Sodium-cooled fast reactor drawing visualization method and system

Abstract

The invention belongs to the technical field of nuclear power plant instrument control equipment management, and discloses a sodium-cooled fast reactor drawing visualization method and system.The method comprises the steps that a first-layer logic configuration drawing is associated with a design drawing, picture equipment codes of a second-layer monitoring picture configuration drawing are extracted, and then equipment names of the first-layer logic configuration drawing are extracted; and associating the first-layer logic configuration drawing with the second-layer monitoring picture configuration drawing, extracting and corresponding attributes contained in the configurations of the first-layer logic configuration drawing and the second-layer monitoring picture configuration drawing, and jumping to the corresponding upstream or downstream signal point position through the position of the signal point. According to the method, the relationship of the power plant instrument control design file information is established through the drawing visualization technology, rapid information retrieval and correlation between drawings are achieved, and the problem that inter-station jump points cannot jump rapidly is solved. After the drawings are visualized, a retrieval result is provided in a user-friendly manner by extracting the drawing information, so that the retrieval accuracy and efficiency are improved.

Description

Technical Field

[0001] The present application belongs to the technical field of nuclear power plant instrumentation and control equipment management, and in particular, relates to a method and system for visualizing drawings of a sodium-cooled fast reactor. Background Art

[0002] The system configuration diagram of a nuclear power plant is based on the design drawings of the design institute. During the operation and maintenance process, engineers need to modify the system configuration diagram according to the changes in the drawings. With the continuous advancement of technology and the sustainable development of the nuclear power industry, the systems of nuclear power plants have become increasingly complex, and the number of drawings has also increased, making it time-consuming and laborious to query and maintain. At present, three main problems have been found in the application of drawings:

[0003] (1) The first-level logic configuration drawings and the second-level monitoring screen configuration drawings do not realize the visualization of the information contained in the drawings

[0004] Configuration drawings contain information such as the configuration's attribute content, and each configuration drawing contains related design drawings, which are all implicit information in the drawings. In the operation and maintenance process, it is often necessary to extract the implicit information in these drawings and analyze the drawings. Traditional information extraction usually uses manual methods to extract, collect, integrate and connect information. Traditional human means cannot achieve a complete visualization of this information. For example, in traditional control systems, configuration drawings can be opened and viewed, but corresponding design drawings cannot be opened. The first-layer logical configuration drawings cannot be connected to the design drawings. The discrete and scattered information of the first-layer logical configuration drawings and the design drawings has not been integrated and merged, which makes it cumbersome and time-consuming for maintenance personnel to check and correspond. The second-layer monitoring screen configuration drawings of traditional control systems cannot establish a corresponding jump connection with the first-layer logical configuration drawings. In general monitoring screens, you can only operate the corresponding equipment after clicking on the corresponding equipment drawing. If you need to view and operate the corresponding first-layer logical configuration drawings, you need to search for the equipment code in the configuration software to open and view its configuration. If you want to view the design drawings, you need to check the design drawings in the office. This information is very scattered and not interconnected, making it very inconvenient to use.

[0005] (2) Signals between control stations cannot be transferred with one click

[0006] In the traditional control system, the signal jump between the logic configuration drawings of the first layer is not a problem. The jump between a single control station can be realized with one click. However, when jumping between different control stations, it is necessary to determine the control station to jump to according to certain rules. If it is to find the upstream of the intermediate jump point across control stations, it is more complicated. This not only increases the maintenance time for maintenance personnel, but also easily causes human errors. If the signal transmission error needs to be investigated, the maintenance personnel need to find the design drawings, check and analyze the rules and addresses, and find the related drawing pages. The traditional method requires the control station to be associated by consulting the design drawings, and then analyze them one by one, and it is impossible to realize the one-click jump of the jump point between stations. This is also a problem of not associating the implicit information between drawings, and it is impossible to effectively connect the drawings visually. The traditional method requires manual integration of discrete and scattered information, which is both time-consuming and laborious.

