High-voltage electrical design drawing generation method and device

Abstract

The invention provides a high-voltage electrical design drawing generation method and device, and relates to the technical field of electrical design. The method comprises the following steps: acquiring high-voltage electrical schematic diagram design data, and checking the high-voltage electrical schematic diagram design data; generating high-voltage electrical wiring diagram design data according to the high-voltage electrical schematic diagram design data if it is determined that the checking result is passed, and updating the high-voltage electrical wiring diagram design data according to the changed high-voltage electrical schematic diagram design data if it is monitored that the high-voltage electrical schematic diagram design data is changed; and storing the drawing design data, and performing cooperative control on the drawing design data according to the access authority corresponding to the professional type of the user to obtain the high-voltage electrical design drawing. The device executes the method. According to the method and the device provided by the embodiment of the invention, the high-voltage electrical design drawing can be synergistically, efficiently and accurately generated.

Description

Technical Field

[0001] The present invention relates to the technical field of electrical design, and in particular to a method and device for generating high-voltage electrical design drawings. Background Art

[0002] The design of high-voltage electrical equipment is crucial in power systems. With the continuous growth of electricity demand and the increasing complexity of power systems, higher requirements are being placed on the performance, reliability, and safety of high-voltage electrical equipment. The design of high-voltage electrical principles and wiring diagrams is a key step in the development of high-voltage electrical equipment. The quality and efficiency of these designs directly impact the construction cycle, cost, and operational stability of the entire power project.

[0003] Traditional high-voltage electrical design methods present numerous challenges. When designing high-voltage electrical schematics and wiring diagrams, designers often spend considerable time and effort manually drawing them. For example, using traditional design methods, the design cycle for the electrical schematics and wiring diagrams for a medium-sized high-voltage substation can take months. This is not only inefficient but also prone to human error, such as incorrect wiring connections and mislabeled component parameters. Once discovered during actual construction or operation, these errors can have serious consequences, potentially leading to equipment failures, power outages, and even endangering personnel safety.

[0004] Furthermore, the complexity of high-voltage electrical equipment leads to varying design styles and habits among designers, making standardization and regularization difficult. On a high-voltage electrical project involving multiple design teams, inconsistent design styles led to poor readability and comprehensibility of drawings, increasing communication costs and project management difficulties, severely impacting project progress.

[0005] Furthermore, traditional design methods also have shortcomings in data management. High-voltage electrical design involves a large amount of data, including component parameters and electrical connection information. Traditionally, this data is stored in a dispersed manner, lacking effective integration and management. When design modifications or optimizations are needed, it's difficult to quickly and accurately access the relevant data, resulting in inefficient design changes.

[0006] With the rapid development of computer technology and information technology, electrical design software has emerged. EPLAN, as a professional electrical design software, has been widely used in the field. However, its current application in high-voltage electrical principle and wiring diagram design is not yet fully developed, and its advantages have not been fully utilized to solve the aforementioned problems in high-voltage electrical design.

[0007] Currently, the existing technology uses EPLAN software for conventional electrical design and then adapts the high-voltage electrical components based on this. This approach mainly relies on the basic drawing functions of EPLAN software, such as drawing electrical symbols and connecting lines, to complete the preliminary design of high-voltage electrical principles and wiring diagrams.

[0008] In this implementation, designers manually add connection points and annotate wire information when drawing wiring diagrams. For example, in a high-voltage switchgear electrical design, designers would find component symbols such as circuit breakers, disconnectors, and current transformers in EPLAN software, place them in the appropriate locations, and connect them to form a schematic. Next, based on the connections in the schematic, they would manually draw the wire connections on the wiring diagram page, annotating information such as the wire gauge and color.

[0009] However, this solution has obvious limitations, as shown below:

[0010] First, while EPLAN software provides a component library, the specialized library for high-voltage electrical components is incomplete, and the components are not parameterized to a high degree. Designers often need to manually enter numerous component parameters when selecting components, which not only increases workload but also makes errors more likely. For example, when selecting a high-voltage circuit breaker, multiple parameters such as rated voltage, rated current, and interrupting current must be manually entered. Any input errors can directly impact the accuracy of the design.

[0011] Second, during the design process, there is a lack of effective intelligent design assistance for complex high-voltage electrical systems. For example, when designing high-voltage line connections, there is no automatic check of the rationality of the line connections based on electrical rules. Designers still need to rely on their own experience to make judgments, which increases the risk of design errors.

[0012] Third, the solution lacks automation in the design process. From schematic design to wiring diagram generation, there's a lack of effective data transfer and automated conversion mechanisms. Designers still have to complete most of the work manually, resulting in low design efficiency. For example, after the schematic design is complete, the connection information in the schematic needs to be manually mapped to the wiring diagram, a tedious and error-prone process.

[0013] Fourthly, this solution also failed to meet the requirements of high-voltage electrical design in terms of data management and collaborative design. Because high-voltage electrical design involves collaboration across multiple disciplines and teams, it requires efficient data sharing and collaborative working mechanisms. However, existing conventional EPLAN-based design solutions suffer from fragmented data storage and management, hindering data exchange and collaborative design between different teams and making efficient project management difficult. Summary of the Invention

[0014] In response to the problems in the prior art, an embodiment of the present invention provides a method and device for generating high-voltage electrical design drawings, which can at least partially solve the problems in the prior art.

[0015] In one aspect, the present invention provides a method for generating high-voltage electrical design drawings, comprising:

[0016] Acquiring high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data;

[0017] If the check result is determined to be passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if the high-voltage electrical schematic design data is monitored to change, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data;

[0018] Store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively control the drawing design data based on the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings;

[0019] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0020] Wherein, the obtaining of high-voltage electrical schematic design data includes:

[0021] In response to a design operation performed by a user based on a target high-voltage electrical component selected from a high-voltage electrical component library, parameters of the target high-voltage electrical component are loaded into a high-voltage electrical schematic diagram to obtain the high-voltage electrical schematic diagram design data.

