A module adaptive identification control method and system for dual-channel communication

Abstract

The present invention relates to the technical field of dual-channel communication, and discloses a module adaptive identification control method and system for dual-channel communication. During the communication process, inspection items are confirmed, and corresponding communication data are obtained according to the inspection items; judgment and analysis are performed according to the communication data, and inspection item signals are generated, and then the communication data is analyzed based on the running time; wherein the inspection item signals include normal transmission item signals or abnormal transmission item signals, normal equipment item signals or abnormal equipment item signals; based on the transmission fluctuation value and the equipment fluctuation value, signal cross-analysis is performed to judge the problem of slow communication interaction rate; based on the dual-item detection signal, the inspection items are optimized and judged, and specific inspection items are output; the present invention performs modular analysis according to the detection items, so as to identify the cause of the slow communication interaction rate, facilitate rapid inspection and recovery, and ensure the normal operation of communication.

Description

Technical Field

[0001] The present invention relates to the technical field of dual-channel communication, and in particular to a module adaptive identification control method and system for dual-channel communication. Background Art

[0002] In the process of building smart cities and safe cities, video management informatization in areas such as intelligent transportation is particularly important. By setting up smart protection boxes, the security and stability of communications can be ensured.

[0003] Chinese patent CN116566882A discloses a channel adaptive method based on PLC and RF dual-mode communication modules, and the channel selection steps are as follows: any node uses PLC and RF channels to send routing requests in the form of broadcasting; receives routing replies from the corresponding channels of each neighboring node, and calculates the reception rate of each routing reply; if the same node has both PLC signals and RF signals, the channel with a larger reception rate is used as the main channel, and the channel with a smaller reception rate is used as the secondary channel; if a node has only a single signal, it is used as the main channel, and the secondary channel does not exist; after completing the channel selection, any node sends data to the neighboring node through the main channel;

[0004] In the prior art, during the communication process, there is a problem of slow communication interaction rate. Due to the slow communication interaction rate, it is currently impossible to effectively and quickly perform modular analysis on the inspection items to identify the factors causing the problem. Summary of the invention

[0005] The purpose of the present invention is to provide a module adaptive identification control method and system for dual-channel communication. The technical problem solved by the present invention is: during the communication process, there is a problem of slow communication interaction rate. Based on the slow communication interaction rate, it is currently impossible to effectively and quickly perform modular analysis on inspection items to identify the factors causing the problem.

[0006] The purpose of the present invention can be achieved through the following technical solutions:

[0007] A module adaptive identification control method for dual-channel communication comprises the following steps:

[0008] Step 1: During the communication process, confirm the inspection items and obtain the corresponding communication data according to the inspection items;

[0009] Step 2: Make judgment and analysis based on the communication data, generate inspection item signals, and then analyze the communication data based on the running time;

[0010] The inspection item signal includes a normal transmission item signal or an abnormal transmission item signal, a normal equipment item signal or an abnormal equipment item signal;

[0011] Step 3: Based on the transmission fluctuation value and device fluctuation value, perform signal cross analysis to determine the problem of slow communication interaction rate;

[0012] In step 3, if the transmission fluctuation value is greater than or equal to the transmission fluctuation threshold, a transmission stability poor signal is generated; if the transmission fluctuation value is less than the transmission fluctuation threshold, a transmission stability good signal is generated;

[0013] If the device fluctuation value is greater than or equal to the device fluctuation threshold, a poor device stability signal is generated; if the device fluctuation value is less than the device fluctuation threshold, a good device stability signal is generated;

[0014] If a transmission stability poor signal and a device stability poor signal are obtained at the same time, a dual-item detection signal is generated; when a dual-item detection signal is obtained, all bus bandwidths and device performances are checked;

[0015] Step 4: Based on the dual-item detection signal, optimize the inspection items and output specific inspection items.

[0016] As a further solution of the present invention: in step 1, the inspection items include transmission items and equipment items; the communication data includes communication rate and processing speed.

