Design data processing method and system for broken line dislocation special-shaped curtain wall

Abstract

The invention discloses a design data processing method and system for a broken line dislocation special-shaped curtain wall, relates to the field of data processing, and solves the problem of insufficient accuracy of design data of an existing broken line dislocation special-shaped curtain wall, and the method comprises the following steps: S1, obtaining design information, and constructing an initial model through the design information; s2, acquiring a curtain wall vertical view and a curtain wall planar view, analyzing the size positioning of the curtain wall, optimizing the curtain wall vertical view, and processing the curtain wall planar view and the curtain wall vertical view; s3, building materials of panels are distinguished through design information, and the curtain wall is divided into a glass panel and an aluminum panel; the curtain wall is adjusted according to the glass panel and the aluminum panel; generating a keel processing drawing according to the curtain wall adjustment information; s4, modifying the initial model, and filling the model in combination with the keel processing drawing to obtain a solid model; the design data accuracy of the broken line dislocation special-shaped curtain wall can be effectively improved.

Description

Technical Field

[0001] The invention belongs to the field of data processing, relates to curtain wall design technology, and specifically provides a design data processing method and system for a broken line dislocation special-shaped curtain wall. Background Art

[0002] The existing design data processing methods and systems for folding line dislocation special-shaped curtain walls have the following specific defects during processing: Limited ability to handle complex shapes: Traditional design methods struggle to accurately handle the complex geometry of zigzag, misaligned, and irregularly shaped curtain walls. This is primarily due to their reliance on manual drafting and 2D models, which fail to effectively capture changes in 3D curvature, leading to significantly increased construction errors. For example, the precision required for corner joints is extremely high, but traditional measurement and layout methods lack horizontal accuracy and are easily affected by environmental factors and human intervention, making it difficult to meet design specifications.

[0003] Insufficient parametric design: The lack of parametric optimization of curtain wall panel division and node connection makes it impossible to perform dynamic adjustments and accurate calculations during the design process, resulting in serious waste of material cutting and reduced utilization rate. At the same time, construction errors accumulate during the installation process, affecting the overall stability and aesthetics of the curtain wall.

[0004] Positioning and construction difficulty: The positioning and installation deviations of the keels of the fold-line dislocated special-shaped curtain wall are difficult to control. Traditional methods such as conventional line-setting technology cannot effectively guide precise construction in three-dimensional space, causing on-site workers to repeatedly adjust positions, increasing workload, low efficiency, and delaying project progress.

[0005] To this end, we propose a design data processing method and system for fold-line staggered special-shaped curtain walls. Summary of the Invention

[0006] In view of the shortcomings of the existing technology, the purpose of the present invention is to provide a design data processing method and system for fold-line staggered special-shaped curtain walls, and the present invention aims to improve the data accuracy of fold-line staggered special-shaped curtain walls.

[0007] In order to achieve the above-mentioned object, the present invention adopts the following technical solution: a design data processing method for a fold line staggered special-shaped curtain wall, comprising: Step S1: Obtain design information and build an initial model based on the design information; Step S2: Based on the initial model, obtain the curtain wall elevation and curtain wall plan, analyze the size and positioning of the curtain wall through the curtain wall elevation, optimize the curtain wall elevation, and make the curtain wall plan and curtain wall elevation consistent to obtain optimized curtain wall information; Step S3: distinguishing the building materials of the panels through the design information, dividing the curtain wall into glass panels and aluminum panels, adjusting the curtain wall according to the glass panels and the aluminum panels, obtaining curtain wall adjustment information, and generating a profile processing diagram according to the curtain wall adjustment information; Step S4: modifying the initial model according to the optimized curtain wall information and the curtain wall adjustment information, filling the model in combination with the profile processing diagram, and obtaining a solid model.

[0008] A design data processing system of a broken line staggered special-shaped curtain wall, the processing system comprising: A model construction module: obtaining design information, extracting curtain wall components and design parameters according to the design information, three-dimensionally modeling the curtain wall components, and storing the design parameters into the model to obtain an initial model; A first processing module: obtaining a curtain wall elevation and a curtain wall plan according to the initial model, analyzing the size positioning of the curtain wall through the curtain wall elevation, optimizing the curtain wall elevation, performing consistency processing on the curtain wall plan and the curtain wall elevation, and obtaining optimized curtain wall information; A second processing module: distinguishing the building materials of the panels through the design information, dividing the curtain wall into glass panels and aluminum panels, adjusting the curtain wall according to the glass panels and the aluminum panels, obtaining curtain wall adjustment information, and generating a profile processing diagram according to the curtain wall adjustment information; A model optimization module: modifying the initial model according to the optimized curtain wall information and the curtain wall adjustment information, filling the model in combination with the profile processing diagram, and obtaining a solid model.

