, technical solutions and advantages of this application more clear, the following further describes this application in detail with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain this application and are not intended to limit this application.

[0064] The present application is further described below in conjunction with the accompanying drawings and specific embodiments. The described embodiments should not be considered as limiting the present application. All other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of this application.

[0065] In the following description, reference is made to “some embodiments”, which describes a subset of all possible embodiments, but it will be understood that “some embodiments” may be the same subset or different subsets of all possible embodiments and may be combined with each other without conflict.

[0066] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the art to which this application pertains. The terms used herein are for the purpose of describing the embodiments of this application only and are not intended to limit this application.

[0067] During traditional cable quality inspection, inspectors typically select appropriate testing tools based on personal experience and intuition. While this approach may meet basic requirements to a certain extent, its lack of scientific basis can easily lead to inefficiencies and errors caused by incorrect tool selection. For example, incorrectly selecting a withstand voltage tester can lead to a misjudgment of insulation damage, thus affecting the actual performance of the cable.

[0068] Due to the lack of unified operating standards, different inspectors may follow their own testing procedures, which may lead to deviations in test results. For example, during infrared testing, if the spacing between the main slide seat is not adjusted according to regulations, it will directly affect the test accuracy, resulting in unnecessary duplication of work or missed inspections.

[0069] Existing quality management systems struggle to quickly link specific batches of products to their quality inspection data. Once a quality issue arises, it's difficult to quickly pinpoint the specific production batch and determine the root cause. For example, when a batch of cables fails due to insufficient cleanliness, companies often spend considerable time and resources to identify the root cause, severely impacting response speed and efficiency.

[0070] In response to the above problems, the present application provides an integrated interactive method, system, device and medium for cable quality inspection tool management. This method realizes the full process management from cable batch information input to dynamic recommendation of quality inspection tools, intelligent guidance and generation of traceable quality inspection reports through a main interface including a batch number input control, a tool recommendation control, an AR guidance control and a traceability report generation control. Specifically, based on the input cable batch number, a multi-source data fusion algorithm is used to dynamically match the most suitable combination of quality inspection tools, and precise positioning and convenient access are achieved through intelligent tool rack linkage; a context-aware engine is used to provide detailed teaching videos and operation guidance layers to ensure that each step of the operation is accurate; finally, the full-link operation data is integrated to generate a traceable quality inspection report uniquely associated with a specific batch. In addition, it also supports functions such as tool health monitoring, environmental adaptation and remote collaboration, which further enhances the practicality and flexibility of the system. This series of innovations not only improves the efficiency and accuracy of the cable quality inspection process, but also effectively improves the quality traceability and management level.

[0071] First, the cable quality inspection tool management interaction method provided by the embodiment of the present application will be described in detail with reference to the accompanying drawings.

[0072] The cable quality inspection tool management interaction method proposed in the embodiments of the present application can be applied to a terminal or a server, or can be software running on a terminal or server. The terminal can be a tablet computer, a laptop computer, a desktop computer, etc., but is not limited to such. The server can be an independent physical server, a server cluster or a distributed system composed of multiple physical servers, or a cloud server that provides basic cloud computing services such as cloud services, cloud databases, cloud computing, cloud functions, cloud storage, network services, cloud communications, middleware services, domain name services, security services, content distribution networks, and big data and artificial intelligence platforms.

[0073] Reference Figures 1 to 6 The implementation process of the cable quality inspection tool management interaction method provided in the embodiment of the present application includes but is not limited to the following steps.

[0074] Step S110 , displaying the main interface 100 for cable quality inspection tool management interaction.

[0075] Among them, reference Figure 2The main interface 100 includes a batch number input control 101, a tool recommendation control 102, an AR guide control 103, and a traceability report generation control 104.

[0076] In step S110, displaying the main interface 100 of the cable quality inspection tool management interaction is the first step of the entire quality inspection process, which provides a centralized operation platform for the user. This interface integrates multiple key controls, including the batch number input control 101, the tool recommendation control 102, the AR guide control 103, and the traceability report generation control 104. This design not only simplifies the user operation process, but also improves work efficiency through an intuitive interface layout. The user can easily select the required function from the main interface 100 and quickly enter the subsequent specific operation steps, ensuring smooth progress of the quality inspection work.

[0077] In step S120, in response to a trigger instruction for the batch number input control 101, a batch number input sub-interface 200 is displayed, the batch number of the cable is input, and the cable quality inspection database is associated.

[0078] In step S120, when the user triggers the batch number input control 101, the system displays a sub-interface specifically for inputting the batch number of the cable. This step is crucial for associating the specific cable batch with the cable quality inspection database. By accurately inputting the batch number, the system can automatically retrieve all relevant production parameters and historical quality inspection records for that batch of cables, thereby providing accurate data support for subsequent quality detection. In addition, this process ensures that the quality inspection data for each batch of cables can be uniquely identified and traced, providing a foundation for quality traceability.

[0079] In step S130, in response to a trigger instruction for the tool recommendation control 102, a tool recommendation sub-interface 300 is displayed, and based on the batch number, a recommended quality inspection tool combination is dynamically generated based on the cable quality inspection database and multi-source data fusion algorithm, and the positioning and use of the quality inspection tool combination are realized through intelligent tool rack linkage.

[0080] In step S130, after the user triggers the tool recommendation control 102, the system displays the tool recommendation sub-interface 300, and based on the batch number of the cable and the information in the cable quality inspection database, a multi-source data fusion algorithm is used to dynamically generate a recommended quality inspection tool combination suitable for the current task. The significance of this step is that the most suitable quality inspection tool is selected through a scientific method rather than manual experience, which not only improves the accuracy of tool selection and reduces errors caused by misselection, but also enables precise positioning and convenient use through intelligent tool rack linkage technology, greatly improving work efficiency and the reliability of detection results.