[0022] Wherein, obtaining the high-voltage electrical component library includes:

[0023] Collect data on high-voltage electrical components;

[0024] Classifying high-voltage electrical component data according to the functions and voltage levels of the high-voltage electrical components, and entering the classified data into the high-voltage electrical component library;

[0025] The high-voltage electrical component library is updated and maintained.

[0026] The checking and verifying of the high-voltage electrical schematic design data includes:

[0027] Performing electrical rule checking and verification on the high-voltage electrical schematic design data according to preset electrical rules;

[0028] If the electrical rule check result is determined to be passed, then performing a logic rule check on the high-voltage electrical schematic design data according to preset logic rules;

[0029] If it is determined that the logic rule check result is passed, then the check result is determined to be passed.

[0030] The method for generating high-voltage electrical design drawings further includes:

[0031] If it is determined that the electrical rule check result fails, generating a first auxiliary modification prompt message indicating that the electrical design does not conform to the first auxiliary modification prompt message;

[0032] If it is determined that the logic rule check result is failed, a second auxiliary modification prompt message is generated indicating that the interlocking logic design is not met.

[0033] The step of generating high-voltage electrical wiring diagram design data based on the high-voltage electrical schematic design data includes:

[0034] Drawing a wire connection relationship in a high-voltage electrical wiring diagram according to the electrical connection information of the high-voltage electrical schematic design data;

[0035] Marking the starting point and end point of the wire according to the component parameter information of the high-voltage electrical schematic design data;

[0036] The attribute information of the wire is marked according to the electrical connection information and the component parameter information.

[0037] In one aspect, the present invention provides a device for generating high-voltage electrical design drawings, comprising:

[0038] A receiving unit, configured to receive a video image captured by a camera of the steel billet being cut by the flame cutting machine;

[0039] an acquisition unit, configured to acquire high-voltage electrical schematic design data and to check and verify the high-voltage electrical schematic design data;

[0040] a generating unit for generating high-voltage electrical wiring diagram design data based on the high-voltage electrical schematic design data if the check result is determined to be passed, and updating the high-voltage electrical wiring diagram design data based on the changed high-voltage electrical schematic design data if a change in the high-voltage electrical schematic design data is detected;

[0041] The collaborative unit is used to store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and to collaboratively control the drawing design data according to the access rights corresponding to the user's professional type to obtain the high-voltage electrical design drawings;

[0042] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0043] In another aspect, an embodiment of the present invention provides a computer device, comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein when the processor executes the computer program, the following method is implemented:

[0044] Acquiring high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data;

[0045] If the check result is determined to be passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if the high-voltage electrical schematic design data is monitored to change, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data;

[0046] Store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively control the drawing design data based on the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings;

[0047] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0048] An embodiment of the present invention provides a computer-readable storage medium, including:

[0049] The computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the following method is implemented:

[0050] Acquiring high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data;

[0051] If the check result is determined to be passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if the high-voltage electrical schematic design data is monitored to change, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data;

[0052] Store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively control the drawing design data based on the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings;

[0053] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0054] An embodiment of the present invention further provides a computer program product, comprising a computer program. When the computer program is executed by a processor, the computer program implements the following method:

[0055] Acquiring high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data;

[0056] If the check result is determined to be passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if the high-voltage electrical schematic design data is monitored to change, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data;

[0057] Store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively control the drawing design data based on the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings;

[0058] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0059] The high-voltage electrical design drawing generation method and device provided by the embodiment of the present invention obtain high-voltage electrical schematic design data and check and verify the high-voltage electrical schematic design data; if it is determined that the check and verification result is passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if it is monitored that the high-voltage electrical schematic design data changes, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data; the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design are stored, and the drawing design data are collaboratively controlled according to the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings; wherein the drawing design data includes the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design, which can collaboratively, efficiently, and accurately generate high-voltage electrical design drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0060] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative work. In the drawings:

[0061] Figure 1 The figure is a flow chart of a method for generating high-voltage electrical design drawings provided by one embodiment of the present invention.

[0062] Figure 2 It is a flow chart of a method for generating high-voltage electrical design drawings provided by another embodiment of the present invention.

[0063] Figure 3 It is a flow chart of a method for generating high-voltage electrical design drawings provided by another embodiment of the present invention.

[0064] Figure 4 This is an architecture diagram of the data management and collaborative design platform provided by an embodiment of the present invention.

[0065] Figure 5 The figure is a schematic diagram of the structure of a high-voltage electrical design drawing generating device provided by one embodiment of the present invention.

[0066] Figure 6 A schematic diagram of the physical structure of a computer device provided in an embodiment of the present invention. DETAILED DESCRIPTION

[0067] To make the purpose, technical solutions and advantages of the embodiments of the present invention more clear, the embodiments of the present invention are further described in detail below with reference to the accompanying drawings. Here, the illustrative embodiments of the present invention and their descriptions are used to explain the present invention, but are not intended to limit the present invention. It should be noted that, unless there is a conflict, the embodiments and features in the embodiments of this application can be combined with each other in any manner.

[0068] Explanation of related terms:

[0069] EPLAN: A design software offering software and service solutions in the fields of electrical, automation, and mechatronic engineering. It is a leading design software for machine, plant, and distribution cabinet manufacturers. Its extensive product portfolio includes EPLAN Electric P8 for electrical design and management, EPLAN Fluid for fluid design, EPLAN PPE for process control and instrumentation design, and EPLAN Pro Panel for designing enclosures and cabinets. The current EPLAN Electric P8 incorporates the strengths of previous versions and incorporates modern operating systems for a better user experience.

