An optical cable resource management system based on AI identification

Abstract

The present application relates to the field of information processing, and more specifically, to an optical cable resource management system based on AI recognition, wherein the system includes a management platform and a scanning device; the management platform includes a platform communication unit and a processing unit; the scanning device includes a device communication unit, a scanning unit, an image acquisition unit, an AI intelligent recognition unit, and a control unit; the platform processing unit is used to generate binding instructions and update instructions; the scanning unit is used to obtain label information through binding instructions; and the platform processing unit is used for binding. The control unit is used to update instructions to control the operation of the scanning unit and the image acquisition unit, and the AI ​​intelligent recognition unit is used to identify and obtain status information of the corresponding optical fiber port based on image information; the control unit is used for information association; the platform processing unit is also used to update the optical fiber port status data based on the associated information. The various units exchange information, and the embodiments of the present application realize the information management of optical cable resources.

Description

Technical Field

[0001] The present invention relates to the field of optical fiber communication technology, and more specifically, to an optical cable resource management system based on AI identification. Background Art

[0002] In modern communications, fiber optic patch panels (FPs) are widely used and have become standard equipment in various fields, including storage systems. FPs are equipped with multiple fiber optic ports. Monitoring FP status data, including information about the port status, is essential for communication management. Monitoring and managing FPs provides timely feedback on FP status data, effectively mitigating the risk of service interruptions caused by issues like FP port failures. Fiber optic port status data can change dynamically based on communication needs. Existing management methods require on-site management personnel to manually record data, which requires large amounts of data, increases maintenance costs, and reduces management efficiency. Summary of the Invention

[0003] The present invention aims to overcome at least one defect (shortcoming) of the above-mentioned prior art and provide an optical cable resource management system based on AI identification, which is used to achieve the effect of information management of optical fiber port status data.

[0004] According to the first aspect of the present application, an optical cable resource management system based on AI recognition is provided, including a management platform and a scanning device:

[0005] The management platform includes a platform communication unit and a platform processing unit;

[0006] The scanning device includes a device communication unit, a scanning unit, an image acquisition unit, an AI intelligent recognition unit and a control unit;

[0007] The platform processing unit is used to generate an ODF disk binding instruction;

[0008] The scanning unit is used to scan the ODF disk label on the ODF disk according to the ODF disk binding instruction to obtain the ODF disk label information;

[0009] The platform processing unit is configured to bind the ODF disk label and the ODF disk according to the ODF disk label information to obtain an ODF disk binding result;

[0010] The platform processing unit is used to generate a port binding instruction;

[0011] The scanning unit is used to scan the label of the optical fiber port on the ODF disk according to the port binding instruction to obtain label information of the corresponding optical fiber port, wherein the optical fiber port on the ODF disk is installed with a corresponding label, and the label includes port information of the corresponding optical fiber port;

[0012] The platform processing unit is further configured to bind the optical fiber port and the corresponding label according to the label information of the optical fiber port to obtain a port binding result, and use the ODF disk binding result and the port binding result as optical fiber port status data;

[0013] The platform processing unit is further configured to generate an optical fiber port status data update instruction;

[0014] The control unit is used to control the scanning unit and the image acquisition unit to work synchronously according to the update instruction, the scanning unit scans the label of the corresponding optical fiber port according to the update instruction to obtain the port information of the corresponding optical fiber port, and the image acquisition unit acquires the image information of the corresponding optical fiber port according to the update instruction;

[0015] The AI ​​intelligent recognition unit is used to identify the port status based on the image information and obtain the status information of the corresponding optical fiber port;

[0016] The control unit is further configured to associate the status information with the port information of the corresponding optical fiber port;

[0017] The platform processing unit is further configured to update the optical fiber port status data according to the associated port information, image information, and status information of the corresponding optical fiber port;

[0018] Among them, the device communication unit and the platform communication unit are used to realize the interaction of ODF disk binding instructions, the ODF disk label information, port binding instructions, fiber optic port label information, fiber optic port status data update instructions, the associated port information of the corresponding fiber optic port, image information and status information.