[0081] Step S140, in response to the triggering instruction of the AR guide control 103, display the AR guide sub-interface 400, generate the corresponding teaching video and operation guide layer of the quality inspection tool combination through the context perception engine, and support the confirmation operation step.

[0082] In step S140, once the user triggers the AR guide control 103, the system will display the AR guide sub-interface 400, and provide detailed teaching videos and operation guide layers for the selected quality inspection tool combination using the context perception engine. This step aims to guide the user to use the quality inspection tool correctly in real time through augmented reality technology, highlight the key operation area, and ensure that each step can be performed according to the standard process. In addition, the system also supports the function of confirming the operation step, helping the user to check whether his operation meets the requirements, further reducing the risk of detection errors caused by improper operation, and ensuring the consistency and accuracy of the detection results.

[0083] Step S150, in response to the triggering instruction of the traceability report generation control 104, display the traceability report sub-interface 500, integrate the whole link operation data to generate and display the traceable quality inspection report, and uniquely associate with the batch number.

[0084] In step S150, after the user triggers the traceability report generation control 104, the system will display the traceability report sub-interface 500 and integrate the whole link operation data to generate a detailed traceable quality inspection report. This report not only contains all the operation details in the quality inspection process (such as the tools used, the steps performed and their timestamps, etc.), but also uniquely associates these information with a specific cable batch number. The significance of this step is to realize the data transparency and traceability of the whole quality inspection process, so that any quality problem can be quickly located to a specific production batch, greatly improving the speed and efficiency of problem solving, and also providing strong quality control support for enterprises.

[0085] In some embodiments of the present application, with reference to Figure 3 The batch number input sub-interface 200 includes a work order input area 201, a manual input control 202, and a database association control 203. In step S120, the batch number of the cable is input and associated with the cable quality inspection database in the batch number input sub-interface 200, and the implementation process includes but is not limited to the following steps.

[0086] Step S210, in the work order input area 201, the batch number is automatically parsed according to the electronic quality inspection work order.

[0087] In step S210, when the user selects the corresponding electronic quality inspection work order in the work order input area 201, the system can automatically analyze the structured data from the electronic work order and extract the corresponding cable batch number therefrom. In this way, not only can errors caused by manual input be avoided, but the efficiency of information input can also be improved, ensuring the accuracy and consistency of the batch number and providing a reliable data foundation for subsequent quality inspection processes.

[0088] In step S220, in response to a triggering instruction for the manual input control 202, a batch number input window is displayed, the batch number input by the user is received, and the matching thereof with the cable quality inspection database is verified.

[0089] In step S220, in the absence of an electronic work order or in the case of flexible operation, the user can directly input the batch number of the cable through the manual input control 202. The system will pop up a special input window to guide the user to complete the input process. Subsequently, the system will perform real-time verification on the input batch number to check whether it exists in the cable quality inspection database. This verification mechanism effectively prevents the use of invalid or incorrect batch numbers, ensuring that subsequent quality inspection operations are always based on the correct cable batch, thereby guaranteeing the accuracy and effectiveness of the entire quality inspection process.

[0090] In step S230, in response to a triggering instruction for the database association control 203, the production parameters and historical quality inspection records of the cable are retrieved from the cable quality inspection database and displayed based on the parsed or input batch number.

[0091] In step S230, the database association control 203 is configured such that, after an effective batch number is obtained, the system can quickly connect to the cable quality inspection database, query the production parameters (such as material type, insulation layer thickness, conductor diameter, etc.) and historical quality inspection records (such as past test results, tool usage, abnormal reports, etc.) related to the batch of cables, and display them in the associated data area 204. This function provides comprehensive data support for quality inspection personnel, helping them more accurately determine current quality inspection needs, optimize tool selection and operation processes, and also provides complete historical evidence for quality traceability, improving the scientific nature and traceability of the overall quality inspection work.

[0092] In some embodiments of the present application, with reference to Figure 4 The tool recommendation sub-interface 300 includes a tool combination generation control 301 and a tool highlighting positioning control 302. In step S130, in the tool recommendation sub-interface 300, a recommended quality inspection tool combination is dynamically generated based on the cable quality inspection database and a multi-source data fusion algorithm according to the batch number, and the positioning and taking of the quality inspection tool combination are implemented through the intelligent tool rack linkage. The implementation process includes but is not limited to the following steps.

[0093] Step S310, in response to a trigger instruction to the tool combination generation control 301, a multi-source data fusion algorithm is called according to the batch number, and a tool recommendation list is generated by dynamic matching based on the production parameters and historical quality inspection records of the cables in the cable quality inspection database. The electronic tag data of the smart tool rack is read in real time to display the status of each tool in the quality inspection tool combination and its location in the smart tool rack;

[0094] Among them, the tool recommendation list includes multiple recommended quality inspection tool combinations, supporting users to select according to actual needs.

[0095] In step S310, based on the cable batch number entered by the user, the system automatically retrieves production parameters related to that batch (such as material type, insulation thickness, conductor cross-sectional area, etc.) and historical quality inspection records (such as previously used tools, test results, and abnormalities) from the cable quality inspection database. Based on this, and incorporating a multi-source data fusion algorithm, the system comprehensively analyzes the cable's physical properties, historical quality performance, and current testing requirements, dynamically generating multiple recommendations for appropriate quality inspection tool combinations. This not only improves the scientific and accurate selection of tools, but also effectively reduces operational errors caused by lack of experience or misjudgment, ensuring a professional and efficient quality inspection process.

