Visual analysis method and system for communication engineering data

Abstract

The invention discloses a visual analysis method and system for communication engineering data. The system comprises a visual monitoring system (1), a network node monitoring module (2), a plurality of network node data processing modules (3) and an emergency alarm module (4). The visual monitoring system (1) is respectively in data communication connection with the network node monitoring module (2), the plurality of network node data processing modules (3) and the emergency alarm module (4); the plurality of network node data processing modules (3) are linked through a communication line to form a communication network, and the network node monitoring modules (2) are respectively arranged on the network node data processing modules (3) to obtain network connection judgment data and communication traffic data. According to the method, the traditional technical thought that only the path of the least transfer communication processing network nodes is considered when the communication link path is formed is broken through, and the communication link path with the highest efficiency is selected based on the communication processing efficiency.

Description

Technical Field

[0001] The present invention relates to the technical field of communication engineering data, and in particular to a visualization analysis method and system for communication engineering data. Background Art

[0002] Today in the 21st century, it is the era of communication, and communication has penetrated into all aspects of production and life. In daily life, people use communication systems to communicate, work and enjoy life, etc.; industrial production uses communication systems to achieve remote control; if the communication network fails or is blocked, information communication cannot be carried out in time, which will affect life and production. Therefore, how to ensure smooth and stable network communication is crucial. It is particularly important to develop a stable network communication system. For example, patent application CN112564742A discloses a wireless dedicated network operation and maintenance support platform for power communication. In view of the problem that there is no security monitoring of data storage, the following scheme is proposed, including a business system, a third-party system and a management application system. The business system includes an application module and a collection module, and the application module includes card opening, alarm management, performance monitoring, business support, statistical analysis and system support. The collection module includes a data processing module, a password login module, a wireless transceiver module, a positioning warning module, an information identification module and a sensor control module. The present invention prevents the interests of users from being damaged by lawless elements to the greatest extent possible by interconnecting data among the positioning tracking module, the password login module, the sensor control module, and the positioning warning module. The network is used and the real-time positioning tracking is performed at equal distances, and a quick and accurate response can be made to accidents that occur during use.

[0003] Patent application CN118250039A discloses a communication engineering data processing and analysis method and system, which relates to the field of communication engineering technology. The method includes processing the first, second, and third amplitude values ​​and the second and third speed value number characters of four types of sensitive attribute data information, integrating the three types of encrypted number characters in sequence, encrypting the packaged sensitive data packets according to the obtained sensitive attribute data encryption result set, formulating the first, second, and third new transmission path schemes according to the obtained three transmission data paths, judging whether the three new transmission path schemes are abnormal, outputting the data security transmission judgment result or the data leakage risk warning notification result, and confirming and selecting the final new transmission path scheme through the three schemes of the transmission path verification party. The present invention enhances the selectivity of data encryption diversity and transmission path security optimization.

[0004] Patent application CN221262804U discloses a communication engineering data acquisition device, including a data acquisition device body, a side wall of the data acquisition device body is provided with a plurality of evenly distributed jacks, the side wall of the acquisition device body is provided with limit slides above and below the jacks, the inner cavity of the limit slides is plugged with an adapted limit slider, the side wall of the limit slider is fixed with a first spring, the outer end of the first spring is fixedly connected to the inner wall of the limit slide, and the outer wall of the limit slider is fixedly connected with a trapezoidal block. The utility model is provided with trapezoidal blocks above and below the jack, so that when the data line is plugged in, the plug-in terminal is used to abut against the inclined surface of the trapezoidal block, so that the trapezoidal blocks on both sides can be pushed to move, so that the terminal can be accurately inserted, and then when not in use, the first spring pushes the limit slider to close the two trapezoidal blocks, thereby forming protection and effectively preventing dust invasion.

[0005] However, in real life, although the current communication network can be efficient and practical, it still has the following defects in the processing of communication engineering data in the communication network:

[0006] 1. Although the processing capacity of each network node is being expanded and more network lines are being added to meet the needs of network communication as the load of the communication network increases, this will lead to the continuous increase in network communication data, resulting in the need to continuously upgrade the communication equipment and communication lines of the data communication project, which will increase the upgrade cost of data communication equipment, and the communication equipment is not fully used and partially idle, and takes up space.

[0007] 2. Currently, in the process of establishing communication between corresponding network communication nodes, when constructing the communication link of the communication project, the communication link with the least transit communication nodes is usually selected, which can reduce the communication resources occupied by the communication, thereby achieving the technical effect of saving communication costs; however, just looking for the communication link with the least number of transit communication nodes will cause the communication burden of some transit communication nodes to be too heavy, resulting in communication congestion and poor communication.