[0009] As described above, due to the adoption of the above technical solutions, the present application has the following beneficial effects: Optimized modeling processing: the present application optimizes the implementation angle of the curtain wall broken line structure, sets the inside corner angle and the outside corner angle parameters by establishing an inside corner angle increasing function and an outside corner angle decreasing function, and simultaneously controls the inside corner and the outside corner. This technical solution effectively simplifies the processing flow of the curtain wall broken line structure, and improves the aesthetics and geometric coordination of the curtain wall structure.

[0010] Systematic parameterized design strategy: the present application standardizes the curtain wall grid system by adopting a standardized integration processing method, optimizes the visual composition, separates the curtain wall, designs the angle parameters of the local curtain wall, reserves the curtain wall space in combination with the curtain wall material, accurately designs the parameters of the curtain wall, and improves the accuracy of the curtain wall construction.

[0011] Detailed construction positioning: according to the curtain wall design, the present application constructs a model of the profile of the broken line staggered special-shaped curtain wall, generates a profile processing diagram through a model processing software, ensures the accurate construction in the three-dimensional space, improves the work efficiency, and guarantees the project progress. BRIEF DESCRIPTION OF DRAWINGS

[0012] To facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0013] Figure 1 Schematic diagram of the method of the present invention; Figure 2 This is a schematic diagram of a partial curtain wall of the present invention; Figure 3 A schematic diagram of the system of the present invention; DETAILED DESCRIPTION

[0014] The technical solutions of the present invention will be clearly and completely described below in conjunction with the embodiments. Obviously, the embodiments described are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0015] Example 1

[0016] See also Figure 1 The present invention provides a technical solution: a design data processing method for a folding line staggered special-shaped curtain wall comprising: Step S1: Obtain design information and build an initial model based on the design information; Based on the design information, obtain curtain wall components and design parameters; use Rhino software to perform 3D modeling of curtain wall components (such as model skin, keel, and decorative lines), and store the design parameters in the model to obtain the initial model; It should be noted that Rhinoceros (Rhino for short) is a professional 3D modeling tool developed by Robert McNeel of the United States. It is widely used in industrial design, architectural design, and curtain wall design.

[0017] Step S2: Based on the initial model, obtain the curtain wall elevation and curtain wall plan, analyze the size and positioning of the curtain wall through the curtain wall elevation, optimize the curtain wall elevation, and make the curtain wall plan and curtain wall elevation consistent to obtain optimized curtain wall information; Step S21: Process the initial model using the Grasshopper plug-in to generate a curtain wall elevation and a curtain wall plan; extract curtain wall components based on the curtain wall elevation, obtain the angles between the curtain wall components, and optimize the curtain wall elevation based on the angles between the curtain wall components; It's important to note that Grasshopper (GH) is a visual programming plug-in for the Rhino 3D platform, developed by Robert McNeel & Associates. It implements parametric design through node-based programming, allowing users to build complex models by dragging and dropping components and connecting logical lines without writing traditional code.

[0018] See also Figure 2 Step S211: extract curtain wall components according to the curtain wall elevation drawing; obtain the inner angle θ between the curtain wall components and the outer angle β between the curtain wall components; divide the curtain wall into local curtain walls according to the curtain wall components, and set the sum of the inner angle θ between the curtain wall components and the outer angle β between the curtain wall components in the local curtain wall to a fixed value dz; It should be noted that a concave angle refers to the concave angle of a wall or component, that is, the concave angle formed by the intersection of two walls or components. In curtain wall systems, a concave angle usually occurs at the intersection of two curtain wall planes.

[0019] A positive angle refers to the convex angle of a wall or component, i.e., the outward convex angle formed by the intersection of two walls or components. In curtain wall systems, a positive angle usually occurs where two curtain wall planes intersect and form a convex area.