[0096] In addition, this step enables real-time monitoring and visual management of the usage status of quality inspection tools. When the user triggers this control, the system connects to the electronic tags (such as RFID chips or sensors) in the smart tool rack to obtain the current status information of each tool in the recommended tool set, including whether it is in place, whether it is in use, the last calibration time, battery power, device health index, etc. The system will also clearly mark the specific location of each recommended tool in the smart tool rack (such as the layer and drawer); this information is intuitively displayed to the user through the status window, helping them quickly determine whether the tool is available, avoiding the impact of tool failure or loss on the quality inspection progress, thereby improving the stability and controllability of the overall quality inspection process.

[0097] Step S320 , in response to the triggering instruction of the tool highlight positioning control 302 , the LED indicator light of the smart tool rack is activated to highlight and flash the shelf position where the quality inspection tool combination is located.

[0098] In step S320, the tool highlighting control 302 is set to precisely locate the recommended tool combination. When the user clicks this control, the LED indicator at the corresponding shelf location is activated and flashes brightly. This visual guidance greatly improves tool search efficiency and is particularly suitable for quality inspection environments with a wide variety of tools and dense storage. It effectively shortens preparation time and reduces the rate of human error, providing a strong guarantee for the smooth implementation of subsequent quality inspection work.

[0099] In some embodiments of the present application, the multi-source data fusion algorithm retrieves production parameters (such as insulation layer thickness deviation rate) and historical quality inspection data based on the input cable batch number through a dynamic weight matching method, and constructs a weighted decision matrix to dynamically generate tool combination recommendations (such as high deviation rate scenario preferentially matching a withstand voltage tester).

[0100] In some embodiments of the present application, referring to Figure 5 , the AR guide sub-interface 400 includes a teaching video start control 401, an AR guide superposition control 402, and a step confirmation control 403. In step S140, in the AR guide sub-interface 400, the teaching video and operation guide layer corresponding to the quality inspection tool combination are generated through the context perception engine, and the implementation process of confirming the operation steps is supported, including but not limited to the following steps.

[0101] In step S410, in response to the triggering instruction of the teaching video start control 401, the batch number, production parameters, and historical quality inspection records of the cable are retrieved based on the cable quality inspection database, and the teaching video adapted to the quality inspection tool is dynamically loaded and displayed through the context perception engine.

[0102] In step S410, when the user clicks the teaching video start control 401, the system automatically obtains the detailed production parameters (such as insulation layer thickness, conductor material, etc.) and historical quality inspection records (such as past detection items, abnormal situations, etc.) of the batch from the cable quality inspection database according to the selected cable batch number in the current quality inspection task. On this basis, combined with the currently recommended quality inspection tool combination, the most suitable teaching video resource is intelligently matched through the context perception engine. This dynamic loading mechanism ensures that the teaching content is highly relevant to the actual detection task, improves the practicality and guidance of the teaching video, and provides precise pre-operation training support for quality inspection personnel.

[0103] In step S420, in response to the triggering instruction of the AR guide superposition control 402, an AR guide superposition window is displayed, and an operation guide layer is displayed in real time according to the teaching video, and the key operation area is highlighted synchronously.

[0104] In step S420, the operation points in the teaching video are superimposed on the real work scene in a visual manner using augmented reality (AR) technology, further improving the intuitiveness and accuracy of the operation. When the user triggers the AR guidance superposition control 402, the system will render an operation guidance layer in real time in the camera screen, for example, marking the specific positions to be measured, test instrument wiring points, pressure application directions, etc., and highlighting the key operation areas through color change or flashing effect. This immersive interactive experience not only helps quality inspection personnel understand the operation requirements more clearly, but also effectively reduces quality problems caused by misoperation or non-standard operation, greatly improving detection efficiency and consistency, especially suitable for on-site applications of new employees or complex detection processes.

[0105] In step S430, in response to the triggering instruction of the step confirmation control 403, the operation steps completed by the user, the step execution timestamp, the operator information, and the quality inspection result are recorded and stored in the cable quality inspection database.

[0106] In step S430, the whole process data of quality inspection is recorded and closed-loop managed. When the user completes a step of quality inspection, the operation confirmation can be performed by clicking the step confirmation control 403, and the system will automatically record the execution details of the step, including the specific operation content, the execution time, the operator identity information, and the corresponding quality inspection result (such as qualified / unqualified, numerical detection result, etc.), and upload and store these information in real time to the cable quality inspection database. This function not only provides complete process data support for subsequent quality traceability, but also provides an important basis for enterprise quality management, performance evaluation, and process optimization. At the same time, through data trace, the responsibility consciousness of the operator is enhanced, and the standardization level of the whole quality inspection process is improved.

[0107] In some embodiments of the present application, with reference to Figure 5 The AR guidance sub-interface 400 further includes a remote collaboration support control 404. In response to the triggering instruction of the remote collaboration support control 404, the AR real-time labeling layer is activated, the labeling information input by the remote expert is received, and a bidirectional voice communication link is established to synchronously transmit the operation site audio and the expert guidance audio.

[0108] The introduction of the remote collaboration support control 404 enables efficient collaboration between on-site quality inspection operators and remote experts. When performing complex or first-time inspection tasks, users can click this control to proactively request remote assistance. The system then activates an augmented reality (AR) real-time annotation layer, allowing remote experts to view the on-site video feed through the backend interface and directly draw arrows, circle key areas, or add text descriptions. These annotations are overlaid in real time on the on-site operator's AR display, providing intuitive operational guidance. Simultaneously, the system automatically establishes a low-latency, two-way voice communication link, ensuring that on-site operators can clearly hear the expert's instructions while also hearing the on-site ambient sounds and operational feedback. This remote collaboration mechanism, combining audio and video, significantly improves problem response efficiency and operational accuracy, making it particularly suitable for remote locations, emergency troubleshooting, or high-precision inspection scenarios. It not only reduces reliance on the experience of on-site personnel but also significantly enhances the flexibility and professionalism of the entire quality inspection process.