[0008] 3. Currently, in communication requests, there is usually no distinction between communication levels, but communication links are established in sequence based on the order of communication requests. However, this is not suitable for certain special communication needs. It is usually hoped that special communications such as communications that only require communication will be given priority, but no effective solution has been proposed so far.

[0009] In the face of the above technical problems, people hope to provide a control system for communication engineering data that can fully optimize existing communication lines, save communication costs, and balance communication loads, so as to achieve a stable and efficient communication system and communication control method. However, so far, there is no effective way to solve the above technical problems in the existing technology. Summary of the invention

[0010] The purpose of the present invention is to provide a method and system for visual analysis of communication engineering data to solve the problems raised in the above background technology.

[0011] To achieve the above object, the present invention provides the following technical solutions:

[0012] A visual analysis system for communication engineering data, comprising a visual monitoring system, a network node monitoring module, a plurality of network node data processing modules and an emergency alarm module; the visual monitoring system is respectively linked to the network node monitoring module, the plurality of network node data processing modules and the emergency alarm module for data communication;

[0013] A plurality of the network node data processing modules are linked through a communication line to form a communication network, and the network node monitoring modules are respectively arranged in the network node data processing modules to obtain network connection judgment data and communication volume data;

[0014] The feature is that: the visual monitoring system is in communication connection with the network node monitoring module; the visual monitoring system includes a display monitoring system and a computing and analysis module;

[0015] The operation and analysis module is used to store and analyze the network connection judgment status, communication volume data, and network node data processing module usage ratio obtained by the network node monitoring module, so as to judge whether the network is connected normally, the size of the network communication volume, and diagnose the network communication situation, and perform visual display;

[0016] The display monitoring system is used to monitor the connectivity of each network node and the network communication volume of each network node; the display monitoring system is respectively connected to the operation and analysis module and the emergency alarm module for data communication; the emergency alarm module is used to obtain the communication fault information analyzed by the operation and analysis module and to issue an alarm.

[0017] Compared with the prior art, the present invention has the following beneficial effects:

[0018] 1. In this application, the traditional technical idea of ​​only considering the path with the least transit communication processing network nodes when forming a communication link path is broken. Instead, the communication processing efficiency of the network communication nodes is considered. Multiple communication link paths are first established, and then the communication link path with the highest efficiency is selected based on the communication processing efficiency, thereby achieving a more efficient communication method, improving the communication efficiency of the existing communication system, and reducing the cost of network communication upgrades.

[0019] 2. In this application, taking into account the ability of each network communication node to process communication data, which may lead to network communication congestion, the processing capacity of the communication node is monitored in real time during the communication process. When the proportion of network communication processing work reaches a certain value, new communication processing requests will no longer be accepted. When the proportion of communication work is lower than a certain value, communication requests will be accepted again, thereby optimizing the communication path and comprehensively providing communication efficiency.

[0020] 3. In this application, different communication requests are taken into consideration and communications are reasonably graded. When establishing a communication path, communication requests are prioritized for classification, and those with high requirements for communication stability and timeliness are set to a high communication level. Then, communication paths are reasonably formed based on the communication level to ensure communication efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 A schematic diagram of a network communication link of the present invention;

[0022] Figure 2 A schematic diagram of a matrix structure of network communication nodes of the present invention;

[0023] Figure 3 It is a schematic diagram of the working principle structure of the present invention.

[0024] In the figure: 1. Visual monitoring system; 2. Network node monitoring module; 3. Network node data processing module; 4. Emergency alarm module; 5. Display monitoring system; 6. Operation and analysis module; 7. Storage module. DETAILED DESCRIPTION

[0025] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions 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 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. Specific embodiment one:

[0027] See also Figure 1-3 , the present invention provides a technical solution:

[0028] A visual analysis system for communication engineering data, comprising a visual monitoring system 1, a network node monitoring module 2, a plurality of network node data processing modules 3 and an emergency alarm module 4; the visual monitoring system 1 is respectively linked to the network node monitoring module 2, the plurality of network node data processing modules 3 and the emergency alarm module 4 for data communication;

[0029] The plurality of network node data processing modules 3 are linked through communication lines to form a communication network, and the network node monitoring modules 2 are respectively arranged in the network node data processing modules 3 to obtain network connection judgment data and communication volume data;

