A design method and system for automatic packaging paper boxes and aluminum foil.

Abstract

This invention provides an automated design method and system for packaging boxes and aluminum foil. The system obtains design requirements and clarifies the design object and specific positional shapes, including rings, rectangles, and other pre-defined drawing shapes. Based on a pre-defined database, a generative large model is trained, outputting adapted surface patterns and text information. The layout is completed by combining this with packaging die-cutting drawings. The text information undergoes regulatory and advertising law compliance review, and the aluminum foil design avoids edges and heat-sealing ring positions. The content is integrated to form a design scheme, which is then reviewed as a whole. Upon approval, the final drawings are output and stored in categories. Through the collaboration of various modules, the system achieves automated and precise design of boxes and aluminum foil, meeting specific positional layout requirements.

Description

Technical Field

[0001] This invention relates to the field of packaging paper boxes and aluminum foil design technology, specifically to an automatic packaging paper box and aluminum foil design method and system. Background Technology

[0002] In the field of packaging box and aluminum foil design, traditional design methods rely heavily on manual operation, resulting in low efficiency and insufficient accuracy. Designers must manually draw surface patterns, edit text information, and combine them with packaging die-cutting drawings for layout. This process is tedious and time-consuming, especially when designing pre-defined circular, rectangular, and other irregular shapes for specific locations. It is difficult to achieve precise alignment between the pattern and the specific location, easily leading to layout misalignment and exceeding the cutting range. Furthermore, the compliance review of text information requires manual verification against regulations and advertising laws, which can easily lead to oversights of non-compliant content, resulting in designs that do not meet industry standards and increasing design modification costs and rework rates. In addition, during the aluminum foil design process, failure to specifically avoid edges and heat-sealing ring areas can affect the sealing effect of the aluminum foil and reduce packaging quality.

[0003] The application of existing AI design technologies in the packaging field has significant limitations. Most technologies lack model training based on dedicated databases, resulting in poor compatibility between generated graphics and text information. This makes it difficult to accurately match the design requirements and specific layout requirements of cardboard boxes and aluminum foil. Some technologies lack dedicated text compliance review mechanisms, failing to comprehensively verify whether text information complies with regulations and advertising laws, thus posing compliance risks. Furthermore, existing technologies lack specific avoidance mechanisms for aluminum foil design, failing to effectively avoid critical prohibited layout areas such as edges and heat-sealing rings, affecting aluminum foil sealing performance. In addition, the lack of standardized classification and storage mechanisms for completed designs and drawings makes subsequent retrieval and modification inconvenient, hindering the reuse of design resources and further reducing design efficiency, failing to meet the demands of large-scale, precise packaging design. Summary of the Invention

[0004] In view of the above-mentioned technical deficiencies, the purpose of this invention is to provide an automatic design method and system for packaging paper boxes and aluminum films, so as to realize the automated and precise design of paper boxes and aluminum films.

[0005] To achieve the above objectives, the present invention adopts the following technical solution:

[0006] A design method for automatic packaging of cardboard boxes and aluminum foil includes the following steps:

[0007] S1. Obtain packaging design requirements, clarify whether the design object is a cardboard box or aluminum film, and determine the specific shape of the location to be designed. The specific shape of the location includes rings, rectangles and other shapes designed in the pre-designed drawings.

[0008] S2. Train a generative large model based on a preset database, and output surface patterns and text information that are adapted to the design object through the generative large model;

[0009] S3. Arrange and layout the output surface pattern and text information based on the packaging die-cutting drawing;

[0010] S4. Conduct compliance review of text information, including legal requirements and advertising law requirements;

[0011] S5. For aluminum film design, avoid the edge positions and heat sealing ring positions of the aluminum film during the layout and typesetting process;

[0012] S6. Integrate surface patterns, compliant text information, and layout results to form a complete paper box or aluminum foil design scheme;

[0013] S7. Conduct a comprehensive review of the complete design scheme, and output the final design drawings after the review is approved;

[0014] S8. Store the generated design scheme and final design drawings for later retrieval.

