Three-dimensional visual intelligent power wiring design method
By integrating multiple databases and building a guide interface, the three-dimensional visualization and intelligence of the cable wiring design of cement plant is realized, solving the problems of unintuitive design, large errors, time-consuming and labor-intensive design in the existing technology, and improving design efficiency and accuracy.
Patent Information
- Application Number
- CN202411808192.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-10
- Publication Date
- 2025-03-21
AI Technical Summary
In the cable wiring design of cement plants, the problems of lack of intuitiveness of drawings, large statistical errors in cable length, time-consuming and labor-intensive manual accounting, and error-prone.
Using three-dimensional visual intelligent power wiring design method, multiple databases are integrated through Revit or CAD expansion modules to build a guide interface to realize the automated processing of device numbering, wiring, channel numbering, cable laying and labeling modules.
It realizes efficient automation of cable wiring design, improves design accuracy and intuitiveness, reduces manual errors, and simplifies the design process.
Smart Images

Figure CN119670308A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of computer-aided design, and in particular to a three-dimensional visualized intelligent power wiring design method. Background Art
[0002] At present, in the process of laying lines in cement plants, designers need to select the communication, power and control cables for each device based on the process diagram, the control schematic diagram and electrical schematic diagram of the electrical equipment in the distribution system diagram, and the manufacturer's information. Then, they need to select the appropriate cable path based on the economic effect and the environmental characteristics of the site, and finally mark the corresponding cable number. The specifications of the bridge are comprehensively considered according to the cable specifications and quantity and margin on the path, while taking into account equipment maintenance, personnel safety, and building direction. Finally, all cables are drawn on the CAD in the form of a schematic diagram, and all electrical equipment and cable models, pipe diameters and lengths are manually counted.
[0003] Although the design specifications and on-site equipment are constantly updated, the design tools are still backward, resulting in the following problems in the actual drawing process: 1. The designed drawings are all schematic diagrams, especially cables and cable trenches. This makes the owner lack intuitiveness when viewing the drawings, and there will be many errors in the cable length when the material table is counted later. 2. There are many devices and the cables of each device are different, and the cable paths are different. The calculation and statistics of cable length and specifications still rely on manual verification, which is time-consuming and laborious, and it is easy to make mistakes and omissions. 3. There are a large number of selected cables. During the design process, the designer needs to comprehensively consider the cable distribution on each line, repeatedly calculate the bridge occupancy rate and load, so as to draw reasonable wiring lines and bridge specifications, which is time-consuming and laborious. 4. When the design is completed and reviewed or needs to be redesigned and modified due to changes in on-site equipment, the above work needs to be carried out again. Summary of the invention
[0004] Purpose of the invention: The purpose of the present invention is to provide a three-dimensional visual intelligent power wiring design method, which relies on the Revit extension module or the CAD extension module to integrate a large number of databases into a data platform to solve the problems existing in the background technology.
[0005] Technical solution: A three-dimensional visualized intelligent power wiring design method described in the present invention is characterized in that it includes the following steps: integrating multiple databases using a Revit extension module or a CAD extension module to obtain parameters; constructing a guide interface including sequentially constructing equipment numbering, equipment layout, wiring, channel numbering, cable laying and cable marking modules, and calculating and verifying the completed power wiring diagram; and finally performing laying results.
[0006] Furthermore, multiple data modules are integrated using Revit extension modules or CAD extension modules as follows: basic management modules and platform management modules are merged, data is extracted based on unified project regulations to establish modules for corresponding projects, and quick-check table libraries are established using parameters.
[0007] Furthermore, the basic management modules include: equipment material management, voltage level management, and manufacturer configuration management; platform management includes drawing style management and engineering management.
[0008] Furthermore, the laying results include: cable inventory, material statistics, physical line change drawings, cable path diagrams and physical conversion drawings.
[0009] Furthermore, the verification includes buried pipe verification and occupancy rate verification; the calculation includes load calculation and pipe arrangement calculation.
[0010] The three-dimensional visualized intelligent power wiring design system described in the present invention comprises: Integration module: used to integrate multiple databases and obtain parameters using Revit extension module or CAD extension module; Guidance module: Building the guidance interface includes sequentially building equipment numbering, equipment layout, wiring, channel numbering, cable laying and cable marking modules; and finally performing the laying results.
[0011] Furthermore, in the integration module, multiple data modules are integrated using the Revit extension module or the CAD extension module as follows: the basic management module and the platform management module are merged, data is extracted based on the unified project regulations to establish a module corresponding to the project, and a quick reference table library is established using parameters.
[0012] Furthermore, in the integrated module, the basic management module includes: equipment material management, voltage level management, and manufacturer configuration management; platform management includes drawing style management and engineering management.
[0013] Furthermore, in the guidance module, the laying results include: cable inventory, material statistics, entity line change drawing, cable path diagram and entity conversion drawing.
[0014] Furthermore, the verification includes buried pipe verification and occupancy rate verification; the calculation includes load calculation and pipe arrangement calculation.
[0015] Beneficial effects: Compared with the prior art, the present invention has the following significant advantages: integrating a large number of databases into a data platform, using computers to quickly call data and perform real-time calculations, which greatly simplifies the design process, improves design accuracy, and achieves visualization. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 It is a schematic diagram of the principle of the present invention; DETAILED DESCRIPTION
[0017] The technical solution of the present invention is further described below in conjunction with the accompanying drawings.
[0018] like Figure 1 As shown, an embodiment of the present invention provides a three-dimensional visualized intelligent power wiring design method, using a CAD extension module, including the following steps: S1 integrates databases such as equipment materials, manufacturer configuration, drawing styles, functional modules, engineering management, and engineering technical regulations, and uses parameters to establish a quick-lookup table library.
