Inspection data processing method and device applicable to transmission network

Abstract

The present invention provides a patrol data processing method and device suitable for a power transmission network, comprising: a server verifies a first identity identification code and a second identity identification code to obtain an identity authentication result; extracts first patrol data uploaded by a first patrol terminal within a preset time period, and determines a first patrol starting point and a first patrol end point corresponding to the first patrol data; corresponds all first patrol information in the first patrol data to a first node in a first patrol path, and adds a first identity identification code to the first patrol path; corresponds second patrol information in the second patrol data uploaded by a second patrol terminal to a second node in a second patrol path; statistically splices all first patrol information and second patrol information in the patrol path to generate a total patrol information correspondence table, and analyzes and processes the total patrol information correspondence table to obtain a patrol result.

Description

Technical Field

[0001] The present invention relates to the technical field of data processing, and in particular to a method and device for processing inspection data applicable to a power transmission network. Background Art

[0002] The transmission network is a fundamental component of the power system, encompassing power generation, transmission, transformation, distribution, and consumption. As a crucial component of the power grid, the transmission network is a crucial link between large-scale transmission networks and users. The safe and reliable operation of the system directly impacts the normal operation of the entire power grid and the daily lives of users. Regular inspections of transmission network lines, ensuring a constant understanding of circuit operation and changes in the line's surrounding environment and protection zones, are fundamental to ensuring power supply security.

[0003] Generally speaking, the shortest transmission line is several kilometers long, and the overall length of the line is long. A single inspector cannot complete inspection tasks, often requiring coordination between multiple inspectors. In the power sector, inspectors often need to perform both inspection and emergency repair tasks. While performing emergency repairs, inspectors may be unable to complete their inspections, or they may need to perform emergency repairs while performing inspections, resulting in incomplete inspection data.

[0004] Therefore, how to make multiple inspection personnel cooperate with each other and connect inspections in an orderly manner to complete a comprehensive inspection of the transmission lines has become an urgent problem to be solved. Summary of the Invention

[0005] The embodiments of the present invention provide a method and device for processing inspection data applicable to a power transmission network, which can enable multiple inspection personnel to cooperate with each other and connect inspections in an orderly manner to complete a comprehensive inspection of the power transmission line.

[0006] According to a first aspect of an embodiment of the present invention, there is provided a method for processing inspection data applicable to a power transmission network, comprising:

[0007] After receiving the first inspection alternation request uploaded by the first inspection terminal, the first identity identification code of the first inspection terminal, and the second identity identification code of the second inspection terminal, the server verifies the first identity identification code and the second identity identification code to obtain an identity authentication result;

[0008] If it is determined that the identity authentication result meets the preset requirements, extracting the first inspection data uploaded by the first inspection terminal within a preset time period, and determining the first inspection starting point and the first inspection end point corresponding to the first inspection data;

[0009] generating a first inspection path according to the first inspection starting point and the first inspection end point, corresponding all first inspection information in the first inspection data to the first node in the first inspection path, and adding a first identity identification code to the first inspection path;

[0010] Determining a second inspection starting point corresponding to a second inspection terminal according to the first inspection end point, the second inspection terminal generating a corresponding second inspection path based on the second inspection starting point, and making the second inspection information in the second inspection data uploaded by the second inspection terminal correspond to a second node of the second inspection path;

[0011] The first inspection path and the second inspection path are spliced ​​according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, and all the first inspection information and second inspection information in the spliced ​​inspection path are counted to generate a total inspection information correspondence table, and the total inspection information correspondence table is analyzed and processed to obtain the inspection results.

[0012] Optionally, also include:

[0013] When the second inspector holding the second inspection terminal needs to replace the first inspector holding the first inspection terminal, the second inspection terminal's second identity identification code is obtained by scanning the second inspection terminal's QR code based on the first inspection terminal;

[0014] The first inspection terminal sends the first inspection alternation request, the first identity identification code of the first inspection terminal, and the second identity identification code of the second inspection terminal to the server respectively.

[0015] Optionally, after determining that the server has received the first inspection alternation request uploaded by the first inspection terminal, the first identity identification code of the first inspection terminal, and the second identity identification code of the second inspection terminal, the server verifies the first identity identification code and the second identity identification code to obtain an identity authentication result, including:

[0016] The server retrieves a pre-set inspection schedule, wherein the inspection schedule includes multiple inspection target paths, each inspection target path has a corresponding identity identification code set, and the identity identification code set includes multiple identity identification codes;

[0017] The server sequentially traverses all identity identification code sets to determine a first identity identification code set including the first identity identification code, and if it is determined that the first identity identification code set includes an identity identification code corresponding to the second identity identification code, the generated identity authentication result meets the preset requirements;

[0018] If it is determined that the first identity identification code set does not contain an identity identification code corresponding to the second identity identification code, the generated identity authentication result does not meet the preset requirement.

[0019] Optionally, if it is determined that the identity authentication result meets a preset requirement, extracting first inspection data uploaded by the first inspection terminal within a preset time period, and determining a first inspection starting point and a first inspection end point corresponding to the first inspection data, includes:

[0020] Determine a preset time period corresponding to the corresponding inspection target path, extract a first position time series from the first inspection data, and use the position point corresponding to the first time at the front of the first position time series as the first inspection starting point;

[0021] The time when the first inspection terminal uploads the first inspection alternation request is determined as the second time, and the position point corresponding to the second time in the first position time sequence is determined as the first inspection end point.

[0022] Optionally, generating a first inspection path according to the first inspection starting point and the first inspection end point, corresponding all first inspection information in the first inspection data to the first node in the first inspection path, and adding a first identity identification code to the first inspection path includes:

[0023] Counting all the position points from the first time to the second time in the first position time series to obtain a first position point set, and performing deduplication processing on the position points at the same position at different times to obtain a second position point set;

[0024] Taking the first time as the start time and the second time as the end time, counting all position points from the start time to the end time in the first position time series, and connecting all the position points in sequence according to the time sequence to generate a first inspection path;

[0025] Extracting all first inspection information from the first inspection data, where the first inspection information includes image information and / or remark information, and determining a time tag and / or a location tag corresponding to the first inspection information;

[0026] A corresponding position point in the first inspection path is determined as a first node according to the time tag and / or the position tag, and a first identity identification code is added to the first inspection path.

[0027] Optionally, determining a second inspection starting point corresponding to a second inspection terminal according to the first inspection end point, the second inspection terminal generating a corresponding second inspection path based on the second inspection starting point, and associating second inspection information in the second inspection data uploaded by the second inspection terminal with a second node of the second inspection path includes:

[0028] After determining that the second inspection terminal uploads the second inspection alternation request, the second identity identification code of the second inspection terminal, and the third identity identification code of the third inspection terminal, the second inspection endpoint is determined according to the upload time of the second inspection alternation request and the second position time sequence corresponding to the second inspection terminal; or

[0029] If it is determined that the second position time sequence corresponding to the second inspection terminal has a position point corresponding to the preset total inspection endpoint, the preset total inspection endpoint is used as the second inspection endpoint;

[0030] Counting all the position points in the second position time series that are located at the start time corresponding to the second inspection starting point and the end time corresponding to the second inspection end point to generate a second inspection path;

[0031] The second inspection information in the second inspection data uploaded by the second inspection terminal is matched with the second node of the second inspection path.