[0019] The optical cable resource management system enables information-based management of fiber port status, facilitating rapid processing of large amounts of data and reducing manual operation time and errors. This reduces manual effort and improves work efficiency, thereby lowering operating costs. Furthermore, the information-based management of fiber ports provides real-time data and reports, making management more transparent and facilitating decision-making. The information-based management system can be rapidly adjusted to meet changing business needs, providing new tools and methods to promote business innovation. Operational logs can be recorded for easy monitoring and auditing, enabling remote work and increasing flexibility.

[0020] Optionally, the platform processing unit is further configured to:

[0021] At least two ODF disks are associated according to the ODF disk label information to form an inter-ODF disk binding relationship, and the optical fiber port status data is updated based on the inter-ODF disk binding relationship.

[0022] Optionally, the platform processing unit is further configured to:

[0023] Obtain label information of the fiber pigtail corresponding to the optical fiber, associate the label information of the optical fiber port with the label information of the pigtail to form a binding relationship between the pigtail and the optical fiber port, and update the optical fiber port status data based on the binding relationship between the pigtail and the optical fiber port.

[0024] The platform processing unit associates at least two ODF disks to form a binding relationship between the ODF disks, and associates the pigtail with the optical fiber port to form a binding relationship between the pigtail and the optical fiber port. The association can timely reflect the real-time status of the optical fiber, reduce the time and errors of manual operation, improve overall work efficiency, provide more accurate status data, help managers optimize the management system, adapt to different business scenarios, provide more flexible solutions, more easily track and analyze data, provide deeper business insights for communication management, and improve data accuracy and system reliability.

[0025] Optionally, the platform processing unit is further configured to:

[0026] Generate pigtail binding instructions;

[0027] The scanning unit is used to scan the pigtail label according to the pigtail binding instruction to obtain the label information of the pigtail corresponding to the optical fiber, wherein the pigtail label is attached to the pigtail and the pigtail information is pre-written to form the label information of the pigtail;

[0028] The platform communication unit and the device communication unit are used to implement the interaction of pigtail binding instructions and label information of the optical fibers corresponding to the pigtails.

[0029] The platform processing unit generates a pigtail binding instruction, which enables effective management of the pigtail after binding, making it convenient to check the status of the pigtail in a timely manner; information interaction between the platform communication unit and the device communication unit is a necessary process for achieving binding, and the label information is stably transmitted during this process to achieve the binding effect.

[0030] Optionally, the platform communication unit is further configured to receive an ODF management task instruction;

[0031] Specifically, the platform processing unit is used to generate the ODF disk binding instruction: the platform processing unit is used to generate the ODF disk binding instruction according to the ODF management task instruction.

[0032] The platform processing unit generates a binding instruction for the ODF disk, which is used to implement binding management of the ODF disk on the management platform.

[0033] Optionally, the platform communication unit is further configured to, after generating the ODF disk binding instruction, add an ODF disk data management form for storing ODF disk information, where one ODF disk corresponds to one ODF disk data management form.

[0034] The platform communication unit is newly added with an ODF disk data management form for storing ODF disk information. The ODF disk data management form can generate a virtual form. By generating the virtual form, the collected ODF disk information can be recorded for easy query management.

[0035] Optionally, the platform processing unit is configured to bind the ODF disk label and the ODF disk according to the ODF disk label information to obtain an ODF disk binding result, specifically:

[0036] The platform processing unit is configured to store the ODF disk label information into the ODF disk data management form so as to bind the ODF disk data management form and the ODF disk label information to obtain an ODF disk binding result.

[0037] Optionally, the platform processing unit is also used to add a new fiber optic port in the ODF disk data management form according to the generated port binding instruction, and store the label information of the fiber optic port in the newly added fiber optic port in the ODF disk data management form, so that the newly added fiber optic port in the ODF disk data management form and the label information of the fiber optic port are bound to obtain a port binding result.

[0038] The ODF disk binding result and the port binding result can realize the informatization of the information of the optical fiber port. The optical fiber port status data can be dynamically followed through the ODF disk binding result and the port binding result, and the changes of the optical fiber port status data can be reflected in time, providing a basis for query.

[0039] Optionally, the AI ​​intelligent recognition unit is used to identify the port status according to the image information to obtain the status information of the corresponding optical fiber port, specifically:

[0040] The AI ​​intelligent recognition unit is used to extract shape features and / or image features from the image information, identify the port status of the port based on the extracted shape features and image features, and obtain status information of the corresponding optical fiber port.