[0017] As a further solution of the present invention: in step 2, the communication rate is obtained, and if the communication rate is not within the communication rate range, a transmission item abnormality signal is generated;

[0018] The time when the transmission item abnormal signal is generated is obtained. The transmission item abnormal signal is recorded as a value of -1. A two-dimensional coordinate system is constructed with time as the X-axis and the value as the Y-axis. The value corresponding to the transmission item abnormal signal during the running time is substituted into the two-dimensional coordinate system, and a line is drawn;

[0019] All line segments with a vertical coordinate of -1 are analyzed to obtain the transmission abnormal line segment duration value and the transmission abnormal line segment interval value. The transmission abnormal line segment duration value is divided by the transmission abnormal line segment interval value to calculate the transmission fluctuation value.

[0020] As a further solution of the present invention: the transmission abnormal line segment duration value and the transmission abnormal line segment interval value are obtained in the following manner:

[0021] Obtain the length of all line segments with a vertical coordinate of -1 and record them as abnormal transmission line segment lengths, and compare the abnormal transmission line segment lengths with an abnormal transmission line segment length threshold;

[0022] If the length of the abnormal transmission line segment is greater than or equal to the abnormal transmission line segment length threshold, a line segment analysis signal is generated. When the line segment analysis signal is generated, the line segment is marked as a transmission analysis line segment;

[0023] Obtain the lengths of all transmission analysis line segments, add up the lengths of all transmission analysis line segments and take the average value to obtain the duration value of the transmission abnormal line segment;

[0024] Then, the lengths between all adjacent transmission analysis line segments are obtained, marked as the transmission abnormal line segment interval lengths, and all transmission abnormal line segment interval lengths are added and averaged to obtain the transmission abnormal line segment interval value.

[0025] As a further solution of the present invention: in step 2, the processing speed is obtained, and if the processing speed is not within the processing speed range value, an equipment item abnormal signal is generated;

[0026] Get the time when the abnormal signal of the equipment item is generated, record the abnormal signal of the equipment item as the value -1, construct a two-dimensional coordinate system with time as the X-axis and the value as the Y-axis, substitute the value corresponding to the abnormal signal of the equipment item during the running time into the two-dimensional coordinate system, and draw the line;

[0027] Analyze all line segments with a vertical coordinate of -1 to obtain the equipment abnormality line segment duration value and the equipment abnormality line segment interval value. Divide the equipment abnormality line segment duration value by the equipment abnormality line segment interval value to calculate the equipment fluctuation value.

[0028] As a further solution of the present invention: the method for obtaining the device abnormal line segment duration value and the device abnormal line segment interval value is:

[0029] Obtain the length of all line segments with a vertical coordinate of -1 and record them as abnormal device line segment lengths, and compare the abnormal device line segment lengths with the abnormal device line segment length threshold;

[0030] If the length of the abnormal device line segment is greater than or equal to the abnormal device line segment length threshold, a line segment analysis signal is generated. When the line segment analysis signal is generated, the line segment is marked as a device analysis line segment;

[0031] Get the lengths of all device analysis segments, add up the lengths of all device analysis segments and take the average value to get the duration value of the device abnormal segment.

[0032] As a further solution of the present invention: in step 4, the attributes of all transmission analysis segments and device analysis segments are obtained, wherein the attributes include the analysis segment length value and the analysis segment start time;

[0033] Perform attribute comparison analysis on all transmission analysis segments and device analysis segments to obtain impact signals; mark the transmission analysis segments and device analysis segments corresponding to the impact signals as impact segments;

[0034] Get the number of affected segments GY, and the sum of all transmission analysis segments and device analysis segments GH, by formula , calculate the influence ratio BY;

[0035] If the impact ratio BY is greater than or equal to the impact ratio threshold, a device performance priority check signal is generated.

[0036] As a further solution of the present invention: the specific process of attribute comparison analysis is as follows:

[0037] The transmission analysis segment length value and the device analysis segment length value are calculated to obtain a length comparison difference value, and the transmission analysis segment start time and the device analysis segment start time are calculated to obtain a start time comparison difference value;

[0038] Compare the length comparison difference value and the start time comparison difference value with the corresponding length comparison difference threshold value and the start time comparison difference threshold value respectively;

[0039] If the length comparison difference is less than the length comparison difference threshold, and the start time comparison difference is less than the start time comparison difference threshold, an influence signal is generated; otherwise, a non-influence signal is generated.