[0109] In some embodiments of the present application, reference is made to Figure 6 The traceability report sub-interface 500 includes a quality inspection batch acquisition area 501, a report viewing control 502, and a report export control 503. In step S150, in the traceability report sub-interface 500, the process of integrating the full-link operation data to generate and display a traceable quality inspection report and uniquely associating it with the batch number includes but is not limited to the following steps.

[0110] Step S510, in the quality inspection batch acquisition area 501, obtain the batch number entered by the user, and according to the cable quality inspection database, retrieve the production parameters and historical quality inspection records corresponding to the batch number, combine the quality inspection tool combination and its positioning in the intelligent tool rack, operation steps, step execution timestamp, operator information and quality inspection results, generate a traceable quality inspection report, and add a barcode corresponding to the batch number in its header.

[0111] In step S510, the user enters the batch number in the quality inspection batch acquisition area 501. The system then retrieves the complete production parameters (such as material type and dimensions) and historical quality inspection records (including previous inspection items and abnormalities) for that batch of cables from the cable quality inspection database. Based on this, the system further structures and integrates the tool combination used in the quality inspection process, the specific location of the tools in the intelligent tool rack, the detailed execution process of each operation (including timestamps and operators), and the final quality inspection results, automatically generating a complete and traceable quality inspection report. Furthermore, a barcode unique to the batch is automatically added to the report header, which not only improves the standardization of the report but also provides a technical foundation for subsequent data management, scanning and querying, and automated archiving.

[0112] Step S520, in response to the triggering instruction of the report viewing control 502, a report viewing window is displayed to display the traceable quality inspection report.

[0113] In step S520, a convenient and intuitive quality inspection report viewing interface is provided for the user. When the user clicks the report viewing control 502, the system will pop up a special report viewing window to display the generated traceable quality inspection report in a clear structured format. The report contains key information such as the basic information of the cable, the quality inspection tool used and its state, the detailed operation process record, the operation time and the person in charge, and the final detection conclusion. This visual presentation method enables quality inspection managers, technicians or customers to quickly grasp the quality status and detection process of the batch of cables, enhancing the transparency and credibility of quality inspection work, and also providing efficient support for internal audit, quality analysis and problem backtracking.

[0114] Step S530, in response to the triggering instruction of the report export control 503, a report export window is displayed to support exporting the traceable quality inspection report in multiple formats.

[0115] In step S530, flexible output and multi-platform compatibility of the quality inspection report are achieved. When the user clicks the report export control 503, the system will pop up an export window to allow the user to select different file formats (such as PDF, Word, Excel, CSV, etc.) to export and save or send the current quality inspection report to relevant personnel. This function meets the data exchange needs in different use scenarios, such as archiving, submitting to customers or regulatory agencies, importing into enterprise ERP or MES systems for further analysis. In addition, the exported report retains the barcode information, supporting code scanning and identification, facilitating subsequent automated management and tracking. This step not only improves the portability and universality of quality inspection data, but also provides strong support for enterprises to build a digital and intelligent quality management closed loop.

[0116] In some embodiments of the present application, with reference to Figure 2 The main interface 100 further includes a tool management control 105. In response to the triggering instruction of the tool management control 105, a tool management sub-interface 600 is displayed. With reference to Figure 7 The tool management sub-interface 600 includes a tool health degree dashboard 601, an automatic repair control 602, and an environment adaptation control 603.

[0117] In the tool management sub-interface 600, the implementation process of managing the intelligent tool rack and its environment includes but is not limited to the following steps.

[0118] Step S610, in the tool health degree dashboard 601, real-time monitoring data on the intelligent tool rack is displayed, including the usage state of each tool and the remaining calibration days.

[0119] In step S610, the running state of the quality inspection tool is visualized and monitored through the tool health dashboard 601. The system can collect and display the key state information of each tool on the intelligent tool rack in real time, such as whether it is currently in place, usage frequency, last calibration time, and remaining days to the next calibration, etc. This dynamic monitoring mechanism helps managers to timely grasp the overall health status of the tool, identify potential failure risks in advance, avoid false detection problems caused by tool aging or misalignment, and thus ensure the accuracy and consistency of the quality inspection results.

[0120] In step S620, in response to the triggering instruction of the automatic repair control 602, a maintenance work order is generated and synchronized to the maintenance system, triggering the tool calibration or replacement process.

[0121] In step S620, by setting the automatic repair control 602, the automation and closed-loop management of the tool maintenance process are realized. When it is detected that a tool is approaching the calibration cycle cutoff, an abnormal state occurs, or is marked as a faulty device, the user can click the control to manually initiate a repair request. The system will automatically generate a standardized maintenance work order and synchronize it to the enterprise's maintenance management system. The work order content includes tool number, location, fault description, and recommended treatment method, etc. key information to ensure that maintenance personnel can quickly respond and complete calibration or replacement operations. This mechanism effectively improves the tool maintenance efficiency, reduces the quality inspection delay caused by tool problems, and enhances the sustainable operation capability of the system.

[0122] In step S630, in response to the triggering instruction of the environment adaptation control 603, the environment humidity and temperature of the intelligent tool rack are monitored; if the environment humidity and temperature exceed the preset safety threshold, an alarm is triggered.