[0041] The image is processed by the AI ​​intelligent recognition model in the AI ​​intelligent recognition unit, shape feature extraction and / or image feature extraction are performed on the collected image information, and the port status of the port to be identified is identified based on the extracted shape features and image features to obtain the status information of the port to be identified.

[0042] The AI ​​intelligent recognition model is able to autonomously analyze and learn from ever-increasing amounts of data, adjusting its own algorithmic model and improving its adaptability. It can process large amounts of sample data, quickly and accurately extracting, classifying, mining, and analyzing information, continuously optimizing the recognition process to improve efficiency and accuracy while maintaining a certain level of security and confidentiality. This allows for a secure, stable, efficient, reliable, and cost-effective operating model.

[0043] Optionally, the AI ​​intelligent recognition unit is implemented by a K210 chip.

[0044] The K210 chip has machine vision capabilities, can perform image processing and analysis, is suitable for a variety of visual recognition tasks, and can efficiently identify fiber port status images.

[0045] Based on any one of the above aspects, the system provided in the embodiment of the present application can perform corresponding binding of the ODF disk and the ports on the ODF disk on the management platform, establish an association relationship based on the corresponding binding, upload the collected port status information based on the association relationship, and identify and analyze the collected port status information, etc., timely update the ODF disk and the port status on the ODF disk, realize information management through the management platform, grasp the dynamics of the ODF disk and the ports on the ODF disk, reduce manual maintenance costs, and improve management efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0046] In order to more clearly illustrate the technical solutions in the embodiments of the present application, the following briefly introduces the drawings required for use in the description of the embodiments. Obviously, the drawings described below are only some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without any creative work. Figure 1 A schematic diagram of a data interaction system of an optical cable resource management system based on AI recognition provided in this embodiment. DETAILED DESCRIPTION

[0047] The figures in this application are for illustrative purposes only and are not to be construed as limiting the present application. To better illustrate the following embodiments, some components in the figures may be omitted, enlarged, or reduced in size, and do not represent actual product dimensions. Those skilled in the art will appreciate that some well-known structures and their descriptions may be omitted from the figures.

[0048] In order to enable those skilled in the art to better understand the present invention, the following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments in the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts should fall within the scope of protection of this application.

[0049] It should be noted that the terms "first", "second", etc. in the specification and claims of the present application and the above-mentioned drawings are used to distinguish similar objects and are not necessarily used to describe a specific order or sequential order. It should be understood that the data used in this way can be interchangeable where appropriate, so that the embodiments of the present application described herein can be implemented in a sequence other than those illustrated or described herein. In addition, the terms "including" and "having" and any of their variations are intended to cover non-exclusive inclusions, for example, a process, method, system, product or device comprising a series of steps or units is not necessarily limited to those steps or units clearly listed, but may include other steps or units that are not clearly listed or inherent to these processes, methods, products or devices.

[0050] Current optical cable operation and maintenance relies primarily on manual labor, which can lead to delayed response and processing in emergency situations, causing service interruptions and financial losses. Manual operations are susceptible to fatigue and negligence, potentially causing system failures and even data loss. As system scale grows, manual operation and maintenance require more manpower, significantly increasing maintenance costs. The efficiency and capabilities of manual operation and maintenance struggle to keep pace with business growth, hindering further development. The lack of unified operating standards and processes makes it difficult to ensure operation and maintenance quality, and also hinders effective management and auditing. Low levels of automation and intelligence increase management complexity, making timely and effective management impossible.

[0051] This embodiment provides a technical solution that can solve the above-mentioned problem. The specific implementation methods of this application are described in detail below with reference to the accompanying drawings.

