Visual design intelligent display method and system

Abstract

The invention discloses a visual design intelligent display method and system, and relates to the technical field of visual design, and the method comprises the steps: obtaining at least one design basic block, and forming a display keyword for the design basic block; forming at least one local display strategy to obtain a local display instruction; during local display, displaying the visual design model according to a local display instruction; analyzing to obtain at least one target application scene; during simulation display, displaying the visual design model according to a simulation display instruction; at least one display emphasized position is obtained, and a personalized display instruction is obtained; during personalized display, the visual design model is displayed according to a personalized display instruction. By arranging the model decomposition module, the local display setting module, the simulation display setting module and the personalized display setting module, the visual design model is displayed in different modes, the display emphasis is different, and therefore all the characteristics of the visual design model can be displayed to a user.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of visual design, in particular to a visual design intelligent display method and system. BACKGROUND

[0002] Visual design is a subjective form of performance means and result for eye function. Visual design includes graphic design and space design. Graphic design has relatively simple structure and single display mode. Space design has complex structure and mutual superposition of structure, so that ordinary display may not fully display its characteristics. In addition, when displayed, the subjective needs of the observer are not fully understood, which may result in a lack of targeting of the display. SUMMARY

[0003] To solve the above technical problems, a visual design intelligent display method and system are provided. The technical solution solves the problem that space design has complex structure and mutual superposition of structure, so that ordinary display may not fully display its characteristics, and the subjective needs of the observer are not fully understood when displayed, which may result in a lack of targeting of the display.

[0004] To achieve the above purposes, the technical solution adopted by the present application is as follows:

[0005] A visual design intelligent display method comprises the following steps:

[0006] A visual design model to be displayed is obtained, the visual design model is deconstructed to obtain at least one design basic block, and a display keyword is formed based on the design basic block.

[0007] Three modes of local display, simulation display and personalized display are set to switch the display mode.

[0008] When a user selects one of the local display, simulation display and personalized display, the display is performed according to the selected display mode, otherwise, the local display and simulation display are sequentially performed.

[0009] At least one conception point of the visual design model is obtained, at least one local display strategy is formed based on the conception point, the at least one design basic block is set in linkage based on the local display strategy, and a local display instruction is obtained.

[0010] During the local display, the visual design model is displayed according to the local display instruction, and the local display is synchronously displayed by dynamic display and static display.

[0011] According to the use of the visual design model, at least one target application scenario is analyzed;

[0012] The display position, display perspective and light and shadow environment parameters of the visual design model in the target application scenario are determined as simulation display instructions;

[0013] During simulation display, the visual design model is displayed according to the simulation display instructions;

[0014] User personalized display requirements are obtained, and user personalized display requirements are analyzed to obtain at least one display focus position. Based on the at least one display focus position, the design basic block is set to obtain personalized display instructions;

[0015] During personalized display, the visual design model is displayed according to the personalized display instructions, and the personalized display adopts synchronous display of dynamic display and static display.

[0016] Preferably, the deconstruction of the visual design model to obtain at least one design basic block comprises the following steps:

[0017] The six-view projection of the visual design model is obtained, and the points in the visual design model are corresponded to the points projected in the six-view projection. The six-view projection is respectively the front view projection, the rear view projection, the left view projection, the right view projection, the overhead view projection and the bottom view projection of the visual design model;

[0018] At least one sampling point is uniformly arranged in the contour of the six-view projection, the coordinates of the sampling points are modeled, and the contour fitting functions of the six contours of the six-view projection are obtained respectively according to the coordinates of the sampling points;

[0019] The curvature formula is used to calculate the curvature values of the points in the six contours of the six-view projection. The points in the six contours of the six-view projection with curvature values greater than a preset value are taken as the projection joint nodes;

[0020] The points corresponding to the projection joint nodes in the visual design model are taken as the joint nodes;

[0021] The visual design model is segmented at the joint nodes to obtain at least one design basic block;

[0022] The curvature formula is as follows:

[0023]

[0024] Wherein, A is the curvature value of the point in the contour, x is the horizontal coordinate of the point in the contour, and f(x) is the contour fitting function, is the second derivative, is the first derivative.

[0025] Preferably, the process of generating display keywords for the basic design blocks includes the following steps:

[0026] In the big data, obtain at least one similar contour whose difference from the basic block contour of the design is less than a preset difference, and obtain the descriptive text of at least one similar contour in the big data.

[0027] Intersect at least one descriptive text to obtain at least one preliminary keyword;

[0028] Relevance detection is performed on the pre-selected keywords. At least one unverified profile of the pre-selected keywords is obtained from the big data and the number of at least one unverified profile is counted as the first number.