[0032] Optionally, the first inspection path and the second inspection path are spliced ​​together according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, all first inspection information and second inspection information in the spliced ​​inspection path are counted to generate a total inspection information correspondence table, and the total inspection information correspondence table is analyzed and processed to obtain an inspection result, including:

[0033] The first inspection end point in the first inspection path and the second inspection starting point in the second inspection path are overlapped, so that the first inspection path and the second inspection path are overlapped and spliced ​​to obtain a spliced ​​inspection path;

[0034] Initialize the general inspection information corresponding table, and establish image corresponding areas and note corresponding areas in the general inspection information corresponding table;

[0035] Sequentially counting the position points with image information in the splicing inspection path, filling the position points with image information into the image cells of the corresponding area of ​​the image, establishing an image storage space corresponding to the image cells, and storing the image information in the image storage space;

[0036] Sequentially counting the position points with remark information in the spliced ​​inspection path, filling the position points with remark information into the remark cells of the remark corresponding area, establishing a remark storage space corresponding to the remark cells, and storing the remark information in the remark storage space;

[0037] Comparing the image preset point in the preset image correspondence table with the position point of the image cell to obtain a first comparison result, and comparing the note preset point in the preset device note correspondence table with the position point of the note cell to obtain a second comparison result;

[0038] An inspection result corresponding to the total inspection information correspondence table is generated according to the first comparison result and the second comparison result.

[0039] Optionally, the step of comparing the image preset point in the preset image correspondence table with the position point of the image cell to obtain a first comparison result, and comparing the note preset point in the preset device note correspondence table with the position point of the note cell to obtain a second comparison result includes:

[0040] If the image preset points in the preset image correspondence table correspond one-to-one with the position points of the image cells, a first comparison sub-result of the first type is generated;

[0041] Counting the image preset points that do not correspond to the image cells in the preset image correspondence table, treating the non-corresponding image preset points as image missing points, and obtaining the number of image missing points;

[0042] Counting the position points in the image cells that do not correspond to the preset image correspondence table, taking the non-corresponding position points as image increase points, and obtaining the image increase number of the image increase points;

[0043] Obtaining a second type of first comparison sub-result by calculating according to the number of missing images and the number of added images;

[0044] If the remark preset points in the pre-equipped remark correspondence table correspond one-to-one with the position points of the remark cells, a second comparison sub-result of the first type is generated;

[0045] Count the remark preset points that do not correspond to the remark cells in the pre-equipment remark corresponding table, treat the non-corresponding remark preset points as remark missing points, and obtain the remark missing quantity of the remark missing points;

[0046] Count the position points in the remark cell that do not correspond to the pre-equipment remark corresponding table, take the non-corresponding position points as remark increase points, and obtain the remark increase quantity of the remark increase points;

[0047] The second comparison sub-result of the second type is obtained by calculating the number of missing remarks and the number of added remarks.

[0048] Optionally, generating an inspection result corresponding to the total inspection information correspondence table according to the first comparison result and the second comparison result includes:

[0049] If it is determined that a first comparison result of the first type exists, generating a first preset coefficient corresponding to the first comparison result of the first type, and using the first preset coefficient as a quantized value of the first comparison result;

[0050] If it is determined that the second type of first comparison result exists, a first calculation coefficient is obtained by calculating according to the number of missing images and the number of added images, and the first calculation coefficient is used as a quantized value of the first comparison result;

[0051] If it is determined that a second comparison result of the first type exists, generating a second preset coefficient corresponding to the second comparison result of the first type, and using the second preset coefficient as a quantized value of the second comparison result;

[0052] If it is determined that there is a second comparison result of the second type, a second calculation coefficient is obtained by calculating the number of missing remarks and the number of added remarks, and the second calculation coefficient is used as the quantified value of the second comparison result;

[0053] A total result quantification value is obtained according to the first comparison result quantification value and the second comparison result quantification value. If the total result quantification value is less than the standard result quantification value, an inspection result of an inspection training reminder is generated;

[0054] The total result quantification value is calculated by the following formula,

[0055]

[0056] Among them, z is the total result quantization value, α1 is the first comparison result quantization value, α2 is the second comparison result quantization value, k1 is the first image weight value, is the number of images added, k2 is the weight value of the second image, is the number of images reduced, u1 is the first annotation weight value, is the number of notes added, u2 is the second note weight value, To reduce the number of notes, is the first preset coefficient, is the second preset coefficient.

[0057] According to a second aspect of an embodiment of the present invention, there is provided an inspection data processing device applicable to a power transmission network, comprising:

[0058] a verification module configured to enable the server, upon receiving a first inspection alternation request uploaded by a first inspection terminal, a first identity identification code of the first inspection terminal, and a second identity identification code of the second inspection terminal, to verify the first identity identification code and the second identity identification code to obtain an identity authentication result;

[0059] an extraction module, configured to extract the first inspection data uploaded by the first inspection terminal within a preset time period if it is determined that the identity authentication result meets the preset requirements, and determine the first inspection starting point and the first inspection end point corresponding to the first inspection data;

[0060] an adding module, configured to generate a first inspection path according to the first inspection starting point and the first inspection end point, correspond all first inspection information in the first inspection data to the first node in the first inspection path, and add a first identity identification code to the first inspection path;

[0061] a generating module, configured to determine, based on the first inspection end point, a second inspection starting point corresponding to the second inspection terminal; the second inspection terminal generating a corresponding second inspection path based on the second inspection starting point; and corresponding the second inspection information in the second inspection data uploaded by the second inspection terminal to the second node of the second inspection path;

[0062] An analysis module is used to splice the first inspection path and the second inspection path according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, count all the first inspection information and second inspection information in the spliced ​​inspection path to generate a total inspection information correspondence table, and analyze and process the total inspection information correspondence table to obtain the inspection results.

[0063] Beneficial effects:

[0064] 1. This solution can utilize different inspection terminals to implement alternating inspections between different inspectors, enabling multiple inspectors to coordinate and conduct inspections in an orderly manner to complete comprehensive inspections of transmission lines. Furthermore, this solution will obtain the inspection routes and data of each inspector, facilitating supervision of their inspection quality and subsequent data review. During this process, this solution will verify the identities of the inspectors during alternation and summarize the inspection information to generate a table of total inspection information. This table will then be analyzed and processed to obtain the inspection results.