[0007] (3) Drawing information cannot be quickly queried, summarized, displayed, retrieved, or exported

[0008] In the traditional operation and maintenance process, it is often necessary to collect a certain type of information on the configuration drawings, such as the PID constants of all regulating devices, all alarm signals, etc. If it is counted manually, it will be time-consuming and laborious, and may also cause omissions. Summary of the invention

[0009] The purpose of this application is to overcome the defects of the prior art and provide a method and system for visualizing sodium-cooled fast reactor drawings. By extracting drawing information, it is possible to realize the associated jump between drawings, the one-key jump of cross-station jump points in a layer of logical configuration drawings, the rapid retrieval of drawing information, and the integrated export of drawing information.

[0010] In order to achieve the above objectives, this application provides the following technical solutions:

[0011] In a first aspect, the present application provides a method for visualizing drawings of a sodium-cooled fast reactor, comprising:

[0012] Step 1: Associate the first-layer logic configuration drawing with the design drawing, extract the screen device code of the second-layer monitoring screen configuration drawing, and then extract the device name of the first-layer logic configuration drawing. The first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing are associated to achieve the association of the design drawing-the first-layer logic configuration drawing-the second-layer monitoring screen configuration drawing;

[0013] Step 2: Extract and correspond the attributes contained in the configuration of the first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing;

[0014] Step 3: Jump to the corresponding upstream or downstream signal point position through the position of the signal point (jump point).

[0015] In some embodiments, the design drawing corresponding to a layer of logical configuration drawings is determined by the system number, page number, and drawing type, and the correspondence between a layer of drawings and the design drawings is confirmed if the standards are met.

[0016] In some embodiments, PDF scanning technology is used to extract the screen device code of the second-layer drawing, and then the device name of the first-layer drawing is extracted, and the two are matched to achieve the correspondence between the first-layer logical configuration drawing of the device and the second-layer monitoring screen configuration drawing.

[0017] In some embodiments, the module attributes are extracted in step 2, the module code of a layer of drawings is obtained through PDF recognition and positioning technology, and then the module code is used as search information to search and locate in the XML file, and the searched module information is associated with the module of a layer of configuration drawings. When a layer of logical configuration drawing module is clicked, the information of this module in the XML file is displayed at the corresponding module position.

[0018] In some embodiments, PID information is extracted in step 2, and all module name information containing PID code in a layer of logical configuration drawings is extracted. After obtaining all PID module information, the PID module is searched and located in the XML file, and the PID module name and its set parameters, such as proportional coefficient, differential time, integral time, positive and negative effects, upper and lower limits of PID output range, etc., are extracted, and the extracted data is sorted and exported.

[0019] In some embodiments, step 3 specifically includes:

[0020] Filter all PDF and XML files of the first-layer configuration logic drawings, and filter out all send drawings for sending signals and get drawings for receiving signals;

[0021] Extract the location information of the information sent (jump point) on each sending module of the send drawing;

[0022] Search the location information of the jump point on the sending module of the send drawing in the corresponding XML file, extract the pin number, function block number, IP address, and domain address of the signal line connected to the jump point at this position. Similarly, extract the location information of the jump point on the receiving module of the get drawing, and then search the attribute information of this position in the corresponding XML file, including the pin number, function block number, IP address, and domain address of the jump point signal line. If the pin number, function block number, IP address, and domain address of the jump point signal line on the send drawing and the jump point on the get drawing can completely match the information, the location of the send jump point on the send drawing and the location of the receive jump point on the get drawing are associated. When clicking on the send jump point location of the send drawing, you can jump to the location of the receive jump point of the get drawing with completely corresponding attribute information. If there are multiple receiving points for the send jump point on the send drawing, the corresponding get drawing will be displayed when you click it, and select the corresponding get drawing to jump to the corresponding drawing.

[0023] This method is to match the attribute information of the jump point, and then establish a jump link between the position information of the sending jump point and the position information of the receiving jump point to achieve the upstream or downstream jump corresponding to the jump point.

[0024] In some embodiments, the method for visualizing a sodium-cooled fast reactor drawing also includes a visualization display of drawings, which is used to display a first-layer logical configuration drawing, a design drawing, a second-layer monitoring screen configuration drawing, and the included attributes of the configuration drawing. The display of drawings includes a first-layer logical configuration drawing, a second-layer monitoring screen drawing, and a design drawing (FD / SAMA drawing). The display of configuration attribute information extraction in the drawings includes KKS code visualization, alarm visualization, and fixed value visualization.