[0030] The visual monitoring system 1 is in communication connection with the network node monitoring module 2; the visual monitoring system 1 includes a display monitoring system 5 and an operation and analysis module 6; wherein the operation and analysis module 6 is used to store and analyze the network connection judgment status, communication volume data, and network node data processing module 3 usage ratio obtained by the network node monitoring module 2, so as to judge whether the network is connected normally, the size of the network communication volume, and diagnose the network communication situation, and perform visual display;

[0031] The display monitoring system 5 is used to monitor the connectivity of each network node and the network communication volume of each network node; the display monitoring system 5 is respectively connected to the operation and analysis module 6 and the emergency alarm module 4 for data communication; the emergency alarm module 4 is used to obtain the communication fault information analyzed by the operation and analysis module 6 and to issue an alarm.

[0032] Preferably, the visual monitoring system 1 further comprises a storage module 7, wherein the storage module 7 stores a network communication link matrix A,

[0033]

[0034] The network communication link matrix is ​​constructed as follows: the first row is the information sending node of the network node data processing module 3, and the first column is the information receiving node of the network node data processing module 3, such as Figure 2 As shown, the element aij in the matrix represents the communication link relationship between the network node data processing module Ai and the network node data processing module Aj. When the network node data processing modules Ai and Aj can be directly linked, then a ij =1, when the two cannot be directly linked, then a ij =0; i,j are any value between 1 and n;

[0035] The process of determining the communication link relationship between the network node data processing module Ai and the network node data processing module Aj is as follows: the network node data processing module Ai sends a link establishment request to the network node data processing module Aj; a timer for the link establishment request is set; based on the link establishment request and the timer, the communication reliability probability between the network node data processing module Ai and the network node data processing module Aj is calculated using the following formula:

[0036]

[0037] Among them, P(A j |A i ) represents the communication reliability probability, M represents the number of link establishment requests sent, and N represents the number of response signals of the network node data processing module Aj regarding the link establishment request received by the network node data processing module Ai within the time limit of the timer;

[0038] When the communication reliability probability is greater than a preset probability threshold, it is determined that the network node data processing module Ai and the network node data processing module Aj can be directly linked.

[0039] The operation analysis module 6 generates a path set ROUTE={R 1 , R 2 , ..., R N}, then calculate the communication efficiency value M of each path rij , forming a communication efficiency value set Mi j = {M rij}, take the communication path corresponding to the minimum value in Mr ij as the path for this communication;

[0040] The time ti consumed by each network node data processing module 3 in processing a unit amount of data is recorded as the communication capability value of the network node data processing module, and then the communication efficiency Fi of each network node data processing module 3 is obtained as 1 / ti;

[0041] The operation analysis module 6 generates a path set ROUTE={R1, R2, ..., Rk, ...}, where Rk is the kth access link path, such as R1 is A1->A2->A5..., or R2 is A1->A3->A4->...;

[0042] The path Rk is composed of multiple network node data processing modules 3. When the aij value of any two adjacent network node data processing modules 3 in the path Rk is 0, the path is excluded to obtain a feasible path, and then the communication efficiency value Mfrk of each feasible path is calculated to form a set of communication efficiency values ​​of all feasible paths; wherein, the communication efficiency value Mfrk = ∑fi.

[0043] Mf ij={Mfr1,Mfr2,...,Mfrk,...};

[0044] The trajectory probability value of the k-th access link path is calculated using the following formula:

[0045] P(A 1 …A t-2 ,A t-1 ,At ,A t+1 )=P(A 1 )P(A 2 ∣A 1 )…P(A t+1 ∣A 1 …A t-2 ,A t-1 ,A t )

[0046] p(A 1 …A t-2 ,A t-1 ,A t )=P(A 1 )P(A 2 ∣A 1 )…P(A t ∣A 1 …A t-2 ,A t-1 )

[0047]

[0048] Among them, P(A t+1 ∣…A t-2 ,A t-1 ,A t ) represents the trajectory probability value of the t network node data processing modules in the kth path link path, P(A 1 ) represents the communication reliability probability of the first network node data processing module, P(A 2 ∣A 1 ) indicates that A 1 ->A 2 The communication reliability probability, p(A 1 …A t-2 ,A t-1 ,A t ) means A 1 …A t-2 ,A t-1 ,A t The probability of coexistence, P(A t ∣

[0049] A 1 …A t-2 ,A t-1 ) means A 1 …A t-2 ,A t-1 On the premise of existence t Probability of existence;

[0050] A communication path is selected from {Mfr1, Mfr2, ..., Mfrk, ...} by using the communication efficiency value and the trajectory probability value as the path for this communication.