[0040] A dual-channel communication module adaptive identification control system, the system comprising:

[0041] Acquisition module: during the communication process, confirm the inspection items and obtain the corresponding communication data according to the inspection items;

[0042] Among them, the inspection items include transmission items and equipment items; communication data includes communication rate and processing speed;

[0043] Analysis module: Make judgments and analyses based on communication data, generate inspection item signals, and then analyze the communication data based on the running time;

[0044] The inspection item signal includes a normal transmission item signal or an abnormal transmission item signal, a normal equipment item signal or an abnormal equipment item signal;

[0045] Identification module: Based on the transmission fluctuation value and device fluctuation value, it performs signal cross analysis and determines the problem of slow communication interaction rate;

[0046] Optimization module: Based on the dual-item detection signals, the inspection items are optimized and judged, and specific inspection items are output.

[0047] Beneficial effects of the present invention:

[0048] (1) During the communication process, the present invention confirms the inspection items and obtains corresponding communication data according to the inspection items; makes judgments and analyses according to the communication data, generates inspection item signals, and then analyzes the communication data based on the running time; performs signal cross-analysis based on the transmission fluctuation value and the device fluctuation value, and judges the problem of slow communication interaction rate; the present invention judges and troubleshoots the problem of slow communication interaction rate based on the bus bandwidth and device performance. The specific method thereof is to accurately and effectively detect the problem affecting slow communication interaction by analyzing and processing the fluctuation situation in time, so as to facilitate timely detection and processing and restore efficient communication.

[0049] (2) Based on the dual-item detection signal, the present invention optimizes the judgment processing of the inspection items and outputs specific inspection items; based on the generated dual-item detection signal and the analysis data, the present invention combines them to optimize the analysis of the inspection items that cause the slow communication interaction rate, thereby further improving the ability to troubleshoot the problem of the slow communication interaction rate;

[0050] (3) In summary, the present invention performs modular analysis based on detection items, thereby identifying the cause of the slow communication interaction rate, facilitating rapid inspection and recovery, and ensuring normal communication operation. BRIEF DESCRIPTION OF THE DRAWINGS

[0051] The present invention will be further described below in conjunction with the accompanying drawings:

[0052] Figure 1 is a flowchart of Embodiment 1 of the present invention;

[0053] Figure 2 is a flowchart of Embodiment 2 of the present invention;

[0054] Figure 3 It is a system block diagram of embodiment 3 of the present invention. DETAILED DESCRIPTION

[0055] 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.

[0056] Example 1

[0057] See also Figure 1 As shown, the present invention is a module adaptive identification control method for dual-channel communication, comprising the following steps:

[0058] Step 1: During the communication process, confirm the inspection items and obtain the corresponding communication data according to the inspection items;

[0059] Among them, the inspection items include transmission items and equipment items; communication data includes communication rate and processing speed;

[0060] In some embodiments, during the communication process, the transmission item and the device item are checked, and the corresponding bandwidth value and processing speed are obtained;

[0061] Specifically, the transmission item includes a bus bandwidth item, and the device item includes a processor item;

[0062] Step 2: Make judgment and analysis based on the communication data, generate inspection item signals, and then analyze the communication data based on the running time;

[0063] The inspection item signal includes a normal transmission item signal or an abnormal transmission item signal, a normal equipment item signal or an abnormal equipment item signal;

[0064] In some embodiments, a communication rate is obtained, and the communication rate is compared with a communication rate range value;

[0065] If the communication rate is within the communication rate range, a normal transmission item signal is generated; if the communication rate is not within the communication rate range, a transmission item abnormal signal is generated;

[0066] Obtain the time when the normal signal of the transmission item and the abnormal signal of the transmission item are generated, record the normal signal of the transmission item as a value of +1, and record the abnormal signal of the transmission item as a value of -1, construct a two-dimensional coordinate system with time as the X-axis and the value as the Y-axis, substitute the value corresponding to the abnormal signal of the transmission item during the running time into the two-dimensional coordinate system, and draw a line;

[0067] Analyze all line segments with a vertical coordinate of -1 to obtain the transmission abnormal line segment duration value and the transmission abnormal line segment interval value. Divide the transmission abnormal line segment duration value by the transmission abnormal line segment interval value to calculate the transmission fluctuation value.