[0025] In a second aspect, the present application provides a sodium-cooled fast reactor drawing visualization system, comprising:

[0026] The association module is used to associate the first-layer logic configuration drawings with the design drawings, the first-layer logic configuration drawings with the second-layer monitoring screen configuration drawings, and the send drawings and get drawings of the first-layer logic configuration drawings across the upstream and downstream signals of the intermediate jump points of the control station;

[0027] The attribute extraction module is used to extract the attributes contained in the configuration of the first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing;

[0028] The display module is used to display drawings and extract and display the configuration attribute information in the drawings. The display of drawings includes the first-level logical configuration drawings, the second-level monitoring screen drawings, and the design drawings (FD / SAMA drawings). The extraction and display of the configuration attribute information in the drawings includes KKS code visualization, alarm visualization, and fixed value visualization.

[0029] In a third aspect, the present application provides an electronic device, including a memory and a processor, wherein the memory stores computer-readable instructions, and the processor implements the sodium-cooled fast reactor drawing visualization method when executing the computer-readable instructions.

[0030] In a fourth aspect, the present application provides a computer-readable storage medium, wherein the computer-readable storage medium stores computer-readable instructions, and when the computer-readable instructions are executed, the method for visualizing a sodium-cooled fast reactor drawing is implemented.

[0031] Compared with the prior art, the sodium-cooled fast reactor drawing visualization method and system provided by the present application have the following advantages:

[0032] Beneficial effects:

[0033] This application uses drawing visualization technology to establish the relationship between power plant instrumentation and control design file information, realizes rapid information retrieval and association between drawings, and solves the problem that jump points between stations cannot be quickly jumped. After drawing visualization, the retrieval results are provided in a user-friendly manner by extracting drawing information, improving retrieval accuracy and efficiency.

[0034] This application realizes the visualization of drawings. The drawings are visualized, and the displayed drawings are consistent with the on-site configuration drawings and design drawings, and can display the corresponding attribute information. The drawings can realize functions such as zooming in and out, switching between upper and lower pages, and printing.

[0035] This application establishes a connection between configuration drawings and design drawings. The page numbers, systems and other information contained in the drawings are visually extracted and linked to the design drawings, realizing the association and one-click jump between configuration drawings and design drawings.

[0036] This application realizes one-click jump of jump points between stations of a layer of logical configuration drawings. The configuration file is extracted and visualized for drawing information, and the jump points are automatically associated to realize one-click jump.

[0037] This application realizes fast positioning. To facilitate searching, the positioning function is set up, and the search object can be located and viewed through fuzzy query results and intelligent associative search.

[0038] This application realizes the export of query and analysis results. It supports the export of various query results, requiring the pictures and graphics to be clearly enlarged and to be directly publishable. It supports the export of analysis results in the format of editable tables or text. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] In order to more clearly illustrate the technical solution of the present application, the following is a brief introduction to the drawings required for the technical description.

[0040] Figure 1A flow chart of the method for visualizing drawings of a sodium-cooled fast reactor provided in this application. DETAILED DESCRIPTION

[0041] The following is further explained in detail through specific implementation methods.

[0042] like Figure 1 As shown, the present application provides a method for visualizing drawings of a sodium-cooled fast reactor, which is mainly based on a configuration PDF file and an XML file of configuration information. The PDF file includes a first-layer logic configuration drawing, a second-layer monitoring screen configuration drawing and a design drawing, and the XML file contains configuration information of the configuration page. The method includes:

[0043] Step 1: Associate the first-layer logic configuration drawing with the design drawing, because the design drawing is the configuration basis of the first-layer logic configuration drawing. If there is a problem with the configuration, the maintenance personnel need to find the design drawing and check whether the logic of the design drawing is correctly converted into the first-layer logic configuration. Extract the screen device code of the second-layer monitoring screen configuration drawing, and then extract the device name of the first-layer logic configuration drawing. The first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing are associated. Realize the association between the design drawing, the first-layer logic configuration drawing, and the second-layer monitoring screen configuration drawing;

