Method and system for monitoring optical cable connector box

Abstract

The invention discloses an optical cable connector box monitoring method and system, and relates to the technical field of equipment monitoring, and the method comprises the steps: determining a target optical cable connector box, constructing a three-dimensional model of the target optical cable connector box, and marking the basic information of the target optical cable connector box on the three-dimensional model to obtain a representative model; a plurality of monitoring points are arranged corresponding to the target optical cable connector box, the monitoring points comprise a temperature monitoring point, a humidity monitoring point and an optical power monitoring point, a monitoring network is constructed according to the monitoring points, and a model monitoring network is arranged on the representative model according to the monitoring network; monitoring information of the monitoring points is obtained, and the monitoring information is analyzed to obtain an analysis result. The monitoring data of the target optical cable connector box can be quickly and accurately displayed, the working state of the target optical cable connector box can be better known, the target optical cable connector box can be better monitored, and subsequent personnel can conveniently maintain the target optical cable connector box.

Description

Technical Field

[0001] The present invention relates to the technical field of equipment monitoring, and in particular to a monitoring method and system for an optical cable junction box. Background Art

[0002] The optical cable splice box is an indispensable device in optical fiber communication. It has the functions of protecting, fixing and managing optical fiber splices. It is widely used in communications, data centers, radio and television, power systems and other fields. The optical cable splice box is a device used to protect optical cable splices and to ensure the safety and stability of optical fiber connections. Therefore, the optical cable splice box needs to be monitored to maintain the normal use of optical cables. It is difficult for existing optical cable splice boxes to quickly and accurately display the actual monitoring data of the optical cable splice box during monitoring, and it is difficult to understand the working status of the target optical cable splice box. Summary of the invention

[0003] The purpose of the present invention is to provide a monitoring method and system for an optical cable splice box to solve the deficiencies in the background technology.

[0004] In order to achieve the above object, the present invention provides the following technical solution: a monitoring method for an optical cable splice box, comprising the following steps:

[0005] Determine a target optical cable splice box, construct a three-dimensional model of the target optical cable splice box, and mark basic information of the target optical cable splice box on the three-dimensional model to obtain a representative model;

[0006] A plurality of monitoring points are set corresponding to the target optical cable junction box, wherein the monitoring points include temperature monitoring points, humidity monitoring points and optical power monitoring points, a monitoring network is constructed according to the monitoring points, and a model monitoring network is set on the representative model according to the monitoring network;

[0007] Acquire monitoring information of the monitoring point, analyze the monitoring information to obtain analysis results, provide status prompts for the target optical cable joint box according to the analysis results, and maintain the target optical cable joint box according to the status prompts.

[0008] In a preferred embodiment, the steps of determining a target optical cable splice box, constructing a three-dimensional model of the target optical cable splice box, and marking basic information of the target optical cable splice box on the three-dimensional model to obtain a representative model include:

[0009] Selecting an optical cable splice box to be monitored as a target optical cable splice box in the optical cable connection;

[0010] Performing three-dimensional construction on the target optical cable junction box to obtain a corresponding three-dimensional model;

[0011] The basic information of the target optical cable junction box is obtained, and the basic information is marked on the three-dimensional model to obtain a representative model.

[0012] In a preferred embodiment, the step of constructing a monitoring network according to the monitoring points and setting a model monitoring network on the representative model according to the monitoring network includes:

[0013] A temperature monitoring point, a humidity monitoring point and an optical power monitoring point are set as monitoring points in the target optical cable joint box, the monitoring points are connected to obtain a monitoring network, and the monitoring network is marked on the representative model as a model monitoring network;

[0014] Establish the relationship between the model monitoring network and the monitoring network.

[0015] In a preferred embodiment, the step of connecting the monitoring points to obtain a monitoring network and marking the monitoring network on the representative model as a model monitoring network includes:

[0016] In the target optical cable junction box, the monitoring ranges of the temperature monitoring point, the humidity monitoring point and the optical power monitoring point are respectively defined, and the monitoring ranges of the monitoring points are layered to obtain multiple wave layers;

[0017] Corresponding wave layer arrays are respectively set for each wave layer in the monitoring range;

[0018] Corresponding monitoring ports are configured for the wave layer array corresponding to a single monitoring range;

[0019] The monitoring points are connected based on the monitoring ports to obtain a monitoring network;

[0020] The corresponding monitoring network is marked on the representative model to obtain the corresponding replica monitoring network, and the corresponding server is configured according to the corresponding replica monitoring network of the monitoring point to obtain the model monitoring network.