[0065] 2. This solution incorporates a set of identity codes to verify identity during rotations; it also incorporates location time series to determine the corresponding inspection start and end points. This solution analyzes and processes the overall inspection information table to generate inspection results. This solution uses statistics on multiple dimensions, including the number of missing images, the number of added images, the number of missing notes, and the number of added notes, to comprehensively calculate inspection results under different circumstances. This allows for a comprehensive evaluation of the inspection data and, when poor inspection results are found, provides training to the relevant teams to improve subsequent inspection quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0066] Figure 1 This is a flow chart of a method for processing inspection data applicable to a power transmission network provided by an embodiment of the present invention;

[0067] Figure 2 It is a structural schematic diagram of an inspection data processing device applicable to a power transmission network provided by the present invention. DETAILED DESCRIPTION

[0068] To make the objectives, technical solutions, and advantages of the embodiments of the present invention more clear, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts shall fall within the scope of protection of the present invention.

[0069] The terms "first," "second," "third," "fourth," and so forth (if any) in the description and claims of the present invention and the accompanying drawings are used to distinguish similar objects and are not necessarily used to describe a particular order or sequential sequence. It should be understood that the terms used in this manner are interchangeable where appropriate, such that the embodiments of the present invention described herein can be practiced in sequences other than those illustrated or described herein.

[0070] It should be understood that in various embodiments of the present invention, the size of the sequence number of each process does not mean the order of execution. The execution order of each process should be determined by its function and internal logic, and should not constitute any limitation on the implementation process of the embodiments of the present invention.

[0071] It should be understood that in the present invention, "include" and "have" and any variations thereof are intended to cover non-exclusive inclusions. For example, a process, method, system, product or apparatus that includes a series of steps or units is not necessarily limited to those steps or units explicitly listed, but may include other steps or units not explicitly listed or inherent to these processes, methods, products or apparatuses.

[0072] It should be understood that in the present invention, "multiple" refers to two or more. "And / or" is only a description of the association relationship of associated objects, indicating that three relationships can exist. For example, A and / or B can represent: A exists alone, A and B exist at the same time, and B exists alone. The character " / " generally indicates that the previous and next associated objects are in an "or" relationship. "Contains A, B and C", "Contains A, B, C" means that A, B, and C are all included, "Contains A, B or C" means that one of A, B, and C is included, and "Contains A, B and / or C" means that any one, any two, or any three of A, B, and C are included.

[0073] It should be understood that, in the present invention, "B corresponding to A," "B corresponding to A," "A corresponds to B," or "B corresponds to A" means that B is associated with A and B can be determined based on A. Determining B based on A does not mean determining B based solely on A; B can also be determined based on A and / or other information. A and B match when the similarity between A and B is greater than or equal to a preset threshold.

[0074] Depending on the context, "if" as used herein may be interpreted as "when" or "when" or "in response to determining" or "in response to detecting."

[0075] The following specific embodiments are used to describe the technical solution of the present invention in detail. The following specific embodiments can be combined with each other, and the same or similar concepts or processes may not be described in detail in some embodiments.

[0076] See also Figure 1 , is a flow chart of a method for processing inspection data applicable to a power transmission network provided by an embodiment of the present invention. The method for processing inspection data applicable to a power transmission network includes S1-S5:

[0077] S1, after receiving the first inspection alternation request uploaded by the first inspection terminal, the first identity identification code of the first inspection terminal, and the second identity identification code of the second inspection terminal, the server verifies the first identity identification code and the second identity identification code to obtain an identity authentication result.

[0078] The first inspection terminal may be held by inspector A, and the second inspection terminal may be held by inspector B. During a first time period, inspector A may use the first inspection terminal to inspect the transmission network line, and during a second time period, inspector B may use the second inspection terminal to conduct a connection inspection of the transmission network line. It is understood that the first identity identification code corresponds to the first inspection terminal, and the second identity identification code corresponds to the second inspection terminal.

[0079] It is understandable that in the scenario of this solution, inspector A can perform the inspection task first. If inspector A has an emergency task to perform, or after inspector A completes the inspection task, inspector B who currently has no inspection task can be determined to take over the inspection task. This process can continue, and a comprehensive inspection of the transmission network can be achieved within a period of time.

[0080] It should be noted that this solution is only described by taking the first inspection terminal and the second inspection terminal as examples. In actual applications, there may be multiple inspection terminals and multiple inspection personnel, and this solution does not limit them.

[0081] It is understandable that since the transmission network lines are often very long, one inspector cannot complete the inspection task, and an inspection team is needed to take turns to complete the inspection of the transmission network lines.

[0082] After the server determines that it has received the first inspection alternation request uploaded by the first inspection terminal, the first identity identification code of the first inspection terminal, and the second identity identification code of the second inspection terminal, it means that the inspection task of inspector A is completed and inspector B is required to continue the inspection. At this time, this solution will verify the first identity identification code and the second identity identification code to obtain the identity authentication result.

[0083] In some embodiments, S1 (the server, after determining that it has received the first inspection alternation request uploaded by the first inspection terminal, the first identity identification code of the first inspection terminal, and the second identity identification code of the second inspection terminal, verifies the first identity identification code and the second identity identification code to obtain an identity authentication result) includes S11-S13:

[0084] S11, the server retrieves a preset inspection schedule, wherein the inspection schedule includes multiple inspection target paths, each inspection target path has a corresponding identity identification code set, and the identity identification code set includes multiple identity identification codes.

[0085] It is understandable that different transmission network lines have corresponding inspection target paths, so there will be multiple corresponding inspection teams. This solution will call the pre-set inspection schedule, which includes multiple inspection target paths. Each inspection target path has a corresponding identity identification code set, and the identity identification code set has multiple identity identification codes.

[0086] For example, one inspection team corresponds to one inspection target path. For example, there are 5 inspection personnel in one inspection team, corresponding to 5 inspection terminals, and then there are 5 identity identification codes in the identity identification code set.

[0087] S12, the server traverses all identity identification code sets in sequence and determines a first identity identification code set including the first identity identification code. If it is determined that the first identity identification code set contains an identity identification code corresponding to the second identity identification code, the generated identity authentication result meets the preset requirements.

[0088] The server in this solution sequentially traverses all identity identification code sets and determines a first identity identification code set that includes the first identity identification code. For example, the first identity identification code set that includes the first identity identification code is first identity identification code set A. If it is determined that first identity identification code set A contains an identity identification code corresponding to the second identity identification code, then the second identity identification code is also in first identity identification code set A, indicating that the two inspectors are assigned to the same inspection team and the same inspection target path. At this point, the solution generates an identity verification result that meets the preset requirements.

[0089] S13: If it is determined that the first identity identification code set does not contain an identity identification code corresponding to the second identity identification code, the generated identity authentication result does not meet the preset requirement.

[0090] If it is determined that the first identity identification code set does not contain an identity identification code corresponding to the second identity identification code, it means that the two inspection personnel are not in the same inspection team and do not correspond to the same inspection target path. At this time, this solution will generate an identity authentication result that does not meet the preset requirements.

[0091] In some embodiments, further comprising:

[0092] When a second inspector holding a second inspection terminal needs to replace a first inspector holding a first inspection terminal, the first inspection terminal is used to scan the QR code of the second inspection terminal to obtain a second identity identification code for the second inspection terminal. It is understood that in this solution, when replacing an inspector, the first inspection terminal is used to scan the QR code of the second inspection terminal to obtain the second identity identification code for the second inspection terminal.