[0051] It should be noted that the communication reliability probability of the first network node data processing module is A 1 The ratio of the number of response signals received by the network node data processing module to the number of all link establishment requests sent outwardly.

[0052] Optionally, the process of selecting a communication path from {Mfr1, Mfr2, ..., Mfrk, ...} as the path for this communication using the communication efficiency value and the trajectory probability value is as follows: when the communication efficiency value is less than a communication efficiency threshold and the trajectory probability value is greater than a trajectory probability threshold, the kth access link path corresponding to the communication efficiency value and the trajectory probability value is used as the path for this communication.

[0053] Preferably, the operation and analysis module 6 reads the uplink data and downlink data of each network node, generates a communication volume table of each network node, the data processing proportion of the network node data processing module 3, and displays it in the display monitoring system 5, and uses different colors based on the size of the communication quantity.

[0054] When the communication volume between two network nodes is lower than a certain value, the process of determining whether there is a communication link problem between the corresponding network nodes is as follows:

[0055] Obtain a sending period and a receiving period between two network nodes; based on the sending period and the receiving period, calculate the communication link problem value between the two network nodes using the following formula:

[0056]

[0057] Where c represents the communication link problem value, v a represents the communication volume in the sending period a between two network nodes v, U represents the number of network node pairs formed by the two network nodes, u represents the sequence number of the network node pairs formed by the two network nodes, represents the communication volume of the u-th network node pair during the sending period a, and b represents the receiving period. represents the communication volume of the u-th network node pair in the sending period b, && represents the logical AND;

[0058] When the communication link problem value is equal to the preset problem threshold, it is determined that there is a communication link problem between the corresponding network nodes.

[0059] exist When all conditions are met, c is 1, otherwise it is 0, and the preset problem threshold is 1.

[0060] Preferably, when the display monitoring system 5 detects that the communication volume between two network nodes is lower than a certain value, there is a communication link problem between the corresponding network nodes, and an alarm is issued through the alarm module 7 to notify network maintenance personnel to intervene and maintain the connection link between the network nodes. When it is detected that there is too little uplink data or downlink data, the network link fails. At this time, an alarm is issued in the display monitoring system, and the fault information is sent to the emergency alarm module 6 for an alarm, and the specific abnormal data information is alarmed, and the abnormal data information is highlighted through the monitoring display module 5.

[0061] Preferably, when the display monitoring system 5 detects that the communication volume between two network nodes is lower than a certain value, it determines that there is a communication link problem between the corresponding network node data processing modules 3, thereby manipulating the selection of a new communication path to balance the communication volume of each communication path.

[0062] Preferably, the operation and analysis module 6 reads the uplink data and downlink data of each network node, and generates a communication volume value for each network node data processing module 3. When the uplink and downlink data of the network communication node exceed a certain value within a certain period of time, the network node monitoring module 2 sends a network communication scheduling request to the operation and analysis module 6. The operation and analysis module 6 regenerates the path based on the above communication requirements, thereby reducing the burden on some of the network communication nodes.

[0063] Preferably, the maximum value of the priority communication volume of each network node data processing module 3 is configured, that is, the communication capacity value under the condition of considering the weighted communication priority. The operation and analysis module 6 stores the maximum value of the priority communication volume of each network node data processing module, and prioritizes the communication requirements. The corresponding priority value rij ranges from 1 to 1.2. When selecting a communication link path, based on the priority level and communication currently in communication in the network node data processing module 3, the operation and analysis module 6 calculates the sum of the priority communication volumes of each network node. When the sum of the network node communication volumes reaches 95% of the maximum value of the priority communication volume, the request to add a new communication link to the network node data processing module 3 is stopped. The sum of the priority communication volumes of the network nodes is the sum of the product of the corresponding communication volume and the priority level value per unit time.