[0070] High-voltage electrical equipment generally refers to electrical equipment and systems used in power systems with operating voltages of 1 kV and above. These devices, including high-voltage circuit breakers, disconnectors, current transformers, voltage transformers, and lightning arresters, perform crucial functions in power systems, including the transmission, distribution, control, and protection of electrical energy. For example, high-voltage circuit breakers are used to disconnect and connect high-voltage circuits during normal and fault conditions; current transformers convert high currents in high-voltage circuits into lower currents suitable for measurement and protection devices.

[0071] An electrical schematic diagram uses graphical symbols and lines to illustrate the connections and operating principles of electrical components within a circuit. It's a core document in electrical design. Through it, designers can clearly demonstrate the entire high-voltage electrical system's structure, the electrical connections between components, and signal flow, providing a crucial foundation for subsequent wiring diagram design, equipment selection, and system commissioning. For example, a high-voltage substation schematic details the connections between components like transformers, high-voltage switchgear, and mutual inductors.

[0072] A wiring diagram is a drawing that shows the actual wiring relationships between electrical components in electrical equipment or devices. Based on the electrical schematic, it details the installation location of each electrical component, the terminal numbers, and the specifications, models, and colors of the wires. It is used to guide the installation, commissioning, and maintenance of electrical equipment. In high-voltage electrical design, wiring diagrams ensure the correct connection between high-voltage equipment and the reliable operation of the power system. For example, a wiring diagram for a high-voltage switchgear cabinet will clearly specify the wiring locations on each terminal block and the parameters of the connected wires.

[0073] Component Library: In EPLAN software, the component library is a database that stores information about various electrical components. It contains a large number of predefined electrical component symbols, models, and related technical parameters. In high-voltage electrical design, designers can quickly select required high-voltage components, such as high-voltage circuit breakers and disconnectors, from the component library and insert them into the design drawings.

[0074] Figure 1 FIG. 1 is a flow chart of a method for generating high-voltage electrical design drawings according to an embodiment of the present invention. Figure 1 As shown, the method for generating high-voltage electrical design drawings provided by the embodiment of the present invention includes:

[0075] Step S1: obtaining high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data.

[0076] Step S2: If it is determined that the inspection and verification result is passed, high-voltage electrical wiring diagram design data is generated based on the high-voltage electrical schematic design data; if it is monitored that the high-voltage electrical schematic design data has changed, the high-voltage electrical wiring diagram design data is updated based on the changed high-voltage electrical schematic design data.

[0077] Step S3: storing the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively controlling the drawing design data according to the access rights corresponding to the user's professional type to obtain the high-voltage electrical design drawings;

[0078] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0079] In the above step S1, the device obtains high-voltage electrical schematic design data and checks and verifies the high-voltage electrical schematic design data. The device can be a computer device that executes the method. The acquisition, storage, use, and processing of data in the technical solution of this application comply with relevant regulations. The acquisition of high-voltage electrical schematic design data includes:

[0080] In response to a design operation performed by a user based on a target high-voltage electrical component selected from a high-voltage electrical component library, parameters of the target high-voltage electrical component are loaded into a high-voltage electrical schematic diagram to obtain the high-voltage electrical schematic diagram design data.

[0081] Obtaining the high-voltage electrical component library includes:

[0082] Collect data on high-voltage electrical components;

[0083] Classifying high-voltage electrical component data according to the functions and voltage levels of the high-voltage electrical components, and entering the classified data into the high-voltage electrical component library;

[0084] The high-voltage electrical component library is updated and maintained.

[0085] First, the component library of EPLAN software is expanded and optimized to build a component library for high-voltage electrical design. By collecting and organizing the detailed parameters and technical data of various high-voltage electrical components, including but not limited to high-voltage circuit breakers, disconnectors, current transformers, voltage transformers, lightning arresters and other components, these components are entered into the component library in a parameterized form. Each component has a unique identifier in the library and is associated with its complete electrical parameters, such as rated voltage, rated current, breaking current, transformation ratio, etc. For example, for a high-voltage circuit breaker with a rated voltage of 110kV, a rated current of 2000A, and a breaking current of 40kA, these parameters are recorded in detail in the component library. When the designer selects the component during the design process, the relevant parameters can be automatically loaded into the design drawing without manual input, greatly reducing the possibility of parameter input errors.

[0086] To facilitate component search and use for designers, the component library is categorized and managed. Components are categorized by attributes such as function and voltage level, allowing designers to quickly find the required high-voltage electrical components through keyword searches or by navigating through the categorized catalog. For example, all components with voltage levels of 110kV and above are grouped into one category, which is then further subdivided by function, such as circuit breakers and disconnectors, improving component search efficiency.

[0087] The high-voltage electrical component data is classified according to their functions and voltage levels, as shown in Table 1:

[0088] Table 1

[0089] Serial number A product group Product Group Part Number Type number name Rated current Rated voltage 1 Electrical Engineering safety equipment SE.40GI-E16 40GI-E16 SF6 gas circuit breaker Ie=630A 40.5kV 2 Electrical Engineering safety equipment SE.40GI-E16 40GI-E16 SF6 gas circuit breaker Ie=1250A 40.5kV 3 Electrical Engineering safety equipment SE.40GI-E16 40GI-E16 SF6 gas circuit breaker Ie=1600A 40.5kV 4 Electrical Engineering safety equipment SE.40GI-E20 40GI-E20 SF6 gas circuit breaker Ie=630A 40.5kV 5 Electrical Engineering safety equipment SE.40GI-E20 40GI-E20 SF6 gas circuit breaker Ie=1250A 40.5kV 6 Electrical Engineering safety equipment SE.40GI-E20 40GI-E20 SF6 gas circuit breaker Ie=1600A 40.5kV 7 Electrical Engineering safety equipment SE.40GI-E25 40GI-E25 SF6 gas circuit breaker Ie=630A 40.5kV 8 Electrical Engineering safety equipment SE.40GI-E25 40GI-E25 SF6 gas circuit breaker Ie=1250A 40.5kV 9 Electrical Engineering safety equipment SE.40GI-E25 40GI-E25 SF6 gas circuit breaker Ie=1600A 40.5kV 10 Electrical Engineering safety equipment SE.40GI-E25 40GI-E25 SF6 gas circuit breaker Ie=2000A 40.5kV 11 Electrical Engineering safety equipment SE.40GI-E25 40GI-E25 SF6 gas circuit breaker Ie=3150A 40.5kV 12 Electrical Engineering safety equipment SE.40GI-E31 40GI-E31 SF6 gas circuit breaker Ie=2000A 40.5kV 13 Electrical Engineering safety equipment SE.40GI-E31 40GI-E31 SF6 gas circuit breaker Ie=3150A 40.5kV