[0052] like Figure 1 As shown, this embodiment provides a data interaction system for an optical cable resource management system based on AI identification, the system comprising a management platform 100 and a scanning device 200;

[0053] The management platform 100 includes a platform processing unit 110 and a platform communication unit 120;

[0054] The scanning device 200 includes a device communication unit 210, a scanning unit 220, an image acquisition unit 230, an AI intelligent recognition unit 240 and a control unit 250;

[0055] The platform processing unit 110 is used to generate an ODF disk binding instruction;

[0056] In this embodiment, when the platform processing unit 110 generates the ODF disk binding instruction, it can be that the management platform 100 is manually operated, and the operation is received through the platform communication unit 120, and the platform processing unit 110 generates the ODF disk binding instruction. It can also be that the platform processing unit 110 generates instructions based on a programming language or a scripting language, etc., or it can be a spontaneous behavior of the management platform 100 under a specific task, and instructions are input through a command line tool, such as using bash or shell scripts in a Unix / Linux system; or natural language commands are input through voice recognition or text, and then parsed into corresponding instructions by the management platform device 100, and a series of methods are also included, such as using a well-trained machine learning model to predict or generate instructions.

[0057] In an optional implementation, the platform communication unit 120 is configured to receive an ODF management task instruction, and the platform processing unit 110 is configured to generate the ODF disk binding instruction according to the ODF management task instruction. This method can execute the ODF disk binding operation by receiving an external ODF management task instruction.

[0058] The ODF disk binding instruction is sent to the scanning device 200 through the platform communication unit 120 of the management platform 100. The scanning unit 220 is used to scan the ODF disk label on the ODF disk according to the ODF disk binding instruction to obtain the ODF disk label information;

[0059] In this embodiment, the type of the ODF disk label can be a radio frequency tag (RFID), an NFC tag, a barcode, a QR code, a ZETA tag, an UWB tag, or an infrared communication technology, etc. The above-mentioned marking technology can be attached to the marker to uniquely identify and track the marker, and can automatically collect and record relevant information of the marker without human intervention, thereby improving the efficiency and accuracy of data collection and facilitating real-time updates of various real-time statuses such as inventory.

[0060] In an optional implementation, an NFC tag is manually fixed to the ODF disk, and the tag information in the NFC tag can be obtained by scanning the NFC tag through the scanning unit 220 of the scanning device. In a specific implementation, the NFC tag is pre-written with information related to the corresponding ODF disk as the tag information of the NFC tag. Scanning an NFC tag information can obtain information related to the corresponding ODF disk. The types of the tags include but are not limited to these.

[0061] During the specific implementation process, the scanning unit 220 obtains the ODF disk label information and transmits it to the device communication unit 210. The device communication unit 210 is used to upload the ODF disk label information to the management platform 100, so that the platform communication unit 120 of the management platform 100 can realize the binding of the ODF disk on the management platform through the platform processing unit after receiving the ODF disk label information.

[0062] Specifically, the platform processing unit 110 is configured to bind the ODF disc label and the ODF disc according to the ODF disc label information to obtain an ODF disc binding result.

[0063] In this embodiment, the binding generates an ODF disk binding instruction through the platform processing unit 110 of the management platform 100, and the ODF disk binding instruction is sent to the scanning device via the platform communication unit 120 of the management platform 100. The device communication unit 210 of the scanning device 200 receives the ODF disk binding instruction, and the scanning unit 220 scans the ODF disk label on the ODF disk according to the ODF disk binding instruction to obtain ODF disk label information. The ODF disk label information is uploaded to the management platform 100 through the device communication unit 210, and the platform communication unit 110 of the management platform 200 receives the ODF disk label information, and processes the ODF disk label information through the platform processing unit 220 to complete the binding of the ODF disk and the corresponding ODF disk label.

[0064] In a specific implementation, the platform communication unit 120 is further configured to, after generating the ODF disk binding instruction, create an ODF disk data management form for storing ODF disk information. Each ODF disk corresponds to one ODF disk data management form. The platform processing unit 110 stores the ODF disk label information in the ODF disk data management form, thereby binding the ODF disk data management form and the ODF disk label information to obtain an ODF disk binding result. This binding is achieved through interaction between the management platform 100 and the scanning device 200, and the binding method is not specifically limited.

[0065] In a preferred embodiment, the management platform 100 further includes a platform display unit, which can be used to display the binding result between the ODF disk and the corresponding ODF disk label.