[0029] The number of unverified contours that have partial overlap with the basic design block is counted and used as the second number;

[0030] When the ratio of the second number to the first number is greater than the preset ratio, the prepared keyword will be used as the display keyword, and the display keyword will be paired with the basic design block.

[0031] Preferably, the process of forming at least one local display strategy based on key conceptual points includes the following steps:

[0032] Based on big data, similar keywords are generated for display keywords, and these similar keywords express the same meaning as the display keywords.

[0033] In the ideation points, identify display keywords. When a display keyword or its corresponding similar keywords appear in the ideation points, the display keyword will be used as the target display keyword.

[0034] The design basic blocks that display all target keywords are used as the target design basic blocks;

[0035] For the key points of the concept, a local display strategy is formed, which is to display the basic target design blocks in the visual design model.

[0036] Preferably, the step of linking at least one basic design block to obtain a partial display instruction includes the following steps:

[0037] When setting up linkage, set the instructions of the target design block in the visual design model as display instructions, and set the instructions of other design blocks in the visual design model as hidden instructions. Combine the instruction settings as partial display instructions.

[0038] Preferably, the step of analyzing and obtaining at least one target application scenario based on the purpose of the visual design model includes the following steps:

[0039] Based on the purpose of the visual design model, at least one service product of the visual design model is obtained through analysis. The service product is a product that is used in conjunction with the visual design model.

[0040] Based on big data, obtain at least one visual finished product similar to the visual design model;

[0041] Obtain at least one application scenario in which the visual product appears;

[0042] Identify service products within application scenarios and obtain the service products that appear in those scenarios.

[0043] Using the overlap formula, calculate the degree of overlap of service products in the two application scenarios.

[0044] Application scenarios with a degree of overlap greater than a preset value are grouped into a single set to obtain an application scenario set;

[0045] Select one of the application scenarios from the set of application scenarios as the target application scenario;

[0046] The formula for overlap is as follows:

[0047]

[0048] Wherein, B represents the degree of overlap of service products in the two application scenarios, D and E represent the number of service products in the two application scenarios, and C represents the number of overlapping service products in the two application scenarios.

[0049] Preferably, determining the display position, viewing angle, and lighting environment parameters of the visual design model in the target application scenario as a simulated display instruction includes the following steps:

[0050] Obtain the display position, viewing angle, and lighting environment parameters of the visual product in the application scenario set where the target application scenario is located, and take the average value as the display position, viewing angle, and lighting environment parameters of the visual design model in the target application scenario.

[0051] Preferably, the analysis of user-personalized display needs to obtain at least one display emphasis position includes the following steps:

[0052] The user's personalized display needs are categorized into location description and non-location description parts;

[0053] Extract location keywords from the location description to obtain at least one location orientation;

[0054] In the visual design model, determine the emphasis position corresponding to the location and orientation, and use the basic design block that appears at the emphasis position as the display emphasis position;

[0055] When a display keyword or its corresponding similar keywords appear in a non-positional description section, the display keyword will be used as a feature display keyword.

[0056] The design blocks corresponding to the featured keywords will be the focus of the display.

[0057] Preferably, setting the basic design blocks to obtain personalized display instructions includes the following steps:

[0058] When setting up, instructions for design blocks that are to be highlighted in the display are set as display instructions, and instructions for design blocks that are not to be highlighted in the display are set as hidden instructions.

[0059] A visual design intelligent display system, used in the aforementioned visual design intelligent display method, includes:

[0060] The model decomposition module obtains the visual design model to be displayed, deconstructs the visual design model to obtain at least one basic design block, and forms display keywords for the basic design block.

[0061] The mode switching module allows switching between three display modes: partial display, simulated display, and personalized display.

[0062] The switching settings module displays the settings according to the display mode selected by the user. When the user does not select a mode, it sequentially displays partial and simulated displays.

[0063] The partial display setting module obtains at least one key concept of the designer's visual design model, forms at least one partial display strategy based on the key concept, sets at least one basic design block in a linked manner based on the partial display strategy, and obtains a partial display instruction. During partial display, the visual design model is displayed according to the partial display instruction. The partial display adopts dynamic display and static display simultaneously.

[0064] The simulation display setting module analyzes at least one target application scenario based on the purpose of the visual design model, determines the display position, display angle, and lighting environment parameters of the visual design model in the target application scenario, and uses these as simulation display instructions. During the simulation display, the visual design model is displayed according to the simulation display instructions.