[0064] Preferably, the operation and analysis module 6 calculates the total communication volume of each network node in real time. When the total communication volume of the network nodes reaches 95% of the maximum value of the priority communication volume, the network communication link with the lowest communication priority is stopped, and the communication link is reallocated to the network communication link. When the request to add a new communication link to the network node data processing module 3 is stopped, when the total communication volume of the network nodes is lower than 80% of the maximum value of the priority communication volume, new communication requests are accepted again. Specific embodiment 2:

[0066] The present application also provides a visualization analysis method for communication engineering data, including a visualization analysis system for communication engineering data according to any one of claims 1 to 8, characterized in that the specific visualization analysis method comprises the following steps:

[0067] Step S1, forming a network communication link matrix A according to the communication network links set,

[0068]

[0069] The elements ai j in the matrix represent the communication link relationship between the two network node data processing modules 3Ai and Aj. When any two of the network node data processing modules 3Ai and Aj can be directly linked, ai j=1, and when the two cannot be directly linked, ai j=0; wherein i, j are any integers from 1 to n; the network communication link matrix A is stored in the storage module 7;

[0070] Step S2, record the time ti consumed by each network node data processing module 3 in processing a unit amount of data as the communication capability value of the network node data processing module, and then obtain the communication efficiency Fi of each network node data processing module 3 = 1 / ti;

[0071] The operation analysis module 6 generates a path set ROUTE={R1, R2, ..., Rk, ...}, Rk is the kth access link path, wherein the path Rk is composed of multiple network node data processing modules 3, when the aij value of any two adjacent network node data processing modules 3 in the path Rk is 0, the path is excluded to obtain a feasible path, and then the communication efficiency value Mfrk of each of the feasible paths is calculated to form a set Mfi j={Mfrk} consisting of the communication efficiency values ​​of all feasible paths, wherein the communication path corresponding to the minimum value in Mfi j is taken as the path of this communication; wherein the communication efficiency value Mfrk=∑fi;

[0072] Step S3, configure the maximum value of the priority communication volume of each network node data processing module 3, that is, the communication capacity value under the condition of considering the weighted communication priority level, the operation and analysis module 6 stores the maximum value of the priority communication volume of each network node data processing module, and prioritizes the communication demand, and the corresponding priority value rij ranges from 1 to 1.2. When selecting the communication link path, based on the priority level and communication currently in communication in the network node data processing module 3, the operation and analysis module 6 calculates the sum of the priority communication volume of each network node, and when the sum of the network node communication volume reaches 95% of the maximum value of the priority communication volume, the request to add a new communication link to the network node data processing module 3 is stopped, wherein the sum of the priority communication volume of the network node is the sum of the product of the corresponding communication volume and the priority level value per unit time;

[0073] Step S4, when the display monitoring system 5 detects that the communication volume between two network nodes is lower than a certain value, there is a communication link problem between the corresponding network nodes, and an alarm is issued through the alarm module 7 to notify the network maintenance personnel to intervene and maintain the connection link between the network nodes. When it is detected that there is too little uplink data or downlink data, the network link fails. At this time, an alarm is issued in the display monitoring system, and the fault information is sent to the emergency alarm module 6 for an alarm, and the specific abnormal data information is alarmed, and the abnormal data information is highlighted through the monitoring display module 9;

[0074] Step S5, when the display monitoring system 5 detects that the communication volume between two network nodes is lower than a certain value, there is a communication link problem between the corresponding network nodes, so a new communication path is selected to balance the communication volume of each communication path;

[0075] Step S6, the operation and analysis module 6 calculates the total communication volume of each network node in real time. When the total communication volume of the network nodes reaches 95% of the maximum value of the priority communication volume, the network communication link with the lowest communication priority is stopped, and the communication link is reallocated to the network communication link. When the request to add a new communication link to the network node data processing module 3 is stopped, when the total communication volume of the network nodes is lower than 80% of the maximum value of the priority communication volume, new communication requests are accepted again. Specific embodiment three:

[0077] A visual analysis and management system for communication engineering data comprises a control system, a sensor and a storage medium, wherein the storage medium stores a computer program, and the control system executes the computer program to execute the aforementioned method.

[0078] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A visual analysis system for communication engineering data, comprising a visual monitoring system (1), a network node monitoring module (2), a plurality of network node data processing modules (3) and an emergency alarm module (4); the visual monitoring system (1) is respectively connected to the network node monitoring module (2), the plurality of network node data processing modules (3) and the emergency alarm module (4) in data communication; A plurality of the network node data processing modules (3) are linked via a communication line to form a communication network, and the network node monitoring modules (2) are respectively arranged in the network node data processing modules (3) to obtain network connection judgment data and communication volume data; Features: The visual monitoring system (1) is communicatively connected to the network node monitoring module (2); the visual monitoring system (1) comprises a display monitoring system (5) and an operation analysis module (6).