[0066] In this embodiment, after the ODF disk binding is completed, the platform processing unit 110 may also be used to generate a port binding instruction to execute binding of the port on the ODF disk;

[0067] In this embodiment, when the platform processing unit 110 generates the port binding instruction, it can be that the management device 100 is manually operated, and the platform processing unit 110 receives the operation to generate the ODF disk binding instruction. It can also be that the platform processing unit 110 generates instructions based on manual writing directly through a programming language or a scripting language, etc., or it can be the spontaneous behavior of the management platform device 100 under a specific task, and the instructions are input through a command line tool, such as using bash or shell scripts in a Unix / Linux system; or natural language commands are input through voice recognition or text, and then the management platform device 100 system parses them into corresponding instructions, and also includes a series of methods such as using a well-trained machine learning model to predict or generate instructions.

[0068] In an optional implementation, the ODF management task instruction may further include information for instructing the generation of a port binding instruction. After the platform processing unit 110 obtains the ODF disk binding result, the generation of the port binding instruction is automatically triggered. The port binding instruction is then sent to the scanning device 200 via the platform communication unit 120 of the management platform 100. In another optional embodiment, the platform processing unit 110 may receive a port management task instruction, so that the platform processing unit 110 generates the port binding instruction based on the port management task instruction. The method for generating the port binding instruction is not specifically limited.

[0069] The scanning unit 220 is used to scan the label of the optical fiber port on the ODF disk according to the port binding instruction to obtain the label information of the corresponding optical fiber port, wherein the optical fiber port on the ODF disk is installed with a corresponding label, and the label includes the port information of the corresponding optical fiber port;

[0070] In this embodiment, the type of the port tag can be a radio frequency tag (RFID), an NFC tag, a barcode, a QR code, a ZETA tag, a UWB tag, or an infrared communication technology, etc. The above-mentioned marking technology can be attached to the marker to uniquely identify and track the marker, and can automatically collect and record relevant information of the marker without human intervention, thereby improving the efficiency and accuracy of data collection and facilitating real-time updates of various real-time statuses such as inventory.

[0071] In an optional implementation, the label information of the optical fiber port of the ODF disk is obtained and pre-written into an RFID tag to form the label information of the port. In a specific implementation, an RFID tag can be manually installed on each port of the ODF disk based on the port information. The port information can include attribute information such as the port location, size, model, manufacturer information, and serial number. The form of the optical fiber port label of the ODF disk is not specifically limited.

[0072] After the scanning unit 220 obtains the label information of the corresponding optical fiber port, the label information of the corresponding optical fiber port is uploaded to the management platform 100 through the device communication unit 210. The platform communication unit 120 of the management platform 100 is used to receive the label information of the corresponding optical fiber port and transmit it to the platform processing unit 110 for processing.

[0073] The platform processing unit 110 is configured to bind the optical fiber port and the corresponding label according to the label information of the optical fiber port to obtain a port binding result, and use the ODF disk binding result and the port binding result as optical fiber port status data;

[0074] In an optional implementation, the port binding is achieved by the management platform 100 generating a port binding instruction and sending it to the scanning device 200. The scanning unit 220 scans the label of the optical fiber port according to the port binding instruction to obtain the optical fiber port label information, and then uploads the optical fiber port label information to the management platform 100 through the device communication unit 210. In a specific implementation, the platform processing unit 110 of the management platform 100 adds a new optical fiber port to the ODF disk data management form according to the generated port binding instruction, and stores the label information of the optical fiber port in the newly added optical fiber port in the ODF disk data management form, so that the newly added optical fiber port in the ODF disk data management form and the label information of the optical fiber port are bound to obtain the port binding result. The binding method is not specifically limited.

[0075] In this embodiment, after the ODF disk and the port are bound, the optical fiber port status data corresponding to the ODF disk can be updated according to the actual use process. Specifically, the platform processing unit 110 is used to generate an optical fiber port status data update instruction;

[0076] In this embodiment, when the platform processing unit 110 generates the fiber optic port status data update instruction, it can be that the management device 100 is manually operated, and the platform processing unit 110 receives the operation to generate the ODF disk binding instruction. It can also be that the platform processing unit 110 generates instructions based on manual writing directly through a programming language or a scripting language, etc., or it can be the spontaneous behavior of the management platform device 100 under a specific task, and the instructions are input through a command line tool, such as using bash or shell scripts in a Unix / Linux system; or natural language commands are input through voice recognition or text, and then the management platform device 100 system parses them into corresponding instructions, and also includes a series of methods such as using a well-trained machine learning model to predict or generate instructions.

