A method and device for accessing power file maintenance information
By generating a review explosion diagram of power equipment, the problem of inconvenient management of power equipment maintenance information in the existing technology is solved, and rapid and intuitive maintenance information review and equipment management efficiency are achieved.
Patent Information
- Application Number
- CN202510542593.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-28
- Publication Date
- 2025-06-24
- Estimated Expiration
- 2045-04-28
AI Technical Summary
The existing technology lacks systematic information support in the maintenance and fault management of power equipment, resulting in the consumption and redundancy of equipment maintenance information, and lacks effective visual management tools, which affects the timeliness and accuracy of fault judgments and decisions.
By generating a review explosion diagram of the power equipment, the information of damaged parts and damaged parts is visually displayed to realize intelligent management of equipment files. The specific steps include generating a review explosion diagram based on the damaged parts and damaged parts, determining the inspection parts based on the damaged parts' part maintenance log, retrieving the relevant logs and sending them to the side screen of the archive to display.
It realizes rapid and intuitive review of corresponding maintenance information in many power files, improves the efficiency of power equipment management, and ensures the safe and stable operation of the equipment.
Smart Images

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Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of data processing, and particularly to a method and device for querying power file maintenance information. Background Art
[0002] Power files are important bases for power engineering construction and operation management, and play a crucial role in ensuring the safe, stable, and efficient operation of the power system. In modern power engineering, the normal operation of power equipment is the key to ensuring energy supply and power system safety. With the increase in the number of power equipment and the complexity of its structure, the maintenance and management tasks of power equipment are becoming increasingly onerous.
[0003] Currently, the maintenance work of power equipment mainly relies on manual records and management, lacking systematic informatization support. The traditional management method not only leads to the consumption and redundancy of equipment maintenance information, but also may delay equipment maintenance due to untimely or incomplete information recording. At the same time, the existing technology also lacks effective visual management tools in terms of fault recording and analysis, and cannot provide intuitive and real-time fault status feedback for operation and maintenance personnel, thus affecting the timeliness and accuracy of fault judgment and decision-making.
[0004] Therefore, how to quickly and intuitively query the corresponding maintenance information among numerous power files and improve the management efficiency of power equipment has become an urgent problem to be solved. Summary of the Invention
[0005] The present invention provides a method and device for querying power file maintenance information, which can quickly and intuitively query the corresponding maintenance information among numerous power files and improve the management efficiency of power equipment.
[0006] In the first aspect of the present invention, a method for querying power file maintenance information is provided, including:
[0007] Generating an exploded view for querying the corresponding equipment file of the power equipment according to the damaged parts and damaged positions of the power equipment;
[0008] Determining the inspection parts based on the part maintenance log of the damaged position, and sending the inspection parts and the exploded view for querying to the file side screen of the equipment file for display;
[0009] Responding to the trigger information of the exploded parts and / or damaged positions in the exploded view for querying by the management terminal, determining the query parts and / or query positions, and retrieving the part query log of the query parts and / or the part query log of the query positions;
[0010] Based on the part access log and / or the location access log, determine the associated parts of the part access log and the associated locations of the location access log, and send the part access log and the associated parts and / or the location access log and the associated locations to the archive side screen for display.
[0011] Optionally, in a possible implementation of the first aspect, generating a viewing explosion diagram of the equipment file corresponding to the power equipment according to the damaged parts and damaged locations of the power equipment includes:
[0012] Determine the exploded parts in the equipment model corresponding to the power equipment based on the damaged parts, and use the remaining virtual parts in the equipment model as deleted parts;
[0013] Delete the deleted parts in the equipment model to obtain an initial model, perform an explosion process on the exploded parts in the initial model to obtain a customized explosion diagram, and update the damaged locations of the exploded parts in the customized explosion diagram based on the preset damage pixel values;
[0014] Retrieve the part maintenance logs of the exploded parts, classify the part maintenance logs based on the damaged locations to obtain the location maintenance logs corresponding to the damaged locations;
[0015] Bind the part maintenance logs to the exploded parts, and bind the location maintenance logs to the corresponding damaged locations to obtain a viewing explosion diagram of the equipment file corresponding to the power equipment.
[0016] Optionally, in a possible implementation of the first aspect, generating a viewing explosion diagram of the equipment file corresponding to the power equipment according to the damaged parts and damaged locations of the power equipment includes:
[0017] Determine the exploded parts in the equipment model corresponding to the power equipment based on the damaged parts, and use the remaining virtual parts in the equipment model as static parts;
[0018] Perform an explosion process on the exploded parts in the equipment model to obtain a customized explosion diagram, and update the damaged locations of the exploded parts in the customized explosion diagram based on the preset damage pixel values;
[0019] Retrieve the part maintenance logs of the exploded parts, classify the part maintenance logs based on the damaged locations to obtain the location maintenance logs corresponding to the damaged locations;
[0020] Bind the part maintenance logs to the exploded parts, and bind the location maintenance logs to the corresponding damaged locations to obtain a viewing explosion diagram of the equipment file corresponding to the power equipment.
[0021] Optionally, in a possible implementation of the first aspect, performing an explosion process on the exploded parts in the initial model to obtain a customized explosion diagram includes:
[0022] Obtain the direction opposite to the assembly direction of the exploded parts as the explosion direction, and perform a movement process on the exploded parts in the initial model based on the preset explosion distance and explosion direction to obtain an intermediate model;
[0023] When it is determined that there are no occluded exploded parts in the intermediate model, use the intermediate model as the customized explosion diagram;
[0024] When it is determined that there are occluded exploded parts in the intermediate model, use the occluded exploded parts as the parts to be moved out;
[0025] Obtain the volume to be moved out of the parts to be moved out, and select the blank area closest to the parts to be moved out as the movement-out area based on the volume to be moved out;
[0026] Obtain the initial area where the parts to be moved out are located, move the parts to be moved out to the movement-out area, and generate an arc-shaped guiding line between the initial area and the movement-out area to obtain the customized explosion diagram.
[0027] Optionally, in a possible implementation manner of the first aspect, the determining the inspection parts based on the part maintenance log of the damaged part includes:
[0028] Retrieve multiple associated parts corresponding to the damaged part, where the damaged part has a preset multiple associated parts, and determine the equipment parts where the associated parts are located as the associated parts;
[0029] Determine the number of parts of the associated parts corresponding to each damaged part, and obtain the number of maintenance times in the part maintenance log corresponding to the damaged part;
[0030] Based on the product of the number of parts and the corresponding number of maintenance times, obtain the sub-associated times of the associated parts corresponding to each damaged part, and count the sub-associated times to obtain the associated times of the associated parts;
[0031] If the associated part has a damaged part, obtain the number of maintenance times in the part maintenance log corresponding to the associated part as the body times;
[0032] Count the body times and the associated times to obtain the cumulative times of the associated parts, sort the associated parts in the associated sequence in descending order based on the cumulative times, and select the associated parts in the associated sequence as the inspection parts based on the selection quantity.
[0033] Optionally, in a possible implementation manner of the first aspect, it further includes:
[0034] Retrieve the equipment file corresponding to the triggered file side screen triggered by the management end as the triggered file, and retrieve multiple associated files corresponding to the triggered file, where the equipment file has a preset multiple associated files;
[0035] Count the trigger times of each triggered file, and determine the file association times of each associated file based on the trigger times;
[0036] Select the associated file corresponding to the largest file association times as the file to be consulted and send it to the management terminal.
[0037] Optionally, in a possible implementation manner of the first aspect, it further includes:
[0038] Calculate the similarity of the consulted explosion diagram, and send the problem parts to the management terminal;
[0039] Receive the adjusted similarity input by the management terminal, train and adjust the similarity weight of the similarity calculation according to the adjusted similarity to obtain the configured weight, and replace the similarity weight with the configured weight.
[0040] Optionally, in a possible implementation manner of the first aspect, the calculating the similarity of the consulted explosion diagram and sending the problem parts to the management terminal includes:
[0041] Obtain the same damaged parts in the consulted explosion diagram as the overlapping parts, and count the overlapping quantity of the overlapping parts in the consulted explosion diagram and the total quantity of the virtual parts;
[0042] Obtain the overlapping types of each overlapping part, where the overlapping types include replacement type and repair type, obtain the replacement quantity of the overlapping parts corresponding to the replacement type, and the repair quantity of the overlapping parts corresponding to the repair type;
[0043] Calculate based on the overlapping quantity, replacement quantity, repair quantity and total quantity to obtain the explosion similarity of the consulted explosion diagram;
[0044] The explosion similarity is obtained through the following formula:
[0045] ;
[0046] Among them, is the explosion similarity, is the overlapping quantity, is the total quantity, is the overlapping weight value, is the replacement quantity, is the replacement weight value, is the repair quantity, is the repair weight value, is the similarity weight;
[0047] When it is determined that the explosion similarity is greater than or equal to the preset similarity, send the overlapping parts to the management terminal as problem parts.