2. A visual analysis system for communication engineering data according to claim 1, characterized in that: The operation analysis module (6) is used to store and analyze the network connection judgment status, communication volume data, and usage ratio of the network node data processing module (3) obtained by the network node monitoring module (2), so as to judge whether the network connection is normal, the size of the network communication volume, and diagnose the network communication situation, and to perform visual display; The display monitoring system (5) is used for the connectivity of each network node and the network communication volume of each network node; the display monitoring system (5) is respectively connected to the operation and analysis module (6) and the emergency alarm module (4) for data communication; the emergency alarm module (4) is used to obtain the communication fault information analyzed by the operation and analysis module (6) and to generate an alarm.

3. A visual analysis system for communication engineering data according to claim 2, characterized in that: The visual monitoring system (1) further comprises a storage module (7), wherein the storage module (7) stores a network communication link matrix A, The time ti consumed by each network node data processing module (3) in processing a unit amount of data is recorded as the communication capability value of the network node data processing module, and then the communication efficiency of each network node data processing module (3) is obtained; The operation analysis module (6) generates a path set ROUTE={R1, R2, ..., Rk, ...}, where Rk is the kth access link path, wherein the path Rk is composed of a plurality of network node data processing modules (3). When the aij value of any two adjacent network node data processing modules (3) in the path Rk is 0, the path is excluded to obtain a feasible path, and then the communication efficiency value Mfrk of each of the feasible paths is calculated to form a set consisting of the communication efficiency values ​​of all feasible paths; Mfij={Mfr1,Mfr2,...,Mfrk,...}, where the communication path corresponding to the minimum value in Mfij is taken as the path for this communication; wherein the communication efficiency value Mfrk=∑fi.

4. A visual analysis system for communication engineering data according to claim 3, characterized in that: The operation and analysis module (6) reads the uplink data and downlink data of each network node, generates a communication volume table of each network node, and the data processing proportion of the network node data processing module (3), and displays it in the display monitoring system (5), and uses different colors to display it based on the size of the communication quantity.

5. A visual analysis system for communication engineering data according to claim 4, characterized in that: When the display monitoring system (5) detects that the communication volume between two network nodes is lower than a certain value, there is a communication link problem between the corresponding network nodes, and an alarm is issued through the alarm module (7) to notify network maintenance personnel to intervene and maintain the connection link between the network nodes. When it is detected that there is too little uplink data or downlink data, the network link fails. At this time, an alarm is issued in the display monitoring system, and the fault information is sent to the emergency alarm module (6) for an alarm, and the specific abnormal data information is alarmed. At the same time, the abnormal data information is highlighted through the monitoring display module (5).

6. A visual analysis system for communication engineering data according to claim 2, characterized in that: When the display monitoring system (5) detects that the communication volume between two network nodes is lower than a certain value, it determines that there is a communication link problem between the corresponding network node data processing modules (3), thereby manipulating the selection of a new communication path so that the communication volume of each communication path is balanced.

7. The visual analysis system for communication engineering data according to claim 3, characterized in that: The operation and analysis module (6) reads the uplink data and downlink data of each network node and generates a communication volume value for each network node data processing module (3). When the uplink and downlink data of the network communication node exceed a certain value within a certain period of time, the network node monitoring module (2) sends a network communication scheduling request to the operation and analysis module (6). The operation and analysis module (6) regenerates a path based on the above communication demand, thereby reducing the burden on part of the network communication node.

8. The visual analysis system for communication engineering data according to claim 2, characterized in that: The maximum value of the priority communication volume of each network node data processing module (3) is configured, that is, the communication capacity value under the condition of considering the weighted communication priority. The operation and analysis module (6) stores the maximum value of the priority communication volume of each network node data processing module, and prioritizes the communication demand. The corresponding priority value rij has a value range of 1-1.

2. When selecting a communication link path, based on the priority level and communication currently in communication in the network node data processing module (3), the operation and analysis module (6) calculates the total priority communication volume of each network node. When the total communication volume of the network node reaches 95% of the maximum value of the priority communication volume, the request for adding a new communication link to the network node data processing module (3) is stopped, wherein the total priority communication volume of the network node is the sum of the product of the corresponding communication volume and the priority level value per unit time.

9. A visual analysis system for communication engineering data according to claim 8, characterized in that: The operation and analysis module (6) calculates the total communication volume of each network node in real time. When the total communication volume of the network nodes reaches 95% of the maximum value of the priority communication volume, the network communication link with the lowest communication priority is stopped, and the communication link is reallocated to the network communication link. When the request to add a new communication link to the network node data processing module (3) is stopped, when the total communication volume of the network nodes is lower than 80% of the maximum value of the priority communication volume, new communication requests are accepted again.

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