[0093] The first inspection terminal sends a first inspection alternation request, a first identity identification code of the first inspection terminal, and a second identity identification code of the second inspection terminal to the server. After receiving the first inspection alternation request, the first identity identification code, and the second identity identification code, the server processes the first inspection alternation request, the first identity identification code, and the second identity identification code.

[0094] S2. If it is determined that the identity authentication result meets the preset requirements, extract the first inspection data uploaded by the first inspection terminal within a preset time period, and determine the first inspection starting point and the first inspection end point corresponding to the first inspection data.

[0095] It can be understood that if the identity authentication result is judged to meet the preset requirements, it means that the replacement meets the requirements. Then this solution will extract the first inspection data uploaded by the first inspection terminal within the preset time period, and determine the first inspection starting point and the first inspection end point corresponding to the first inspection data.

[0096] Among them, the first inspection data is the power transmission network data collected by the first inspection personnel holding the first inspection terminal, such as image data and remark data. The image data includes images of abnormal hanging objects, images of whether the substation equipment is deformed, etc., and the remark data includes temperature data, humidity data, etc. of a certain substation equipment.

[0097] In some embodiments, S2 (if it is determined that the identity authentication result meets the preset requirements, extracting the first inspection data uploaded by the first inspection terminal within a preset time period, and determining the first inspection starting point and the first inspection end point corresponding to the first inspection data) includes S21-S22:

[0098] S21, determining a preset time period corresponding to the corresponding inspection target path, extracting a first position time series in the first inspection data, and taking a position point corresponding to the first time at the front of the first position time series as a first inspection starting point.

[0099] This solution will determine a preset time period corresponding to the corresponding inspection target path. The preset time period is, for example, two days from Wednesday to Friday. Then, the first position time series in the first inspection data is extracted, and the position point corresponding to the first time at the front of the first position time series is used as the starting point of the first inspection.

[0100] This solution collects the location of the first inspection terminal in real time to form a first location time series. The first location time series includes a one-to-one correspondence between time and location. For example, at 8 a.m., the first inspection personnel is holding the first inspection terminal at location A. This solution uses the location corresponding to the first time at the front of the first location time series as the starting point of the first inspection.

[0101] S22 , determining the time when the first inspection terminal uploads the first inspection alternation request as the second time, and determining the position point in the first position time sequence corresponding to the second time as the first inspection end point.

[0102] Since uploading the first inspection alternation request indicates that the inspection task of the first inspection personnel is completed, and the corresponding position is the inspection end point, this solution will determine the time when the first inspection terminal uploads the first inspection alternation request as the second time, and determine the position point corresponding to the second time in the first position time sequence as the first inspection end point.

[0103] S3, generating a first inspection path according to the first inspection starting point and the first inspection end point, making all first inspection information in the first inspection data correspond to the first node in the first inspection path, and adding a first identity identification code to the first inspection path.

[0104] This solution generates a first inspection path corresponding to the first inspector based on the first inspection starting point and the first inspection endpoint. It then maps all first inspection information in the first inspection data to the first node in the first inspection path, and adds a first identity identification code to the first inspection path. It is understood that adding the first identity identification code to the first inspection path allows the first inspection information of the first inspection path to be bound to the corresponding inspection terminal and inspector, allowing for subsequent tracing and facilitating staff access to the inspection information corresponding to each inspector.

[0105] In some embodiments, S3 (generating a first inspection path according to the first inspection starting point and the first inspection end point, corresponding all first inspection information in the first inspection data to the first node in the first inspection path, and adding a first identity identification code to the first inspection path) includes S31-S34:

[0106] S31 , counting all position points from the first time to the second time in the first position time series to obtain a first position point set, and performing deduplication processing on position points at the same position at different times to obtain a second position point set.

[0107] This solution will count all the location points from the first time to the second time in the first location time series to obtain a first location point set.

[0108] It is understandable that if the inspector stops for 5 minutes, for example, to rest for 5 minutes, there will be locations with the same position at different times. This solution will remove duplicates and obtain a second set of location points. Through the above solution, this solution can reduce the subsequent data processing volume and improve processing efficiency.

[0109] S32, taking the first time as the start time and the second time as the end time, count all position points from the start time to the end time in the first position time sequence, and connect all the position points in sequence according to the order of time to generate a first inspection path.

[0110] This solution will use the first time as the start time and the second time as the end time, count all the location points from the start time to the end time in the first location time series, and connect all the location points in sequence according to the order of time to generate the first inspection path.

[0111] S33: extract all first inspection information from the first inspection data, where the first inspection information includes image information and / or remark information, and determine a time tag and / or a location tag corresponding to the first inspection information.

[0112] This solution parses the first inspection data to obtain all first inspection information contained in the first inspection data, including image information and / or remark information, and then determines the time tag and / or location tag corresponding to the first inspection information. It is understood that when this solution collects the image information and / or remark information, it also collects the time tag and / or location tag of the corresponding information.

[0113] S34: Determine a corresponding position point in the first inspection path as a first node according to the time tag and / or the position tag, and add a first identity identification code to the first inspection path.

[0114] This solution uses the time tag and / or the location tag to determine the corresponding location point in the first inspection path as the first node, and then adds a first identity identification code to the first inspection path.

[0115] The first node is the node corresponding to the inspection information. For example, for the first inspection path, there are 10 inspection information in the first inspection data, and there are also 10 corresponding first nodes.

[0116] S4. Determine the second inspection starting point corresponding to the second inspection terminal based on the first inspection end point. The second inspection terminal generates a corresponding second inspection path based on the second inspection starting point, and matches the second inspection information in the second inspection data uploaded by the second inspection terminal with the second node of the second inspection path.

[0117] It is understood that, due to the need to connect inspections of the transmission network, the first inspection data is the second inspection starting point corresponding to the second inspection terminal. The second inspection terminal then generates a corresponding second inspection path based on the second inspection starting point, and the second inspection information in the second inspection data uploaded by the second inspection terminal is associated with the second node of the second inspection path. The second node is different from the first node and corresponds to the second inspection path.

[0118] In some embodiments, S4 (determining a second inspection starting point corresponding to the second inspection terminal based on the first inspection end point, the second inspection terminal generating a corresponding second inspection path based on the second inspection starting point, and making the second inspection information in the second inspection data uploaded by the second inspection terminal correspond to the second node of the second inspection path) includes S41-S44:

[0119] S41, after determining that the second inspection terminal uploads the second inspection alternation request, the second identity identification code of the second inspection terminal, and the third identity identification code of the third inspection terminal, the second inspection end point is determined according to the upload time of the second inspection alternation request and the second position time sequence corresponding to the second inspection terminal.

[0120] It can be understood that this step is to determine the second inspection endpoint corresponding to the second inspection terminal. First, after the second inspection terminal uploads the second inspection alternation request, the second inspection terminal's second identity identification code, and the third inspection terminal's third identity identification code, this solution indicates that the second inspection terminal has completed the inspection and replaced the third inspection terminal. At this time, the solution determines the second inspection endpoint based on the upload time of the second inspection alternation request and the second position time sequence corresponding to the second inspection terminal.