[0068] Furthermore, the transmission abnormal line segment duration value and the transmission abnormal line segment interval value are obtained as follows:

[0069] Obtain the length of all line segments with a vertical coordinate of -1 and record them as abnormal transmission line segment lengths, and compare the abnormal transmission line segment lengths with an abnormal transmission line segment length threshold;

[0070] If the length of the abnormal transmission line segment is less than the abnormal transmission line segment length threshold, a line segment deletion signal is generated. When the line segment deletion signal is obtained, the corresponding line segment is deleted. The line segment deletion signal indicates that the bus bandwidth has a short-term abnormal fluctuation during the communication transmission process, which has little impact on the overall communication transmission and the unstable impact can be ignored.

[0071] If the length of the abnormal transmission line segment is greater than or equal to the abnormal transmission line segment length threshold, a line segment analysis signal is generated. When the line segment analysis signal is generated, the line segment is marked as a transmission analysis line segment. The transmission line segment analysis signal indicates that the bus bandwidth has a relatively long abnormal fluctuation during the communication transmission process, which has a great impact on the overall communication transmission.

[0072] Obtain the lengths of all transmission analysis line segments, add up the lengths of all transmission analysis line segments and take the average value to obtain the duration value of the transmission abnormal line segment;

[0073] Then, the lengths between all adjacent transmission analysis line segments are obtained, marked as the transmission abnormal line segment interval lengths, and all transmission abnormal line segment interval lengths are added and averaged to obtain the transmission abnormal line segment interval value;

[0074] Similarly, the processing speed is obtained, and the processing speed is compared with the processing speed range value;

[0075] If the processing speed is within the processing speed range, a normal signal of the equipment item is generated; if the processing speed is not within the processing speed range, an abnormal signal of the equipment item is generated;

[0076] Get the time when the normal signal of the equipment item and the abnormal signal of the equipment item are generated, record the normal signal of the equipment item as a value of +1, and record the abnormal signal of the equipment item as a value of -1, construct a two-dimensional coordinate system with time as the X-axis and the value as the Y-axis, substitute the value corresponding to the abnormal signal of the equipment item during the running time into the two-dimensional coordinate system, and draw the trace line;

[0077] Analyze all line segments with a vertical coordinate of -1 to obtain the equipment abnormal line segment duration value and the equipment abnormal line segment interval value. Divide the equipment abnormal line segment duration value by the equipment abnormal line segment interval value to calculate the equipment fluctuation value.

[0078] Furthermore, the device abnormality line segment duration value and the device abnormality line segment interval value are obtained as follows:

[0079] Obtain the length of all line segments with a vertical coordinate of -1 and record them as abnormal device line segment lengths, and compare the abnormal device line segment lengths with the abnormal device line segment length threshold;

[0080] If the abnormal device segment length is less than the abnormal device segment length threshold, a segment deletion signal is generated. When the segment deletion signal is obtained, the corresponding segment is deleted. The segment deletion signal indicates that the bus bandwidth has a short-term abnormal fluctuation in the communication device process, which has little impact on the overall communication device and the unstable impact can be ignored.

[0081] If the length of the abnormal device segment is greater than or equal to the abnormal device segment length threshold, a segment analysis signal is generated. When the segment analysis signal is generated, the segment is marked as a device analysis segment. The device segment analysis signal indicates that the bus bandwidth has a relatively long abnormal fluctuation in the communication device process, which has a great impact on the overall communication device.