[0021] In a preferred embodiment, the step of configuring corresponding monitoring ports for the wave layer array corresponding to a single monitoring range includes:

[0022] A corresponding monitoring port is configured for the wave layer array of a single monitoring range, and multiple sub-ports are set on the monitoring port, and the number of the sub-ports is the same as the number of the wave layers;

[0023] The sub-ports are connected to the wave layer array of the corresponding wave layer, and the positions of the multiple sub-ports are fixed according to the wave layer array.

[0024] In a preferred embodiment, the step of establishing an association relationship between the model monitoring network and the monitoring network includes:

[0025] Divide the servers corresponding to the monitoring points in the model monitoring network according to the wave layers to obtain multiple wave layer servers;

[0026] Establishing a communication connection between the monitoring port and the server in the corresponding model monitoring network;

[0027] The sub-ports in the monitoring port are connected to the corresponding wave layer servers according to the wave layer, and the association relationship between the model monitoring network and the monitoring network is obtained.

[0028] In a preferred embodiment, the steps of acquiring monitoring information of the monitoring point, analyzing the monitoring information to obtain analysis results, and providing status prompts for the target optical cable splice box according to the analysis results include:

[0029] Based on the monitoring point, the monitoring information of the target optical cable junction box is collected, the monitoring information is distributed in the monitoring range of the corresponding monitoring point, and the monitoring information is divided according to the wave layer of the monitoring range and stored in the corresponding wave layer array;

[0030] The monitoring information after division is converted into monitoring data file according to the wave layer array;

[0031] The monitoring data corresponding to a single monitoring range is integrated according to the position of the wave layer array to obtain a data group, and the data group is distributed between the corresponding sub-ports in the wave layer array and the monitoring port;

[0032] The monitoring data is transmitted to the server corresponding to the model monitoring network through the sub-port for storage, and the monitoring data is converted into monitoring information through the wave layer server and displayed through the representative model;

[0033] The monitoring information is judged according to the preset conditions to obtain the analysis results. When the analysis result is that the monitoring information does not meet the preset conditions, the status prompt is given through the representative model.

[0034] The present invention also provides a monitoring system for an optical cable splice box, comprising:

[0035] A determination module is used to determine a target optical cable splice box, construct a three-dimensional model of the target optical cable splice box, and mark basic information of the target optical cable splice box on the three-dimensional model to obtain a representative model;

[0036] A setting module, connected to the determination module, is used to set a plurality of monitoring points corresponding to the target optical cable junction box, wherein the monitoring points include temperature monitoring points, humidity monitoring points and optical power monitoring points, a monitoring network is constructed according to the monitoring points, and a model monitoring network is set on the representative model according to the monitoring network;

[0037] The monitoring module is connected to the setting module and is used to obtain monitoring information of the monitoring point, analyze the monitoring information to obtain analysis results, provide status prompts for the target optical cable junction box according to the analysis results, and maintain the target optical cable junction box according to the status prompts.

[0038] In the above technical solution, the technical effects and advantages provided by the present invention are:

[0039] The present invention constructs a target optical cable junction box in three dimensions to obtain a representative model, and associates the actual target optical cable junction box with the representative model, so as to quickly and accurately display the monitoring data of the target optical cable junction box, better understand the working status of the target optical cable junction box, better monitor the target optical cable junction box, and facilitate subsequent personnel to maintain the target optical cable junction box. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings required for use in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can also be obtained based on these drawings.

[0041] Figure 1 The figure is a flow chart of the method of the present invention.

[0042] Figure 2 It is a system block diagram of the present invention. DETAILED DESCRIPTION

[0043] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0044] Example 1, please refer to Figure 1 As shown, the monitoring method of an optical cable junction box described in this embodiment includes the following steps:

[0045] S1. Determine a target optical cable splice box, construct a three-dimensional model of the target optical cable splice box, and mark basic information of the target optical cable splice box on the three-dimensional model to obtain a representative model;

[0046] S2, setting a plurality of monitoring points corresponding to the target optical cable junction box, wherein the monitoring points include temperature monitoring points, humidity monitoring points and optical power monitoring points, constructing a monitoring network according to the monitoring points, and setting a model monitoring network on the representative model according to the monitoring network;

[0047] S3, acquiring monitoring information of the monitoring point, analyzing the monitoring information to obtain analysis results, providing a status prompt for the target optical cable splice box according to the analysis results, and maintaining the target optical cable splice box according to the status prompt;

[0048] As described in the above steps S1-S3, by constructing the target optical cable junction box in three dimensions to obtain a representative model, and associating the actual target optical cable junction box with the representative model, the monitoring data of the target optical cable junction box can be displayed quickly and accurately, the working status of the target optical cable junction box can be better understood, the target optical cable junction box can be better monitored, and subsequent personnel can maintain the target optical cable junction box.