[0121] The second position time series is the time and position relationship corresponding to the second inspection terminal. This solution determines the second inspection endpoint based on the alternation time (the time when the second inspection alternation request is uploaded).

[0122] S42, or, if it is determined that the second position time sequence corresponding to the second inspection terminal has a position point corresponding to the preset total inspection endpoint, the preset total inspection endpoint is used as the second inspection endpoint.

[0123] It should be noted that this step is different from S41 in that if the second position time series contains a position point corresponding to the preset total inspection end point, it means that the entire transmission line has completed the inspection. At this time, this solution will directly use the preset total inspection end point as the second inspection end point.

[0124] S43 , counting all the position points in the second position time series that are located at a start time corresponding to the second inspection start point and an end time corresponding to the second inspection end point, to generate a second inspection path.

[0125] This solution counts all the position points in the second position time series that are located at the start time corresponding to the second inspection start point and the end time corresponding to the second inspection end point to generate a second inspection path.

[0126] S44: Match the second inspection information in the second inspection data uploaded by the second inspection terminal with the second node of the second inspection path.

[0127] It is understandable that this solution will parse the second inspection data to obtain a plurality of second inspection information, and then correspond the second inspection information to the second node of the second inspection path.

[0128] S5, splicing the first inspection path and the second inspection path according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, counting all the first inspection information and second inspection information in the spliced ​​inspection path to generate a total inspection information correspondence table, and analyzing and processing the total inspection information correspondence table to obtain the inspection results.

[0129] After determining the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path, this solution can splice the first inspection path and the second inspection path to obtain a spliced ​​inspection path, and then count all the first inspection information and second inspection information in the spliced ​​inspection path, summarize the first inspection information and the second inspection information, generate a total inspection information correspondence table, and analyze and process the total inspection information correspondence table to obtain the inspection results.

[0130] In some embodiments, S5 (the step of splicing the first inspection path and the second inspection path according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, counting all first inspection information and second inspection information in the spliced ​​inspection path to generate a total inspection information correspondence table, and analyzing and processing the total inspection information correspondence table to obtain an inspection result) includes S51-S56:

[0131] S51 , overlapping a first inspection end point in the first inspection path and a second inspection starting point in the second inspection path, so that the first inspection path and the second inspection path are overlapped and spliced ​​to obtain a spliced ​​inspection path.

[0132] After obtaining the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path, this solution will set the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to overlap, so that the first inspection path and the second inspection path overlap and splice to obtain a spliced ​​inspection path.

[0133] S52 , initializing a general inspection information corresponding table, and establishing an image corresponding area and a remark corresponding area in the general inspection information corresponding table.

[0134] It is understandable that, since image information and remark information need to be stored, this solution will establish image corresponding areas and remark corresponding areas in the general inspection information corresponding table.

[0135] S53, sequentially counting the position points with image information in the splicing inspection path, filling the position points with image information into the image cells in the corresponding area of ​​the image, establishing an image storage space corresponding to the image cells, and storing the image information in the image storage space.

[0136] In order to store the image information, this solution will sequentially count the position points with image information in the splicing inspection path, and then fill the position points with image information into the image cells of the corresponding area of ​​the image.

[0137] At the same time, this solution also establishes an image storage space corresponding to the image cells and stores the image information in the image storage space.

[0138] S54, sequentially counting the position points with remark information in the spliced ​​inspection path, filling the position points with remark information into the remark cells of the remark corresponding area, establishing a remark storage space corresponding to the remark cells, and storing the remark information in the remark storage space.

[0139] Similarly, in order to store the remark information, this solution will count the location points with remark information in the spliced ​​inspection path in sequence, and then fill the location points with remark information into the remark cells of the corresponding area of ​​the remark, establish a remark storage space corresponding to the remark cell, and store the remark information in the remark storage space.

[0140] S55 , comparing the image preset point in the preset image correspondence table with the position point of the image cell to obtain a first comparison result, and comparing the note preset point in the preset device note correspondence table with the position point of the note cell to obtain a second comparison result.

[0141] This solution provides a preset image correspondence table and a pre-equipment note correspondence table. The preset image correspondence table refers to the image information that must be collected. For example, when inspecting transmission line A, it is necessary to collect images of the booster and step-down transformers. The preset image correspondence table of this solution has image preset points, which are, for example, the locations of the equipment that must be collected. The pre-equipment note correspondence table refers to the remark information that must be collected. For example, when inspecting transmission line A, it is necessary to collect the temperature of the booster and the humidity of the step-down transformers. The pre-equipment note correspondence table of this solution has image preset points, which are, for example, the locations of the equipment that must be collected.

[0142] In some embodiments, S55 (comparing the image preset point in the preset image correspondence table with the position point of the image cell to obtain a first comparison result, and comparing the note preset point in the preset device note correspondence table with the position point of the note cell to obtain a second comparison result) includes S551-S558:

[0143] S551: If the image preset points in the preset image correspondence table correspond one-to-one with the position points of the image cells, a first comparison sub-result of a first type is generated.

[0144] It is understood that if the image preset points in the preset image correspondence table correspond one-to-one with the position points of the image cells, it means that all required device images have been acquired, and a first comparison sub-result of the first type is generated. The first comparison sub-result of the first type, for example, meets the basic requirements for image acquisition.

[0145] For example, the preset image correspondence table has 10 image preset points, and there are 10 device images in the 10 image cells, and the 10 image preset points correspond one-to-one to the position points of the 10 image cells. At this time, it means that all the device images that must be collected have been collected, that is, the basic requirements for image collection are met.

[0146] S552: Count the image preset points in the preset image correspondence table that do not correspond to the image cells, treat the non-corresponding image preset points as image missing points, and obtain the number of image missing points.

[0147] This solution also counts the image preset points that do not correspond to the image cells in the preset image correspondence table, and then regards the non-corresponding image preset points as image missing points, and obtains the number of image missing points.

[0148] For example, if the preset image correspondence table has 10 preset image points and 3 points are not collected, the number of missing images that do not correspond to the missing points is 3. It can be understood that the greater the number of missing images, the less careful the inspection is.

[0149] S553, counting the position points in the image cells that do not correspond to the preset image correspondence table, taking the non-corresponding position points as image increase points, and obtaining the image increase number of the image increase points.

[0150] Different from S552, this solution also counts the position points in the image cells that do not correspond to the preset image correspondence table, uses the non-corresponding position points as image increase points, and obtains the image increase number of the image increase points.

[0151] For example, if the preset image correspondence table has 10 preset image points, and there are 5 locations in the image cells that do not correspond to the preset image correspondence table, this means that the inspector collected 5 extra points that were not required to be collected. For example, for an electric wire, image data collection is not required, but there is an object hanging on the wire, so the inspector took a photo and collected image data, resulting in additional image points. It can be understood that the more additional images there are, the more thorough the inspection.