[0082] Get the length of all equipment analysis segments, add up the lengths of all equipment analysis segments and take the average value to get the duration value of the equipment abnormal segment;

[0083] Then, the lengths between adjacent analysis segments of all devices are obtained, marked as the device abnormal segment interval lengths, and the lengths of all device abnormal segment intervals are added and averaged to obtain the device abnormal segment interval value;

[0084] Step 3: Based on the transmission fluctuation value and device fluctuation value, perform signal cross analysis to determine the problem of slow communication interaction rate;

[0085] In some embodiments, a transmission fluctuation value is obtained, and the transmission fluctuation value is compared with a transmission fluctuation threshold value;

[0086] If the transmission fluctuation value is greater than or equal to the transmission fluctuation threshold, a transmission stability poor signal is generated;

[0087] If the transmission fluctuation value is less than the transmission fluctuation threshold, a good transmission stability signal is generated;

[0088] Obtain a device fluctuation value, and compare the device fluctuation value with a device fluctuation threshold;

[0089] If the device fluctuation value is greater than or equal to the device fluctuation threshold, a poor device stability signal is generated;

[0090] If the device fluctuation value is less than the device fluctuation threshold, a good device stability signal is generated;

[0091] Cross-analyze the signals with good transmission stability, signals with poor transmission stability, signals with good equipment stability, and signals with poor equipment stability;

[0092] If both the transmission stability signal and the device stability signal are obtained, other detection signals are generated. When other detection signals are obtained, the optimization network configuration, communication protocol, data packet size, etc. can be checked.

[0093] If a poor transmission stability signal and a good device stability signal, or a good transmission stability signal and a poor device stability signal are obtained at the same time, a single detection signal is generated; when a single detection signal is obtained, the corresponding bus bandwidth or device performance is checked;

[0094] If a transmission stability poor signal and a device stability poor signal are obtained at the same time, a dual-item detection signal is generated; when a dual-item detection signal is obtained, all bus bandwidths and device performances are checked;

[0095] The technical solution of the embodiment of the present invention is as follows: during the communication process, the inspection items are confirmed, and the corresponding communication data are obtained according to the inspection items; judgment and analysis are performed according to the communication data, and inspection item signals are generated, and then the communication data is analyzed based on the running time; based on the transmission fluctuation value and the device fluctuation value, signal cross-analysis is performed to judge the problem of slow communication interaction rate; the present invention judges and troubleshoots the problem of slow communication interaction rate based on the bus bandwidth and device performance, and its specific method is to accurately and effectively detect the problems affecting slow communication interaction by analyzing and processing the fluctuation situation over time, so as to facilitate timely detection and processing and restore efficient communication.

[0096] Example 2

[0097] See also Figure 2 As shown, the present invention is a module adaptive identification control system with dual-channel communication, comprising the following steps:

[0098] Step 4: Based on the dual-item detection signals, optimize the inspection items and output specific inspection items;

[0099] In some embodiments, the attributes of all transmission analysis segments and device analysis segments are obtained, wherein the attributes include the analysis segment length value and the analysis segment start time;

[0100] Perform attribute comparison analysis on all transmission analysis segments and device analysis segments to obtain impact signals; mark the transmission analysis segments and device analysis segments corresponding to the impact signals as impact segments;

[0101] Get the number of affected segments GY, and the sum of all transmission analysis segments and device analysis segments GH, by formula , calculate the influence ratio BY;

[0102] Compare the impact ratio BY with the impact ratio threshold;

[0103] If the impact ratio BY is greater than or equal to the impact ratio threshold, a device performance priority check signal is generated; the device performance priority check signal indicates that during the communication process, the device performance may affect the bus bandwidth capacity, thereby causing the problem of slow communication interaction rate;

[0104] If the impact ratio BY is less than the impact ratio threshold, a bus bandwidth and device performance peer check signal is generated; the bus bandwidth and device performance peer check signal indicates that during the communication process, the device performance may have a small impact on the bus bandwidth capacity, and both may cause the problem of slow communication interaction rate;

[0105] Furthermore, the specific process of attribute comparison analysis is as follows:

[0106] The transmission analysis segment length value and the device analysis segment length value are calculated to obtain a length comparison difference value, and the transmission analysis segment start time and the device analysis segment start time are calculated to obtain a start time comparison difference value;

[0107] Compare the length comparison difference value and the start time comparison difference value with the corresponding length comparison difference threshold value and the start time comparison difference threshold value respectively;

[0108] If the length comparison difference is less than the length comparison difference threshold, and the start time comparison difference is less than the start time comparison difference threshold, an impact signal is generated; otherwise, a non-impact signal is generated;

[0109] The technical solution of the embodiment of the present invention: based on the dual-item detection signal, the inspection items are optimized and judged, and specific inspection items are output; the present invention combines the dual-item detection signal and analysis data generated by Example 1 to optimize the analysis of the inspection items that cause the slow communication interaction rate, thereby further improving the ability to troubleshoot problems caused by the slow communication interaction rate.