[0065] The personalized display settings module acquires the user's personalized display requirements, analyzes these requirements to obtain at least one display emphasis position, sets the basic design blocks based on the at least one display emphasis position, and obtains personalized display instructions. During personalized display, the visual design model is displayed according to the personalized display instructions. The personalized display uses dynamic and static displays simultaneously.

[0066] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0067] By setting up modules for model decomposition, partial display, simulation display, and personalized display, the visual design model can be displayed in different modes. Each mode emphasizes a different aspect, ensuring that all features of the visual design model are shown to the user. Furthermore, considering the potential for occlusion due to the complex structure of the visual design model, it is deconstructed to avoid affecting the display effect. The system also simulates real-world usage scenarios to demonstrate its practical application. Additionally, users can choose which modules to emphasize, allowing for customized display options when proactive display fails to meet their needs. Attached Figure Description

[0068] Figure 1 This is a flowchart illustrating the intelligent display method for visual design of the present invention.

[0069] Figure 2 This is a flowchart illustrating the process of deconstructing a visual design model to obtain at least one basic design block according to the present invention.

[0070] Figure 3 This is a flowchart illustrating the process of generating display keywords from basic design blocks according to the present invention;

[0071] Figure 4 This is a flowchart illustrating the process of forming at least one local display strategy based on the key concepts of the present invention.

[0072] Figure 5 This is a flowchart illustrating how the present invention analyzes and obtains at least one target application scenario based on the purpose of the visual design model.

[0073] Figure 6 This invention provides a flowchart illustrating the process of analyzing user-personalized display needs to obtain at least one display emphasis position. Detailed Implementation

[0074] The following description is intended to disclose the invention and enable those skilled in the art to implement it. The preferred embodiments described below are merely examples, and other obvious variations will occur to those skilled in the art.

[0075] Reference Figure 1 As shown, a visual design intelligent display method includes:

[0076] Obtain the visual design model to be displayed, deconstruct the visual design model to obtain at least one basic design block, and form display keywords from the basic design block;

[0077] The display mode can be switched between three modes: partial display, simulated display, and personalized display.

[0078] When a user selects between partial display, simulated display, and personalized display, the display will proceed according to the user's selected display mode; otherwise, partial display and simulated display will proceed in sequence.

[0079] Obtain at least one key concept from the designer regarding the visual design model; based on the key concept, formulate at least one partial display strategy; based on the partial display strategy, link at least one basic design block to obtain partial display instructions.

[0080] During partial display, the visual design model is displayed according to the partial display instructions. The partial display uses dynamic and static displays simultaneously.

[0081] Based on the purpose of the visual design model, at least one target application scenario is identified through analysis;

[0082] Determine the display location, viewing angle, and lighting environment parameters of the visual design model in the target application scenario as a simulated display instruction;

[0083] During the simulation demonstration, the visual design model is displayed according to the simulation demonstration instructions;

[0084] Obtain users' personalized display requirements, analyze these requirements to obtain at least one display emphasis position, and set the basic design blocks based on this emphasis position to obtain personalized display instructions.

[0085] During personalized display, the visual design model is displayed according to the personalized display instructions. The personalized display uses dynamic and static displays simultaneously.

[0086] The simultaneous use of dynamic and static displays for partial displays is similar to the simultaneous use of dynamic and static displays for personalized displays. Taking the simultaneous use of dynamic and static displays for partial displays as an example, two interfaces are set up to display dynamic and static displays simultaneously. When displaying dynamic displays, the perspectives of six directions—front view, back view, left view, right view, upward view, and downward view—are sequentially switched to display the partial visual design model. When displaying static displays, the front view perspective is selected to display the partial visual design model.

[0087] Reference Figure 2 As shown, deconstructing the visual design model to obtain at least one basic design block includes the following steps:

[0088] Obtain the six-view projection of the visual design model, and map the points in the visual design model to the points projected in the six-view projection. The six-view projections are the front view projection, back view projection, left view projection, right view projection, upward view projection, and downward view projection of the visual design model.

[0089] At least one sampling point is uniformly set in the contour of the six-view projection. The coordinate model of the sampling point is performed. Based on the coordinate fitting of the sampling point, the contour fitting function of the six contours of the six-view projection is obtained respectively.

[0090] Using the curvature formula, the curvature values ​​of points in the six contours of the six-view projection are calculated, and points in the six contours of the six-view projection with curvature values ​​greater than the preset values ​​are used as projection joints.