[0090] The following are instructions for collecting data on high-voltage electrical components:

[0091] Collect technical data on common high-voltage electrical components on the market, including product manuals and catalogs. For high-voltage circuit breakers, for example, record detailed parameters such as model, rated voltage, rated current, interrupting current, operating mechanism type, and dimensions. Compare and organize parameters for similar components from different manufacturers to ensure comprehensive and representative data in the component library.

[0092] For high-voltage electrical components with special specifications or customization, we communicate with relevant manufacturers to obtain accurate technical parameters and incorporate them into the component library. For example, for high-voltage electrical components with special insulation requirements or short-circuit withstand capabilities, their special parameter information is recorded in detail to meet diverse needs during design.

[0093] The high-voltage electrical component data is classified according to the function and voltage level of the high-voltage electrical component, and the classified data is entered into the high-voltage electrical component library, as follows:

[0094] Enter the organized high-voltage electrical component data into the EPLAN component library. During the entry process, categorize the components by function and voltage level. First, create folders for different voltage levels, such as 110kV, 220kV, and 500kV. Then, within each voltage level folder, create subfolders based on functions such as circuit breakers, disconnectors, and transformers. Enter each component into its corresponding subfolder and assign it a unique identifier and name to ensure its identifiability and manageability within the library.

[0095] When entering component parameters, EPLAN's parameterization feature allows you to associate component parameters with their symbols. For example, for a high-voltage disconnector, parameters such as rated voltage, rated current, and contact spacing are associated with the component symbol. When you insert the component into a design drawing, the relevant parameters are automatically displayed in the component properties column, making it easier for designers to view and use them.

[0096] The updating and maintenance of the high-voltage electrical component library is described as follows:

[0097] Regularly update the high-voltage electrical component library to adapt to new product launches and technological developments. Keep an eye on product updates from high-voltage electrical component manufacturers, promptly collect technical data on new components, and enter them into the library. For example, when a manufacturer releases a new model of high-voltage circuit breaker with a higher breaking capacity and a more advanced operating mechanism, promptly add the component to the library and update the relevant technical specifications and documentation.

[0098] At the same time, if the technical parameters or performance of existing components in the high-voltage electrical component library change, they must be modified and updated in a timely manner. For example, if the measurement accuracy of a certain current transformer is improved after technical improvements, the accuracy parameters of the transformer must be modified accordingly in the component library to ensure that designers are using the latest and most accurate component data.

[0099] During the maintenance of the high-voltage electrical component library, the classification and identification of components must be checked and optimized to ensure a clear and user-friendly library structure. If any components are found to be improperly classified or unclearly identified, adjustments should be made promptly to improve the management efficiency and usability of the component library.

[0100] The checking and verifying of the high-voltage electrical schematic design data includes:

[0101] Performing electrical rule checking and verification on the high-voltage electrical schematic design data according to preset electrical rules;

[0102] If the electrical rule check result is determined to be passed, then performing a logic rule check on the high-voltage electrical schematic design data according to preset logic rules;

[0103] If it is determined that the logic rule check result is passed, then the check result is determined to be passed.

[0104] The high-voltage electrical design drawing generation method further includes:

[0105] If it is determined that the electrical rule check result fails, generating a first auxiliary modification prompt message indicating that the electrical design does not conform to the first auxiliary modification prompt message;

[0106] If it is determined that the logic rule check result is failed, a second auxiliary modification prompt message is generated indicating that the interlocking logic design is not met.

[0107] For example, when designing a schematic diagram, when the designer connects a high-voltage line, the system automatically checks the rationality of the line connection based on preset electrical rules, such as the line's current carrying capacity matching rules, insulation coordination rules, etc. Figure 2 As shown, if it is found that the current carrying capacity of a certain line is less than the rated current of the component it is connected to, a prompt box will immediately pop up to inform the designer of the problem and give corresponding modification suggestions, such as replacing the wire with a larger specification or adjusting the selection of the component.

[0108] It also enables logic verification. For example, in a substation design containing multiple high-voltage switchgear, the correct electrical interlocking relationships between the switchgear can be checked to prevent possible misoperation. If the interlocking logic of a switchgear is found to not meet design requirements, the system will flag it and prompt the designer to make modifications.

[0109] We organize electrical experts and experienced designers to develop a rule library for high-voltage electrical design based on relevant electrical design standards and specifications. The rule library includes rules for line connection, component selection, insulation coordination, grounding protection, and other aspects.

[0110] For example, line connection rules specify the conductor materials, specifications, and connection methods for lines of different voltage levels. Component selection rules clarify the principles for selecting appropriate high-voltage electrical components based on parameters such as the circuit's rated voltage, rated current, and short-circuit current. The established rule base is imported into a rule-based intelligent design assistance system (the system that performs checks and verification) in a specific format. The system can then identify and interpret these rules, enabling it to check and verify design data during the design process.