[0048] Optionally, in a possible implementation manner of the first aspect, it further includes:
[0049] The receiving management terminal receives the marking information of the corresponding defective parts, and determines the corresponding defective parts as vulnerable parts based on the marking information;
[0050] Obtain the vulnerable quantity of the vulnerable parts, and respectively perform reduction processing on the overlapping quantity, total quantity and replacement quantity based on the vulnerable quantity, and recalculate the explosion similarity.
[0051] Optionally, in a possible implementation manner of the first aspect, the training adjustment of the similarity weight for similarity calculation according to the adjusted similarity to obtain the configured weight includes:
[0052] If the adjusted similarity is greater than the explosion similarity, obtain an increased training value according to the difference between the adjusted similarity and the explosion similarity, and obtain the first training times according to the ratio of the increased training value to the preset training value;
[0053] Perform increased training adjustment on the similarity weight according to the increased training value to obtain an increased weight:
[0054] ;
[0055] where is the increased weight, is the similarity weight, is the adjusted similarity, is the increased adjustment value;
[0056] Take the increased weight as the current similarity weight, repeat the above steps of increasing the weight and count the training times as the actual times until the actual times is equal to the first training times to obtain the configured weight;
[0057] If the adjusted similarity is less than the explosion similarity, obtain a decreased training value according to the difference between the explosion similarity and the adjusted similarity, and obtain the second training times according to the ratio of the decreased training value to the preset training value;
[0058] Perform decreased training adjustment on the similarity weight according to the decreased training value to obtain a decreased weight:
[0059] ;
[0060] where is the decreased weight, is the similarity weight, is the adjusted similarity, is the decreased adjustment value;
[0061] Take the decreased weight as the current similarity weight, repeat the above steps of decreasing the weight and count the training times as the actual times until the actual times is equal to the second training times to obtain the configured weight.
[0062] Optionally, in a possible implementation of the first aspect, it further includes:
[0063] Obtain the supply voltage of each transmission line in real time based on the sensor;
[0064] When it is determined that the supply voltage is greater than the preset voltage, regard the power equipment on the corresponding transmission line as the overloaded equipment, and regard the current moment as the overload moment;
[0065] Obtain the setting order of the overloaded equipment from the transmission end to the distribution end on the corresponding transmission line, regard the equipment file corresponding to the overloaded equipment as the overload file, determine the placement position of the overload file, and splice according to the setting order and the placement position to obtain the overload number of the overloaded equipment;
[0066] Based on the overload moment, adjust the screen background color of the file side screen corresponding to the overload file to the overload pixel value, display the overload number at the file side screen of the overload file, and retrieve the part maintenance log in the overload file as the overload maintenance log;
[0067] Obtain the accident period in the overload maintenance log. When it is determined that the overload moment is within the accident period, flash the exploded parts corresponding to the corresponding overload maintenance log.
[0068] Optionally, in a possible implementation of the first aspect, it further includes:
[0069] When it is determined that the overload moment is within the accident period, regard the corresponding overload maintenance log as the historical statistics log, and obtain the log quantity of the historical statistics log;
[0070] Retrieve the preset flashing frequency for flashing display, obtain the flashing adjustment value according to the ratio of the log quantity to the preset maintenance quantity, and obtain the adjusted flashing frequency based on the product of the flashing adjustment value and the preset flashing frequency.
[0071] In the second aspect of the present invention, there is provided a device for consulting power file maintenance information, including:
[0072] A generation module, configured to generate an exploded view for consulting the equipment file corresponding to the power equipment according to the damaged parts and damaged parts of the power equipment;
[0073] A display module, configured to determine the inspection parts based on the part maintenance log of the damaged part, and send the inspection parts and the exploded view for consulting to the file side screen of the equipment file for display;
[0074] A retrieval module, configured to respond to the trigger information of the exploded parts and / or damaged parts in the exploded view for consulting by the management end, determine the parts for consulting and / or the parts for consulting, and retrieve the part consulting log of the parts for consulting and / or the part consulting log of the parts for consulting;
[0075] A sending module, configured to determine the associated parts of the parts access log and the associated parts of the location access log according to the parts access log and / or the location access log, and send the parts access log and the associated parts and / or the location access log and the associated parts to the archive side screen for display.
[0076] In a third aspect of the present invention, there is provided an electronic device, including: a memory, a processor, and a computer program, where the computer program is stored in the memory, and the processor runs the computer program to execute the method according to the first aspect of the present invention and various possible aspects of the first aspect.
[0077] In a fourth aspect of the present invention, there is provided a storage medium, in which a computer program is stored, and when the computer program is executed by a processor, it is used to implement the method according to the first aspect of the present invention and various possible aspects of the first aspect.
[0078] The beneficial effects of the present invention are as follows:
[0079] 1. By generating an access explosion diagram of the power equipment, the present invention visually displays the information of damaged parts and damaged locations, realizing the intelligent management of equipment archives. First, the present invention can adopt the twin model technology to automatically generate the explosion diagram of the power equipment, accurately display the damaged parts and damaged locations, and update the relevant maintenance log information in real time through the electronic display screen of the file box, which is convenient for the operation and maintenance personnel to quickly access and analyze. This information management method not only improves the fault management efficiency of the power equipment, but also provides a scientific basis for subsequent equipment detection and maintenance, ensuring the safe and stable operation of the power equipment.
[0080] 2. The present invention can customize and generate corresponding access explosion diagrams for each device according to the damaged parts to improve the access efficiency of personnel to the exploded parts. Among them, the present invention automatically generates an access explosion diagram by intelligently identifying the damaged parts and damaged locations in the power equipment and combining the generated device twin model. Among them, the explosion display of the damaged parts can be effectively distinguished from the rest of the parts to ensure that the operation and maintenance personnel can intuitively view the damaged locations. At the same time, by updating the preset damage pixel value of the explosion diagram, the damaged area is highlighted, greatly improving the recognition efficiency of the maintenance personnel for the equipment damage information.
[0081] 3. The present invention can efficiently implement file management and provide real-time feedback. Among them, the present invention combines an electronic display screen to realize the dynamic update and information management of power equipment files. By binding relevant part maintenance logs with explosion diagrams, operation and maintenance personnel can view the equipment's maintenance history and current status in real time on the side screen, significantly improving the convenience of information query. In addition, through the intelligent classification and correlation analysis of damaged parts, relevant inspection parts are identified in a timely manner to ensure the safety and stability of the equipment. The present invention also statistically analyzes the maintenance logs of various power equipment to establish a correlation model for equipment maintenance. When a certain part is damaged, the system can automatically push the relevant inspection parts and, through the analysis of the corresponding maintenance logs, determine which parts need to be inspected key. This data-driven decision support system not only improves the pertinence of fault handling but also provides a strong scientific basis for the daily maintenance of equipment, ensuring the efficient and safe operation of power equipment. BRIEF DESCRIPTION OF THE DRAWINGS
[0082] Figure 1 is a flowchart of a method for consulting power file maintenance information provided by the present invention;
[0083] Figure 2 is a schematic diagram of a file side screen provided by the present invention;
[0084] Figure 3 is a schematic structural diagram of a device for consulting power file maintenance information provided by the present invention;
[0085] Figure 4 is a schematic hardware structure diagram of an electronic device provided by the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0086] The technical solutions of the present invention will be described in detail below with specific embodiments. These specific embodiments can be combined with each other, and the same or similar concepts or processes may not be repeated in some embodiments.
[0087] As Figure 1 shown, the present invention provides a method for consulting power file maintenance information, including:
[0088] S1. Generate an explosion diagram for consulting the corresponding equipment file of the power equipment according to the damaged parts and damaged locations of the power equipment.
[0089] It should be noted that since there are a large number of power equipment and the number of operating parts configured in each equipment is also large, and the damage conditions of each part in different equipment during use are also different. Therefore, it is necessary to record and file the data of the problems that occur during the operation of the parts in each equipment for subsequent maintenance, so that other parts or equipment can be targeted for detection in a timely manner through the corresponding power archives of the equipment, and the parts affected by the association can be repaired in a timely manner to ensure the normal operation of the power equipment.
[0090] It can be understood that before storing the content of the maintenance file corresponding to each equipment in the file box, the corresponding file will be scanned, so that a reference explosion diagram corresponding to the damaged parts in the equipment can be generated and displayed on the side screen of the file box according to the scanned information, which is convenient for subsequent personnel to quickly view the maintenance content information of the parts in the corresponding file according to the reference explosion diagram displayed on the side screen.