[0049] In one embodiment, the step S1 of determining a target optical cable splice closure, constructing a three-dimensional model of the target optical cable splice closure, and marking basic information of the target optical cable splice closure on the three-dimensional model to obtain a representative model includes:

[0050] S11, selecting an optical cable splice box to be monitored in the optical cable connection as a target optical cable splice box;

[0051] S12, performing three-dimensional construction on the target optical cable joint box to obtain a corresponding three-dimensional model;

[0052] S13, obtaining basic information of the target optical cable splice box, and marking the basic information on the three-dimensional model to obtain a representative model;

[0053] As described in the above steps S11-S13, the optical cable junction box is a device for protecting the optical cable joint, ensuring the safety and stability of the optical fiber connection. The optical cable junction box that needs to be monitored is selected as the target optical cable junction box in the connection of the optical cable line. Then, in order to monitor the target optical cable junction box, the target optical cable junction box is constructed in three dimensions, and the three-dimensional model of the target optical cable junction box can be obtained. Then, the basic information of the target optical cable junction box is obtained, wherein the basic information includes the structural composition and type, for example, the structural composition includes the outer shell: usually made of metal or high-strength plastic, with waterproof, dustproof and pressure-resistant capabilities; internal structure: including optical fiber coiling area, joint fixing device, sealing element, etc.; sealing material: such as rubber sealing ring, waterproof glue, etc., to ensure sealing. The type includes installation method (overhead, direct burial and pipeline) and capacity (single-core junction box or multi-core junction box). Then, the basic information of the target optical cable junction box is marked on the corresponding three-dimensional model to obtain the subsequent representative model, which can better display the subsequent monitoring information of the target optical cable junction box and has a good monitoring effect.

[0054] In one embodiment, the step S2 of constructing a monitoring network according to monitoring points and setting a model monitoring network on a representative model according to the monitoring network includes:

[0055] S21, setting a temperature monitoring point, a humidity monitoring point and an optical power monitoring point as monitoring points in the target optical cable junction box, connecting the monitoring points to obtain a monitoring network, and marking the monitoring network on the representative model as a model monitoring network;

[0056] S22, establishing the association relationship between the model monitoring network and the monitoring network;

[0057] In one embodiment, the step S21 of connecting the monitoring points to obtain a monitoring network and marking the monitoring network on the representative model as a model monitoring network includes:

[0058] S211, respectively defining monitoring ranges of a temperature monitoring point, a humidity monitoring point, and an optical power monitoring point in a target optical cable junction box, and layering the monitoring ranges of the monitoring points to obtain a plurality of wave layers;

[0059] S212, setting corresponding wave layer arrays for each wave layer in the monitoring range;

[0060] S213, configuring corresponding monitoring ports for the wave layer array corresponding to a single monitoring range;

[0061] S214, connecting the monitoring points based on the monitoring ports to obtain a monitoring network;

[0062] S215, marking the corresponding monitoring network on the representative model to obtain the corresponding replica monitoring network, configuring the corresponding server according to the corresponding replica monitoring network of the monitoring point, and obtaining the model monitoring network;

[0063] As described in the above steps S211-S215, a temperature monitoring point, a humidity monitoring point and an optical power monitoring point are set as monitoring points on the target optical cable junction box, wherein a humidity sensor is installed in the junction box to monitor the humidity in real time to prevent water vapor intrusion; the internal temperature of the junction box is monitored to prevent overheating; an optical power meter is used to measure the optical power input and output of the junction box to evaluate the junction loss, so as to obtain the monitoring status of the optical cable junction box, and then the monitoring ranges of the temperature monitoring point, the humidity monitoring point and the optical power monitoring point are respectively defined in the target optical cable junction box, and the monitoring ranges of the monitoring points are layered to obtain multiple wave layers, where the wave layer is the range of the layered division of the monitoring range, and corresponding wave layers corresponding to each monitoring range are respectively set. The wave layer array is a temporary storage area corresponding to the wave layer setting. It can also convert data to facilitate subsequent transmission and ensure the stability of data transmission. The wave layer array of a single monitoring range will be configured with a corresponding monitoring port, which is equivalent to setting a transmission port in the temporary storage area. After that, the connection between the monitoring points is completed based on the monitoring port, which is equivalent to connecting the monitoring ports corresponding to the monitoring points to obtain a monitoring network. On the representative model, the corresponding monitoring network is set to the same monitoring network as a copy monitoring network. After that, the corresponding servers are configured for the monitoring points on the copy monitoring network on the representative model to obtain a model monitoring network, which can facilitate the corresponding transmission of data and mark them on the representative model for display.