[0077] In an optional implementation, the platform processing unit 110 is used for fiber optic port status data update instructions, and the fiber optic port status data update instructions are then sent to the device communication unit 210 of the scanning device 200 through the platform communication unit 120 of the management platform 100, and transmitted to the control unit 250. The method of generating the port binding instruction is not specifically limited.

[0078] The control unit 250 controls the scanning unit 220 and the image acquisition unit 230 to work synchronously according to the update instruction. The scanning unit 220 scans the label of the corresponding optical fiber port according to the update instruction to obtain the port information of the corresponding optical fiber port, and the image acquisition unit 230 acquires the image information of the corresponding optical fiber port according to the update instruction.

[0079] In this embodiment, the control unit 250 controls the scanning unit 220 and the image acquisition unit 230 to work synchronously according to the update instruction, and the scanning unit 220 and the image acquisition unit 230 are controlled by the control unit 250 .

[0080] In this embodiment, the scanning unit 220 and the image acquisition unit 230 are both present in the scanning device 200. The control unit 250 receives the update instruction and controls the scanning device 220. The scanning unit 220 scans the label of the corresponding optical fiber port according to the update instruction to obtain the port information of the corresponding optical fiber port. The image acquisition unit 230 acquires the image information of the corresponding optical fiber port according to the update instruction. The implementation method of the control unit 250 is not limited to this.

[0081] After the image acquisition unit 230 acquires the image information of the corresponding optical fiber port, it transmits it to the AI ​​intelligent recognition unit. The AI ​​intelligent recognition unit 240 is used to identify the port status according to the image information to obtain the status information of the corresponding optical fiber port;

[0082] In this embodiment, the AI ​​intelligent recognition unit 240 identifies the port status based on the image information to obtain the status information of the corresponding optical fiber port, and obtains the image information of the corresponding optical fiber port through the image acquisition unit 230 of the scanning device 200. The AI ​​intelligent recognition unit can identify the port status based on the image information to obtain the status information of the corresponding optical fiber port. The AI ​​intelligent recognition unit can be implemented on the K210 chip, or it can be other types of processing chips, or deep algorithms, etc.

[0083] In an optional implementation, the AI ​​intelligent recognition unit 230 is specifically used to extract shape features and / or image features from the image information, identify the port status of the port based on the extracted shape features and image features, and obtain the status information of the corresponding optical fiber port. The AI ​​intelligent recognition unit 240 can autonomously analyze and learn based on the increasing data, and then adjust its own algorithm model to improve its adaptability. It can process a large amount of sample data, perform fast and accurate information extraction, classification, mining and analysis, continuously optimize the recognition process, improve recognition efficiency and accuracy, and also have a certain degree of security and confidentiality. It can build a safe, stable, efficient, reliable and cost-effective working form. The recognition method is not specifically limited.

[0084] In a specific implementation, the status information includes one or more of a port type status, a port occupancy status, and a port availability status. The port type status includes port type FC or SC, the port occupancy status includes an idle state and an occupied state, and the port availability status includes an available state and a damaged state. Based on this, the status information of each optical fiber port may include an idle FC header, an idle SC header, an occupied FC header, an occupied SC header, damaged, or empty.

[0085] The control unit 250 is used to associate the status information with the port information of the corresponding optical fiber port;

[0086] In this embodiment, the control unit 250 associates the status information identified by the AI ​​intelligent recognition unit 240 with the corresponding optical fiber port information obtained by the scanning device 220, and facilitates querying the status of any port based on the association, thereby achieving accurate and efficient data management.

[0087] In an optional implementation, the control unit 250 of the scanning device 200 associates the status information with the port information of the corresponding optical fiber port, and the association relationship is uploaded to the management platform 100 through the device communication unit 210. The management platform 200 performs the corresponding optical fiber port status data based on the association relationship.