[0091] It is worth mentioning that the document placed in the file box is the maintenance record of the corresponding power equipment. Different from the existing equipment, the file box of the present invention has an electronic display screen on the outward-facing side, that is, the file side screen, so as to display the reference explosion diagram of the equipment file. At the same time, subsequent personnel can also view the scanned document information in the side screen.
[0092] Among them, the power equipment is the equipment in the power project, such as a transformer, a washing machine, etc., which uses electricity. The damaged parts are the parts with functional damage, and the damaged part is the position of the damage in the damaged parts. For example, it can be the end of the coil. The equipment file is the maintenance file corresponding to the power equipment, and the reference explosion diagram is the explosion diagram of the equipment corresponding to the damaged parts.
[0093] Through the above implementation manner, the present invention can generate a reference explosion diagram corresponding to each equipment file, so that it can be displayed on the side screen of the file box subsequently. Furthermore, subsequent personnel can directly determine the parts and positions that have undergone accident maintenance in the file according to the displayed reference explosion diagram, which is convenient for improving the speed of file access.
[0094] In some embodiments, the specific implementation manner in step S1 (generating a reference explosion diagram of the equipment file corresponding to the power equipment according to the damaged parts and damaged parts of the power equipment) includes:
[0095] S11, determining the exploded parts in the equipment model corresponding to the power equipment based on the damaged parts, and taking the remaining virtual parts in the equipment model as deleted parts.
[0096] It can be understood that a corresponding twin equipment model can be constructed according to the actual power equipment, so that the determined exploded parts can be used to explode and display the equipment model to generate a reference explosion diagram.
[0097] Among them, the device model is a twin model corresponding to the actual power device, the exploded part is a virtual part of the model corresponding to the damaged part in the device model, the virtual part is each virtual twin part in the device model, and the deleted part is a virtual part of the model in the device model that does not correspond to the damaged part.
[0098] It is not difficult to understand that the virtual parts in the device model are distinguished according to the damaged parts, so as to subsequently update the device model according to the exploded parts and the deleted parts, so as to obtain an exploded view for viewing that highlights the damaged parts, facilitating personnel to quickly understand the damaged parts in the device.
[0099] S12. Delete the deleted parts in the device model to obtain an initial model, perform an explosion process on the exploded parts in the initial model to obtain a customized exploded view, and update the damaged parts of the exploded parts in the customized exploded view based on a preset damage pixel value.
[0100] It should be noted that in order to clearly display the damaged parts and avoid the influence of redundant parts on personnel viewing the exploded view visually, the deleted parts in the device model can be deleted to obtain an initial model, and the exploded parts in the initial model can be exploded and disassembled to obtain a customized exploded view. Furthermore, the damaged parts of the exploded parts in the customized exploded view can be pixel-updated to facilitate the prominent display of abnormal parts and positions, enabling subsequent viewers to intuitively and clearly view the damaged parts.
[0101] It can be understood that the initial model is a virtual model after deleting the deleted parts in the device model, the customized exploded view is an image obtained by customized explosion disassembly display according to the damaged parts corresponding to different devices, and the preset damage pixel value is a display pixel value preset for damage. For example, it can be red.
[0102] It is not difficult to understand that the damaged parts of the exploded parts in the customized exploded view can be pixel value-updated to highlight the damaged parts, enabling personnel to intuitively view the damaged positions of the parts and improving the information viewing time of personnel on the device damage.
[0103] In some embodiments, the specific implementation manner in step S12 (performing an explosion process on the exploded parts in the initial model to obtain a customized exploded view) includes:
[0104] S121. Obtain the direction opposite to the assembly direction of the exploded parts as the explosion direction, and perform a movement process on the exploded parts in the initial model based on the preset explosion distance and the explosion direction to obtain an intermediate model.
[0105] It can be understood that since different parts have corresponding configuration directions. For example, in electrical equipment, the corresponding nuts need to be installed on the corresponding screw nuts from top to bottom. When performing an explosion disassembly process, the corresponding nuts need to be disassembled and displayed from bottom to top. Therefore, the corresponding explosion direction is the direction opposite to the assembly direction of the exploded parts, so that the corresponding exploded parts can be exploded and displayed according to the explosion direction subsequently.
[0106] Among them, the assembly direction is the installation direction of the exploded parts in the equipment, the explosion direction is the direction for decomposing and displaying the explosion diagram, that is, the direction opposite to the assembly direction, and the preset explosion distance is the installation movement distance of the original part set in advance. It can be set artificially. For example, when a maintenance operation is performed on an exploded part, the corresponding preset explosion distance can be a distance of 50 pixel points. When a replacement operation is performed on an exploded part, the corresponding preset explosion distance can be set to a distance of 100 pixel points. The movement distances for different maintenance situations are different, so as to calculate the similarity of the corresponding equipment parts subsequently and improve the data reference.
[0107] Moreover, the intermediate model is the model after moving the parts of the exploded parts.
[0108] S122. When it is determined that there are no occluded exploded parts in the intermediate model, use the intermediate model as the customized explosion diagram.
[0109] It should be noted that when performing part explosion display on the corresponding model, due to the small number of exploded parts or the obvious positions of the parts, when performing explosion processing on the exploded parts, all can be intuitively displayed. However, since some damaged parts are inside the equipment and there are also damaged parts outside, when performing explosion processing on the parts of the model, the internal exploded parts will be covered by the external parts, so that all the exploded parts cannot be intuitively displayed. Therefore, it is possible to judge whether there are occluded exploded parts and determine the final customized explosion diagram for easy viewing by personnel.
[0110] It can be understood that when it is determined that there are no occluded exploded parts in the intermediate model, that is, all the exploded parts can be intuitively displayed, then this intermediate model can be used as the customized explosion diagram.
[0111] S123. When it is determined that there are occluded exploded parts in the intermediate model, use the occluded exploded parts as the outwardly moved parts.
[0112] It can be understood that when there is mutual occlusion of the exploded parts, the occluded exploded parts can be used as the outwardly moved parts, so that the occluding parts can be moved outward subsequently, facilitating the subsequent intuitive display of the corresponding exploded parts and easy viewing by personnel.
[0113] Among them, the exploded parts that are blocked in the intermediate model of the external moving parts.
[0114] S124. Obtain the external moving volume of the external moving parts, and select the blank area closest to the external moving parts as the external moving area based on the external moving volume.
[0115] It should be noted that in order to visually display the blocked exploded parts on the corresponding side screen, so that enough blank space can be selected to place and display the corresponding external moving parts. Therefore, it is necessary to obtain the external moving volume of the external moving parts, and then the blank area sufficient for display and closest to the current external moving parts can be selected according to the external moving volume, so as to move the corresponding external moving parts to the corresponding area for visual display later.
[0116] It can be understood that the external moving volume is the model volume corresponding to the external moving parts, and the external moving area is the blank area where the external moving parts can be completely placed and closest to the external moving parts.
[0117] S125. Obtain the initial area where the external moving parts are located, move the external moving parts to the external moving area, and generate an arc guiding line between the initial area and the external moving area to obtain a customized exploded view.
[0118] It can be understood that the initial area is the position area where the external moving parts are located before moving, and the arc guiding line is a curved guiding line, that is, the guiding line segment pointing from the initial area to the external moving area.
[0119] It is not difficult to understand that indicating and displaying the moving area of the external moving parts is convenient for personnel to quickly determine the original position of the exploded parts according to the connected arc guiding line when viewing.
[0120] S13. Retrieve the part maintenance log of the exploded parts, classify the part maintenance log based on the damaged parts, and obtain the part maintenance log corresponding to the damaged parts.
[0121] It can be understood that the corresponding part maintenance log scanned and stored in the corresponding file box is retrieved according to the exploded parts, so that the part maintenance log can be classified according to the damaged parts. For example, the part maintenance logs with the same damaged parts at the left end are classified into one category for subsequent binding with the left end part, and the part maintenance logs with the same damaged parts at the right end are classified into one category, so that the part maintenance log corresponding to the damaged parts at the right end can be obtained.
[0122] Among them, the part maintenance log is the log record information for the maintenance and protection of parts, and the part maintenance log corresponding to the damaged parts is all the maintenance information logs corresponding to the damaged parts.
[0123] Through the above embodiments, the present invention can obtain the part maintenance logs corresponding to each damaged part, so as to subsequently associate the corresponding part maintenance logs with the corresponding exploded parts, facilitating the subsequent personnel to quickly retrieve the maintenance information logs of the corresponding parts when triggering the viewing of the exploded view, and improving the viewing efficiency of the personnel.