[0123] In step S630, by setting the environment adaptation control 603, intelligent sensing and early warning of the storage environment of the quality inspection tool are realized. The system will monitor the temperature and humidity changes of the space where the intelligent tool rack is located in real time, and compare them with the preset safety threshold. Once it is found that the environmental parameters exceed the allowed range (for example, high humidity may cause electronic instruments to be damp, temperature fluctuations may affect precise measurement, etc.), the system will immediately trigger an alarm prompt to notify relevant personnel to take measures such as ventilation, dehumidification, or adjusting the air conditioner. This not only helps to prolong the service life of the tool, but also reduces the detection errors caused by environmental factors from the source, further ensuring the stability and reliability of the quality inspection work.

[0124] In summary, the cable quality inspection tool management interaction method provided by the embodiments of the present application has the following technical effects.

[0125] The method significantly improves the efficiency and accuracy of cable quality inspection by dynamic tool recommendation, augmented reality (AR) real-time guidance, and full-process quality traceability. Using multi-source data fusion algorithms, the most suitable combination of quality inspection tools is intelligently recommended, and detailed operation guidance is provided through AR technology to ensure that each operation step meets the standard requirements and reduces quality problems caused by insufficient manual experience or non-standard operation. In addition, the system integrates full-link operation data to generate traceable quality inspection reports, realizes unique association with batch numbers, and greatly enhances the positioning and tracking capabilities of quality problems.

[0126] At the same time, the method also optimizes the tool management and maintenance process. The LED indicator light, sensor group, and wireless communication module of the intelligent tool rack realize real-time monitoring of tool status and storage environment, and can automatically generate maintenance work orders to trigger calibration or replacement processes in a timely manner. The system supports multiple formats of quality inspection report export and remote collaboration mechanisms, making it not only suitable for various cable quality inspection scenarios, but also seamlessly integrated with other enterprise management systems to meet the diverse needs of enterprises of different sizes, providing strong support for fine management and high-quality development of enterprises.

[0127] Secondly, referring to Figure 8 The cable quality inspection tool management interaction system provided by the embodiment of the application includes a main interface module 710, a batch number input module 720, a tool recommendation module 730, an AR guidance module 740, a traceability report generation module 750, and a tool management module 760.

[0128] The main interface module 710 is used to display the main interface of the cable quality inspection tool management interaction. The main interface includes a batch number input control, a tool recommendation control, an AR guidance control, and a traceability report generation control.

[0129] The batch number input module 720 is used to display a batch number input sub-interface in response to a trigger instruction of the batch number input control, input a batch number of a cable, and associate a cable quality inspection database.

[0130] The tool recommendation module 730 is used to display a tool recommendation sub-interface in response to a trigger instruction of the tool recommendation control, dynamically generate a recommended quality inspection tool combination based on the batch number, the cable quality inspection database, and a multi-source data fusion algorithm, and realize positioning and use of the quality inspection tool combination through an intelligent tool rack.

[0131] The AR guidance module 740 is used to display an AR guidance sub-interface in response to a trigger instruction of the AR guidance control, generate a teaching video and an operation process guide corresponding to the quality inspection tool combination through a context perception engine, and support confirmation of operation steps.

[0132] The traceability report generation module 750 is configured to display a traceability report sub-interface in response to a triggering instruction of a traceability report generation control, integrate full-link operation data to generate and display a traceability inspection report, and associate the traceability inspection report with a batch number uniquely.

[0133] The tool management module 760 is configured to display a tool management sub-interface in response to a triggering instruction of a tool management control, and manage an intelligent tool rack and an environment in which the intelligent tool rack is located.

[0134] Further, with reference to Figure 9 The cable inspection tool management interactive device provided by the embodiment of the present application comprises an intelligent tool rack 810, a processor 820 and a memory 830.

[0135] The intelligent tool rack 810 is configured to store cable inspection tools, and comprises an LED indicator 811, a sensor group 812 and a wireless communication module 813.

[0136] The intelligent tool rack 810 is an important physical carrier of the cable inspection tool management interactive device, and is mainly configured to store various cable inspection tools in order, and to realize efficient management and accurate positioning of the tools through integrated intelligent components. The tool rack not only has the traditional tool storage function, but also integrates environmental perception, state monitoring and wireless communication capabilities, and builds an intelligent tool management system integrating “storage, management and control”. Through the intelligent tool rack 810, a user can quickly obtain required tools, and can master the tool use state in real time, while ensuring that the tools are stored in a suitable environment, so as to significantly improve the efficiency and quality of inspection work.

[0137] The LED indicator 811 is configured to highlight and flash to position a rack position of a target inspection tool. The LED indicator 811 is a visual guidance component on the intelligent tool rack 810, and its core function is to accurately position a rack position of a target tool through highlighting and flashing when a user needs to take a specific inspection tool. This design effectively solves the problem of “difficulty in finding tools” in traditional inspection work, especially in a scene where a large number of tools are densely placed. The LED indicator 811 can quickly guide an operator to find the correct tool, reduce the search time, avoid the risk of mis-taking the wrong tool, and improve the convenience and accuracy of the overall operation.

[0138] The sensor group 812 is used to monitor the state data of the quality inspection tool and the environmental temperature and humidity of the intelligent tool rack 810 in real time. The sensor group 812 is used to monitor the environmental parameters (such as temperature and humidity) inside and around the intelligent tool rack 810 and the state data (such as whether in place, use frequency, last calibration time, etc.) of the stored quality inspection tool. These data provide a basis for the intelligent judgment and early warning mechanism of the system. For example, when the environmental temperature and humidity are too high, the system can issue a warning in time; when a tool is not returned for a long time or is close to the calibration period, a reminder can also be triggered. The presence of the sensor group 812 makes the tool management more refined and automated, which helps to prolong the service life of the tool and ensure the reliability of the detection result.