[0020] Step S2111: Divide the curtain wall into partial curtain walls according to the curtain wall components; each partial curtain wall includes a concave angle and a convex angle; the number of partial curtain walls is recorded as s; according to the number of partial curtain walls, each concave angle is recorded as θ(1), θ(2), ..., θ(s); each convex angle is recorded as β(1), β(2), ..., β(s); Step S2112: restrict the inner angles θ(1), θ(2), ..., θ(s) and the outer angles β(1), β(2), ..., β(s) of the local curtain wall so that θ(1) + β(1) = θ(2) + β(2) = ... = θ(s) + β(s) = dz; Step S212: Perform incremental processing on the internal angles between curtain wall components to obtain the maximum internal angle ymx and the minimum internal angle ymi; obtain the number s of partial curtain walls; and calculate the incremental tolerance zgc of the internal angles based on the maximum internal angle ymx, the minimum internal angle ymi, and the number s of partial curtain walls, as follows: ; It's important to note that the "s-1" calculation logic dictates that the first angle in a sequence of angles is excluded as a reference value. Since a reference angle has no preceding angle to refer to, it doesn't increase or decrease relative to the previous angle. Specifically, when three angle parameters are present, the tolerance calculation only requires two angle values, as the first angle always serves as the original reference value.

[0021] For example, if the maximum angle of the internal angle is 100 degrees and the minimum angle is 90 degrees, the angle variation range of the internal angle is [90, 100]; the variable range is 100-90=10; obtain the number of internal angles that need to be changed, 10; divide the variable range evenly into each internal angle that needs to be changed to obtain the tolerance of the change.

[0022] According to the incremental tolerance of internal angles, the angle of each internal angle is calculated as follows: ; Where: θ(i) represents the angle of the i-th concave angle, i∈[1,s]; Step S213: Based on the sum of the internal angle θ between the curtain wall components and the external angle β between the curtain wall components in the local curtain wall as a fixed value dz, combined with the angle θ(i) of each internal angle, the angle of each external angle is calculated as follows: ; Step S214: Calculate the change value of the external angle according to the angle of each external angle, and detect the external angle by the change value of the external angle; the change value bhz of the external angle is calculated as follows: ; Where: β(i) represents the angle of the i-th sun angle, i∈[1,s]; It should be noted that: in order to prevent i-1 from exceeding the lower limit, i is counted starting from 2; When the change value bhz of the external angle is equal to the incremental tolerance zgc of the internal angle, it indicates that the external angle is normal and the external angle decreases monotonically; When the change value bhz of the external angle is not equal to the incremental tolerance zgc of the internal angle, it indicates that the external angle is abnormal and needs to be specifically tested; Step S215: Obtaining the internal angle angle θ(i) and the external angle angle β(i), optimizing the curtain wall elevation drawing according to the internal angle angle θ(i) and the external angle angle β(i); setting the angles in the curtain wall elevation drawing according to the corresponding internal angle angle θ(i) and the external angle angle β(i), to obtain an optimized curtain wall elevation drawing; Step S22: Based on the optimized curtain wall elevation drawing, the curtain wall plan drawing is processed for consistency with the curtain wall elevation drawing, and the curtain wall plan drawing is scaled so that the corresponding data of the curtain wall plan drawing and the curtain wall elevation drawing are the same; thus, the optimized curtain wall information is obtained; Step S221: Taking the optimized curtain wall elevation drawing as a reference, obtain the number of components g in the curtain wall elevation drawing; record the length of the component as cd(j); and set the curtain wall plan drawing according to the length of the component cd(j); Step S222: Obtain a curtain wall plan, extract the side length bc(j) of the curtain wall plan component, and scale the curtain wall plan according to the side length bc(j) and the length cd(j) of the component. The specific calculation of the scaling ratio sfb(j) is as follows: ; Scale the curtain wall plan according to the scaling ratio, and combine the scaled image with the curtain wall elevation to obtain optimized curtain wall information; It should be noted that the side length of the curtain wall plan component refers to the side displayed in the curtain wall elevation drawing; it should be consistent with the length of the component in the elevation drawing.