[0015] Preferably, in step S1, the method for obtaining packaging design requirements includes: receiving design parameters, design purpose and design object type input by the user, the design object type is divided into paper box and aluminum film, and receiving the user's preset shape parameters of specific positions, clarifying the specific distribution area of ​​the specific position on the surface of the paper box or aluminum film, and determining the output format and accuracy requirements of the design scheme.

[0016] Preferably, in step S2, the method for training a generative large model based on a preset database includes: the preset database stores historical design drawings, compliant text samples, die-cut drawing templates, and specific location shape layout cases of various types of cardboard boxes and aluminum foil; the generative large model is iteratively trained using historical data in the database, and the drawing generation accuracy and text adaptability are optimized during the training process, so that the generative large model can output surface drawings and text information that match the design requirements and specific location shapes.

[0017] Preferably, in step S3, the method for layout and typesetting includes: retrieving the packaging die-cutting drawing that matches the design object, identifying the fold lines, cutting edges and reserved areas in the die-cutting drawing, accurately laying out the surface pattern output by the generated large model into the preset specific position shape, laying out the text information into the reserved text area of ​​the die-cutting drawing, ensuring that the pattern and text do not exceed the die-cutting range and fit the boundary of the specific position shape.

[0018] Preferably, in step S4, the method for compliance review of text information includes: extracting all text information in the design scheme, comparing it with a preset database of regulatory requirements and a database of prohibited and restricted terms in advertising law, identifying content in the text information that does not comply with regulatory requirements or violates advertising law, marking the illegal text and the reason for the violation, and if there is illegal content, stopping the current output and returning to the generative large model to regenerate the text information.

[0019] Preferably, in step S5, the method for avoiding the edge position and heat sealing ring position of the aluminum film during the layout process includes: identifying the edge contour and heat sealing ring contour in the aluminum film die-cutting drawing, delineating the prohibited layout area of ​​the edge position and heat sealing ring position, and laying out the surface pattern and text information in the area outside the prohibited layout area to ensure that the pattern and text do not cover the heat sealing ring and do not exceed the edge contour of the aluminum film.

[0020] Preferably, in step S7, the method for conducting an overall review of the complete design scheme includes: reviewing whether the surface patterns in the design scheme conform to the shape of a specific location, whether the text information is fully compliant, whether the layout matches the die-cut drawing, and whether the aluminum film design avoids prohibited layout areas. During the review process, parts that do not meet the requirements are marked. If the review fails, the corresponding step is returned for modification until the review is passed.

[0021] Preferably, in step S8, the method for storing the generated design scheme and final design drawings includes: classifying and labeling the design scheme and final design drawings according to the design object type, specific location shape, and design purpose, establishing an index directory, storing them in a preset database, and recording the design time, design parameters, and review records. This allows users to quickly retrieve the corresponding design scheme and drawings through the index directory, and also allows them to modify or delete the stored content.

[0022] An automated design system for packaging boxes and aluminum foil includes a requirements acquisition module, a database module, a generative large-scale model module, a layout and typesetting module, a text compliance review module, an aluminum foil avoidance design module, a scheme review module, a storage module, and a control system module. The requirements acquisition module acquires user-input design requirements and shape parameters for specific locations. The database module stores historical design data, die-cutting drawing templates, and compliance review standards. The generative large-scale model module trains on the database and outputs surface patterns and text information. The layout and typesetting module arranges patterns and text in conjunction with die-cutting drawings. The text compliance review module reviews the compliance of text information. The aluminum foil avoidance design module avoids edges and heat-sealing ring positions in aluminum foil design. The scheme review module performs a comprehensive review of the complete design scheme. The storage module categorizes and stores design schemes and drawings. The control system module connects to each module to control the collaborative design process.

[0023] Preferably, the generative large model module includes a model training unit and a graphic output unit. The model training unit is used to perform iterative training of the model using historical data in the database module, and the graphic output unit is used to output adapted surface patterns and text information according to design requirements. The text compliance review module includes a text extraction unit, a comparison unit, and a violation processing unit. The text extraction unit is used to extract text information from the design scheme, the comparison unit is used to compare it with compliance standards, and the violation processing unit is used to mark the violation content and feed it back to the generative large model module.