[0088] Specifically, the platform processing unit 110 is used to update the optical fiber port status data according to the associated port information, image information and status information of the corresponding optical fiber port;

[0089] In this embodiment, the platform processing unit 110 generates an instruction to update the status data of the optical fiber port. The control unit 250 controls the scanning unit 220 and the image acquisition unit 230 to operate synchronously according to the update instruction. The scanning unit 220 scans the label of the corresponding optical fiber port according to the update instruction to obtain the port information of the corresponding optical fiber port. The image acquisition unit 230 acquires image information of the corresponding optical fiber port according to the update instruction. The AI ​​intelligent recognition unit 240 identifies the port status based on the image information to obtain the status information of the corresponding optical fiber port. The control unit 250 is used to associate the status information with the port information of the corresponding optical fiber port and upload it to the management platform 100, thereby updating the optical fiber port status data. This method can efficiently and timely update the optical fiber port status on the ODF disk through simple interaction between the management platform 100 and the scanning device 200. During the operation, it is only necessary to control the scanning unit 220 and the image acquisition unit 230 to work synchronously based on the update instruction through the control unit 250, and at the same time trigger the AI ​​intelligent recognition unit 240 to process the collected image information in time, so as to quickly obtain the latest status data of the optical fiber port on the ODF disk, thereby realizing simple and fast status data update, and facilitating timely data update of the management platform 100.

[0090] In an optional implementation, the platform processing unit 110 of the management platform 100 may further be configured to associate at least two ODF disks based on the ODF disk label information to form an inter-ODF disk binding relationship, and update the optical fiber port status data based on the inter-ODF disk binding relationship. This method allows for quick and easy binding of two ODF disks. In practical applications, two or more associated ODF disks can be bound, facilitating the coordinated and unified management of ODF disk data.

[0091] In an optional implementation, the platform processing unit 110 of the management platform 100 may also be configured to obtain label information of the corresponding pigtail of the optical fiber, associate the label information of the optical fiber port with the label information of the pigtail to form a binding relationship between the pigtail and the optical fiber port, and update the optical fiber port status data based on the binding relationship between the pigtail and the optical fiber port. The updating includes, but is not limited to, the following. This approach further implements the associated management of the pigtail and the optical fiber port, further improving the integrity of the overall ODF disk data management.

[0092] In a specific implementation, the device communication unit 210 and the platform communication unit 120 are used to implement the interaction of ODF disk binding instructions, the ODF disk label information, port binding instructions, fiber optic port label information, fiber optic port status data update instructions, the associated port information of the corresponding fiber optic port, image information and status information.

[0093] An optical cable resource management system based on AI recognition in this embodiment can realize information management of optical fiber port status data. By issuing instructions through the management device 100, the scanning device 200 performs scanning operations and image acquisition operations according to the instructions, and can perform recognition operations on image information. The entire system realizes efficient interaction between the management platform and the scanning device 200, realizes automation and digitization, reduces repetitive work, improves work efficiency, and increases the transparency of data management business processes, making it easier for managers to track data changes. At the same time, it supports remote work, increases work flexibility, reduces management costs, and improves management efficiency.

[0094] In this embodiment, the management and update of the fiber optic port status data can be achieved through the interaction between the management device 100 and the scanning device 200, and data exchange and communication between different devices can be achieved. The fiber optic port status data is no longer limited to a single device, but spans multiple devices and services, achieving seamless flow and efficient use of data. During the data interaction process, distributed transactions, data consistency protocols and other technical means are used to ensure data consistency between multiple applications, establish unified technical standards and specifications, and reduce the complexity and cost of technology integration.

[0095] Obviously, the above embodiments of the present application are merely examples for clearly illustrating the technical solution of the present application, and are not intended to limit the specific implementation methods of the present application. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the claims of the present application shall be included in the scope of protection of the claims of the present application.