[0152] S554: Calculate the first comparison sub-result of the second type according to the number of missing images and the number of added images.

[0153] After determining the number of missing images and the number of added images, this solution performs a comprehensive calculation of these numbers to produce a second-type first comparison sub-result. It will be appreciated that the second-type first comparison sub-result differs from the first-type first comparison sub-result in that it is calculated based on the combined number of missing images and the number of added images, and may be larger or smaller.

[0154] S555: If the remark preset points in the pre-equipped remark correspondence table correspond one-to-one with the position points of the remark cells, a second comparison sub-result of the first type is generated.

[0155] It is understood that if the pre-set points of the notes in the pre-device note correspondence table correspond one-to-one with the position points of the note cells, it means that all the required device images have been collected, and a first-type second comparison sub-result is generated. The first-type second comparison sub-result, for example, meets the basic requirements for note collection.

[0156] For example, the pre-equipment annotation correspondence table has 10 annotation preset points, 10 annotation information in the 10 annotation cells, and the 10 annotation preset points correspond one-to-one to the position points of the 10 annotation cells. At this time, it means that all the equipment images that must be collected have been collected, which means that the basic requirements for annotation collection have been met.

[0157] S556, counting the remark preset points that do not correspond to the remark cells in the pre-equipment remark corresponding table, treating the non-corresponding remark preset points as remark missing points, and obtaining the remark missing quantity of the remark missing points.

[0158] This solution will also count the note preset points that do not correspond to the note cells in the pre-equipment note corresponding table, and then treat the non-corresponding note preset points as note missing points, and obtain the note missing quantity of the note missing points.

[0159] For example, if the pre-equipment note correspondence table has 10 pre-set note points and 3 points are not collected, the number of missing notes for the points that do not correspond to the missing notes is 3. It is understandable that the more missing notes there are, the less careful the inspection is.

[0160] S557, counting the position points in the remark cells that do not correspond to the pre-equipment remark corresponding table, taking the non-corresponding position points as remark increase points, and obtaining the remark increase quantity of the remark increase points.

[0161] This solution will also count the position points in the remark cells that do not correspond to the pre-equipment remark corresponding table, and use the non-corresponding position points as remark increase points, and obtain the number of remark increases at the remark increase points.

[0162] For example, if the pre-equipment note table has 10 pre-set note points, and there are 5 points in the note cells that do not correspond to the pre-equipment note table, this means that the inspector collected 5 extra points that were not required. For example, for a transformer, collecting temperature data is not required, but the transformer is hot, so the inspector added notes, resulting in an increase in notes. It is understandable that the more notes there are, the more thorough the inspection.

[0163] S558: Calculate the second type of second comparison sub-result according to the number of missing remarks and the number of added remarks.

[0164] After obtaining the number of missing notes and the number of added notes, this solution performs a comprehensive calculation of these two numbers to produce a second type of second comparison sub-result. It is understood that the second type of second comparison sub-result differs from the first type in that it is calculated based on the combined result of the number of missing notes and the number of added notes, and may be larger or smaller.

[0165] S56: Generate an inspection result corresponding to the total inspection information correspondence table according to the first comparison result and the second comparison result.

[0166] This solution will summarize the first comparison result and the second comparison result to generate an inspection result corresponding to the total inspection information correspondence table.

[0167] Among them, S56 (generating an inspection result corresponding to the total inspection information correspondence table based on the first comparison result and the second comparison result) includes:

[0168] If it is determined that a first comparison result of the first type exists, a first preset coefficient corresponding to the first comparison result of the first type is generated, and the first preset coefficient is used as a quantized value of the first comparison result.

[0169] It is understood that if a first comparison result of the first type is determined to exist, this solution generates a first preset coefficient corresponding to the first comparison result of the first type, and uses the first preset coefficient as a quantized value of the first comparison result. The first preset coefficient is, for example, 6 points to express that the first comparison result of the first type meets the basic requirement of the image acquisition dimension.

[0170] If it is determined that there is a second type of first comparison result, a first calculation coefficient is obtained according to the number of missing images and the number of added images, and the first calculation coefficient is used as a quantized value of the first comparison result.

[0171] It is understood that if it is determined that a second type of first comparison result exists, a first calculation coefficient is calculated based on the number of missing images and the number of added images, and the first calculation coefficient is used as the quantized value of the first comparison result. The first calculation coefficient is calculated comprehensively using the following formula.

[0172] If it is determined that there is a second comparison result of the first type, a second preset coefficient corresponding to the second comparison result of the first type is generated, and the second preset coefficient is used as a quantized value of the second comparison result.

[0173] It is understood that if a second comparison result of the first type is determined to exist, this solution generates a second preset coefficient corresponding to the second comparison result of the first type, and uses the second preset coefficient as a quantized value of the second comparison result. The second preset coefficient is, for example, 6 points to indicate that the second comparison result of the first type meets the basic requirement of the remark information dimension.

[0174] If it is determined that there is a second comparison result of the second type, a second calculation coefficient is obtained by calculating according to the number of missing remarks and the number of added remarks, and the second calculation coefficient is used as a quantified value of the second comparison result.

[0175] It is understood that if it is determined that a second comparison result of the second type exists, a second calculation coefficient is calculated based on the number of missing notes and the number of added notes, and the second calculation coefficient is used as the quantified value of the second comparison result. The second calculation coefficient is calculated comprehensively using the following formula.

[0176] A total result quantification value is obtained according to the first comparison result quantification value and the second comparison result quantification value. If the total result quantification value is less than the standard result quantification value, an inspection result of an inspection training reminder is generated.

[0177] After obtaining the first and second comparison result quantification values, this solution aggregates these values ​​to obtain a total result quantification value. This total result quantification value is then compared with the standard result quantification value. If the total result quantification value is less than the standard result quantification value, this solution generates an inspection result with an inspection training reminder to train inspection personnel and improve the quality of subsequent inspections.

[0178] The total result quantification value is calculated by the following formula,

[0179]

[0180] Among them, z is the total result quantization value, α1 is the first comparison result quantization value, α2 is the second comparison result quantization value, k1 is the first image weight value, is the number of images added, k2 is the weight value of the second image, is the number of images reduced, u1 is the first annotation weight value, is the number of notes added, u2 is the second note weight value, To reduce the number of notes, is the first preset coefficient, is the second preset coefficient.