[0139] The wireless communication module 813 is used for communication connection with the processor 820. On the one hand, the wireless communication module 813 receives the raw data (such as analog signals or low-level digital signals) collected by the sensor group 812, completes the processing such as analog-to-digital conversion, filtering, and protocol packaging, and then uploads it to the processor 820; on the other hand, it receives and analyzes the control instructions issued by the processor 820, drives the LED indicator light 811 to perform the high-light flashing operation, realizes the closed-loop control of “data collection-processing-uploading” and “instruction receiving-analysis-execution”. Through this module, the seamless connection between the tool rack and the entire quality inspection management system is realized, ensuring the immediacy and stability of data transmission, supporting remote monitoring, automatic repair, environmental adaptation, and other intelligent functions, and improving the overall coordination ability and response speed of the system.

[0140] The memory 830 is used to store programs. When the programs are executed by the processor 820, the processor 820 implements the foregoing cable quality inspection tool management interaction method.

[0141] The processor 820 is the core control unit of the device, and undertakes the logical operation, flow control and decision-making tasks of the entire cable quality inspection tool management interaction method. It executes a series of complex operations including tool recommendation, AR guidance, report generation, tool health monitoring, etc. according to the user's operation instructions, batch number information, historical records in the database, and real-time feedback data from the intelligent tool rack. The processor 820 drives the coordinated work of each component by calling the pre-set program modules in the memory, ensures the efficient, accurate and traceable of the entire quality inspection process, and is the key hub to realize the intelligent operation of the system.

[0142] The memory 830 is used to store all program codes, configuration parameters, database structures, user operation records and other key information required for running the cable quality inspection tool management interaction method. When the program is loaded and executed by the processor 820, the memory 830 provides necessary running environment and data support to ensure stable running of various functions of the system. In addition, the memory 830 is also used to long-term save the quality inspection whole-process data of each batch of cables, including the tool combination used, operation steps, time stamp, operator information, quality inspection result and the like, to provide complete historical basis for subsequent quality traceability, data analysis and system optimization, and is a core support module for realizing quality inspection whole-process digitization and auditability.

[0143] In addition, the embodiment of the present application provides a computer readable storage medium, wherein a program executable by a processor is stored, and the program executable by the processor is used to implement the cable quality inspection tool management interaction method when executed by the processor.

[0144] Similarly, the contents in the method embodiments are applicable to the system embodiments, the device embodiments and the medium embodiments, the functions implemented by the system embodiments, the device embodiments and the medium embodiments are the same as those of the method embodiments, and the beneficial effects achieved by the system embodiments, the device embodiments and the medium embodiments are also the same as those of the method embodiments.

[0145] In some alternative embodiments, the functions / operations mentioned in the block diagram can not occur in the order mentioned in the operation schematic diagram. For example, depending on the functions / operations involved, two blocks shown in succession can actually be executed substantially simultaneously or the blocks can sometimes be executed in reverse order. In addition, the embodiments presented and described in the flowcharts of the present application are provided by way of example, and the purpose is to provide a more comprehensive understanding of the technology. The disclosed method is not limited to the operations and logical flows presented herein. Alternative embodiments are contemplated in which the order of various operations is changed and in which sub-operations described as part of larger operations are independently executed.

[0146] In addition, although the present application is described in the context of functional modules, it should be understood that, unless otherwise stated, one or more of the functions and / or features may be integrated into a single physical device and / or software module, or one or more functions and / or features may be implemented in separate physical devices or software modules. It is also understood that a detailed discussion of the actual implementation of each module is not necessary for understanding the present application. More specifically, given the properties, functions, and internal relationships of the various functional modules in the devices disclosed herein, the actual implementation of the module will be understood within the routine skills of an engineer. Therefore, a person skilled in the art will be able to implement the present application as set forth in the claims using ordinary techniques. It is also understood that the specific concepts disclosed are merely illustrative and are not intended to limit the scope of the present application, which is determined by the full scope of the appended claims and their equivalents.

[0147] If a function is implemented as a software functional unit and sold or used as an independent product, it can be stored in a computer-readable storage medium. Based on this understanding, the technical solution of the present invention, or the portion that contributes to the prior art, or the portion of the technical solution, can be embodied in the form of a software product. This computer software product is stored in a storage medium and includes several programs that enable a computer device (which can be a personal computer, server, or network device, etc.) to perform all or part of the steps of the various embodiments of the method of the present invention. The aforementioned storage medium includes various media that can store program code, such as a USB flash drive, a mobile hard drive, a read-only memory (ROM), a random access memory (RAM), a magnetic disk, or an optical disk.

[0148] The logic and / or steps represented in a flowchart or otherwise described herein, for example, can be considered as a sequenced list of executable programs for implementing the logical functions, and can be embodied in any computer-readable medium for use by, or in conjunction with, a program execution system, apparatus, or device (e.g., a computer-based system, a system including a processor, or other system that can retrieve and execute a program from a program execution system, apparatus, or device). For purposes of this specification, a "computer-readable medium" can be any device that can contain, store, communicate, propagate, or transport a program for use by, or in conjunction with, a program execution system, apparatus, or device.

[0149] More specific examples (a non-exhaustive list) of the computer-readable medium include the following: an electrical connection (electronic) having one or more wires, a portable computer diskette (magnetic), a random access memory (RAM), a read-only memory (ROM), an erasable programmable read-only memory (EPROM or Flash memory), an optical fiber, and a portable compact disc read-only memory (CDROM). Additionally, the computer-readable medium can also be paper or another suitable medium upon which the program is printed, as the program can be electronically captured, via, for instance, optical scanning of the paper or other medium, then compiled, interpreted, or otherwise processed in a suitable manner, if necessary, and then stored in a computer memory.