[0044] A layer of logical configuration drawings is associated with design drawings, so that the design drawings can be opened at the same time when the layer of logical configuration drawings is opened. By establishing an association between the layer of logical configuration drawings and the design drawings, they can be uniquely matched. To establish an association between the layer of logical configuration drawings and the design drawings, it is necessary to find the association attributes of the two. The design drawings corresponding to the layer of logical configuration drawings are determined by the system number, page number, and drawing type (FD / SAMA diagram). If these three standards are met at the same time, the correspondence between the layer of logical configuration drawings and the design drawings can be uniquely confirmed. Using PDF recognition and positioning technology, the system number, page number, and drawing type of the design drawings are extracted, and then matched with the drawing number of the layer of logical configuration drawings. If they can be matched according to the rules, this design drawing is associated with the layer of logical configuration drawings.

[0045] The second-layer monitoring screen configuration drawing mainly describes the equipment distribution of various systems in the power plant on site and the pipeline flow direction. The main contents of the second-layer monitoring screen configuration drawing include the drawings of on-site equipment, pipeline lines, and detection equipment signal drawings. The second-layer monitoring screen configuration drawing also uses PDF scanning technology to extract the equipment code on the second-layer monitoring screen configuration drawing, and then extract the equipment name of the first-layer logical configuration drawing. The equipment drawings on the second-layer monitoring screen configuration drawing are matched with the first-layer logical configuration drawing, thereby realizing the association between the second-layer monitoring screen configuration drawing and the first-layer logical configuration drawing. When the maintenance personnel click on the equipment drawing on the second-layer monitoring screen configuration drawing, they can jump to the first-layer logical configuration drawing of the corresponding equipment.

[0046] Step 2: Extract attribute information. Extract and correspond the attributes contained in the first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing.

[0047] Exemplarily, the extraction of attribute information is explained by taking the example of module attribute and PID information extraction.

[0048] Module attribute extraction: The module code of a layer of logical configuration drawings is obtained through PDF recognition and positioning technology, and the module code is used as search information to search and locate the attribute information of this module in the XML file. The searched module attribute information is associated with the location of the module of a layer of logical configuration drawings. When a module of a layer of logical configuration drawings is clicked, the attribute information of this location in the XML file is displayed.

[0049] PID information extraction: Through PDF recognition and positioning technology, all module name information containing "PID" code in a layer of logical configuration drawings is extracted. After obtaining all PID module information, the PID module code is searched and located in the XML file, and the PID module name and its set PID parameter value are extracted from the XML file. The extracted data is organized and summarized for display, and can support Excel export.

[0050] Step 3: Jump between drawing signals. Jump to the corresponding upstream or downstream signal point through the position of the signal point (jump point).

[0051] Traditional signal jumps between control stations cannot be achieved with one click in configuration software, but can be achieved with one click using drawing visualization technology.

[0052] By screening all the PDF and XML files of one-layer drawings, all the send drawings for sending signals and get drawings for receiving signals are screened out, and the position information of each sent information (jump point) of the send drawing is extracted. The position information of the jump point on the sending module of the send drawing is searched in the corresponding XML file, and the pin number, function block number, IP address, and domain address of the signal line connected to the jump point at this position are extracted. Similarly, the position information of the jump point on the receiving module of the get drawing is extracted, and then the attribute information of this position is searched in the corresponding XML file, including the pin number, function block number, IP address, and domain address of the jump point signal line. If the pin number, function block number, IP address, and domain address of the jump point on the send drawing and the jump point on the get drawing can fully match the information of the jump point signal line, the position of the send jump point on the send drawing and the position of the receive jump point on the get drawing are associated. When the send jump point position of the send drawing is clicked, it can jump to the position of the receive jump point of the get drawing with completely corresponding attribute information. If there are multiple receive points for the send jump point on the send drawing, the corresponding get drawing will be displayed when clicked, and the corresponding get drawing will be selected to jump to the corresponding drawing. This method is to match the attribute information of the jump point, and then establish a jump link between the position information of the send jump point and the position information of the receive jump point to achieve the upstream or downstream jump corresponding to the jump point.