[0024] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0025] The requirements acquisition module accurately receives design requirements, clearly defining the design object, specific location shapes, and related requirements. This provides clear guidance for subsequent design processes, ensuring the design direction aligns with user needs and avoiding design deviations. The database module stores various historical design data, die-cutting templates, and compliance review standards. Combined with iterative training from the generative large-scale model module, it improves the adaptability of surface patterns and text information, ensuring the generated content meets the design object and specific location shape requirements, reducing manual adjustments. The layout and typesetting module, combined with packaging die-cutting drawings, accurately identifies die-cutting fold lines, cutting edges, and reserved areas, precisely placing patterns and text information within specific location shapes, ensuring layout accuracy and preventing deviations from the cutting range, thus improving design precision. The text compliance review module specifically reviews text information for compliance with laws and advertising regulations. By comparing it with a pre-set compliance standard database, it comprehensively identifies non-compliant content and provides feedback for modification, avoiding compliance risks and ensuring the design solution complies with industry standards. The aluminum foil avoidance design module accurately identifies the edges and heat-sealing ring contours of the aluminum foil die-cutting plate, delineates prohibited layout areas, and ensures that these critical locations are avoided during the aluminum foil design process, guaranteeing the sealing performance and packaging quality of the aluminum foil. The scheme review module conducts a comprehensive review of the design scheme, checking the fit of drawings, text compliance, layout matching, and aluminum foil avoidance, marking unqualified parts and providing feedback for modification, ensuring the completeness and accuracy of the final design scheme. The storage module categorizes and indexes schemes and drawings according to design object, specific location shape, and design purpose, facilitating rapid retrieval, modification, and reuse, achieving efficient management of design resources and improving design efficiency. The control system module coordinates the collaborative work of all functional modules, ensuring smooth operation of the entire process from requirements acquisition, model training, layout, compliance review, scheme review, and storage, improving the overall stability and automation level of the system, and achieving efficient and accurate design of cardboard boxes and aluminum foil. Attached Figure Description

[0026] Figure 1 This is a flowchart of the method of the present invention;

[0027] Figure 2 This is a structural block diagram of the system of the present invention. Detailed Implementation

[0028] The invention will now be further described with reference to the accompanying drawings.

[0029] like Figure 1 As shown, a design method for an automatic packaging cardboard box and aluminum foil includes the following steps:

[0030] S1. Obtain packaging design requirements:

[0031] The system receives user input of design parameters, design purpose, and design object type. The design object type is divided into cardboard box and aluminum foil. It also receives user-preset shape parameters for specific locations, clarifies the specific distribution area of ​​the specific location on the surface of the cardboard box or aluminum foil, and determines the output format and accuracy requirements of the design scheme.

[0032] Clearly define the design object as a cardboard box or aluminum foil, and determine the specific shape of the location to be designed. The specific shape of the location includes rings, rectangles, and other shapes designed in the pre-designed drawings.

[0033] S2. Training a generative large model based on a pre-set database:

[0034] The pre-set database stores historical design drawings, compliant text samples, die-cut drawing templates, and specific location shape layout cases for various cardboard boxes and aluminum foil. The generative large model is iteratively trained using historical data in the database. During the training process, the accuracy of drawing generation and text adaptability are optimized, enabling the generative large model to output surface drawings and text information that match design requirements and specific location shapes.

[0035] Generative large models output surface patterns and text information that adapt to the design objects;

[0036] S3. Based on the packaging die-cutting pattern drawing, lay out and arrange the output surface pattern and text information:

[0037] Retrieve the packaging die-cutting pattern drawing that matches the design object, identify the fold lines, cutting edges and reserved areas in the die-cutting pattern drawing, accurately lay out the surface pattern output by the generated large model into the preset specific position shape, and lay out the text information into the reserved text area of ​​the die-cutting pattern drawing, ensuring that the pattern and text do not exceed the die-cutting range and fit the specific position shape boundary.