[0111] During the design process of high-voltage electrical principles and wiring diagrams, every time the designer performs an operation, such as drawing components, connecting lines, modifying parameters, etc., the rule-based intelligent design assistance system will obtain the design data in real time and compare it with the rules in the rule library. For example, when a designer connects a high-voltage line in a schematic diagram, the system will automatically obtain the parameters of the components connected at both ends of the line, including the rated current and voltage level of the components, and then check whether the specifications of the selected wires can meet the current carrying capacity requirements of the line according to the line connection rules. If it is found that the selected wire specifications are too small, the system will immediately pop up a prompt box to inform the designer of the problem, such as "the selected wire specifications cannot meet the current carrying capacity requirements of the line, which may cause the line to overheat and pose a safety hazard", and give corresponding modification suggestions, such as "it is recommended to replace the wire with a specific larger specification wire model."

[0112] The system also performs logic verification for complex high-voltage electrical systems, such as substation designs containing multiple high-voltage switchgear. If the interlocking logic of a switchgear panel is found to not meet design requirements, the system will mark the panel on the drawing, highlighting it with a red box and displaying a prompt: "This switchgear interlocking logic is incorrect and may lead to malfunction. Please check and correct it." Designers can use this prompt to promptly modify the design, ensuring the safety and reliability of the entire high-voltage electrical system.

[0113] In the above step S2, if the device determines that the inspection and verification result is passed, the device generates high-voltage electrical wiring diagram design data based on the high-voltage electrical schematic design data, and if the device monitors that the high-voltage electrical schematic design data has changed, the device updates the high-voltage electrical wiring diagram design data based on the changed high-voltage electrical schematic design data. Generating high-voltage electrical wiring diagram design data based on the high-voltage electrical schematic design data includes:

[0114] Drawing a wire connection relationship in a high-voltage electrical wiring diagram according to the electrical connection information of the high-voltage electrical schematic design data;

[0115] Marking the starting point and end point of the wire according to the component parameter information of the high-voltage electrical schematic design data;

[0116] The attribute information of the wire is marked according to the electrical connection information and the component parameter information.

[0117] The automated design process also enables automatic updating and synchronization of design data. When a component parameter or connection relationship in the schematic changes, the system automatically synchronizes these changes to the wiring diagram, ensuring data consistency between the schematic and wiring diagrams and avoiding design errors caused by data inconsistencies. For example, if the transformation ratio of a current transformer in the schematic is modified, all related line connections and parameter annotations in the wiring diagram are automatically updated, ensuring the accuracy of the entire design.

[0118] like Figure 3 As shown in the figure, starting with schematic design, the system automatically extracts the data from the schematic, generates a wiring diagram according to preset rules, and automatically updates and synchronizes the data. For example, when a component parameter in the schematic changes, the system propagates this change to the wiring diagram and automatically updates the relevant line connections and parameter annotations.

[0119] Once the high-voltage electrical schematic design is complete, the designer clicks the "Generate Wiring Diagram" button, and the automated design process begins. The system automatically extracts electrical connection information, component parameters, and other data from the schematic. For example, the system identifies the connection relationships between components in the schematic, including which components are connected by wires and the order in which the wires are connected. It also obtains detailed parameters for each component, such as rated voltage, rated current, and pin definitions.

[0120] Based on pre-set rules and templates, the system automatically generates a wiring diagram. In the wiring diagram, wire connections are automatically drawn based on the connection relationships between components, ensuring connection accuracy. Furthermore, the starting and ending points of wires are automatically marked based on the component pin definitions and connection sequence. For example, for a circuit consisting of a circuit breaker, disconnector, and current transformer, the system can accurately draw the wires connecting them in the wiring diagram and clearly mark the starting and ending points of each wire, making it easier for construction personnel to perform wiring operations.

[0121] The system also automatically calculates and annotates wire specifications, colors, and other information based on component parameters and electrical connection information. It selects appropriately sized wires based on the line's current and routing method. For high-current lines, the system selects thicker wires to meet current-carrying requirements. Wires with different functions are assigned corresponding colors, such as red for power lines and blue for control lines. This allows workers to quickly identify wire functions by color during construction and maintenance, improving work efficiency.

[0122] During the design process, if a component parameter or connection relationship in the schematic changes, the automated data update and synchronization function in the design process will come into play. For example, if the ratio of a current transformer in the schematic is modified, the system will immediately capture this change and synchronize it with the wiring diagram. All related line connections and parameter annotations in the wiring diagram will be automatically updated, including wire specifications and colors. If the line current calculation results change due to the ratio change, the system will reselect the appropriate wire specifications and update the wire color annotations to ensure the accuracy of the entire design.

[0123] This automatic data update and synchronization mechanism ensures data consistency between schematics and wiring diagrams, avoiding design errors caused by inconsistent data. Whether in the early stages of design or during design changes, it can effectively improve design quality and efficiency, reducing the workload and error potential of manual data verification.

[0124] In the above step S3, the device stores the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively controls the drawing design data according to the access rights corresponding to the user's professional type to obtain the high-voltage electrical design drawings;

[0125] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0126] A data management and collaborative design platform is built, deeply integrated with EPLAN software. In high-voltage electrical design projects, all design data, including schematics, wiring diagrams, component parameters, and design documents, is centrally stored on this platform, enabling unified data management. Through a permissions management mechanism, different designers and teams can access and manipulate data based on their responsibilities and permissions. For example, the design leader has access to view, modify, and approve all data, while ordinary designers can only view and modify the data for their specific area, ensuring data security and accuracy.

[0127] In terms of collaborative design, the platform provides real-time data sharing and collaboration. Designers from different teams can work on designs simultaneously on the platform. When one designer modifies a part of the design, other stakeholders can see these changes in real time and make appropriate adjustments. For example, while the electrical design team is working on a high-voltage electrical schematic, the structural design team can simultaneously view the layout and dimensions of electrical components on the platform to facilitate cabinet design. If the electrical design team adjusts the component layout, the structural design team is immediately notified and simultaneously updates the cabinet design, improving collaboration efficiency between teams and shortening project cycles.