[0053] This location information extraction and recognition technology is different from simple PDF recognition and positioning technology. It has location uniqueness, is not affected by inconsistent roll calls, and is more generalizable.

[0054] Step 4: Visualization and operation of drawing information. This includes the display of drawings and the extraction and display of drawing configuration attribute information. The display of drawings includes the first-layer logical configuration drawings, the second-layer monitoring screen drawings, and the design drawings (FD / SAMA drawings). The extraction and display of configuration attribute information in the drawings includes KKS code visualization, alarm visualization, and fixed value visualization. The extracted information, display content, and available operations are as follows:

[0055] (1) Visual display of KKS code

[0056] KKS code query includes basic display and detailed display.

[0057] Basic display: Click the KKS code of any module position in the drawing to display the basic information of the configuration element in a list, including name, description, control station address, module type, signal type, upper range limit, lower range limit, unit, address, type, FD / SAMA drawing page, reference screen, etc.

[0058] Detailed display: For the KKS code of any module position number in the drawing, you can query the configuration details in the form of a pop-up window, including basic properties, input channel settings, signal conversion processing, alarm settings, fault safety processing, monitoring settings, SOE settings, etc.

[0059] (2) Visual display of alarms

[0060] Click the KKS code of any alarm position number in the drawing to display the basic information of the alarm configuration element in a list, including alarm point name, alarm description, alarm color, high / low alarm type, alarm value, high / low alarm hysteresis value, signal KKS code that triggers the alarm, alarm partition, alarm enable, etc.

[0061] Alarm attribute display: supports filtering, querying and displaying the real-time values ​​in the version configuration and the basic information attributes of the alarm query.

[0062] Detailed display: For the KKS code of any alarm position number in the drawing, the configuration details can be displayed in a pop-up window, including basic properties, input channel settings, signal conversion processing, alarm settings, fault safety processing, monitoring settings, input source code settings, custom properties, etc.

[0063] (3) Visualization of FD / SAMA charts

[0064] Displays the information of all FD / SAMA drawings, including system code, file name, transfer number, version, type, DCN, drawing number, page number and other attribute information.

[0065] Attribute display: All relevant information can be queried and displayed based on any attribute information of all FD / SAMA diagrams.

[0066] Display form: It can be displayed in a list or drawing opened and marked.

[0067] (4) Visual display of fixed values

[0068] Basic display: supports querying fixed values ​​in the form of module KKS, and displays the basic configuration information of the fixed value module in the form of a list, including device KKS code, function block type, overview, control station address, FD / SAMA diagram, PID proportional coefficient, PID integral gain / overflow, PID differential time, positive / negative action, deviation dead zone, maximum output per second, etc.

[0069] (5) Visual display of the first-layer logical configuration drawing

[0070] Drawing list: Generate a drawing list based on the imported drawings, including drawing code, drawing description and version information, to achieve one-click jump between station jump points (including jumps between control stations and within control stations), and association and jump between drawings and design drawings.

[0071] Data conversion: Based on the provided drawings, tables and other materials, analyze and display all the existing information in the drawings, including configuration information and drawing editing information.

[0072] Element information display: For each function block in the drawing, you can query the function block properties, basic parameters (input, output parameters, IO values, overview) and quality bit information, and related design drawings in real time.

[0073] Display form: The original information on the drawing is required to be displayed as is, and the function block query information is displayed in a pop-up window according to the query requirements.

[0074] (6) Visual display of the second-layer monitoring screen configuration drawing:

[0075] Drawing list: Generate a drawing list based on the imported drawings, including the screen code, screen description and version information.

[0076] Data conversion: Based on the imported drawings, tables and other data, analyze and display all the existing information in the drawings, including configuration information and drawing editing information.

[0077] Element information display: For each screen element in the drawing, you can query the graphic template attributes and configuration values ​​in real time, including but not limited to the original bit number, replacement bit number, upper and lower limits, referenced FD / SAMA diagrams, etc.

[0078] Display form: The original information on the drawing is required to be displayed as it is, and the screen element configuration query information is displayed in the form of a pop-up window according to the query requirements.