[0124] S14. Bind the part maintenance log to the exploded part, and bind the part maintenance log to the corresponding damaged part to obtain the exploded view for viewing the equipment file corresponding to the power equipment.
[0125] It can be understood that binding the part maintenance log to the exploded part and binding the part maintenance log to the corresponding damaged part, such as binding to the preset node at the damaged part in the exploded part, so as to obtain the exploded view for viewing the equipment file corresponding to the power equipment. When the subsequent personnel trigger the viewing of the exploded view on the side screen of the file box, they can determine the corresponding exploded part according to the trigger position of the personnel, retrieve the part maintenance log, and further trigger the damaged part, and the maintenance log of the corresponding part can be retrieved and displayed, saving the time for the personnel to flip through the paper documents and improving the viewing speed of the personnel.
[0126] In some other embodiments, the specific implementation manner of step (generating the exploded view for viewing the equipment file corresponding to the power equipment according to the damaged parts and damaged parts of the power equipment) further includes:
[0127] A1. Determine the exploded parts in the equipment model corresponding to the power equipment based on the damaged parts, and use the remaining virtual parts of the equipment model as static parts.
[0128] It should be noted that the exploded view for viewing the equipment file corresponding to the power equipment can be obtained through another implementation manner, that is, in a side-by-side manner, only the exploded parts are exploded to obtain the corresponding exploded view.
[0129] It can be understood that the exploded parts in the equipment model can be determined according to the damaged parts, and the remaining virtual parts in the equipment model are used as static parts, that is, the parts that do not need to be moved.
[0130] Among them, the exploded parts are the virtual parts corresponding to the damaged parts in the equipment model corresponding to the power equipment, and the static parts are the remaining virtual parts of the equipment model excluding the exploded parts.
[0131] Through the above embodiments, the present invention can determine the exploded parts and static parts, so as to subsequently perform explosion processing on the corresponding exploded parts to generate an exploded view for viewing.
[0132] A2. Explode the exploded parts in the equipment model to obtain a customized exploded view, and update the damaged parts of the exploded parts in the customized exploded view based on a preset damage pixel value.
[0133] It can be understood that by exploding the exploded parts in the equipment model, a customized exploded view of the corresponding equipment is obtained. Furthermore, based on the preset damage pixel value, the damaged parts of the exploded parts in the customized exploded view can be updated. For example, the corresponding damaged parts can be updated to red.
[0134] Among them, the preset damage pixel value is the pixel value preset for displaying the damaged parts, which can be red, for example.
[0135] It is worth mentioning that in this embodiment, since the corresponding static parts in the equipment model are not deleted, the static parts may block the exploded parts. Therefore, the corresponding static parts can also be exploded and the exploded static parts can be displayed with another pixel value to distinguish the exploded parts from the static parts.
[0136] A3. Retrieve the parts maintenance log of the exploded parts, classify the parts maintenance log based on the damaged parts, and obtain the parts maintenance log corresponding to the damaged parts.
[0137] It can be understood that according to the exploded parts, the parts maintenance log scanned and stored in the corresponding file box is retrieved, so that the parts maintenance log can be classified according to the damaged parts, that is, the parts maintenance logs of the same damaged parts on different dates in the exploded parts are classified into the same category, and thus the parts maintenance log corresponding to the damaged parts can be obtained.
[0138] Among them, the parts maintenance log is the log record information for repairing and protecting the parts, and the parts maintenance log for the parts is all the maintenance information logs corresponding to the damaged parts.
[0139] Through the above embodiments, the present invention can obtain the parts maintenance log corresponding to each damaged part, so as to subsequently associate the corresponding parts maintenance log with the corresponding exploded parts, facilitating the subsequent personnel to quickly retrieve the maintenance information log of the corresponding part when triggering the viewing of the exploded view, and improving the viewing efficiency of the personnel.
[0140] A4. Bind the parts maintenance log to the exploded parts, and bind the parts maintenance log for the parts to the corresponding damaged parts to obtain the viewing exploded view of the corresponding equipment file of the power equipment.
[0141] It can be understood that the part maintenance log is bound to the exploded part, and the part maintenance log is bound to the corresponding damaged part, such as being bound to the preset node at the damaged part in the exploded part, so as to obtain the inspection exploded view of the equipment file corresponding to the power equipment. When the subsequent personnel trigger the inspection exploded view on the side screen of the file box, the corresponding exploded part can be determined according to the trigger position of the personnel, the part maintenance log can be retrieved, and when the damaged part is further triggered, the maintenance log of the corresponding part can be retrieved and displayed, saving the time for personnel to flip through the paper documents and improving the personnel's access speed.
[0142] S2. Determine the inspection parts based on the part maintenance log of the damaged part, and send the inspection parts and the inspection exploded view to the side screen of the equipment file for display.
[0143] It should be noted that since the part functions between power equipment affect each other. For example, when part A is damaged, it may also damage part B during the long-term operation of the equipment. Therefore, other parts associated with the currently damaged part can be determined according to the part maintenance log, so as to perform inspection and maintenance in a timely manner, and send the corresponding inspection parts and inspection exploded view to the side screen of the file, which is convenient for clearly prompting the parts that need to be inspected for personnel, so as to improve the operation safety of power equipment.
[0144] It can be understood that the inspection parts are the parts that need to be functionally inspected, and the side screen of the file is the side screen of the file box storing the power file.
[0145] For example, as Figure 2 shown, the inspection parts and the inspection exploded view corresponding to each equipment file can be displayed on the side screen of the corresponding equipment file, so that personnel can quickly determine the damaged parts corresponding to the equipment by viewing the inspection exploded view on the side screen of the file.
[0146] In some embodiments, the specific implementation manner in step S2 (determining the inspection parts based on the part maintenance log of the damaged part) includes:
[0147] S21. Retrieve multiple associated parts corresponding to the damaged part. The damaged part has multiple preset associated parts, and determine the equipment parts where the associated parts are located as associated parts.
[0148] It can be understood that the associated parts are the part parts associated with the damaged part, which can be set artificially in advance according to the connection or functional association relationship of the parts. The associated parts are the equipment parts where the associated parts are located. Among them, multiple associated parts can belong to the same associated part, or can be respectively located on multiple different associated parts.
[0149] S22. Determine the number of parts of the associated parts corresponding to each damaged part in the associated parts, and obtain the number of maintenance times in the maintenance log corresponding to the parts of the damaged part.
[0150] It can be understood that the number of parts is the number of associated parts corresponding to the damaged part in the same associated part. For example, when there are 2 associated parts related to damaged part 1 in associated part B, the number of parts corresponding to the associated part is 2, and the number of maintenance times is the number of repairs in the maintenance log corresponding to the parts of the damaged part.
[0151] It is not difficult to understand that the more the number of parts of the associated part, the greater the impact of the damaged part on the associated part. And, the more the number of maintenance times for the damaged part, the more times the damaged part has abnormal problems. Furthermore, the greater the impact on the corresponding associated part, the greater the probability that the corresponding associated part may have abnormal problems. Then, the associated times of the associated part can be determined according to the number of parts and the number of maintenance times corresponding to the damaged part, so as to determine the inspection parts subsequently, and thus the inspection parts can be inspected and repaired in time.
[0152] S23. Based on the product of the number of parts and the corresponding number of maintenance times, obtain the sub-associated times corresponding to each damaged part in the associated part, and count the sub-associated times to obtain the associated times of the associated part.
[0153] It can be understood that the sub-associated times are the associated times corresponding to each damaged part in the associated part, that is, the product of the number of parts and the number of maintenance times. The associated times are the numerical values of the degree of association between the associated part and the damaged part, that is, the sum value of the sub-associated times of all associated parts in the associated part.
[0154] S24. If the associated part has a damaged part, obtain the number of maintenance times in the maintenance log corresponding to the part of the associated part as the body times.
[0155] It can be understood that when there is a damaged part in the associated part, it can be explained that the part is not only affected by the damaged part, but also has wear and abnormal problems itself. Therefore, when evaluating the inspection degree of the associated part, the sum of the corresponding maintenance times of itself needs to be calculated to determine the parts with a higher abnormal probability for timely inspection and repair.
[0156] Among them, the body times are the number of maintenance times that the associated part itself has had problems and has been maintained.
[0157] S25. Count the body times and the associated times to obtain the cumulative times of the associated part. Sort the associated parts in descending order based on the cumulative times to obtain an associated sequence, and select the associated parts in the associated sequence as inspection parts based on the selected quantity.