[0038] S4. Conduct compliance review of text information:

[0039] Extract all text information from the design scheme and compare it with the preset database of regulatory requirements and the database of prohibited and restricted terms in advertising law. Identify the text information that does not comply with regulatory requirements or violates advertising law, mark the illegal text and the reason for the violation. If there is illegal content, stop the current output and return to the generative large model to regenerate the text information.

[0040] The review includes requirements of laws and regulations, as well as advertising law requirements;

[0041] S5. For aluminum foil designs, avoid the edges and heat-sealing ring areas during layout and typesetting:

[0042] Identify the edge contour and heat sealing ring contour in the aluminum foil die-cutting pattern drawing, delineate the prohibited layout areas of the edge position and heat sealing ring position, and lay out the surface pattern and text information outside the prohibited layout area to ensure that the pattern and text do not cover the heat sealing ring and do not exceed the edge contour of the aluminum foil.

[0043] S6. Integrate surface patterns, compliant text information, and layout results to form a complete paper box or aluminum foil design scheme;

[0044] S7. Conduct a comprehensive review of the complete design scheme:

[0045] The review process includes checking whether the surface patterns in the design scheme conform to the shape of the specific location, whether the text information is fully compliant, whether the layout matches the die-cut drawing, and whether the aluminum foil design avoids prohibited layout areas. During the review process, parts that do not meet the requirements are marked. If the review fails, the process is returned to the corresponding step for modification until the review is passed.

[0046] The final design drawings will be output after the review is approved;

[0047] S8. Save the generated design scheme and final design drawings:

[0048] The design schemes and final design drawings are classified and labeled according to the type of design object, specific location shape, and design purpose. An index directory is established and stored in a preset database. The design time, design parameters and review records are also recorded. Users can quickly retrieve the corresponding design schemes and drawings through the index directory, and can also modify and delete the stored content.

[0049] For later retrieval and use.

[0050] like Figure 2As shown, an automatic design system for packaging boxes and aluminum foil includes a requirements acquisition module, a database module, a generative large model module, a layout and typesetting module, a text compliance review module, an aluminum foil avoidance design module, a scheme review module, a storage module, and a control system module. The requirements acquisition module acquires user-input design requirements and shape parameters for specific locations. The database module stores historical design data, die-cutting drawing templates, and compliance review standards. The generative large model module trains on the database and outputs surface patterns and text information. The layout and typesetting module combines die-cutting drawings to arrange patterns and text. The text compliance review module reviews the compliance of text information. The aluminum foil avoidance design module avoids edges and heat-sealing ring positions in aluminum foil design. The scheme review module performs a comprehensive review of the complete design scheme. The storage module categorizes and stores design schemes and drawings. The control system module connects to each module to control the collaborative design process.

[0051] Furthermore, the generative large model module includes a model training unit and a graphic output unit. The model training unit is used to iteratively train the model using historical data from the database module, and the graphic output unit is used to output adapted surface patterns and text information according to design requirements. The text compliance review module includes a text extraction unit, a comparison unit, and a violation processing unit. The text extraction unit is used to extract text information from the design scheme, the comparison unit is used to compare it with compliance standards, and the violation processing unit is used to mark the violation content and feed it back to the generative large model module.

[0052] Example 1

[0053] This embodiment applies to the graphic design of a specific position on a packaging cardboard box, and the specific process is as follows:

[0054] Users submit packaging design requirements through the system, specifying that the design object is a cardboard box, that the shape of the specific area to be designed is circular, and also specifying the purpose of the cardboard box design and the output format requirements of the design scheme. The requirements acquisition module receives the design requirements and the distribution area requirements of the specific circular area, and synchronizes the relevant information to all related modules.

[0055] The database module retrieves various historical design drawings of cardboard boxes, compliant text samples, cardboard die-cutting templates, and circular layout examples from internal storage. The generative large model module uses this historical data to iteratively train the generative large model, optimizing the drawing generation accuracy and text adaptability. After training, the generative large model outputs surface drawings and text information adapted to the cardboard box and the circular specific position. The text information includes product descriptions corresponding to the cardboard box.