Claims

1. An optical cable resource management system based on AI identification, characterized in that: The system includes a management platform and a scanning device; The management platform includes a platform communication unit and a platform processing unit; The scanning device includes a device communication unit, a scanning unit, an image acquisition unit, an AI intelligent recognition unit and a control unit; The platform processing unit is used to generate an ODF disk binding instruction; The scanning unit is used to scan the ODF disk label on the ODF disk according to the ODF disk binding instruction to obtain the ODF disk label information; The platform processing unit is configured to bind the ODF disk label and the ODF disk according to the ODF disk label information to obtain an ODF disk binding result; The platform processing unit is used to generate a port binding instruction; The scanning unit is used to scan the label of the optical fiber port on the ODF disk according to the port binding instruction to obtain label information of the corresponding optical fiber port, wherein the optical fiber port on the ODF disk is installed with a corresponding label, and the label includes port information of the corresponding optical fiber port; The platform processing unit is further configured to bind the optical fiber port and the corresponding label according to the label information of the optical fiber port to obtain a port binding result, and use the ODF disk binding result and the port binding result as optical fiber port status data; The platform processing unit is further configured to generate an optical fiber port status data update instruction; The control unit is used to control the scanning unit and the image acquisition unit to work synchronously according to the update instruction, the scanning unit scans the label of the corresponding optical fiber port according to the update instruction to obtain the port information of the corresponding optical fiber port, and the image acquisition unit acquires the image information of the corresponding optical fiber port according to the update instruction; The AI ​​intelligent recognition unit is used to identify the port status based on the image information and obtain the status information of the corresponding optical fiber port; The control unit is further configured to associate the status information with the port information of the corresponding optical fiber port; The platform processing unit is further configured to update the optical fiber port status data according to the associated port information, image information, and status information of the corresponding optical fiber port; Among them, the device communication unit and the platform communication unit are used to realize the interaction of ODF disk binding instructions, the ODF disk label information, port binding instructions, fiber optic port label information, fiber optic port status data update instructions, the associated port information of the corresponding fiber optic port, image information and status information.

2. The optical cable resource management system based on AI identification according to claim 1, characterized in that: The platform processing unit is further configured to: At least two ODF disks are associated according to the ODF disk label information to form an inter-ODF disk binding relationship, and the optical fiber port status data is updated based on the inter-ODF disk binding relationship.

3. The optical cable resource management system based on AI identification according to claim 1, characterized in that: The platform processing unit is further configured to: Obtain label information of the fiber pigtail corresponding to the optical fiber, associate the label information of the optical fiber port with the label information of the pigtail to form a binding relationship between the pigtail and the optical fiber port, and update the optical fiber port status data based on the binding relationship between the pigtail and the optical fiber port.

4. The optical cable resource management system based on AI identification according to claim 3 is characterized in that: The platform processing unit is further configured to: Generate pigtail binding instructions; The scanning unit is used to scan the pigtail label according to the pigtail binding instruction to obtain the label information of the pigtail corresponding to the optical fiber, wherein the pigtail label is attached to the pigtail and the pigtail information is pre-written to form the label information of the pigtail; The platform communication unit and the device communication unit are used to implement the interaction of pigtail binding instructions and label information of the optical fibers corresponding to the pigtails.

5. The optical cable resource management system based on AI identification according to claim 1, characterized in that: The platform communication unit is also used to receive ODF management task instructions; Specifically, the platform processing unit is used to generate the ODF disk binding instruction: the platform processing unit is used to generate the ODF disk binding instruction according to the ODF management task instruction.

6. The optical cable resource management system based on AI recognition according to claim 5, characterized in that: The platform communication unit is further configured to, after generating the ODF disk binding instruction, add an ODF disk data management form for storing ODF disk information, wherein one ODF disk corresponds to one ODF disk data management form.

7. The optical cable resource management system based on AI recognition according to claim 6, characterized in that: The platform processing unit is configured to bind the ODF disk label and the ODF disk according to the ODF disk label information to obtain an ODF disk binding result, specifically: The platform processing unit is configured to store the ODF disk label information into the ODF disk data management form so as to bind the ODF disk data management form and the ODF disk label information to obtain an ODF disk binding result.

8. The optical cable resource management system based on AI recognition according to claim 7, characterized in that: The platform processing unit is also used to add a new fiber optic port in the ODF disk data management form according to the generated port binding instruction, and store the label information of the fiber optic port in the newly added fiber optic port in the ODF disk data management form, so that the newly added fiber optic port in the ODF disk data management form and the label information of the fiber optic port are bound to obtain a port binding result.

9. The optical cable resource management system based on AI recognition according to any one of claims 1 to 8, characterized in that: The AI ​​intelligent recognition unit is used to identify the port status based on the image information to obtain the status information of the corresponding optical fiber port, specifically: The AI ​​intelligent recognition unit is used to extract shape features and / or image features from the image information, identify the port status of the port based on the extracted shape features and image features, and obtain status information of the corresponding optical fiber port.

10. The optical cable resource management system based on AI recognition according to any one of claims 1 to 8, characterized in that: The AI ​​intelligent recognition unit is implemented through the K210 chip.

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