[0079] In addition, based on the above, the present application provides a method for visualizing drawings of a sodium-cooled fast reactor. The present application also provides a system for visualizing drawings of a sodium-cooled fast reactor, including:

[0080] The association module is used to associate the first-layer logic configuration drawings with the design drawings, the first-layer logic configuration drawings with the second-layer monitoring screen configuration drawings, and the send drawings and get drawings of the first-layer logic configuration drawings across the upstream and downstream signals of the intermediate jump points of the control station;

[0081] The attribute extraction module is used to extract the attributes contained in the first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing;

[0082] The display module is used to display drawings and extract and display the configuration attribute information in the drawings. The display of drawings includes the first-level logical configuration drawings, the second-level monitoring screen drawings, and the design drawings (FD / SAMA drawings). The extraction and display of the configuration attribute information in the drawings includes KKS code visualization, alarm visualization, and fixed value visualization.

[0083] In addition, the present application also provides an electronic device, including a memory and a processor, wherein the memory stores computer-readable instructions, and when the processor executes the computer-readable instructions, the above-mentioned sodium-cooled fast reactor drawing visualization method is implemented.

[0084] In addition, the present application also provides a computer-readable storage medium, on which computer-readable instructions are stored. When the computer-readable instructions are executed, the above-mentioned sodium-cooled fast reactor drawing visualization method is implemented.

[0085] Computer readable media include permanent and non-permanent, removable and non-removable media that can be implemented by any method or technology to store information. Information can be computer readable instructions, data structures, program modules or other data. Examples of computer storage media include, but are not limited to, phase change memory (PRAM), static random access memory (SRAM), dynamic random access memory (DRAM), other types of random access memory (RAM), read-only memory (ROM), electrically erasable programmable read-only memory (EEPROM), flash memory or other memory technology, compact disk read-only memory (CD-ROM), digital versatile disk (DVD) or other optical storage, magnetic cassettes, magnetic tape magnetic disk storage or other magnetic storage devices or any other non-transmission media that can be used to store information that can be accessed by a computing device.

[0086] In summary, for the problem of drawing information visualization, this application realizes the visualization of drawing information by extracting the PDF and XML file information of the configuration file; for the problem of establishing connection with design drawings, this application identifies the system number, drawing type and drawing number of the configuration drawing, and then establishes a connection with the page number of the design drawing, so that after opening a layer of logical configuration diagram, you can click the FD / SAMA diagram icon to jump to the corresponding design drawing.

[0087] In order to solve the problem that the monitoring screen cannot jump to display the configuration and design drawings, this application uses the technology of identifying the screen PDF to obtain the device code, and then scans the PDF's layer of logical configuration diagram to locate which configuration page the device code is on for identification and linking.

[0088] Regarding the problem of signal transmission jump between control stations, this application collects configuration drawing data (PDF configuration diagram and XML file), first identifies and filters out the signal sending send page and signal receiving get page, finds the starting end of the signal connection line and determines the position relationship in the XML file, and then finds the relevant connection information in the XML file based on the position relationship. When the signal point sent by the control station is clicked, it can automatically jump to the receiving point. Similarly, when the receiving signal point is clicked, it can also jump to the sending signal point.

[0089] Regarding how to obtain configuration diagram information and summarize the display, this application uses PDF recognition technology and module location information to extract each module attribute from the corresponding XML file, and finally summarizes and outputs it in a table form.

[0090] Drawing visualization technology solves the problem of visualization of implicit information in drawings and jump between drawing control stations. In addition, drawing visualization extracts relevant information of drawings and summarizes them to display a certain type of attributes and functions in a more intuitive form. Drawing visualization technology not only associates scattered and dispersed information, but also greatly improves the efficiency of control system maintenance personnel.

[0091] The above description is only a specific implementation manner of the present application, but the protection scope of the present application is not limited thereto. Any changes or substitutions that can be easily conceived by any technician familiar with the technical field within the technical scope disclosed in the present application should be covered within the protection scope of the present application.

Claims

1. A method for visualizing drawings of a sodium-cooled fast reactor, characterized in that: include: Step 1: Associate the first-layer logic configuration drawing with the design drawing, extract the screen device code of the second-layer monitoring screen configuration drawing, and then extract the device name of the first-layer logic configuration drawing, so that the first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing are associated; Step 2: Extract and correspond the attributes contained in the configuration of the first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing; Step 3: Jump to the corresponding upstream or downstream signal point position according to the location information of the signal point.