[0181] In the above formula, the larger the first comparison result quantization value α1 and the second comparison result quantization value α2 are, the larger the total result quantization value z is; if there is a second type of first comparison result, this solution will increase the number of comprehensive images. and image reduction To comprehensively calculate the first comparison result quantization value α1, where the number of images increased The more the number, the larger the corresponding first comparison result quantization value α1 is, and the number of images is reduced. The more, the smaller the corresponding first comparison result quantization value α1 is. The first image weight value k1 and the second image weight value k2 can be preset by the staff; if there is a second type of second comparison result, this solution will increase the number of comprehensive notes and note the reduction in quantity To comprehensively calculate the second comparison result quantization value α1, where the number of notes increased The more, the corresponding first comparison result quantization value α2 is larger, and the number of notes is reduced The more, the smaller the corresponding second comparison result quantization value α2 is. The first remark weight value u1 and the second remark weight value u2 can be preset by the staff; if there is a first comparison result of the first type, then the first comparison result quantization value α1 is the first preset coefficient The second comparison result quantized value α2 is the second preset coefficient

[0182] See also Figure 2 , is a structural diagram of a patrol data processing device applicable to a power transmission network provided by the present invention, the patrol data processing device applicable to the power transmission network comprising:

[0183] a verification module configured to enable the server, upon receiving a first inspection alternation request uploaded by a first inspection terminal, a first identity identification code of the first inspection terminal, and a second identity identification code of the second inspection terminal, to verify the first identity identification code and the second identity identification code to obtain an identity authentication result;

[0184] an extraction module, configured to extract the first inspection data uploaded by the first inspection terminal within a preset time period if it is determined that the identity authentication result meets the preset requirements, and determine the first inspection starting point and the first inspection end point corresponding to the first inspection data;

[0185] an adding module, configured to generate a first inspection path according to the first inspection starting point and the first inspection end point, correspond all first inspection information in the first inspection data to the first node in the first inspection path, and add a first identity identification code to the first inspection path;

[0186] a generating module, configured to determine, based on the first inspection end point, a second inspection starting point corresponding to the second inspection terminal; the second inspection terminal generating a corresponding second inspection path based on the second inspection starting point; and corresponding the second inspection information in the second inspection data uploaded by the second inspection terminal to the second node of the second inspection path;

[0187] An analysis module is used to splice the first inspection path and the second inspection path according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, count all the first inspection information and second inspection information in the spliced ​​inspection path to generate a total inspection information correspondence table, and analyze and process the total inspection information correspondence table to obtain the inspection results.

[0188] The present invention also provides a storage medium, in which a computer program is stored. When the computer program is executed by a processor, it is used to implement the methods provided in the various embodiments described above.

[0189] Among them, the storage medium can be a computer storage medium or a communication medium. Communication media include any medium that facilitates the transmission of computer programs from one place to another. Computer storage media can be any available medium that can be accessed by a general-purpose or special-purpose computer. For example, the storage medium is coupled to the processor so that the processor can read information from the storage medium and write information to the storage medium. Of course, the storage medium can also be an integral part of the processor. The processor and the storage medium can be located in an application-specific integrated circuit (ASIC). In addition, the ASIC can be located in a user device. Of course, the processor and the storage medium can also exist as discrete components in a communication device. The storage medium can be a read-only memory (ROM), a random access memory (RAM), a CD-ROM, a magnetic tape, a floppy disk, an optical data storage device, etc.

[0190] The present invention also provides a program product, which includes execution instructions stored in a storage medium. At least one processor of a device can read the execution instructions from the storage medium, and at least one processor executes the execution instructions so that the device implements the methods provided in the various embodiments described above.

[0191] In the above-mentioned terminal or server embodiments, it should be understood that the processor may be a central processing unit (CPU), other general-purpose processors, digital signal processors (DSP), application-specific integrated circuits (ASICs), etc. The general-purpose processor may be a microprocessor or any conventional processor. The steps of the method disclosed in the present invention may be directly implemented by a hardware processor or implemented by a combination of hardware and software modules in the processor.

[0192] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the above embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the above embodiments, or replace some or all of the technical features therein with equivalents. However, these modifications or replacements do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. A method for processing inspection data applicable to a power transmission network, characterized in that: include: After receiving the first inspection alternation request uploaded by the first inspection terminal, the first identity identification code of the first inspection terminal, and the second identity identification code of the second inspection terminal, the server verifies the first identity identification code and the second identity identification code to obtain an identity authentication result, including: The server retrieves a pre-set inspection schedule, wherein the inspection schedule includes multiple inspection target paths, each inspection target path has a corresponding identity identification code set, and the identity identification code set includes multiple identity identification codes; The server sequentially traverses all identity identification code sets to determine a first identity identification code set including the first identity identification code, and if it is determined that the first identity identification code set includes an identity identification code corresponding to the second identity identification code, the generated identity authentication result meets the preset requirements; If it is determined that the first identity identification code set does not contain an identity identification code corresponding to the second identity identification code, the generated identity verification result does not meet the preset requirements; If it is determined that the identity authentication result meets the preset requirements, extracting the first inspection data uploaded by the first inspection terminal within a preset time period, and determining the first inspection starting point and the first inspection end point corresponding to the first inspection data; generating a first inspection path according to the first inspection starting point and the first inspection end point, corresponding all first inspection information in the first inspection data to the first node in the first inspection path, and adding a first identity identification code to the first inspection path; Determining a second inspection starting point corresponding to a second inspection terminal according to the first inspection end point, the second inspection terminal generating a corresponding second inspection path based on the second inspection starting point, and making the second inspection information in the second inspection data uploaded by the second inspection terminal correspond to a second node of the second inspection path; The first inspection path and the second inspection path are spliced ​​according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, and all the first inspection information and second inspection information in the spliced ​​inspection path are counted to generate a total inspection information correspondence table, and the total inspection information correspondence table is analyzed and processed to obtain the inspection results.

2. The inspection data processing method applicable to the power transmission network according to claim 1, characterized in that: Also includes: When the second inspector holding the second inspection terminal needs to replace the first inspector holding the first inspection terminal, the second inspection terminal's second identity identification code is obtained by scanning the second inspection terminal's QR code based on the first inspection terminal; The first inspection terminal sends the first inspection alternation request, the first identity identification code of the first inspection terminal, and the second identity identification code of the second inspection terminal to the server respectively.

3. The inspection data processing method applicable to the power transmission network according to claim 2, characterized in that: If it is determined that the identity authentication result meets the preset requirements, extracting the first inspection data uploaded by the first inspection terminal within a preset time period, and determining the first inspection starting point and the first inspection end point corresponding to the first inspection data, including: Determine a preset time period corresponding to the corresponding inspection target path, extract a first position time series from the first inspection data, and use the position point corresponding to the first time at the front of the first position time series as the first inspection starting point; The time when the first inspection terminal uploads the first inspection alternation request is determined as the second time, and the position point corresponding to the second time in the first position time sequence is determined as the first inspection end point.

4. The inspection data processing method applicable to a power transmission network according to claim 3, characterized in that: Generating a first inspection path according to the first inspection starting point and the first inspection end point, corresponding all first inspection information in the first inspection data to the first node in the first inspection path, and adding a first identity identification code to the first inspection path includes: Counting all the position points from the first time to the second time in the first position time series to obtain a first position point set, and performing deduplication processing on the position points at the same position at different times to obtain a second position point set; Taking the first time as the start time and the second time as the end time, counting all position points from the start time to the end time in the first position time series, and connecting all the position points in sequence according to the time sequence to generate a first inspection path; Extracting all first inspection information from the first inspection data, where the first inspection information includes image information and / or remark information, and determining a time tag and / or a location tag corresponding to the first inspection information; A corresponding position point in the first inspection path is determined as a first node according to the time tag and / or the position tag, and a first identity identification code is added to the first inspection path.