[0158] It can be understood that by accumulating the number of times of the main body and the number of associations, the cumulative number of times corresponding to the associated parts can be obtained. Thus, the associated parts can be sorted in descending order according to the cumulative number of times to obtain an association sequence. Furthermore, according to the selection quantity, the corresponding associated parts are selected from the association sequence as inspection parts for subsequent inspection and maintenance.
[0159] Among them, the cumulative number of times is the sum of the number of times of the main body and the number of associations corresponding to the associated parts. The association sequence is the part sequence after arranging the associated parts in descending order according to the cumulative number of times. The selection quantity is the number of inspection parts selected from the association sequence, which can be set in advance manually.
[0160] It is not difficult to understand that when selecting parts from the association sequence according to the selection quantity, the criticality of the parts can be determined according to the importance of the equipment and the usage duration of the equipment, so that the corresponding associated parts can be selected as inspection parts for prior inspection and maintenance to improve the stability and safety of the operation of power equipment.
[0161] S3. In response to the trigger information of the management terminal to view the exploded parts and / or damaged parts in the exploded view, determine the parts to be viewed and / or the parts to be viewed, and retrieve the part viewing log of the parts to be viewed and / or the part viewing log of the parts to be viewed.
[0162] It should be noted that when receiving the trigger information of the personnel for viewing the exploded view, the part viewing log and / or the part viewing log corresponding to the determined parts to be viewed and / or the parts to be viewed can be retrieved and displayed to improve the viewing speed of the personnel.
[0163] It is not difficult to understand that when the personnel trigger the viewing of the exploded view, the corresponding log can be retrieved. Furthermore, the personnel can click the sliding button on the archive side screen to slide and view the log information displayed on the side screen.
[0164] S4. According to the part viewing log and / or the part viewing log, determine the associated parts for viewing in the part viewing log and the associated parts for viewing in the part viewing log, and send the part viewing log and the associated parts for viewing and / or the part viewing log and the associated parts for viewing to the archive side screen for display.
[0165] It can be understood that when it is determined that the personnel view the maintenance information related to the parts, the part viewing log and the associated parts for viewing can be sent to the archive side screen for display. When it is determined that the personnel view the parts and the related maintenance information, the part viewing log and the associated parts for viewing can be sent to the archive side screen for display for the intuitive viewing of the personnel.
[0166] Among them, the retrieved associated part is the associated part corresponding to the part retrieval log, and the retrieved associated location is the location associated with the retrieved associated part and the location retrieval log.
[0167] It is not difficult to understand that when the part retrieval log and / or location retrieval log that the person wants to retrieve is determined, the corresponding associated other retrieved associated parts and / or retrieved associated locations can be sent to the archive side screen for display.
[0168] It should be noted that since there will also be certain mutual influences between different power equipment, when triggering the same equipment archive, the archives of the corresponding associated equipment can be prompted for viewing so that the person can obtain more equipment information. Therefore, it also includes:
[0169] B1. Retrieve the equipment archive corresponding to the archive side screen triggered by the management terminal as the triggered archive, and retrieve multiple associated archives corresponding to the triggered archive. The equipment archive has a preset multiple associated archives.
[0170] It can be understood that the management terminal is the information terminal of the person for archive management, the triggered archive is the equipment archive that triggers the archive side screen, and the associated archive is the equipment archive associated with the triggered archive in terms of power. Among them, each equipment archive has a preset multiple associated archives, which can be configured according to the direct connection relationship or indirect connection relationship between power lines or power equipment.
[0171] It is not difficult to understand that when the person triggers the same equipment archive multiple times, it can indicate that the archive is relatively important, that is, the corresponding equipment is relatively important. Therefore, the associated archives of other equipment associated with the equipment of the triggered archive are also relatively important. Therefore, multiple associated archives corresponding to the triggered archive can be retrieved for analysis.
[0172] B2. Count the trigger times of each triggered archive, and determine the archive association times of each associated archive based on the trigger times.
[0173] It can be understood that the trigger times are the times when the person triggers and retrieves the triggered archive, and the archive association times are the corresponding times of the associated archive. For example, when the triggered archive is triggered 5 times for viewing, the archive association times of the associated archive associated with the triggered archive are also 5.
[0174] It is not difficult to understand that when the person retrieves the triggered archive, it indicates that the person pays more attention to the operation status of the current type of power equipment. Therefore, the equipment of the associated archive that is the same as the triggered archive will also meet the person's viewing needs.
[0175] B3. Select the associated archive corresponding to the largest archive association times as the archive to be retrieved and send it to the management terminal.
[0176] It is understandable that the file to be retrieved is the equipment file waiting to be retrieved, that is, the associated file corresponding to the maximum number of file associations.
[0177] In some embodiments, it further includes:
[0178] C1. Calculate the similarity of the retrieved exploded view, and send the problematic parts to the management terminal.
[0179] It should be noted that for equipment of the same type, the similarity of the corresponding retrieved exploded views can be calculated to determine the parts that are prone to problems in this type of equipment, so as to facilitate the timely inspection and repair of the parts in the same type of equipment.
[0180] It is understandable that the problematic parts are the parts that have problems.
[0181] In some embodiments, the specific implementation manner in step C1 (calculating the similarity of the retrieved exploded view and sending the problematic parts to the management terminal) includes:
[0182] C11. Obtain the same damaged parts in the retrieved exploded view as the overlapping parts, and count the overlapping quantity of the overlapping parts in the retrieved exploded view and the total quantity of the virtual parts.
[0183] It is understandable that the overlapping parts are the same damaged parts that appear in multiple retrieved exploded views, the overlapping quantity is the number of times the overlapping parts appear in the retrieved exploded view, and the total quantity is the number of virtual parts in the equipment.
[0184] Through the above implementation manner, the present invention can obtain the overlapping quantity of the damaged parts and the total quantity of the total virtual parts in the equipment, so as to calculate the similarity of the parts that have problems in the same type of equipment subsequently.
[0185] C12. Obtain the overlapping types of each overlapping part, where the overlapping types include replacement type and repair type, obtain the replacement quantity of the overlapping parts corresponding to the replacement type, and the repair quantity of the overlapping parts corresponding to the repair type.
[0186] It is understandable that the overlapping type is the type of the overlapping parts, including the replacement type and the repair type. Among them, the replacement type is the type of the replacement maintenance method of the overlapping parts, the repair type is the type of the repair maintenance method of the overlapping parts, the replacement quantity is the quantity of the overlapping parts corresponding to the replacement type, and the repair quantity is the quantity of the overlapping parts corresponding to the repair type.
[0187] C13. Calculate based on the overlapping quantity, replacement quantity, repair quantity and total quantity to obtain the explosion similarity of the retrieved exploded view.
[0188] It is understandable that the explosion similarity of the exploded diagram can be calculated by the overlapping quantity, replacement quantity, repair quantity and total quantity, so that the parts in the same equipment can be determined based on the explosion similarity and checked and repaired in time.
[0189] The explosion similarity is the maintenance similarity of abnormal parts in the equipment determined by consulting the explosion diagram.
[0190] C14, the explosion similarity is obtained by the following formula:
[0191] ;
[0192] in, is the explosion similarity, is the number of overlaps, is the total quantity, is the overlap weight value, To replace the quantity, To change the weight value, is the number of repairs, is the maintenance weight value, is similar weight.
[0193] It is understandable that when the overlap The larger the value, the ratio of the overlapped number to the total number. will also be larger, at the same time, when the replacement quantity and repair quantity The larger the value, the more parts that need to be maintained in this type of equipment, and the explosion similarity will also be higher, and vice versa, when the overlap The smaller the value, the ratio of the overlapped number to the total number. will also be smaller, and at the same time, when the replacement quantity and repair quantity The smaller the value, the smaller the number of parts that need maintenance in this type of equipment, and the explosion similarity obtained. It will also be lower.
[0194] Among them, the overlapping weight value, replacement weight value, maintenance weight value and similarity weight are preset manually.
[0195] C15, when it is determined that the explosion similarity is greater than or equal to the preset similarity, the overlapping parts are sent to the management end as problem parts.
[0196] It can be understood that the preset similarity is a similarity value set in advance. When it is determined that the explosion similarity is greater than or equal to the preset similarity, it can indicate that the similarity of the parts with abnormal problems in the current type of equipment is relatively high, that is, the probability that the overlapping parts in other power equipment of the same type have problems is relatively large. Therefore, the overlapping parts can be used as problem parts so that they can be sent to the management end for timely inspection and repair.
[0197] C2. Receive the adjusted similarity input by the management end, train and adjust the similarity weight for similarity calculation according to the adjusted similarity to obtain the configured weight, and replace the similarity weight with the configured weight.