[0110] Example 3

[0111] See also Figure 3 As shown, the present invention is a module adaptive identification control system with dual-channel communication, comprising:

[0112] Acquisition module: during the communication process, confirm the inspection items and obtain the corresponding communication data according to the inspection items;

[0113] Among them, the inspection items include transmission items and equipment items; communication data includes communication rate and processing speed;

[0114] Analysis module: Make judgments and analyses based on communication data, generate inspection item signals, and then analyze the communication data based on the running time;

[0115] The inspection item signal includes a normal transmission item signal or an abnormal transmission item signal, a normal equipment item signal or an abnormal equipment item signal;

[0116] Identification module: Based on the transmission fluctuation value and device fluctuation value, it performs signal cross analysis and determines the problem of slow communication interaction rate;

[0117] Optimization module: Based on the dual-item detection signals, the inspection items are optimized and judged, and specific inspection items are output.

[0118] The above formulas are all dimensionless and numerical calculations. The formula is a formula for the most recent real situation obtained by collecting a large amount of data and performing software simulation. The preset parameters in the formula are set by technicians in this field according to actual conditions.

[0119] The above is a detailed description of an embodiment of the present invention, but the content is only a preferred embodiment of the present invention and cannot be considered to limit the scope of implementation of the present invention. All equivalent changes and improvements made within the scope of the present invention should still fall within the scope of the patent coverage of the present invention.

Claims

1. A module adaptive identification control method for dual-channel communication, characterized in that: The following steps are involved: Step 1: During the communication process, confirm the inspection items and obtain the corresponding communication data according to the inspection items; Step 2: Perform judgment and analysis based on the communication data, generate inspection item signals, and then analyze the communication data based on the running time; The inspection item signal includes a normal transmission item signal or an abnormal transmission item signal, a normal equipment item signal or an abnormal equipment item signal; Step 3: Based on the transmission fluctuation value and device fluctuation value, perform signal cross analysis to determine the problem of slow communication interaction rate; In step 3, if the transmission fluctuation value is greater than or equal to the transmission fluctuation threshold, a transmission stability poor signal is generated; if the transmission fluctuation value is less than the transmission fluctuation threshold, a transmission stability good signal is generated; If the device fluctuation value is greater than or equal to the device fluctuation threshold, a poor device stability signal is generated; if the device fluctuation value is less than the device fluctuation threshold, a good device stability signal is generated; If a transmission stability poor signal and a device stability poor signal are obtained at the same time, a dual-item detection signal is generated; when a dual-item detection signal is obtained, all bus bandwidths and device performances are checked; Step 4: Based on the dual-item detection signal, optimize the inspection items and output specific inspection items; In step 4, the attributes of all transmission analysis segments and device analysis segments are obtained, wherein the attributes include the length value of the analysis segment and the start time of the analysis segment; Perform attribute comparison analysis on all transmission analysis segments and device analysis segments to obtain impact signals; mark the transmission analysis segments and device analysis segments corresponding to the impact signals as impact segments; Get the number of affected segments GY, and the sum of all transmission analysis segments and device analysis segments GH, by formula Calculate the impact ratio BY; If the impact ratio BY is greater than or equal to the impact ratio threshold, a device performance priority check signal is generated; The specific process of attribute comparison analysis is as follows: The transmission analysis segment length value and the device analysis segment length value are calculated to obtain a length comparison difference value, and the transmission analysis segment start time and the device analysis segment start time are calculated to obtain a start time comparison difference value; If the length comparison difference is less than the length comparison difference threshold, and the start time comparison difference is less than the start time comparison difference threshold, an influence signal is generated.