5. The inspection data processing method applicable to a power transmission network according to claim 4, characterized in that: The method of determining a second inspection starting point corresponding to a second inspection terminal according to the first inspection end point, the second inspection terminal generating a corresponding second inspection path based on the second inspection starting point, and making the second inspection information in the second inspection data uploaded by the second inspection terminal correspond to the second node of the second inspection path include: After determining that the second inspection terminal uploads the second inspection alternation request, the second identity identification code of the second inspection terminal, and the third identity identification code of the third inspection terminal, the second inspection endpoint is determined according to the upload time of the second inspection alternation request and the second position time sequence corresponding to the second inspection terminal; or If it is determined that the second position time sequence corresponding to the second inspection terminal has a position point corresponding to the preset total inspection endpoint, the preset total inspection endpoint is used as the second inspection endpoint; Counting all the position points in the second position time series that are located at the start time corresponding to the second inspection starting point and the end time corresponding to the second inspection end point to generate a second inspection path; The second inspection information in the second inspection data uploaded by the second inspection terminal is matched with the second node of the second inspection path.

6. The inspection data processing method applicable to a power transmission network according to claim 5, characterized in that: The first inspection path and the second inspection path are spliced ​​together according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, all first inspection information and second inspection information in the spliced ​​inspection path are counted to generate a total inspection information correspondence table, and the total inspection information correspondence table is analyzed and processed to obtain an inspection result, including: The first inspection end point in the first inspection path and the second inspection starting point in the second inspection path are overlapped, so that the first inspection path and the second inspection path are overlapped and spliced ​​to obtain a spliced ​​inspection path; Initialize the general inspection information corresponding table, and establish image corresponding areas and note corresponding areas in the general inspection information corresponding table; Sequentially counting the position points with image information in the splicing inspection path, filling the position points with image information into the image cells of the corresponding area of ​​the image, establishing an image storage space corresponding to the image cells, and storing the image information in the image storage space; Sequentially counting the position points with remark information in the spliced ​​inspection path, filling the position points with remark information into the remark cells of the remark corresponding area, establishing a remark storage space corresponding to the remark cells, and storing the remark information in the remark storage space; Comparing the image preset point in the preset image correspondence table with the position point of the image cell to obtain a first comparison result, and comparing the note preset point in the preset device note correspondence table with the position point of the note cell to obtain a second comparison result; An inspection result corresponding to the total inspection information correspondence table is generated according to the first comparison result and the second comparison result.

7. The inspection data processing method applicable to a power transmission network according to claim 6, characterized in that: The step of comparing the image preset point in the preset image correspondence table with the position point of the image cell to obtain a first comparison result, and comparing the note preset point in the preset device note correspondence table with the position point of the note cell to obtain a second comparison result includes: If the image preset points in the preset image correspondence table correspond one-to-one with the position points of the image cells, a first comparison sub-result of the first type is generated; Counting the image preset points that do not correspond to the image cells in the preset image correspondence table, treating the non-corresponding image preset points as image missing points, and obtaining the number of image missing points; Counting the position points in the image cells that do not correspond to the preset image correspondence table, taking the non-corresponding position points as image increase points, and obtaining the image increase number of the image increase points; Obtaining a second type of first comparison sub-result by calculating according to the number of missing images and the number of added images; If the remark preset points in the pre-equipped remark correspondence table correspond one-to-one with the position points of the remark cells, a second comparison sub-result of the first type is generated; Count the remark preset points that do not correspond to the remark cells in the pre-equipment remark corresponding table, treat the non-corresponding remark preset points as remark missing points, and obtain the remark missing quantity of the remark missing points; Count the position points in the remark cell that do not correspond to the pre-equipment remark corresponding table, take the non-corresponding position points as remark increase points, and obtain the remark increase quantity of the remark increase points; The second comparison sub-result of the second type is obtained by calculating the number of missing remarks and the number of added remarks.

8. The inspection data processing method applicable to a power transmission network according to claim 6, characterized in that: Generating an inspection result corresponding to the total inspection information correspondence table according to the first comparison result and the second comparison result includes: If it is determined that a first comparison result of the first type exists, generating a first preset coefficient corresponding to the first comparison result of the first type, and using the first preset coefficient as a quantized value of the first comparison result; If it is determined that the second type of first comparison result exists, a first calculation coefficient is obtained by calculating according to the number of missing images and the number of added images, and the first calculation coefficient is used as a quantized value of the first comparison result; If it is determined that a second comparison result of the first type exists, generating a second preset coefficient corresponding to the second comparison result of the first type, and using the second preset coefficient as a quantized value of the second comparison result; If it is determined that there is a second comparison result of the second type, a second calculation coefficient is obtained by calculating the number of missing remarks and the number of added remarks, and the second calculation coefficient is used as the quantified value of the second comparison result; A total result quantification value is obtained according to the first comparison result quantification value and the second comparison result quantification value. If the total result quantification value is less than the standard result quantification value, an inspection result of an inspection training reminder is generated; The total result quantification value is calculated by the following formula, Among them, z is the total result quantization value, α1 is the first comparison result quantization value, α2 is the second comparison result quantization value, k1 is the first image weight value, is the number of images added, k2 is the weight value of the second image, is the number of images reduced, u1 is the first annotation weight value, is the number of notes added, u2 is the second note weight value, To reduce the number of notes, is the first preset coefficient, is the second preset coefficient.

9. A device corresponding to the inspection data processing method for a power transmission network according to claim 1, characterized in that: include: a verification module configured to enable the server, upon receiving a first inspection alternation request uploaded by a first inspection terminal, a first identity identification code of the first inspection terminal, and a second identity identification code of the second inspection terminal, to verify the first identity identification code and the second identity identification code to obtain an identity authentication result; an extraction module, configured to extract the first inspection data uploaded by the first inspection terminal within a preset time period if it is determined that the identity authentication result meets the preset requirements, and determine the first inspection starting point and the first inspection end point corresponding to the first inspection data; an adding module, configured to generate a first inspection path according to the first inspection starting point and the first inspection end point, correspond all first inspection information in the first inspection data to the first node in the first inspection path, and add a first identity identification code to the first inspection path; a generating module, configured to determine, based on the first inspection end point, a second inspection starting point corresponding to the second inspection terminal; the second inspection terminal generating a corresponding second inspection path based on the second inspection starting point; and corresponding the second inspection information in the second inspection data uploaded by the second inspection terminal to the second node of the second inspection path; An analysis module is used to splice the first inspection path and the second inspection path according to the first inspection end point in the first inspection path and the second inspection starting point in the second inspection path to obtain a spliced ​​inspection path, count all the first inspection information and second inspection information in the spliced ​​inspection path to generate a total inspection information correspondence table, and analyze and process the total inspection information correspondence table to obtain the inspection results.

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