[0064] In one embodiment, the step S213 of configuring the corresponding monitoring port of the wave layer array corresponding to the single monitoring range includes:

[0065] S2131, configuring a corresponding monitoring port for a wave layer array in a single monitoring range, and setting a plurality of sub-ports on the monitoring port, wherein the number of the sub-ports is the same as the number of the wave layers;

[0066] S2132, connecting the sub-ports to the wave layer array of the corresponding wave layer, and fixing the positions of the multiple sub-ports according to the wave layer array;

[0067] As described in the above steps S2131 and S2132, corresponding monitoring ports are configured in the wave layer array of a single monitoring range. There are multiple sub-ports in the multiple monitoring ports. The number of sub-ports is the same as the number of wave layers. The positions of the multiple sub-ports are fixed according to the corresponding wave layer array. In this way, the data stability of the subsequent transmitted monitoring data file can be fixed, and the monitoring data file can be stably and accurately corresponded to the representative model.

[0068] In one embodiment, the step S22 of establishing the association relationship between the model monitoring network and the monitoring network includes:

[0069] S221, dividing the servers corresponding to the monitoring points in the model monitoring network according to wave layers to obtain a plurality of wave layer servers;

[0070] S222, establishing a communication connection between the monitoring port and a server in the corresponding model monitoring network;

[0071] S223, communicating and connecting the sub-ports in the monitoring port with the corresponding wave layer servers according to the wave layer, and obtaining the association relationship between the model monitoring network and the monitoring network;

[0072] As described in the above steps S221-S223, the server here is divided according to the number of corresponding sub-ports, that is, it is divided according to the number of wave layers to obtain multiple wave layer servers, and the monitoring port is communicated with the server in the corresponding model monitoring network. Multiple sub-ports are communicated with the corresponding wave layer servers according to the wave layers to obtain the association relationship between the model monitoring network and the monitoring network, which can ensure the correspondence of information during the transmission process;

[0073] In one embodiment, the step S3 of acquiring monitoring information of the monitoring point, analyzing the monitoring information to obtain analysis results, and providing status prompts for the target optical cable splice box according to the analysis results includes:

[0074] S31, collecting monitoring information of the target optical cable junction box based on the monitoring point, distributing the monitoring information in the monitoring range of the corresponding monitoring point, dividing the monitoring information according to the wave layer of the monitoring range and storing it in the corresponding wave layer array;

[0075] S32, performing data conversion on the divided monitoring information according to the wave layer array to obtain a monitoring data file;

[0076] S33, integrating the monitoring data corresponding to a single monitoring range according to the position of the wave layer array to obtain a data group, and distributing the data group between the corresponding sub-ports in the wave layer array and the monitoring port;

[0077] S34, transmitting the monitoring data file to the server corresponding to the model monitoring network through the sub-port for storage, converting the monitoring data file through the wave layer server to obtain monitoring information and displaying it through the representative model;

[0078] S35, judging the monitoring information according to the preset conditions to obtain analysis results, and when the analysis result shows that the monitoring information does not meet the preset conditions, providing a status prompt through the representative model (the preset conditions here are the abnormal limit parameters set for the monitoring data collected at the corresponding monitoring point);