[0198] It should be noted that since there may be a certain deviation between the calculated explosion similarity and the similarity obtained from human experience, in order to make the calculation formula more accurate, the adjusted similarity input by the management end can be received to train and adjust the similarity weight, so that the configured weight better meets the actual needs and makes the calculated explosion similarity more accurate.
[0199] It can be understood that the adjusted similarity is the similarity actively input by the management end, and the configured weight is the configured weight value for calculating the explosion similarity, that is, the similarity weight for similarity calculation is trained and adjusted according to the adjusted similarity.
[0200] In some embodiments, the specific implementation manner in step C2 (training and adjusting the similarity weight for similarity calculation according to the adjusted similarity to obtain the configured weight) includes:
[0201] C21. If the adjusted similarity is greater than the explosion similarity, obtain an increased training value according to the difference between the adjusted similarity and the explosion similarity, and obtain the first training times according to the ratio of the increased training value to the preset training value.
[0202] It can be understood that when the adjusted similarity is greater than the explosion similarity, it indicates that the current similarity weight is relatively low and needs to be increased. Then, the difference between the adjusted similarity and the explosion similarity can be calculated to obtain the increased training value, and then the ratio of the increased training value to the preset training value is used to obtain the first training times, so as to achieve the increased training adjustment of the similarity weight after reaching the first training times.
[0203] Among them, the increased training value is the value for increasing training, that is, the difference between the adjusted similarity and the explosion similarity. The preset training value is the benchmark value for preset training adjustment, and the first training times is the number of times for increased training adjustment, that is, the ratio of the increased training value to the preset training value.
[0204] C22. Perform an increased training adjustment on the similarity weight according to the increased training value to obtain an increased weight:
[0205] ;
[0206] Among them, is the increased weight, is the similarity weight, is the adjusted similarity, is the increased adjustment value.
[0207] It can be understood that when the difference between the adjusted similarity and the explosion similarity is larger, the corresponding increased training value will also become larger, and thus the first training times obtained will also become larger. Therefore, the amplitude of increasing the adjustment of the explosion similarity will also increase, and thus the increased weight will also increase accordingly.
[0208] Among them, the increased weight is the weight value after increasing the training of the similarity weight, and the increased adjustment value is the preset adjustment constant value.
[0209] C23. Take the increased weight as the current similarity weight, repeat the above steps of increasing the weight, and count the training times as the actual times until the actual times are equal to the first training times to obtain the configured weight.
[0210] It can be understood that take the increased weight after the current increased training as the current similarity weight, and repeat the implementation steps of obtaining the increased weight. At the same time, accumulate and count the corresponding training times to obtain the actual times, so as to compare the actual times with the first training times. When the actual times are equal to the first training times, it can be explained that the number of times of the current increased training has reached the basic training times. Thus, the corresponding increased weight can be used as the configured weight.
[0211] Among them, the actual times are the number of times of actually performing the increased training.
[0212] C24. If the adjusted similarity is less than the explosion similarity, obtain the reduced training value according to the difference between the explosion similarity and the adjusted similarity, and obtain the second training times according to the ratio of the reduced training value to the preset training value.
[0213] It can be understood that when the adjusted similarity is less than the explosion similarity, it indicates that the current similarity weight is relatively high and needs to be reduced. Then, the difference between the explosion similarity and the adjusted similarity can be calculated to obtain the reduced training value. Furthermore, the ratio of the reduced training value to the preset training value is used to obtain the second training times, so as to achieve the reduced training adjustment of the similarity weight when the second training times are reached subsequently.
[0214] Wherein, the reduction training value is the value for performing reduction training, that is, the difference between the explosion similarity and the adjustment similarity; the preset training value is the benchmark value for preset training adjustment; the second training times is the number of times for reduction training adjustment, that is, the ratio of the reduction training value to the preset training value.
[0215] C25. Perform reduction training adjustment on the similarity weight according to the reduction training value to obtain the reduced weight:
[0216] ;
[0217] Wherein, is the reduced weight, is the similarity weight, is the adjustment similarity, is the reduction adjustment value.
[0218] It can be understood that when the difference between the adjustment similarity and the explosion similarity is larger, the corresponding reduction training value will become larger, and thus the obtained second training times will become smaller. Therefore, the amplitude of reduction adjustment for the explosion similarity will increase, and the obtained reduced weight will also decrease accordingly. On the contrary, when the difference between the adjustment similarity and the explosion similarity is smaller, it indicates that the numerical difference between the adjustment similarity and the explosion similarity is not significant, and the degree of reduction adjustment required for the similarity weight will also become smaller.
[0219] Wherein, the reduced weight is the weight value after reduction training on the similarity weight, and the reduction adjustment value j is the preset adjustment constant value.
[0220] C26. Take the reduced weight as the current similarity weight, repeat the above steps of obtaining the reduced weight, and count the training times as the actual times until the actual times is equal to the second training times to obtain the configured weight.
[0221] It can be understood that take the current reduced weight after reduction training as the current similarity weight, and repeat the implementation steps of obtaining the reduced weight. At the same time, accumulate and count the corresponding training times to obtain the actual times, so as to compare the actual times with the second training times. When the actual times is equal to the second training times, it can indicate that the number of times of current reduction training has reached the basic training times. Therefore, the corresponding reduced weight can be used as the configured weight.
[0222] Wherein, the actual times is the number of times of actual increase training.
[0223] It is worth mentioning that when the adjustment similarity is equal to the explosion similarity, it indicates that the current weight value is appropriate and accurate. Therefore, there is no need to adjust the similarity weight.
[0224] In some embodiments, it further includes:
[0225] D1 receives the marking information of the corresponding defective parts from the management terminal, and determines the corresponding defective parts as vulnerable parts based on the marking information.
[0226] It can be understood that when the management personnel mark the defective parts for subsequent unified viewing of the corresponding defective parts, the corresponding defective parts can be regarded as vulnerable parts according to the marking information.
[0227] Among them, the marking information is the information marked by the management terminal for the defective parts, and the vulnerable parts are the defective parts with marking information.
[0228] D2 obtains the vulnerable quantity of the vulnerable parts, respectively reduces the overlapping quantity, the total quantity and the replacement quantity based on the vulnerable quantity, and recalculates the explosion similarity.
[0229] It should be noted that since some parts in the power equipment have special functions and are prone to wear during normal use and operation, the similarity of the same type of equipment will be deviated. Therefore, the corresponding parts can be reduced in the overlapping quantity, the total quantity and the replacement quantity, that is, subtract the quantity of the vulnerable parts, so as to recalculate the explosion similarity to improve the accuracy of the explosion similarity.
[0230] It can be understood that the vulnerable quantity is the quantity of the vulnerable parts.
[0231] In some embodiments, it further includes:
[0232] E1 obtains the supply voltage of each transmission line in real time based on the sensor.
[0233] It can be understood that in order to detect the equipment in the transmission line in real time, the supply voltage of each transmission line can be transmitted through the sensor, so as to determine the overloaded power equipment according to the supply voltage subsequently.
[0234] Among them, the supply voltage is the input voltage transmitted on the transmission line.
[0235] E2, when it is determined that the supply voltage is greater than the preset voltage, regards the power equipment on the corresponding transmission line as the overloaded equipment, and takes the current moment as the overloaded moment.
[0236] It can be understood that when the supply voltage is greater than the preset voltage, it may have an overloading effect on the power equipment on the transmission line and damage the equipment. Therefore, the overloaded equipment and the overloaded moment can be determined for subsequent prompting to facilitate timely modification and repair of the equipment.
[0237] Among them, the preset voltage is a pre-set standard voltage value, the overloaded device is a power device whose supply voltage is greater than the preset rated voltage, and the overloaded moment is the current moment when the supply voltage is greater than the preset voltage.
[0238] E3. Obtain the setting sequence of the overloaded devices from the power transmission end to the power distribution end on the corresponding transmission line, use the device file corresponding to the overloaded device as the overload file, determine the placement position of the overload file, and splice according to the setting sequence and the placement position to obtain the overload number of the overloaded device.
[0239] It can be understood that, in order to facilitate viewing the maintenance status of each device on the transmission line, the corresponding device files can be arranged according to the setting sequence from the power transmission end to the power distribution end.
[0240] Among them, the power transmission end is the device end for power supply, the power distribution end is the device end for using electric energy, the setting sequence is the installation sequence of the overloaded devices, the overload file is the device file corresponding to the overloaded device, the placement position is the storage position of the overloaded device in the filing cabinet, such as the third column in the first row, and the overload number is the position number corresponding to the overloaded device.