[0019] S2 building assistance functions include proportional design, layer operation, block call, drawing filing, auxiliary perspective S3 enters the relevant design module according to the wizard interface and proceeds in sequence according to the design module sequence, including the following steps: S31 Equipment number: Match each equipment number with the equipment in the drawing.
[0020] S32 bridge design: Set the bridge style, step distance, layer height, bracket style and other parameters through the data in the drawing style database in the platform management; draw the completed bridge in CAD according to the design needs, and the effect of the bridge can be directly viewed in the CAD section after drawing; S33 Cable Trench Design: Use the data in the drawing style database in the platform management to set the cable trench style, pitch, slope, bracket style and other parameters. Draw the configured cable trench in CAD according to the design needs, and you can view the cross-section of the cable trench after drawing.
[0021] S34 Shaft design: Set the shaft number, specifications, start and end heights, support style and other parameters.
[0022] S35 Equipment Layout: By selecting equipment, you can freely place the selected equipment according to the specified placement method. You can combine multiple equipment, set the layout method, and freely replace the equipment in it.
[0023] S36 wiring: various forms of wiring and line modifications for equipment on the floor plan, with a variety of professional line types to choose from; S37 Node Numbering: Generate node numbers and channel numbers for bridges, cable trenches, and cable crossings.
[0024] S38 sets the laying rules: determines the laying order, limits the occupancy rate, and cable priority. It can then automatically lay cables, feedback the reasons for failed cable laying, and generate a report.
[0025] S39 calculation and verification: including: verifying the area occupied by the bridge, filling the channel according to the color display rules, visually viewing the channel area ratio of the whole map, and generating a detailed calculation book for the specified channel position. Then calculate the weight of the selected bridge and the cables on the bridge, and mark them.
[0026] S4 laying finished products, including: S41 Material table: By using the data in the platform management engineering management database as a template, you can count all the information on the drawing, filter out the required equipment information and convert it into chart output.
[0027] S42 entity line change drawing: convert the bridge frame in the drawing into a CAD drawing.
[0028] S43 entity conversion drawing: convert the cable tray and cable trench in the drawing into Revit's 3D entities.
[0029] S44 Cable Inventory: By using the data in the platform management engineering management database as a template, all the information on the drawing can be counted, and the required cable models and cable paths can be screened out and converted into chart output.
[0030] The embodiment of the present invention further provides a three-dimensional visualized intelligent power wiring design system, comprising: Integration module: used to integrate multiple databases using CAD extension modules and obtain parameters; specifically: merge the basic management module and the platform management module, extract data based on the unified project regulations to establish the module for the corresponding project, and use parameters to establish a quick-check table library. The basic management module includes: equipment material management, voltage level management, and manufacturer configuration management; platform management includes drawing style management and engineering management.
[0031] Guidance module: Building the guidance interface includes sequentially building equipment number, equipment layout, wiring, channel number, cable laying and cable marking modules; finally, laying results are obtained. The laying results include: cable inventory, material statistics, entity line change drawing, cable path schematic and entity conversion drawing. Verification includes buried pipe verification and occupancy rate verification; calculation includes load calculation and pipe arrangement calculation.
Claims
1. A three-dimensional visualized intelligent power wiring design method, characterized in that: The following steps are involved: Use Revit extension modules or CAD extension modules to integrate multiple databases and obtain parameters; build a guided interface including sequentially building equipment numbering, equipment layout, wiring, channel numbering, cable laying and cable marking modules, calculate and verify the completed power wiring diagram; finally, lay out the results.
2. A three-dimensional visualized intelligent power wiring design method according to claim 1, characterized in that: The specific steps of integrating multiple data modules using Revit extension modules or CAD extension modules are as follows: merging the basic management module and the platform management module, extracting data based on the unified project regulations to establish modules for the corresponding projects, and using parameters to establish a quick-check table library.
3. A three-dimensional visualized intelligent power wiring design method according to claim 2, characterized in that: The basic management modules include: equipment material management, voltage level management, and manufacturer configuration management; platform management includes drawing style management and project management.
4. A three-dimensional visualized intelligent power wiring design method according to claim 1, characterized in that: The laying results include: cable inventory, material statistics, physical line change drawings, cable path diagrams and physical conversion drawings.
5. A three-dimensional visualized intelligent power wiring design method according to claim 1, characterized in that: Verification includes buried pipe verification and occupancy rate verification; calculation includes load calculation and pipe layout calculation.
6. A three-dimensional visual intelligent power wiring design system, characterized in that: include: Integration module: used to integrate multiple databases and obtain parameters using Revit extension module or CAD extension module; Guidance module: Building the guidance interface includes sequentially building equipment numbering, equipment layout, wiring, channel numbering, cable laying and cable marking modules; and finally performing the laying results.
7. A three-dimensional visualized intelligent power wiring design method according to claim 6, characterized in that: In the integration module, multiple data modules are integrated using the Revit extension module as follows: the basic management module and the platform management module are merged, data is extracted based on the unified project regulations to establish modules for the corresponding projects, and a quick-check table library is established using parameters.
8. A three-dimensional visual intelligent power wiring design system according to claim 7, characterized in that: In the integrated module, the basic management module includes: equipment material management, voltage level management, and manufacturer configuration management; platform management includes drawing style management and engineering management.
9. A three-dimensional visual intelligent power wiring design system according to claim 6, characterized in that: In the guidance module, the laying results include: cable inventory, material statistics, entity line change drawing, cable path diagram and entity conversion drawing.
10. A three-dimensional visual intelligent power wiring design system according to claim 6, characterized in that: Verification includes buried pipe verification and occupancy rate verification; calculation includes load calculation and pipe layout calculation.