[0056] The layout module retrieves the packaging die-cutting pattern that matches the cardboard box, identifies the fold lines, cutting edges, and reserved areas in the die-cutting pattern, and accurately lays out the surface pattern output by the generated large model into the preset specific position of the ring, ensuring that the pattern completely fits the ring boundary. At the same time, the text information is laid out into the text area reserved in the die-cutting pattern to prevent the pattern and text from exceeding the cutting range of the die-cutting pattern.

[0057] The text compliance review module extracts all text information from the design scheme and compares it with the preset database of legal requirements and the database of prohibited and restricted terms in advertising law. It checks whether the text content meets the relevant requirements one by one. After confirming that there is no illegal text information, the text compliance review is completed.

[0058] The scheme review module conducts a comprehensive review of the complete cardboard box design scheme, focusing on checking whether the surface pattern fits the specific position of the ring, whether the text information is fully compliant, and whether the layout matches the die-cutting drawings. If no non-compliance is found during the review process, the review is deemed passed, and the final cardboard box design drawings are output.

[0059] The storage module categorizes and labels the generated cardboard box design schemes and final design drawings according to the design object type, the shape of a specific ring position, and the design purpose, and establishes an index directory. At the same time, it records the design time, design requirements, and review records, and stores the relevant content in the database module for users to retrieve and modify later.

[0060] Example 2

[0061] This embodiment is applied to a graphic design scenario involving specific locations within a rectangular aluminum foil package, focusing on avoiding issues at the edges and heat-sealing ring positions in the aluminum foil design. The specific process is as follows:

[0062] Users submit packaging design requirements, specifying that the design object is aluminum foil encapsulation, the shape of the specific location to be designed is rectangular, and the encapsulation purpose of the aluminum foil and the output requirements of the design scheme are clearly defined. After receiving the requirements, the requirements acquisition module synchronizes them to relevant modules such as the generative large model module and the aluminum foil avoidance design module.

[0063] The database module retrieves historical design drawings, compliant text samples, aluminum film die-cutting templates, and rectangular layout examples for specific locations. The generative large model module uses this historical data to iteratively train the generative large model, optimizing the text and image compatibility. After training, it outputs surface patterns and text information that are adapted to the aluminum film and the specific rectangular location. The text information includes descriptions and warnings for the aluminum film packaged product.

[0064] The layout module retrieves the die-cutting drawing that matches the aluminum foil, identifies the cutting edges and reserved areas in the die-cutting drawing, and at the same time, the aluminum foil avoidance design module identifies the edge contour and heat-sealing ring contour in the aluminum foil die-cutting drawing, delineates the prohibited layout areas at the edge position and heat-sealing ring position. The layout module combines the two information to accurately lay out the surface pattern in the preset rectangular specific position and lay out the text information in the reserved text area, ensuring that the pattern and text are both outside the prohibited layout area, do not cover the heat-sealing ring, and do not exceed the edge contour of the aluminum foil.

[0065] The text compliance review module extracts all text information from the design scheme and compares it with the database of regulatory requirements and the database of prohibited and restricted terms in the Advertising Law to identify whether there is any illegal content. After verification, if the text information is confirmed to meet the relevant requirements, the compliance review is completed.

[0066] The scheme review module conducts a comprehensive review of the complete aluminum foil design scheme, checking whether the surface pattern fits the specific position of the rectangle, whether the text information is compliant, whether the layout matches the die-cut drawing, and whether the edges of the aluminum foil and the position of the heat sealing ring are effectively avoided. After the review is approved, the final aluminum foil design drawing is output.

[0067] The storage module categorizes and labels aluminum film design schemes and final drawings according to design object type, specific rectangular shape, and aluminum film packaging purpose. It records design-related information and review records, stores them in the database module, and establishes an index directory to support users in quickly retrieving, modifying, or deleting relevant content later.