[0241] It is not difficult to understand that, according to the position of the device on the transmission line, for example, there are 5 power devices on the transmission line, and according to the direction from the power transmission end to the power distribution end, the corresponding positions are 1, 2, 3, 4, 5. Furthermore, the placement position of the overload file can be numbered and spliced to obtain the overload number of the overloaded device. For example, when the setting sequence of the transformer on the transmission line is 3, and the device file corresponding to the transformer is in the third column of the first row, then the overload number of the transformer can be obtained as 3.1.3.
[0242] E4. Based on the overloaded moment, adjust the screen background color of the side screen of the overload file to the overload pixel value, display the overload number at the side screen of the overload file, and retrieve the part maintenance log in the overload file as the overload maintenance log.
[0243] It can be understood that when the distribution voltage of the device is normal, the color of the side screen of the corresponding device file will not change. When it is recognized that the voltage of the corresponding power device is abnormal, the screen background color of the side screen of the corresponding device file will change, so as to prompt the management personnel that the device voltage is abnormal, so that the corresponding transmission line can be checked and repaired in time, and the overload number of the corresponding device is displayed in the side screen of the file, so that the personnel can quickly determine the position of the overloaded device according to the overload number, and retrieve the part maintenance log in the overload file for the personnel to consult.
[0244] Among them, the background color of the screen is the color of the file side screen, which can be white for example. The overload pixel value is the pixel value indicating device overload, which can be red for example. When the device is an overloaded device, the screen color of the corresponding file side screen changes to red, so as to visually prompt the personnel that the device has an abnormality. The overload maintenance log is the part maintenance log in the overload file.
[0245] E5. Obtain the accident period in the overload maintenance log. When it is determined that the overload moment is within the accident period, the exploded parts corresponding to the corresponding overload maintenance log are flashed.
[0246] It can be understood that the accident period is the time period when an overload abnormal accident occurs in the overload maintenance log. When it is determined that the overload moment is within the accident period, it means that the overloaded device has a fault. Therefore, the exploded parts corresponding to the overload maintenance log can be flashed, so as to visually show the abnormal exploded parts to the personnel.
[0247] It is worth mentioning that the placement position of the corresponding file box can be moved according to the flashing position, that is, the equipment files of the power equipment on the same transmission line are centrally placed, so as to facilitate the personnel to view the abnormal information of the overloaded equipment in the overloaded line in a timely manner.
[0248] In some embodiments, it further includes:
[0249] F1. When it is determined that the overload moment is within the accident period, the corresponding overload maintenance log is used as the historical statistical log, and the log quantity of the historical statistical log is obtained.
[0250] It can be understood that when it is determined that the overload moment is within the accident period, the corresponding overload maintenance log can be used as the historical statistical log, so as to obtain the log quantity and adjust the flashing frequency, so that the personnel can determine the number of abnormal accidents of the corresponding parts in the historical period according to the flashing frequency of the exploded parts.
[0251] Among them, the historical statistical log is the overload maintenance log corresponding to the overload moment within the accident period, and the log quantity is the quantity of the historical statistical log.
[0252] F2. Retrieve the preset flashing frequency for flashing display. According to the ratio of the log quantity to the preset maintenance quantity, obtain the flashing adjustment value. Based on the product of the flashing adjustment value and the preset flashing frequency, obtain the adjusted flashing frequency.
[0253] It can be understood that the preset flashing frequency is the pre-set flashing frequency, the preset maintenance quantity is the pre-set reference maintenance quantity, the flashing adjustment value is the coefficient value for adjusting the flashing frequency, that is, the ratio of the log quantity to the preset maintenance quantity, and the adjusted flashing frequency is the frequency after the flashing is adjusted, that is, the product of the flashing adjustment value and the preset flashing frequency.
[0254] Through the above embodiments, the present invention can adjust the flashing display frequency according to the historical abnormal times of the overload maintenance log, so that personnel can intuitively determine the frequency of abnormal accidents of the part according to the speed of the flashing frequency, which is convenient for subsequent sorting and viewing the maintenance of multiple parts according to the speed of the flashing frequency, that is, the parts with fast frequency are viewed and maintained first, and the parts with slow frequency are viewed and maintained later, so as to improve the operation safety of the transmission line.
[0255] See Figure 3 , which is a schematic structural diagram of a device for consulting power file maintenance information provided by an embodiment of the present invention. The device for consulting power file maintenance information includes:
[0256] A generation module, configured to generate an exploded view for consulting the equipment file corresponding to the power equipment according to the damaged parts and damaged parts of the power equipment.
[0257] A display module, configured to determine the inspection parts based on the part maintenance log of the damaged part, and send the inspection parts and the exploded view for consultation to the file side screen of the equipment file for display.
[0258] An extraction module, configured to respond to the trigger information of the exploded parts and / or damaged parts in the exploded view for consultation by the management end, determine the parts for consultation and / or the parts for consultation, and extract the part consultation log of the parts for consultation and / or the part consultation log of the parts for consultation.
[0259] A sending module, configured to determine the associated parts for consultation of the part consultation log and the associated parts for consultation of the part consultation log according to the part consultation log and / or the part consultation log, and send the part consultation log and the associated parts for consultation and / or the part consultation log and the associated parts for consultation to the file side screen for display.
[0260] See Figure 4 , which is a schematic hardware structure diagram of an electronic device provided by an embodiment of the present invention. The electronic device 40 includes: a processor 41, a memory 42, and a computer program; wherein, the memory 42 is used to store the computer program, and the memory can also be a flash memory (flash). The computer program is, for example, an application program or a functional module that implements the above method.
[0261] The processor 41 is configured to execute the computer program stored in the memory to implement each step executed by the device in the above method. For specific reference, please refer to the relevant descriptions in the foregoing method embodiments.
[0262] Optionally, the memory 42 can be either independent or integrated with the processor 41.
[0263] When the memory 42 is a device independent of the processor 41, the device may further include:
[0264] A bus 43 for connecting the memory 42 and the processor 41.
[0265] The present invention also provides a readable storage medium storing a computer program, which when executed by a processor is used to implement the methods provided by the above various embodiments.
[0266] Among them, the readable storage medium can be a computer storage medium or a communication medium. The communication medium includes any medium facilitating the transmission of a computer program from one place to another. The computer storage medium can be any available medium accessible by a general or special purpose computer. For example, the readable storage medium is coupled to the processor so that the processor can read information from the readable storage medium and write information to the readable storage medium. Of course, the readable storage medium can also be a component of the processor. The processor and the readable storage medium can be located in an Application Specific Integrated Circuits (ASIC). Additionally, the ASIC can be located in a user device. Of course, the processor and the readable storage medium can also exist as discrete components in a communication device. The readable 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.
[0267] The present invention also provides a program product including execution instructions stored in a readable storage medium. At least one processor of the device can read the execution instructions from the readable storage medium, and the execution of the execution instructions by at least one processor causes the device to implement the methods provided by the above various embodiments.
[0268] In the above embodiment of the device, it should be understood that the processor can be a Central Processing Unit (CPU), or other general purpose processors, Digital Signal Processors (DSPs), Application Specific Integrated Circuits (ASICs), etc. The general purpose processor can be a microprocessor or the processor can also be any conventional processor, etc. The steps of the method disclosed in combination with the present invention can be directly embodied as being completed by the execution of a hardware processor, or by a combination of hardware and software modules in the processor.
[0269] 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 them; although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that they can still modify the technical solutions described in the foregoing embodiments, or perform equivalent replacements on some or all of the technical features; and 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 checking power archive maintenance information, characterized in that: include: Generate a reference explosion diagram of the corresponding equipment files of the power equipment according to the damaged parts and damaged parts of the power equipment; Determine the inspection parts based on the maintenance log of the damaged parts, send the inspection parts and review the exploded diagram to the archive side screen display of the equipment archive; In response to the trigger information of the management end for reviewing the exploded parts and / or damaged parts in the explosion diagram, determine the parts to be reviewed and / or the parts to be reviewed, and retrieve the parts review log of the reviewed parts and / or the parts review log of the reviewed parts; According to the part reference log and / or the part reference log, determine the reference-associated parts of the part reference log and the reference-associated parts of the part reference log, and send the part reference log and the reference-associated parts and / or the part reference log and the reference-associated parts to the archive side screen for display.
2. The method according to claim 1, characterized in that The method of generating a reference explosion diagram of the equipment file corresponding to the electric equipment according to the damaged parts and damaged parts of the electric equipment comprises: Determine the exploded parts in the equipment model corresponding to the power equipment based on the damaged parts, and treat the remaining virtual parts of the equipment model as deleted parts; Deleting parts in the equipment model to obtain an initial model, performing explosion processing on the exploded parts in the initial model to obtain a customized exploded view, and updating the damaged parts of the exploded parts in the customized exploded view based on preset damaged pixel values; Retrieve the parts maintenance log of the exploded parts, classify the parts maintenance log based on the damaged parts, and obtain the parts maintenance log corresponding to the damaged parts; Bind the parts maintenance log with the exploded parts, and bind the parts maintenance log with the corresponding damaged parts to obtain the reference explosion diagram of the corresponding equipment file of the power equipment.