2. According to the dual-channel communication module adaptive identification control method of claim 1, it is characterized in that: In step 1, the inspection items include transmission items and equipment items; the communication data includes communication rate and processing speed.

3. The module adaptive identification control method for dual-channel communication according to claim 1 is characterized in that: In step 2, the communication rate is obtained, and if the communication rate is not within the communication rate range, a transmission item abnormal signal is generated; The time when the transmission item abnormal signal is generated is obtained. The transmission item abnormal signal is recorded as a value of -1. A two-dimensional coordinate system is constructed with time as the X-axis and the value as the Y-axis. The value corresponding to the transmission item abnormal signal during the running time is substituted into the two-dimensional coordinate system, and a line is drawn; All line segments with a vertical coordinate of -1 are analyzed to obtain the transmission abnormal line segment duration value and the transmission abnormal line segment interval value. The transmission abnormal line segment duration value is divided by the transmission abnormal line segment interval value to calculate the transmission fluctuation value.

4. The module adaptive identification control method for dual-channel communication according to claim 3 is characterized in that: The method for obtaining the transmission abnormal segment duration value and the transmission abnormal segment interval value is as follows: Obtain the length of all line segments with a vertical coordinate of -1 and record them as abnormal transmission line segment lengths, and compare the abnormal transmission line segment lengths with an abnormal transmission line segment length threshold; If the length of the abnormal transmission line segment is greater than or equal to the abnormal transmission line segment length threshold, a line segment analysis signal is generated. When the line segment analysis signal is generated, the line segment is marked as a transmission analysis line segment; Obtain the lengths of all transmission analysis line segments, add up the lengths of all transmission analysis line segments and take the average value to obtain the duration value of the transmission abnormal line segment; Then, the lengths between all adjacent transmission analysis line segments are obtained, marked as the transmission abnormal line segment interval lengths, and all transmission abnormal line segment interval lengths are added and averaged to obtain the transmission abnormal line segment interval value.

5. The module adaptive identification control method for dual-channel communication according to claim 4 is characterized in that: In step 2, the processing speed is obtained, and if the processing speed is not within the processing speed range, an equipment item abnormal signal is generated; Get the time when the abnormal signal of the equipment item is generated, record the abnormal signal of the equipment item as the value -1, construct a two-dimensional coordinate system with time as the X-axis and the value as the Y-axis, substitute the value corresponding to the abnormal signal of the equipment item during the running time into the two-dimensional coordinate system, and draw the line; Analyze all line segments with a vertical coordinate of -1 to obtain the equipment abnormality line segment duration value and the equipment abnormality line segment interval value. Divide the equipment abnormality line segment duration value by the equipment abnormality line segment interval value to calculate the equipment fluctuation value.

6. The module adaptive identification control method for dual-channel communication according to claim 5 is characterized in that: The method for obtaining the device abnormal segment duration value and the device abnormal segment interval value is as follows: Obtain the length of all line segments with a vertical coordinate of -1 and record them as abnormal device line segment lengths, and compare the abnormal device line segment lengths with the abnormal device line segment length threshold; If the length of the abnormal device line segment is greater than or equal to the abnormal device line segment length threshold, a line segment analysis signal is generated. When the line segment analysis signal is generated, the line segment is marked as a device analysis line segment; Get the lengths of all device analysis segments, add up the lengths of all device analysis segments and take the average value to get the duration value of the device abnormal segment.

7. A dual-channel communication module adaptive identification control system, characterized in that: The system is used to execute the method described in any one of claims 1 to 6, and the system comprises: Acquisition module: during the communication process, confirm the inspection items and obtain the corresponding communication data according to the inspection items; Analysis module: Make judgments and analyses based on communication data, generate inspection item signals, and then analyze the communication data based on the running time; The inspection item signal includes a normal transmission item signal or an abnormal transmission item signal, a normal equipment item signal or an abnormal equipment item signal; Identification module: Based on the transmission fluctuation value and device fluctuation value, it performs signal cross analysis and determines the problem of slow communication interaction rate; Optimization module: Based on the dual-item detection signals, the inspection items are optimized and judged, and specific inspection items are output.

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