[0128] like Figure 4 As shown in Figure 1, in high-voltage electrical design projects, all design data, including schematics, wiring diagrams, component parameters, and design documents, is centrally stored in a data management and collaborative design platform. The platform uses advanced database management technology to ensure secure data storage and efficient access.

[0129] Different designers and teams can access and manipulate data based on their responsibilities and permissions. Design leaders have access to view, modify, and approve all data, allowing them to fully control the project's design progress and quality, reviewing and making decisions on design proposals. Regular designers can only view and modify the data for their specific area of responsibility. For example, electrical designers can only manipulate electrical schematics and related component parameters, while structural designers can only process data related to cabinet structure design. This effectively prevents data misuse or leakage, ensuring data security and accuracy.

[0130] In terms of collaborative design, the platform provides real-time data sharing and collaboration. Designers from different teams can work on designs simultaneously on the platform. For example, while the electrical design team is working on a high-voltage electrical schematic, the structural design team can simultaneously view the layout and dimensions of electrical components on the platform to facilitate cabinet design. If the electrical design team adjusts the component layout, the platform immediately notifies the structural design team, allowing them to simultaneously update the cabinet design, ensuring consistent designs between the two teams.

[0131] During the design process, when one designer modifies a part of the design, other relevant personnel can see these changes in real time. For example, if a designer modifies the parameters of a component, other designers related to that component, such as those responsible for the component's circuit connection design or the cabinet layout design, can see the change in their respective design interfaces and make corresponding adjustments in a timely manner, avoiding design conflicts and errors caused by untimely information dissemination. This real-time collaboration feature greatly improves collaborative efficiency between teams, shortens project cycles, and ensures that projects are completed on time and with quality.

[0132] The method proposed in the present invention effectively solves the problems of low efficiency, prone to errors, low standardization and difficult data management in existing high-voltage electrical design methods by constructing a high-voltage electrical component library, developing a rule-based intelligent design assistance system, establishing an automated design process, and building a data management and collaborative design platform.

[0133] In practical applications, this method can significantly improve the quality and efficiency of high-voltage electrical design, achieving intelligent, standardized, and collaborative high-voltage electrical design. By improving design efficiency, the project design cycle is shortened and project costs are reduced. By improving design accuracy, equipment failures and safety incidents caused by design errors are reduced. By implementing standardized design, the readability and comprehensibility of design drawings are improved, facilitating project review, construction, and maintenance. By enhancing data management and collaborative design capabilities, collaboration between different teams is strengthened, ensuring the smooth progress of the project.

[0134] With the continuous development of the power industry, the design requirements for high-voltage electrical equipment will become increasingly higher. The method of the present invention has good scalability and adaptability, and can be continuously optimized and improved with the advancement of technology, providing strong support for the development of the power industry.

[0135] The method for generating high-voltage electrical design drawings provided by the embodiment of the present invention has the following beneficial technical effects:

[0136] (1) Improve design efficiency:

[0137] By building a library of high-voltage electrical components, designers can quickly and accurately select the required components without having to manually enter numerous parameters, saving time in component selection and parameter entry. Furthermore, the automated design process enables rapid conversion from schematics to wiring diagrams, reducing the workload of manually drawing wiring diagrams and significantly improving design efficiency. For example, in a typical high-voltage substation design project, the implementation of the proposed method reduced the design cycle from several months to several weeks, increasing design efficiency severalfold.

[0138] (2) Improve design accuracy:

[0139] The rule-based intelligent design assistance system can detect design errors and inconsistencies in real time and provide prompts and suggestions, thus avoiding errors caused by designer negligence or inexperience. Furthermore, the automatic data update and synchronization function within the automated design process ensures data consistency between schematics and wiring diagrams, further improving design accuracy. Statistics show that the use of this method has reduced the design error rate by over 80%, effectively improving the quality of high-voltage electrical design.

[0140] (3) Achieve standardized design:

[0141] The construction of a high-voltage electrical component library, along with a unified data management and collaborative design platform, enables high-voltage electrical design to adhere to unified standards and specifications. Different designers use the same component library and design rules, ensuring consistent and standardized design styles. This improves the readability and comprehensibility of design drawings, and facilitates project review, construction, and maintenance.

[0142] (4) Improve data management and collaborative design capabilities:

[0143] The data management and collaborative design platform enables centralized management and real-time sharing of design data, enabling efficient collaboration between different teams. During project implementation, each team can quickly obtain the required data based on their needs and make timely adjustments and optimizations to the design, improving project management efficiency and ensuring that projects are completed on time and with quality.

[0144] The high-voltage electrical design drawing generation method provided by an embodiment of the present invention obtains high-voltage electrical schematic design data and checks and verifies the high-voltage electrical schematic design data; if it is determined that the check and verification result is passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if it is monitored that the high-voltage electrical schematic design data changes, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data; the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design are stored, and the drawing design data is collaboratively controlled according to the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings; wherein the drawing design data includes the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design, which can collaboratively, efficiently and accurately generate high-voltage electrical design drawings.

[0145] Furthermore, the obtaining of high-voltage electrical schematic design data includes:

[0146] In response to the user performing a design operation based on a target high-voltage electrical component selected from the high-voltage electrical component library, the target high-voltage electrical component parameters are loaded into the high-voltage electrical schematic diagram to obtain the high-voltage electrical schematic diagram design data.

[0147] Furthermore, obtaining the high-voltage electrical component library includes:

[0148] Collect high-voltage electrical component data; refer to the above embodiment for description and no further details will be given.

[0149] The high-voltage electrical component data is classified according to the functions and voltage levels of the high-voltage electrical components, and the classified data is entered into the high-voltage electrical component library; the above-mentioned embodiment can be referred to for description and will not be repeated here.