[0068] Example 3

[0069] This embodiment is applied to a scenario where graphic design is used in a pre-defined irregular location on a packaging cardboard box. The specific process is as follows:

[0070] Users submit packaging design requirements, specifying that the design object is a cardboard box, determining that the shape of a specific location to be designed is an irregular shape from a pre-designed drawing, and submitting the outline of that irregular location on the drawing. They also specify the purpose of the cardboard box design and the required output precision of the design. The requirements acquisition module receives the design requirements, the outline of the irregular location on the drawing, and related requirements, and synchronizes them to all functional modules.

[0071] The database module retrieves historical design drawings of packaging boxes, compliant text samples, die-cutting templates, and various specific location shape layout examples. The generative large model module uses this historical data to iteratively train the generative large model, focusing on optimizing the graphic and text adaptation capabilities of irregular shape areas. After training, the generative large model outputs surface patterns and text information adapted to the cardboard box and irregular specific locations. The text information includes product instructions and related explanatory content.

[0072] The layout module retrieves the packaging die-cutting pattern that matches the cardboard box, identifies the fold lines, cutting edges, and reserved areas in the die-cutting pattern, and imports the outline of the irregular specific position drawing submitted by the user. It accurately locates the specific area of ​​the irregular specific position on the cardboard box die-cutting pattern drawing, and lays out the surface pattern output by the generated large model to fit the irregular outline. It also lays out the text information in the reserved text area of ​​the die-cutting pattern drawing, ensuring that the pattern does not exceed the boundary of the irregular specific position, the text does not exceed the reserved area, and the overall layout does not affect the folding and cutting of the cardboard box.

[0073] The text compliance review module extracts all text information from the design scheme and compares it one by one with the preset database of regulatory requirements and the database of prohibited and restricted terms in advertising law. It focuses on checking suspected non-compliant text content, and completes the text compliance review after confirming that there is no non-compliant content.

[0074] The scheme review module conducts an overall review of the complete cardboard box design scheme, checking the fit of the surface pattern with specific irregular positions, the compliance of text information, and the matching of layout and die-cutting drawings. If it finds that the pattern does not fully fit the irregular outline, it marks the problem and returns to the layout module for adjustment. After the adjustment is completed, it is resubmitted for review. After the review is approved, the final cardboard box design drawings are output.

[0075] The storage module categorizes and labels the generated cardboard box design schemes, final design drawings, and adjustment records according to the design object type, irregular specific location shape, and design purpose, establishes an index directory, records the design time, design requirements, and review details, and stores the relevant content in the database module for users to retrieve, view, or further modify later.

Claims

1. A design method for automatic packaging paper boxes and aluminum foil, characterized in that, Includes the following steps: S1. Obtain packaging design requirements, clarify whether the design object is a cardboard box or aluminum film, and determine the specific shape of the location to be designed. The specific shape of the location includes rings, rectangles and other shapes designed in the pre-designed drawings. S2. Train a generative large model based on a preset database, and output surface patterns and text information that are adapted to the design object through the generative large model; S3. Arrange and layout the output surface pattern and text information based on the packaging die-cutting drawing; S4. Conduct compliance review of text information, including legal requirements and advertising law requirements; S5. For aluminum film design, avoid the edge positions and heat sealing ring positions of the aluminum film during the layout and typesetting process; S6. Integrate surface patterns, compliant text information, and layout results to form a complete paper box or aluminum foil design scheme; S7. Conduct a comprehensive review of the complete design scheme, and output the final design drawings after the review is approved; S8. Store the generated design scheme and final design drawings for later retrieval.

2. The design method for an automatic packaging cardboard box and aluminum film as described in claim 1, characterized in that, In step S1, the method for obtaining packaging design requirements includes: receiving design parameters, design purpose and design object type input by the user. The design object type is divided into paper box and aluminum film. At the same time, the method receives the user's preset shape parameters of specific positions, clarifies the specific distribution area of ​​the specific position on the surface of the paper box or aluminum film, and determines the output format and accuracy requirements of the design scheme.

3. The design method for an automatic packaging cardboard box and aluminum film as described in claim 1, characterized in that, In step S2, the method for training a generative large model based on a preset database includes: the preset database stores historical design drawings of various cardboard boxes and aluminum foil, compliant text samples, die-cut drawing templates, and specific location shape layout cases; the generative large model is iteratively trained using historical data in the database, and the drawing generation accuracy and text adaptability are optimized during the training process, so that the generative large model can output surface drawings and text information that match the design requirements and specific location shapes.