[0079] As described in the above steps S31-S35, in the actual use process, the monitoring information of the target optical cable junction box is collected through the monitoring points, wherein the monitoring information includes the temperature information collected by the temperature monitoring point, the humidity information collected by the humidity monitoring point, and the optical power of the junction box input and output collected by the optical power monitoring point. Since the monitoring points are located in different positions, they have a monitoring range. The collected monitoring information is distributed in the monitoring range of the corresponding monitoring point, for example, the distribution of temperature and humidity, and then divided according to the wave layer where the monitoring information is located and stored in the corresponding wave layer array, wherein the wave layer array is expressed in the form of: T i =(1 i , 1 i ), (2 i , 2 i ), (3 i , 3 i ),…,(n i 、n i ), where i is the number of wave layer arrays, T i is the wave layer array corresponding to the ith wave layer, n i is the number of rows in the wave layer array corresponding to the ith wave layer. Data conversion is performed according to the monitoring information after division stored in the wave layer array to obtain the monitoring data file. The principle of data conversion for the monitoring information is: is the nth iThe monitoring data in the number of rows is is the nth i The divided monitoring information is stored in the number of rows, and then all the monitoring data files in each wave layer array can be obtained, and then the monitoring data files are integrated according to the position of the wave layer array to obtain data groups, and then the data groups are distributed according to the wave layer array and the corresponding sub-ports in the monitoring port, each sub-port is used to transmit the monitoring data files in the corresponding data group, and then the monitoring data files are transmitted to the wave layer server corresponding to the model monitoring network through the sub-port for storage. In the transmission process: the monitoring data files corresponding to multiple sub-ports in a single monitoring range can be transmitted in a fixed position according to the positions between the sub-ports, which can ensure the stability of the monitoring data files during the transmission process, and the monitoring data files can be transmitted hand in hand during the transmission process. The hand in hand here specifically means: between the sub-port and the corresponding wave layer server A handle is set in the communication channel between the servers, wherein the handle includes multiple transmission frames and the position connection relationship between the multiple transmission frames, the number of transmission frames is the same as the number of sub-ports, the transmission frame is set in the transmission channel, and the multiple transmission frames are connected to each other to form a handle. During the transmission process, the monitoring data file is stored in the transmission frame for transmission. The monitoring data file here can be hidden during the transmission process to ensure the stability and security of data transmission. The monitoring data file is reversely converted into monitoring information through the wave layer server according to the principle of data conversion of monitoring information and displayed through a representative model, which can more comprehensively and accurately understand the status of the target optical cable junction box, and the monitoring information is converted into the monitoring data file to provide information security and stability.

[0080] Example 2, please refer to Figure 2 As shown, the monitoring system of an optical cable splice box described in this embodiment includes:

[0081] A determination module is used to determine a target optical cable splice box, construct a three-dimensional model of the target optical cable splice box, and mark basic information of the target optical cable splice box on the three-dimensional model to obtain a representative model;

[0082] A setting module, connected to the determination module, is used to set a plurality of monitoring points corresponding to the target optical cable junction box, wherein the monitoring points include temperature monitoring points, humidity monitoring points and optical power monitoring points, a monitoring network is constructed according to the monitoring points, and a model monitoring network is set on the representative model according to the monitoring network;

[0083] The monitoring module is connected to the setting module and is used to obtain monitoring information of the monitoring point, analyze the monitoring information to obtain analysis results, provide status prompts for the target optical cable junction box according to the analysis results, and maintain the target optical cable junction box according to the status prompts.

[0084] The above is only a specific implementation of the present application, but the protection scope of the present application is not limited thereto. Any person skilled in the art who is familiar with the present technical field can easily think of changes or substitutions within the technical scope disclosed in the present application, which should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

Claims

1. A method for monitoring an optical cable junction box, characterized in that: The following steps are involved: Determine a target optical cable splice box, construct a three-dimensional model of the target optical cable splice box, and mark basic information of the target optical cable splice box on the three-dimensional model to obtain a representative model; A plurality of monitoring points are set corresponding to the target optical cable junction box, wherein the monitoring points include temperature monitoring points, humidity monitoring points and optical power monitoring points, a monitoring network is constructed according to the monitoring points, and a model monitoring network is set on the representative model according to the monitoring network; Acquire monitoring information of the monitoring point, analyze the monitoring information to obtain analysis results, provide status prompts for the target optical cable joint box according to the analysis results, and maintain the target optical cable joint box according to the status prompts.

2. The method for monitoring an optical cable splice box according to claim 1, characterized in that: The steps of determining the target optical cable splice box, constructing a three-dimensional model of the target optical cable splice box, and marking basic information of the target optical cable splice box on the three-dimensional model to obtain a representative model include: Selecting an optical cable splice box to be monitored as a target optical cable splice box in the optical cable connection; Performing three-dimensional construction on the target optical cable junction box to obtain a corresponding three-dimensional model; The basic information of the target optical cable junction box is obtained, and the basic information is marked on the three-dimensional model to obtain a representative model.