[0023] Step S3: Using the design information, distinguish the building materials of the panels and divide the curtain wall into glass panels and aluminum panels; adjust the curtain wall according to the glass panels and aluminum panels; obtain curtain wall adjustment information; and generate a keel processing drawing based on the curtain wall adjustment information; Step S31: Obtaining the panel material of the curtain wall according to the design information to obtain glass panels and aluminum panels; adjusting the curtain wall according to the glass panels and aluminum panels; and reserving space on the glass panel side in combination with the internal angle; Step S311: According to the design information, extract the panel material of the curtain wall as glass to obtain a glass panel; extract the inner angle formed by the glass panel and record it as the glass inner angle, and obtain the number b of the glass inner angle; record the glass inner angle as bnj (1), bnj (2), ..., bnj (b); Step S312: perform a cyclic comparison on the inner angles of the glass; compare bnj(1), bnj(2), ..., bnj(b) with the 90-degree angle respectively: If the inner angle of the glass is less than 90 degrees, count the corresponding glass panels, shift the glass panels along the inner angle of the glass, separate the 130mm aluminum panels, and install the opening sash; If the internal angle of the glass is equal to or greater than 90 degrees, the corresponding glass panel maintains its original spatial positioning without adjustment.

[0024] According to the processing of glass panels, curtain wall adjustment information is obtained; Step S32: Obtain the aluminum panel, process the joist according to the aluminum panel and the curtain wall adjustment information, generate the joist model through the Grasshopper plug-in, and obtain the joist processing diagram; Step S321: According to the design information, obtain the aluminum panel, measure the installation angle az of the aluminum panel, and obtain the installation angle laz of the joist according to the installation angle of the aluminum panel; laz is equal to az in value; It should be noted that the installation of the joist is parallel to the aluminum panel, and the installation angle of the joist is the same as the installation angle of the aluminum panel.

[0025] It should be noted that the joist is a supporting structure of the curtain wall system, which bears the weight of the curtain wall panel and external loads (such as wind load, snow load, etc.), and also plays a role in connecting the curtain wall panel and the main structure of the building, ensuring the stability and safety of the curtain wall.

[0026] Step S322: According to the installation angle of the joist, the initial construction of the joist is carried out, the curtain wall adjustment information of the glass panel is obtained, the angle of the joist is cut according to the curtain wall adjustment information of the glass panel, and the joist is fitted with the glass panel; the joist processing diagram is automatically generated by Grasshopper; Step S4: Modify the initial model according to the optimized curtain wall information and the curtain wall adjustment information, fill the model according to the joist processing diagram, and obtain the solid model; Step S41: Obtain the initial model, set the difference of the curtain wall's internal and external angles according to the optimized curtain wall information, and limit the internal and external angles of the curtain wall in the same area to be constant, so that the internal angle of the curtain wall is monotonically increasing and the external angle of the curtain wall is monotonically decreasing; change the curtain wall according to the change of the internal and external angles of the curtain wall; Step S42: Optimize the spatial setting of the curtain wall through the curtain wall adjustment information, displace the glass panel in the curtain wall, reserve space for the installation of the opening fan, automatically generate the joist processing diagram of the curtain wall, add the joist to the initial model, and obtain the final solid model.

[0027] Example Two

[0028] Please refer to Figure 3 A design data processing system for a broken line staggered special-shaped curtain wall includes a model construction module, a first processing module, a second processing module, and a model optimization module. Model construction module: Obtain design information, extract curtain wall components and design parameters according to design information; three-dimensional modeling of curtain wall components, and store design parameters in the model to obtain an initial model; The first processing module: Based on the initial model, the curtain wall elevation and curtain wall plan are obtained, the curtain wall size and positioning are analyzed through the curtain wall elevation, the curtain wall elevation is optimized, and the curtain wall plan and curtain wall elevation are processed for consistency to obtain optimized curtain wall information; The second processing module: Based on the design information, the building materials of the panels are distinguished and the curtain wall is divided into glass panels and aluminum panels; the curtain wall is adjusted according to the glass panels and aluminum panels; the curtain wall adjustment information is obtained; and the keel processing drawing is generated based on the curtain wall adjustment information; Model optimization module: Modify the initial model according to the optimized curtain wall information and curtain wall adjustment information, fill the model with the keel processing drawing, and obtain the solid model.

[0029] In this application, if a corresponding calculation formula appears, the above calculation formula is dimensionless and its numerical calculation is performed. The weight coefficient, proportional coefficient and other coefficients in the formula are set to a result value obtained by quantifying each parameter. Regarding the size of the weight coefficient and the proportional coefficient, as long as it does not affect the proportional relationship between the parameter and the result value, it is acceptable.