[0150] The updating and maintenance of the high-voltage electrical component library can be described with reference to the above embodiment and will not be repeated here.

[0151] Furthermore, the checking and verifying of the high-voltage electrical schematic design data includes:

[0152] The electrical rule check and verification is performed on the high-voltage electrical schematic design data according to the preset electrical rules; the above-mentioned embodiment can be referred to and will not be described in detail.

[0153] If it is determined that the result of the electrical rule check is passed, a logic rule check is performed on the high-voltage electrical schematic design data according to preset logic rules; the above embodiment can be referred to for description and will not be repeated here.

[0154] If the logic rule check result is determined to be passed, then the check result is determined to be passed.

[0155] Furthermore, the method for generating high-voltage electrical design drawings further includes:

[0156] If it is determined that the electrical rule check result is failed, a first auxiliary modification prompt message is generated indicating that it does not comply with the electrical design; please refer to the above embodiment for description and will not be repeated here.

[0157] If the logic rule check result is determined to be a failure, a second auxiliary modification prompt message is generated indicating that the interlocking logic design is not met.

[0158] Furthermore, generating high-voltage electrical wiring diagram design data according to the high-voltage electrical schematic design data includes:

[0159] The wire connection relationship is drawn in the high-voltage electrical wiring diagram according to the electrical connection information of the high-voltage electrical schematic design data; the above-mentioned embodiment can be referred to for description and will not be repeated here.

[0160] The starting point and the end point of the wire are marked according to the component parameter information of the high-voltage electrical schematic design data; the above-mentioned embodiment can be referred to for description and will not be repeated here.

[0161] The attribute information of the wire is labeled according to the electrical connection information and the component parameter information.

[0162] Figure 5 FIG. 1 is a schematic diagram of a high-voltage electrical design drawing generating device according to an embodiment of the present invention. Figure 5 As shown, the high-voltage electrical design drawing generation device provided by the embodiment of the present invention includes an acquisition unit 501, a generation unit 502 and a collaboration unit 503, wherein:

[0163] The acquisition unit 501 is used to acquire high-voltage electrical schematic design data and check and verify the high-voltage electrical schematic design data; the generation unit 502 is used to generate high-voltage electrical wiring diagram design data based on the high-voltage electrical schematic design data if it is determined that the check and verification result is passed, and if it is monitored that the high-voltage electrical schematic design data has changed, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data; the collaboration unit 503 is used to store the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design, and to collaboratively control the drawing design data according to the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings; wherein, the drawing design data includes the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design.

[0164] Specifically, the acquisition unit 501 in the device is used to acquire high-voltage electrical schematic design data and check and verify the high-voltage electrical schematic design data; the generation unit 502 is used to generate high-voltage electrical wiring diagram design data based on the high-voltage electrical schematic design data if it is determined that the check and verification result is passed, and if it is monitored that the high-voltage electrical schematic design data has changed, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data; the collaboration unit 503 is used to store the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design, and to collaboratively control the drawing design data according to the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings; wherein, the drawing design data includes the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design.

[0165] The high-voltage electrical design drawing generation device provided by an embodiment of the present invention obtains high-voltage electrical schematic design data and checks and verifies the high-voltage electrical schematic design data; if it is determined that the check and verification result is passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if it is monitored that the high-voltage electrical schematic design data changes, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data; the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design are stored, and the drawing design data is collaboratively controlled according to the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings; wherein the drawing design data includes the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design, which can collaboratively, efficiently, and accurately generate high-voltage electrical design drawings.

[0166] The embodiment of the present invention provides an embodiment of a high-voltage electrical design drawing generation device which can be specifically used to execute the processing flow of the above-mentioned method embodiments. Its functions are not described in detail here, and reference can be made to the detailed description of the above-mentioned method embodiments.

[0167] Figure 6 A schematic diagram of the physical structure of a computer device provided in an embodiment of the present invention is shown in FIG. Figure 6 As shown, the computer device includes: a memory 601, a processor 602, and a computer program stored in the memory 601 and executable on the processor 602. When the processor 602 executes the computer program, the following method is implemented:

[0168] Acquiring high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data;

[0169] If the check result is determined to be passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if the high-voltage electrical schematic design data is monitored to change, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data;

[0170] Store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively control the drawing design data based on the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings;

[0171] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0172] This embodiment discloses a computer program product, which includes a computer program. When the computer program is executed by a processor, the following method is implemented:

[0173] Acquiring high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data;

[0174] If the check result is determined to be passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if the high-voltage electrical schematic design data is monitored to change, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data;

[0175] Store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively control the drawing design data based on the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings;

[0176] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0177] This embodiment provides a computer-readable storage medium, wherein the computer-readable storage medium stores a computer program. When the computer program is executed by a processor, the following method is implemented:

[0178] Acquiring high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data;

[0179] If the check result is determined to be passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if the high-voltage electrical schematic design data is monitored to change, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data;

[0180] Store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively control the drawing design data based on the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings;

[0181] The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

[0182] Compared with the technical solutions in the prior art, the embodiments of the present invention provide a method for generating high-voltage electrical design drawings, which obtains high-voltage electrical schematic design data and checks and verifies the high-voltage electrical schematic design data; if the check and verification result is determined to be passed, high-voltage electrical wiring diagram design data is generated based on the high-voltage electrical schematic design data; if it is monitored that the high-voltage electrical schematic design data has changed, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data; the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design are stored, and the drawing design data is collaboratively controlled according to the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings; wherein the drawing design data includes the high-voltage electrical schematic design data of the completed design and the high-voltage electrical wiring diagram design data of the completed design, which can collaboratively, efficiently, and accurately generate high-voltage electrical design drawings.