4. The design method for an automatic packaging cardboard box and aluminum film as described in claim 1, characterized in that, In step S3, the layout method includes: retrieving the packaging die-cutting drawing that matches the design object, identifying the fold lines, cutting edges and reserved areas in the die-cutting drawing, accurately laying out the surface pattern output by the generated large model into the preset specific position shape, laying out the text information into the reserved text area of ​​the die-cutting drawing, ensuring that the pattern and text do not exceed the die-cutting range and fit the boundary of the specific position shape.

5. The design method for an automatic packaging cardboard box and aluminum film as described in claim 1, characterized in that, In step S4, the method for compliance review of text information includes: extracting all text information in the design scheme, comparing it with a preset database of regulatory requirements and a database of prohibited and restricted terms in advertising law, identifying content in the text information that does not comply with regulatory requirements or violates advertising law, marking the illegal text and the reason for the violation, and stopping the current output if there is illegal content, returning to the generative large model to regenerate the text information.

6. The design method for an automatic packaging cardboard box and aluminum film as described in claim 1, characterized in that, In step S5, the method for avoiding the edge position and heat sealing ring position of the aluminum film during the layout process includes: identifying the edge contour and heat sealing ring contour in the aluminum film die-cutting drawing, delineating the prohibited layout area of ​​the edge position and heat sealing ring position, and laying out the surface pattern and text information in the area outside the prohibited layout area to ensure that the pattern and text do not cover the heat sealing ring and do not exceed the edge contour of the aluminum film.

7. The design method for an automatic packaging cardboard box and aluminum film as described in claim 1, characterized in that, In step S7, the method for conducting an overall review of the complete design scheme includes: reviewing whether the surface patterns in the design scheme conform to the shape of a specific location, whether the text information is fully compliant, whether the layout matches the die-cut drawing, and whether the aluminum film design avoids prohibited layout areas. During the review process, parts that do not meet the requirements are marked. If the review fails, the corresponding step is returned for modification until the review is passed.

8. The design method for an automatic packaging paper box and aluminum film as described in claim 1, characterized in that, In step S8, the method for storing the generated design scheme and final design drawings includes: classifying and labeling the design scheme and final design drawings according to the design object type, specific location shape, and design purpose, establishing an index directory, storing them in a preset database, and recording the design time, design parameters, and review records. This allows users to quickly retrieve the corresponding design scheme and drawings through the index directory, and also allows them to modify or delete the stored content.

9. An automatic packaging box and aluminum film design system for performing the method described in any one of claims 1 to 8, characterized in that, It includes a requirements gathering module, a database module, a generative large-scale model module, a layout and typesetting module, a text compliance review module, an aluminum foil avoidance design module, a scheme review module, a storage module, and a control system module. The requirements gathering module is used to obtain the design requirements and shape parameters of specific locations input by the user; the database module is used to store historical design data, die-cut drawing templates, and compliance review standards; the generative large-scale model module is used to train based on the database and output surface patterns and text information; the layout and typesetting module is used to combine die-cut drawings to lay out patterns and text. The text compliance review module is used to review the compliance of text information; the aluminum foil avoidance design module is used to avoid the edge and heat sealing ring position in the aluminum foil design; the scheme review module is used to conduct an overall review of the complete design scheme; the storage module is used to classify and store design schemes and drawings; the control system module is connected to each module to control the collaborative completion of the design process.

10. The automatic packaging box and aluminum film design system as described in claim 9, characterized in that, The generative large model module includes a model training unit and a graphic output unit. The model training unit is used to iteratively train the model using historical data in the database module, and the graphic output unit is used to output adapted surface patterns and text information according to design requirements. The text compliance review module includes a text extraction unit, a comparison unit, and a violation processing unit. The text extraction unit is used to extract text information from the design scheme, the comparison unit is used to compare it with compliance standards, and the violation processing unit is used to mark the violation content and feed it back to the generative large model module.

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