3. The method for monitoring an optical cable splice box according to claim 1, characterized in that: The steps of constructing a monitoring network according to the monitoring points and setting a model monitoring network on the representative model according to the monitoring network include: A temperature monitoring point, a humidity monitoring point and an optical power monitoring point are set as monitoring points in the target optical cable joint box, the monitoring points are connected to obtain a monitoring network, and the monitoring network is marked on the representative model as a model monitoring network; Establish the relationship between the model monitoring network and the monitoring network.

4. A method for monitoring an optical cable splice box according to claim 3, characterized in that: The step of connecting the monitoring points to obtain a monitoring network and marking the monitoring network on the representative model as a model monitoring network includes: In the target optical cable junction box, the monitoring ranges of the temperature monitoring point, the humidity monitoring point and the optical power monitoring point are respectively defined, and the monitoring ranges of the monitoring points are layered to obtain multiple wave layers; Corresponding wave layer arrays are respectively set for each wave layer in the monitoring range; Corresponding monitoring ports are configured for the wave layer array corresponding to a single monitoring range; The monitoring points are connected based on the monitoring ports to obtain a monitoring network; The corresponding monitoring network is marked on the representative model to obtain the corresponding replica monitoring network, and the corresponding server is configured according to the corresponding replica monitoring network of the monitoring point to obtain the model monitoring network.

5. The method for monitoring an optical cable splice box according to claim 4, characterized in that: The step of configuring a corresponding monitoring port for a wave layer array corresponding to a single monitoring range includes: A corresponding monitoring port is configured for the wave layer array of a single monitoring range, and multiple sub-ports are set on the monitoring port, and the number of the sub-ports is the same as the number of the wave layers; The sub-ports are connected to the wave layer array of the corresponding wave layer, and the positions of the multiple sub-ports are fixed according to the wave layer array.

6. A method for monitoring an optical cable splice box according to claim 5, characterized in that: The step of establishing the association relationship between the model monitoring network and the monitoring network includes: Divide the servers corresponding to the monitoring points in the model monitoring network according to the wave layers to obtain multiple wave layer servers; Establishing a communication connection between the monitoring port and the server in the corresponding model monitoring network; The sub-ports in the monitoring port are connected to the corresponding wave layer servers according to the wave layer, and the association relationship between the model monitoring network and the monitoring network is obtained.

7. A method for monitoring an optical cable splice box according to claim 6, characterized in that: The steps of acquiring monitoring information of the monitoring point, analyzing the monitoring information to obtain analysis results, and providing status prompts for the target optical cable junction box according to the analysis results include: Based on the monitoring point, the monitoring information of the target optical cable junction box is collected, the monitoring information is distributed in the monitoring range of the corresponding monitoring point, and the monitoring information is divided according to the wave layer of the monitoring range and stored in the corresponding wave layer array; The monitoring information after division is converted into monitoring data file according to the wave layer array; The monitoring data corresponding to a single monitoring range is integrated according to the position of the wave layer array to obtain a data group, and the data group is distributed between the corresponding sub-ports in the wave layer array and the monitoring port; The monitoring data is transmitted to the server corresponding to the model monitoring network through the sub-port for storage, and the monitoring data is converted into monitoring information through the wave layer server and displayed through the representative model; The monitoring information is judged according to the preset conditions to obtain the analysis results. When the analysis result is that the monitoring information does not meet the preset conditions, the status prompt is given through the representative model.

8. A monitoring system for an optical cable splice box, used to implement a monitoring method for an optical cable splice box according to any one of claims 1 to 7, characterized in that: include: A determination module is used to determine a target optical cable splice box, construct a three-dimensional model of the target optical cable splice box, and mark basic information of the target optical cable splice box on the three-dimensional model to obtain a representative model; A setting module, connected to the determination module, is used to set a plurality of monitoring points corresponding to the target optical cable junction box, wherein the monitoring points include temperature monitoring points, humidity monitoring points and optical power monitoring points, a monitoring network is constructed according to the monitoring points, and a model monitoring network is set on the representative model according to the monitoring network; The monitoring module is connected to the setting module and is used to obtain monitoring information of the monitoring point, analyze the monitoring information to obtain analysis results, provide status prompts for the target optical cable junction box according to the analysis results, and maintain the target optical cable junction box according to the status prompts.

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