3. The method according to claim 1, characterized in that The method of generating a reference explosion diagram of the equipment file corresponding to the electric equipment according to the damaged parts and damaged parts of the electric equipment comprises: Determine the exploded parts in the equipment model corresponding to the power equipment based on the damaged parts, and regard the remaining virtual parts of the equipment model as static parts; Perform explosion processing on the exploded parts in the equipment model to obtain a customized exploded view, and update the damaged parts of the exploded parts in the customized exploded view based on preset damaged pixel values; Retrieve the parts maintenance log of the exploded parts, classify the parts maintenance log based on the damaged parts, and obtain the parts maintenance log corresponding to the damaged parts; Bind the parts maintenance log with the exploded parts, and bind the parts maintenance log with the corresponding damaged parts to obtain the reference explosion diagram of the corresponding equipment file of the power equipment.
4. The method according to claim 2, characterized in that: The exploded parts in the initial model are exploded to obtain a customized exploded view, including: The direction opposite to the assembly direction of the exploded parts is obtained as the explosion direction, and the exploded parts in the initial model are moved based on the preset explosion distance and explosion direction to obtain an intermediate model; When it is determined that there are no obscured exploded parts in the intermediate model, the intermediate model is used as a custom exploded view; When it is determined that there are obscured exploded parts in the intermediate model, the obscured exploded parts are regarded as outward-moved parts; Obtain the outward displacement volume of the outward displacement part, and select the blank area closest to the outward displacement part as the outward displacement area based on the outward displacement volume; The initial area where the outward-moving part is located is obtained, and the outward-moving part is moved to the outward-moving area, and an arc guide line is generated between the initial area and the outward-moving area to obtain a customized exploded view.
5. The method according to claim 1, characterized in that The step of determining the inspection parts based on the site maintenance log of the damaged site includes: Retrieving a plurality of associated parts corresponding to the damaged part, the damaged part having a plurality of preset associated parts, and determining a device part where the associated part is located as an associated part; Determine the number of associated parts corresponding to each damaged part in the associated parts, and obtain the maintenance times in the maintenance log of the parts corresponding to the damaged parts; Based on the product of the number of parts and the corresponding maintenance times, the number of sub-associations corresponding to each damaged part in the associated parts is obtained, and the number of sub-associations is counted to obtain the number of associations of the associated parts; If the associated part has a damaged part, the maintenance times in the maintenance log of the corresponding part of the associated part are obtained as the main body times; The number of entities and the number of associations are counted to obtain the cumulative number of associated parts. The associated parts are sorted in descending order based on the cumulative number to obtain an associated sequence. The associated parts in the associated sequence are selected as inspection parts based on the selection quantity.
6. The method according to claim 1, characterized in that Also includes: Retrieving the device file corresponding to the file side screen triggered by the management end as the trigger file, and retrieving multiple associated files corresponding to the trigger file, wherein the device file has multiple preset associated files; Counting the number of triggering times of each triggering file, and determining the number of file association times of each associated file based on the number of triggering times; The associated file corresponding to the largest file association number is selected as the file to be consulted and sent to the management end.
7. The method according to claim 1, characterized in that Also includes: Calculate the similarity of the exploded diagram and send the problematic parts to the management end; The adjusted similarity input by the management end is received, and the similarity weight calculated by the similarity is trained and adjusted according to the adjusted similarity to obtain the configuration weight, and the configuration weight is used to replace the similarity weight.
8. The method according to claim 7, characterized in that The similarity calculation of the exploded diagram is performed to obtain the problematic parts and send them to the management end, including: The same damaged parts in the exploded view are obtained as overlapping parts, and the overlapping quantity of the overlapping parts in the exploded view and the total quantity of virtual parts are counted; Obtaining the overlapping type of each overlapping part, wherein the overlapping type includes a replacement type and a repair type, and obtaining the replacement quantity of the overlapping parts corresponding to the replacement type, and the repair quantity of the overlapping parts corresponding to the repair type; The explosion similarity of the exploded diagram is obtained by calculation based on the overlap quantity, replacement quantity, repair quantity and total quantity; The explosion similarity is obtained by the following formula: ; in, is the explosion similarity, is the number of overlaps, is the total quantity, is the overlap weight value, To replace the quantity, To change the weight value, is the number of repairs, is the maintenance weight value, is similarity weight; When it is determined that the explosion similarity is greater than or equal to the preset similarity, the overlapping parts are sent to the management end as problem parts.
9. The method according to claim 8, characterized in that Also includes: Receiving marking information of the corresponding problem part from the management end, and determining the corresponding problem part as a vulnerable part based on the marking information; The vulnerable quantity of vulnerable parts is obtained, and the overlapping quantity, total quantity and replacement quantity are reduced based on the vulnerable quantity, and the explosion similarity is recalculated.
10. The method according to claim 7, characterized in that The step of training and adjusting the similarity weight calculated by the similarity according to the adjusted similarity to obtain the configuration weight includes: If the adjustment similarity is greater than the explosion similarity, an increased training value is obtained according to the difference between the adjustment similarity and the explosion similarity, and a first training number is obtained according to the ratio of the increased training value to the preset training value; According to the increased training value, the similar weights are adjusted for increased training to obtain increased weights: ; in, To increase the weight, is the similarity weight, To adjust the similarity, To increase the adjustment value; The increased weight is used as the current similarity weight, and the above steps of increasing the weight are repeated and the number of training times is counted as the actual number of times, until the actual number of times is equal to the first number of training times, and the configuration weight is obtained; If the adjusted similarity is less than the explosion similarity, a reduced training value is obtained according to the difference between the explosion similarity and the adjusted similarity, and a second training number is obtained according to the ratio of the reduced training value to the preset training value; According to the reduced training value, the similar weights are adjusted to reduce the training value to obtain the reduced weight: ; in, To reduce the weight, is the similarity weight, To adjust the similarity, To reduce the adjustment value; The reduced weight is used as the current similarity weight, and the above steps of reducing the weight are repeated and the number of training times is counted as the actual number of times, until the actual number of times is equal to the second number of training times, to obtain the configuration weight.
11. The method according to claim 1, characterized in that: Also includes: Obtain the power supply voltage of each transmission line in real time based on sensors; When it is determined that the power supply voltage is greater than the preset voltage, the power equipment on the corresponding transmission line is regarded as an overload device, and the current moment is regarded as the overload moment; Obtain the setting sequence of overload equipment from the transmission end to the distribution end on the corresponding transmission line, and use the equipment file corresponding to the overload equipment as the overload file, determine the placement position of the overload file, and splice it according to the setting sequence and placement position to obtain the overload number of the overload equipment; Based on the overload time, the screen background color of the file side screen corresponding to the overload file is adjusted to the overload pixel value, the overload number is displayed on the file side screen of the overload file, and the parts maintenance log in the overload file is retrieved as the overload maintenance log; The accident period in the overload maintenance log is obtained. When it is determined that the overload moment is in the accident period, the explosion parts corresponding to the corresponding overload maintenance log are displayed in a flashing manner.
12. The method according to claim 11, characterized in that Also includes: When it is determined that the overload moment is in the accident period, the corresponding overload maintenance log is used as a historical statistical log, and the number of logs in the historical statistical log is obtained; The preset flickering frequency of the flickering display is retrieved, a flickering adjustment value is obtained according to the ratio of the number of logs to the preset maintenance number, and the adjusted flickering frequency is obtained based on the product of the flickering adjustment value and the preset flickering frequency.
13. A device for checking power archive maintenance information, characterized in that: include: A generation module is used to generate a reference explosion diagram of the corresponding equipment file of the power equipment according to the damaged parts and damaged parts of the power equipment; Display module, used to determine the inspection parts based on the maintenance log of the damaged parts, send the inspection parts and check the exploded diagram to the archive side screen display of the equipment archive; A retrieval module, used to respond to the trigger information of the management end for reviewing the exploded parts and / or damaged parts in the explosion diagram, determine the reviewed parts and / or reviewed parts, and retrieve the parts review log of the reviewed parts and / or the parts review log of the reviewed parts; A sending module is used to determine the referenced parts of the part reference log and the referenced parts of the part reference log according to the part reference log and / or the part reference log, and send the part reference log and the referenced parts and / or the part reference log and the referenced parts to the archive side screen for display.
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