[0150] It should be understood that aspects of the application can be implemented in hardware, software, firmware or combinations thereof. In the above embodiments, various steps or methods can be implemented in software or firmware which is stored in memory and executed by a suitable

[0151] In the above description of the present application, reference has been made to descriptive terms such as "one embodiment / scheme", "another embodiment / scheme" or "some embodiments / schemes" etc. which can mean that a particular feature, structure, material or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the application. The illustrative examples described above do not necessarily all refer to the same embodiment or example of the application. Furthermore, the particular features, structures, materials, or characteristics can be combined in any suitable manner in one or more embodiments or examples.

[0152] While the embodiments of the present application have been shown and described, it is to be understood that the embodiments described are merely exemplary and are not to be taken as limiting the scope of the application. The scope of the application is to be limited only by the claims and equivalents thereof.

[0153] The above is a specific description of the preferred embodiments of the present application, but the present application is not limited to the embodiments, and those skilled in the art can make various equivalent modifications or replacements without departing from the spirit of the present application, and these equivalent modifications or replacements are all included in the scope of the present application defined by the claims.

Claims

1. A cable quality inspection tool management interaction method, characterized in that: The steps include: Displays the main interface for cable quality inspection tool management interaction; wherein the main interface includes a batch number input control, a tool recommendation control, an AR guidance control, and a traceability report generation control; In response to a trigger instruction on the batch number input control, a batch number input sub-interface is displayed, the batch number of the acquired cable is input, and the cable quality inspection database is associated; In response to a trigger instruction for the tool recommendation control, a tool recommendation sub-interface is displayed; wherein the tool recommendation sub-interface includes a tool combination generation control and a tool highlight positioning control; In the tool recommendation sub-interface, a recommended quality inspection tool combination is dynamically generated according to the batch number, based on the cable quality inspection database and the multi-source data fusion algorithm, and the positioning and access of the quality inspection tool combination are realized through the linkage of the intelligent tool rack, including the following steps: In response to a trigger instruction for generating a control for the tool combination, the multi-source data fusion algorithm is called according to the batch number, and a tool recommendation list is generated by dynamic matching based on the production parameters and historical quality inspection records of the cable in the cable quality inspection database. The electronic tag data of the smart tool rack is read in real time to display the status of each tool in the quality inspection tool combination and its location in the smart tool rack. The tool recommendation list includes multiple recommended quality inspection tool combinations, allowing users to select according to actual needs. In response to a trigger instruction for the tool highlight positioning control, the LED indicator light of the smart tool rack is activated to highlight and flash the location of the quality inspection tool combination on the shelf; In response to a trigger instruction for the AR guidance control, an AR guidance sub-interface is displayed; wherein the AR guidance sub-interface includes a teaching video start control, an AR guidance overlay control, and a step confirmation control; In the AR guidance sub-interface, a context-aware engine is used to generate a teaching video and operation guidance layer corresponding to the quality inspection tool combination, and support confirmation of operation steps, including the following steps: In response to a trigger instruction for the teaching video startup control, the batch number, production parameters and historical quality inspection records of the cable are retrieved based on the cable quality inspection database, and a teaching video adapted to the quality inspection tool is dynamically loaded and displayed through the context perception engine; In response to a trigger instruction for the AR guidance overlay control, an AR guidance overlay window is displayed, and the operation guidance layer is superimposed in real time according to the teaching video, and key operation areas are highlighted synchronously; In response to a trigger instruction of the step confirmation control, the operation steps completed by the user, the step execution timestamp, the operator information and the quality inspection results are recorded and stored in the cable quality inspection database; In response to a trigger instruction for the traceability report generation control, a traceability report sub-interface is displayed; wherein the traceability report sub-interface includes a quality inspection batch acquisition area, a report viewing control, and a report export control; In the traceability report sub-interface, the full-link operation data is integrated to generate and display a traceable quality inspection report, which is uniquely associated with the batch number, including the following steps: In the quality inspection batch acquisition area, the batch number input by the user is obtained, and the production parameters and historical quality inspection records corresponding to the batch number are retrieved from the cable quality inspection database. The quality inspection tool combination and its positioning in the intelligent tool rack, the operation steps, the step execution timestamp, the operator information and the quality inspection results are combined to generate the traceable quality inspection report, and the barcode corresponding to the batch number is added to the header of the report; In response to a trigger instruction for the report viewing control, a report viewing window is displayed to display the traceable quality inspection report; In response to a trigger instruction for the report export control, a report export window is displayed, supporting exporting the traceable quality inspection report in multiple formats.

2. The cable quality inspection tool management interaction method according to claim 1, characterized in that: The batch number input sub-interface includes a work order input area, a manual input control, and a database association control; In the batch number input sub-interface, enter the batch number of the acquired cable and associate it with the cable quality inspection database, including the following steps: In the work order input area, the batch number is automatically parsed based on the electronic quality inspection work order; In response to a trigger instruction of the manual input control, a batch number input window is displayed, the batch number input by the user is received, and the batch number is verified to match the batch number with the cable quality inspection database; In response to a trigger instruction for the database-associated control, based on the parsed or input batch number, the production parameters and historical quality inspection records of the cable are retrieved and displayed from the cable quality inspection database.