[0030] The preferred embodiments of the present invention disclosed above are intended only to help illustrate the present invention. These preferred embodiments do not exhaustively describe all details, nor do they limit the present invention to specific embodiments. Obviously, many modifications and variations are possible based on the contents of this specification. These embodiments are selected and described in detail in this specification to better explain the principles and practical applications of the present invention, thereby enabling those skilled in the art to better understand and utilize the present invention. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. A design data processing method for a fold line staggered special-shaped curtain wall, characterized in that: include: Step S1: Obtain design information and build an initial model based on the design information; Step S2: Based on the initial model, obtain the curtain wall elevation and curtain wall plan, analyze the size and positioning of the curtain wall through the curtain wall elevation, optimize the curtain wall elevation, and make the curtain wall plan and curtain wall elevation consistent to obtain optimized curtain wall information; Step S3: Using the design information, distinguish the building materials of the panels and divide the curtain wall into glass panels and aluminum panels; adjust the curtain wall according to the glass panels and aluminum panels; obtain curtain wall adjustment information; and generate a keel processing drawing based on the curtain wall adjustment information; Step S4: Modify the initial model according to the optimized curtain wall information and the curtain wall adjustment information, and fill the model in combination with the keel processing drawing to obtain a solid model.

2. The design data processing method for a fold line staggered special-shaped curtain wall according to claim 1 is characterized in that: The specific steps of step S2 are as follows: Step S21: Processing the initial model to generate a curtain wall elevation and a curtain wall plan; extracting curtain wall components based on the curtain wall elevation, obtaining angles between curtain wall components, and optimizing the curtain wall elevation based on the angles between curtain wall components; Step S22: Based on the optimized curtain wall elevation drawing, the curtain wall plan drawing is processed for consistency with the curtain wall elevation drawing, and the curtain wall plan drawing is scaled so that the corresponding data of the curtain wall plan drawing and the curtain wall elevation drawing are the same; thus, the optimized curtain wall information is obtained.

3. The design data processing method for a fold line staggered special-shaped curtain wall according to claim 2 is characterized in that: The specific steps of step S21 are as follows: Step S211: extracting curtain wall components according to the curtain wall elevation drawing; obtaining the inner angle θ between the curtain wall components and the outer angle β between the curtain wall components; dividing the curtain wall into partial curtain walls according to the curtain wall components, and setting the sum of the inner angle θ between the curtain wall components and the outer angle β between the curtain wall components in the partial curtain walls to a fixed value dz; Step S212: Perform incremental processing on the internal angles between curtain wall components to obtain the maximum angle ymx and the minimum angle ymi of the internal angles; obtain the number s of local curtain walls; and calculate the incremental tolerance zgc of the internal angles based on the maximum angle ymx, the minimum angle ymi, and the number s of local curtain walls, as follows.

4. The design data processing method for a fold line staggered special-shaped curtain wall according to claim 2 is characterized in that: The specific steps of step S21 also include: Step S213: Calculating the angle of each external angle based on the sum of the internal angle θ between curtain wall components and the external angle β between curtain wall components in the local curtain wall as a fixed value dz and the angle θ(i) of each internal angle; Step S214: Calculate the change value of the external angle according to the angle of each external angle, and detect the external angle through the change value of the external angle; calculate the change value bhz of the external angle; When the change value bhz of the external angle is equal to the incremental tolerance zgc of the internal angle, it indicates that the external angle is normal and the external angle decreases monotonically; When the change value bhz of the external angle is not equal to the incremental tolerance zgc of the internal angle, it indicates that the external angle is abnormal and needs to be specifically tested; Step S215: Obtain the angle θ(i) of the inner angle and the angle β(i) of the outer angle, and optimize the curtain wall elevation drawing according to the angle θ(i) of the inner angle and the angle β(i) of the outer angle; set the angles in the curtain wall elevation drawing according to the corresponding angles θ(i) of the inner angle and the angle β(i) of the outer angle to obtain the optimized curtain wall elevation drawing.