[0183] It will be understood by those skilled in the art that embodiments of the present invention may be provided as methods, systems, or computer program products. Thus, the present invention may take the form of an entirely hardware embodiment, an entirely software embodiment, or an embodiment combining software and hardware. Furthermore, the present invention may take the form of a computer program product implemented on one or more computer-usable storage media (including but not limited to magnetic disk storage, CD-ROM, optical storage, etc.) containing computer-usable program code.

[0184] The present invention is described with reference to flowcharts and / or block diagrams of methods, devices (systems), and computer program products according to embodiments of the present invention. It should be understood that each process and / or block in the flowcharts and / or block diagrams, as well as combinations of processes and / or blocks in the flowcharts and / or block diagrams, can be implemented by computer program instructions. These computer program instructions can be provided to a processor of a general-purpose computer, a special-purpose computer, an embedded processor, or other programmable data processing device to produce a machine, so that the instructions executed by the processor of the computer or other programmable data processing device generate instructions for implementing the processes in the flowcharts and / or block diagrams. Figure 1 a process or multiple processes and / or boxes Figure 1 A device that provides the functions specified in a block or multiple blocks.

[0185] These computer program instructions may also be stored in a computer readable memory that can direct a computer or other programmable data processing device to work in a specific manner, so that the instructions stored in the computer readable memory produce an article of manufacture comprising an instruction device, which implements the process Figure 1 a process or multiple processes and / or boxes Figure 1 The function specified in one or more boxes.

[0186] These computer program instructions can also be loaded onto a computer or other programmable data processing device so that a series of operational steps are executed on the computer or other programmable device to produce a computer-implemented process, thereby providing the instructions executed on the computer or other programmable device for implementing the process. Figure 1 a process or multiple processes and / or boxes Figure 1 The steps for the function specified in one or more boxes.

[0187] Throughout this specification, reference to terms such as "one embodiment," "a specific embodiment," "some embodiments," "for example," "example," "specific example," or "some examples" means that the specific features, structures, materials, or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, schematic representations of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples.

[0188] The specific embodiments described above further illustrate the objectives, technical solutions and beneficial effects of the present invention in detail. It should be understood that the above description is only a specific embodiment of the present invention and is not intended to limit the scope of protection of the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A method for generating high-voltage electrical design drawings, characterized in that: include: Acquiring high-voltage electrical schematic design data, and checking and verifying the high-voltage electrical schematic design data; If the check result is determined to be passed, high-voltage electrical wiring diagram design data is generated according to the high-voltage electrical schematic design data; if the high-voltage electrical schematic design data is monitored to change, the high-voltage electrical wiring diagram design data is updated according to the changed high-voltage electrical schematic design data; Store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and collaboratively control the drawing design data based on the access rights corresponding to the user's professional type to obtain high-voltage electrical design drawings; The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

2. The method for generating high-voltage electrical design drawings according to claim 1, wherein: The obtaining of high-voltage electrical schematic design data includes: In response to a design operation performed by a user based on a target high-voltage electrical component selected from a high-voltage electrical component library, parameters of the target high-voltage electrical component are loaded into a high-voltage electrical schematic diagram to obtain the high-voltage electrical schematic diagram design data.

3. The method for generating high-voltage electrical design drawings according to claim 2, wherein: Obtaining the high-voltage electrical component library includes: Collect data on high-voltage electrical components; Classifying high-voltage electrical component data according to the functions and voltage levels of the high-voltage electrical components, and entering the classified data into the high-voltage electrical component library; The high-voltage electrical component library is updated and maintained.

4. The method for generating high-voltage electrical design drawings according to claim 1, wherein: The checking and verifying of the high-voltage electrical schematic design data includes: Performing electrical rule checking and verification on the high-voltage electrical schematic design data according to preset electrical rules; If the electrical rule check result is determined to be passed, then performing a logic rule check on the high-voltage electrical schematic design data according to preset logic rules; If it is determined that the logic rule check result is passed, then the check result is determined to be passed.

5. The method for generating high-voltage electrical design drawings according to claim 4, characterized in that: The high-voltage electrical design drawing generation method further includes: If it is determined that the electrical rule check result fails, generating a first auxiliary modification prompt message indicating that the electrical design does not conform to the first auxiliary modification prompt message; If it is determined that the logic rule check result is failed, a second auxiliary modification prompt message is generated indicating that the interlocking logic design is not met.

6. The method for generating high-voltage electrical design drawings according to claim 1, wherein: Generating high-voltage electrical wiring diagram design data according to the high-voltage electrical schematic design data includes: Drawing a wire connection relationship in a high-voltage electrical wiring diagram according to the electrical connection information of the high-voltage electrical schematic design data; Marking the starting point and end point of the wire according to the component parameter information of the high-voltage electrical schematic design data; The attribute information of the wire is marked according to the electrical connection information and the component parameter information.

7. A device for generating high-voltage electrical design drawings, characterized in that: include: an acquisition unit, configured to acquire high-voltage electrical schematic design data and to check and verify the high-voltage electrical schematic design data; a generating unit for generating high-voltage electrical wiring diagram design data based on the high-voltage electrical schematic design data if the check result is determined to be passed, and updating the high-voltage electrical wiring diagram design data based on the changed high-voltage electrical schematic design data if a change in the high-voltage electrical schematic design data is detected; The collaborative unit is used to store the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data, and to collaboratively control the drawing design data according to the access rights corresponding to the user's professional type to obtain the high-voltage electrical design drawings; The drawing design data includes the completed high-voltage electrical schematic design data and the completed high-voltage electrical wiring diagram design data.

8. A computer device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein: When the processor executes the computer program, the method according to any one of claims 1 to 6 is implemented.

9. A computer-readable storage medium, characterized in that The computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the method according to any one of claims 1 to 6 is implemented.

10. A computer program product, characterized in that The computer program product comprises a computer program, and when the computer program is executed by a processor, the method according to any one of claims 1 to 6 is implemented.

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