3. The cable quality inspection tool management interaction method according to claim 1, characterized in that: The AR guidance sub-interface also includes a remote collaboration support control; In response to the trigger instruction of the remote collaboration support control, the AR real-time annotation layer is activated, the annotation information input by the remote expert is received, and a two-way voice communication link is established to synchronously transmit the operation site audio and the expert guidance audio.

4. The cable quality inspection tool management interaction method according to claim 1, characterized in that: The main interface also includes a tool management control; In response to a trigger instruction for the tool management control, a tool management sub-interface is displayed; the tool management sub-interface includes a tool health dashboard, an automatic repair control, and an environment adaptation control; In the tool management sub-interface, managing the smart tool rack and its environment includes the following steps: The tool health dashboard displays monitoring data on the smart tool rack in real time, including the usage status and remaining calibration days of each tool; In response to a trigger instruction of the automatic repair report control, a maintenance work order is generated and synchronized to a maintenance system, triggering a tool calibration or replacement process; In response to a trigger instruction for the environmental adaptation control, the ambient humidity and ambient temperature of the intelligent tool rack are monitored; if the ambient humidity and the ambient temperature exceed a preset safety threshold, an alarm is triggered.

5. A cable quality inspection tool management interactive system, characterized in that: It includes the main interface module, batch number input module, tool recommendation module, AR guidance module, traceability report generation module and tool management module; The main interface module is used to display the main interface for cable quality inspection tool management interaction; wherein, the main interface includes a batch number input control, a tool recommendation control, an AR guidance control, and a traceability report generation control; The batch number input module is used to respond to the trigger instruction of the batch number input control, display the batch number input sub-interface, input the batch number of the acquired cable, and associate it with the cable quality inspection database; The tool recommendation module is used to display a tool recommendation sub-interface in response to a trigger instruction of the tool recommendation control; wherein the tool recommendation sub-interface includes a tool combination generation control and a tool highlight positioning control; In the tool recommendation sub-interface, a recommended quality inspection tool combination is dynamically generated according to the batch number, based on the cable quality inspection database and the multi-source data fusion algorithm, and the positioning and access of the quality inspection tool combination are realized through the linkage of the intelligent tool rack, including the following steps: In response to a trigger instruction for generating a control for the tool combination, the multi-source data fusion algorithm is called according to the batch number, and a tool recommendation list is generated by dynamic matching based on the production parameters and historical quality inspection records of the cable in the cable quality inspection database. The electronic tag data of the smart tool rack is read in real time to display the status of each tool in the quality inspection tool combination and its location in the smart tool rack. The tool recommendation list includes multiple recommended quality inspection tool combinations, allowing users to select according to actual needs. In response to a trigger instruction for the tool highlight positioning control, the LED indicator light of the smart tool rack is activated to highlight and flash the location of the quality inspection tool combination on the shelf; The AR guidance module is configured to display an AR guidance sub-interface in response to a trigger instruction for the AR guidance control; wherein the AR guidance sub-interface includes a teaching video start control, an AR guidance overlay control, and a step confirmation control; In the AR guidance sub-interface, a context-aware engine is used to generate a teaching video and operation guidance layer corresponding to the quality inspection tool combination, and support confirmation of operation steps, including the following steps: In response to a trigger instruction for the teaching video startup control, the batch number, production parameters and historical quality inspection records of the cable are retrieved based on the cable quality inspection database, and a teaching video adapted to the quality inspection tool is dynamically loaded and displayed through the context perception engine; In response to a trigger instruction for the AR guidance overlay control, an AR guidance overlay window is displayed, and the operation guidance layer is superimposed in real time according to the teaching video, and key operation areas are highlighted synchronously; In response to a trigger instruction of the step confirmation control, the operation steps completed by the user, the step execution timestamp, the operator information and the quality inspection results are recorded and stored in the cable quality inspection database; The traceability report generation module is used to display a traceability report sub-interface in response to a trigger instruction of the traceability report generation control; wherein the traceability report sub-interface includes a quality inspection batch acquisition area, a report viewing control, and a report export control; In the traceability report sub-interface, the full-link operation data is integrated to generate and display a traceable quality inspection report, which is uniquely associated with the batch number, including the following steps: In the quality inspection batch acquisition area, the batch number input by the user is obtained, and the production parameters and historical quality inspection records corresponding to the batch number are retrieved from the cable quality inspection database. The quality inspection tool combination and its positioning in the intelligent tool rack, the operation steps, the step execution timestamp, the operator information and the quality inspection results are combined to generate the traceable quality inspection report, and the barcode corresponding to the batch number is added to the header of the report; In response to a trigger instruction for the report viewing control, a report viewing window is displayed to display the traceable quality inspection report; In response to a trigger instruction for the report export control, a report export window is displayed, supporting exporting the traceable quality inspection report in multiple formats; The tool management module is used to respond to a trigger instruction of the tool management control, display a tool management sub-interface, and manage the smart tool rack and its environment.

6. A cable quality inspection tool management interactive device, characterized in that: including an intelligent tool holder, a processor, and a memory; The intelligent tool rack is used to store cable quality inspection tools, including LED indicators, sensor groups and wireless communication modules; The LED indicator light is used to flash brightly to locate the shelf where the target quality inspection tool is located; The sensor group is used to monitor the status data of the quality inspection tools and the ambient temperature and humidity of the intelligent tool rack in real time; The wireless communication module is used to communicate with the processor; The memory is used to store a program; when the program is executed by the processor, the processor implements the cable quality inspection tool management interaction method according to any one of claims 1 to 4.

7. A computer-readable storage medium storing a program executable by a processor, characterized in that: The processor-executable program is used to implement the cable quality inspection tool management interaction method according to any one of claims 1 to 4 when executed by the processor.

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