5. The design data processing method for a fold line staggered special-shaped curtain wall according to claim 3 is characterized in that: The specific steps of step S211 are as follows: The curtain wall is divided into partial curtain walls according to the curtain wall components; each partial curtain wall includes a concave angle and a convex angle; the number of partial curtain walls is denoted as s; according to the number of partial curtain walls, each concave angle is denoted as θ(1), θ(2), ..., θ(s); each convex angle is denoted as β(1), β(2), ..., β(s); Limits are imposed on the inner angles θ(1) to θ(s) and the outer angles β(1) to β(s) of the local curtain wall.

6. The design data processing method for a fold line staggered special-shaped curtain wall according to claim 2 is characterized in that: The specific steps of step S22 are as follows: Step S221: Taking the optimized curtain wall elevation drawing as a reference, obtain the number of components g in the curtain wall elevation drawing; record the length of the component as cd(j); and set the curtain wall plan drawing according to the length of the component cd(j); Step S222: Obtain a curtain wall plan, extract the side length bc(j) of the curtain wall plan component; scale the curtain wall plan according to the side length bc(j) and the length cd(j) of the component; The curtain wall plan is scaled according to the scaling ratio, and the scaled image is combined with the curtain wall elevation to obtain optimized curtain wall information.

7. The design data processing method for a fold line staggered special-shaped curtain wall according to claim 1 is characterized in that: The specific steps of step S3 are as follows: Step S31: Obtaining the panel material of the curtain wall according to the design information to obtain glass panels and aluminum panels; adjusting the curtain wall according to the glass panels and aluminum panels; and reserving space on the glass panel side in combination with the internal angle; Step S32: Acquire the aluminum panel, process the keel according to the aluminum panel and curtain wall adjustment information, generate a keel model, and obtain a keel processing drawing.

8. The design data processing method for a fold line staggered special-shaped curtain wall according to claim 7 is characterized in that: The specific steps of step S31 are as follows: Step S311: According to the design information, extract the panel material of the curtain wall as glass to obtain a glass panel; extract the inner angle formed by the glass panel and record it as the glass inner angle, and obtain the number b of the glass inner angle; record the glass inner angle as bnj (1), bnj (2), ..., bnj (b); Step S312: perform a cyclic comparison on the inner angles of the glass; compare bnj(1), bnj(2), ..., bnj(b) with the 90-degree angle respectively: If the inner angle of the glass is less than 90 degrees, count the corresponding glass panels, shift the glass panels along the inner angle of the glass, separate the 130mm aluminum panels, and install the opening sash; If the internal angle of the glass is equal to or greater than 90 degrees, the corresponding glass panel will maintain its original spatial positioning without adjustment; According to the processing of the glass panel, the curtain wall adjustment information is obtained.

9. The design data processing method for a fold line staggered special-shaped curtain wall according to claim 7, characterized in that: The specific steps of step S32 are as follows: Step S321: According to the design information, the aluminum panel is obtained, and the installation angle az of the aluminum panel is measured. According to the installation angle of the aluminum panel, the installation angle laz of the keel is obtained; laz and az are equal in value; Step S322: Initially construct the keel according to its installation angle, obtain curtain wall adjustment information of the glass panel, and cut the angle of the keel according to the curtain wall adjustment information of the glass panel so that the keel fits the glass panel; and automatically generate a keel processing drawing.

10. A design data processing system for a fold line staggered special-shaped curtain wall, applicable to the design data processing method for a fold line staggered special-shaped curtain wall according to any one of claims 1 to 9, characterized in that: The processing system includes: Model building module: obtain design information, extract curtain wall components and design parameters based on the design information; perform 3D modeling on curtain wall components, and store the design parameters in the model to obtain the initial model; The first processing module: Based on the initial model, the curtain wall elevation and curtain wall plan are obtained, the curtain wall size and positioning are analyzed through the curtain wall elevation, the curtain wall elevation is optimized, and the curtain wall plan and curtain wall elevation are processed for consistency to obtain optimized curtain wall information; The second processing module: Based on the design information, the building materials of the panels are distinguished and the curtain wall is divided into glass panels and aluminum panels; the curtain wall is adjusted according to the glass panels and aluminum panels; the curtain wall adjustment information is obtained; and the keel processing drawing is generated based on the curtain wall adjustment information; Model optimization module: Modify the initial model according to the optimized curtain wall information and curtain wall adjustment information, fill the model with the keel processing drawing, and obtain the solid model.

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