2. The method for visualizing a sodium-cooled fast reactor drawing according to claim 1, characterized in that: In step 1, the design drawing corresponding to the one-layer logical configuration drawing is determined by the system number, page number, and drawing type, and the correspondence between the one-layer logical configuration drawing and the design drawing is confirmed if the standards are met.

3. The method for visualizing drawings of a sodium-cooled fast reactor according to claim 1, characterized in that: In step 1, the screen device code of the second-layer monitoring screen configuration drawing is extracted using PDF scanning technology, and then the device name of the first-layer logical configuration drawing is extracted, and the two are matched to achieve the correspondence between the first-layer logical configuration drawing of the device and the second-layer monitoring screen configuration drawing.

4. The method for visualizing a sodium-cooled fast reactor drawing according to claim 1, characterized in that: In step 1, the module attributes are extracted, and the module code of the first-layer logical configuration drawing is obtained through PDF recognition and positioning technology. The module code is then used as search information to search and locate the attribute information of this module in the XML file, and the searched module attribute information is associated with the module position on the first-layer logical configuration drawing. Through the position of the module on the first-layer logical configuration drawing, the module information at this position in the XML file is displayed on the first-layer logical configuration drawing.

5. The method for visualizing drawings of a sodium-cooled fast reactor according to claim 1, characterized in that: In step 1, extract the PID information, extract all the module name information containing PID code in the first layer of logical configuration drawings, and after obtaining all the PID module information, search for the PID module name in the XML file and locate the PID module, extract the PID module name and its set PID parameter value, and organize and display the extracted data.

6. The method for visualizing drawings of sodium-cooled fast reactor according to claim 1, characterized in that: Step 3 specifically includes: Filter all PDF and XML files of the first-layer logical configuration drawings, and filter out all send drawings for sending signals and get drawings for receiving signals; Extract the location information of the information sent on each sending module of the send drawing; Search the location information of the jump point on the send drawing sending module in the corresponding XML file, extract the pin number, function block number, IP address, and domain address of the signal line connected to the send jump point at this location, extract the location information of the jump point on the get drawing receiving module, and then search the attribute information of this location in the corresponding XML file; For the jump point on the send drawing and the jump point on the get drawing, if the pin number, function block number, IP address, and domain address of the jump point signal line can completely match the information, the position of the send jump point on the send drawing and the position of the receive jump point on the get drawing are associated; Through the sending jump point position of the send drawing, jump to the receiving jump point position of the get drawing that completely corresponds to the attribute information. If the sending jump point on the send drawing has multiple receiving points, the corresponding get drawing will be displayed. Select the corresponding get drawing to jump to the corresponding drawing.

7. The method for visualizing drawings of a sodium-cooled fast reactor according to claim 1, characterized in that: The method also includes a visual display of drawings, which is used to display a first-layer logical configuration drawing, a design drawing, a second-layer monitoring screen configuration drawing, and the included attributes of the configuration drawing.

8. A sodium-cooled fast reactor drawing visualization system, characterized in that: include: The association module is used to associate the first-layer logic configuration drawings with the design drawings, associate the first-layer logic configuration drawings with the second-layer monitoring screen configuration drawings, and associate the send drawings and get drawings of the first-layer logic configuration drawings with the upstream and downstream signals across the intermediate jump points of the control station; The attribute extraction module is used to extract the attributes contained in the first-layer logic configuration drawing and the second-layer monitoring screen configuration drawing; The display module is used to display drawings and extract and display the configuration attribute information in the drawings.

9. An electronic device, characterized in that: The method comprises a memory and a processor, wherein the memory stores computer-readable instructions, and the processor implements the sodium-cooled fast reactor drawing visualization method according to any one of claims 1 to 7 when executing the computer-readable instructions.

10. A computer-readable storage medium, characterized in that: The computer-readable storage medium stores computer-readable instructions, and when the computer-readable instructions are executed, the method for visualizing a sodium-cooled fast reactor drawing according to any one of claims 1 to 7 is implemented.

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