[0091] The points corresponding to the projected joints in the visual design model are used as joints;

[0092] The visual design model is segmented at the key points to obtain at least one basic design block;

[0093] The curvature formula is as follows:

[0094]

[0095] Where A is the curvature value of a point in the contour, x is the x-coordinate of a point in the contour, and f(x0) is the contour fitting function. It is the second derivative. It is the first derivative.

[0096] The basis for deconstructing the visual design model is that there are significant transitions at the connection points of different parts of the structure. Therefore, the curvature at these points will change abruptly and become much larger than that of other parts. This can serve as a basis for joint point recognition. However, since the visual design model is quite complex and different structures may occlude each other, joint point recognition from only one perspective is prone to omissions. Therefore, using six-view projection to recognize joint points from multiple angles can ensure that no joint points are missed.

[0097] Here, six-view projection refers to six projections. Therefore, when processing six-view projection, six images will be processed simultaneously, namely the front view projection, back view projection, left view projection, right view projection, upward view projection, and downward view projection of the visual design model.

[0098] Reference Figure 3 As shown, the steps to generate display keywords for the basic design blocks include:

[0099] In the big data, obtain at least one similar contour whose difference from the basic block contour of the design is less than a preset difference, and obtain the descriptive text of at least one similar contour in the big data.

[0100] Intersect at least one descriptive text to obtain at least one preliminary keyword;

[0101] Relevance detection is performed on the pre-selected keywords. At least one unverified profile of the pre-selected keywords is obtained from the big data and the number of at least one unverified profile is counted as the first number.

[0102] The number of unverified contours that have partial overlap with the basic design block is counted and used as the second number;

[0103] When the ratio of the second number to the first number is greater than the preset ratio, the prepared keyword will be used as the display keyword, and the display keyword will be paired with the basic design block.

[0104] Reference Figure 4 As shown, based on the key design elements, developing at least one local display strategy includes the following steps:

[0105] Based on big data, similar keywords are generated for display keywords, and these similar keywords express the same meaning as the display keywords.

[0106] In the ideation points, identify display keywords. When a display keyword or its corresponding similar keywords appear in the ideation points, the display keyword will be used as the target display keyword.

[0107] The design basic blocks that display all target keywords are used as the target design basic blocks;

[0108] For the key points of the concept, a local display strategy is formed, which is to display the basic target design blocks in the visual design model.

[0109] When showcasing specific parts, each key concept is presented separately, highlighting each design feature of the visual design model. This allows users to more clearly understand the designer's intent. Furthermore, by showcasing specific parts, structural obstruction during the presentation is reduced, giving users a more comprehensive understanding of the visual design model's structure.

[0110] Linking at least one basic design block to obtain a partial display instruction involves the following steps:

[0111] When setting up linkage, set the instructions of the target design block in the visual design model as display instructions, and set the instructions of other design blocks in the visual design model as hidden instructions. Combine the instruction settings as partial display instructions.

[0112] The partial display command hides design blocks that are not part of the display, preventing them from obscuring the design blocks that are part of the display and affecting the display effect.

[0113] Reference Figure 5 As shown, based on the purpose of the visual design model, the analysis to determine at least one target application scenario includes the following steps:

[0114] Based on the purpose of the visual design model, at least one service product of the visual design model is obtained through analysis. The service product is a product that is used in conjunction with the visual design model.

[0115] Based on big data, obtain at least one visual finished product similar to the visual design model;

[0116] Obtain at least one application scenario in which the visual product appears;

[0117] Identify service products within application scenarios and obtain the service products that appear in those scenarios.

[0118] Using the overlap formula, calculate the degree of overlap of service products in the two application scenarios.

[0119] Application scenarios with a degree of overlap greater than a preset value are grouped into a single set to obtain an application scenario set;

[0120] Select one of the application scenarios from the set of application scenarios as the target application scenario;

[0121] The formula for overlap is as follows:

[0122]

[0123] Wherein, B represents the degree of overlap of service products in the two application scenarios, D and E represent the number of service products in the two application scenarios, and C represents the number of overlapping service products in the two application scenarios.

[0124] When a visual design model is displayed in isolation, it cannot show all its display effects. This is because in actual use, the visual design model is used in conjunction with the environment, and its position and angle are specially set. Many effects of the visual design model can only be presented by combining it with the environment. Therefore, by obtaining the target application scenario and determining the display position, viewing angle, and lighting environment parameters of the visual design model in the target application scenario, users can obtain the actual application effect of the visual design model in advance and have a more comprehensive understanding of the display of the visual design model.

[0125] Determine the display location, viewing angle, and lighting environment parameters of the visual design model in the target application scenario. This serves as a simulated display instruction and includes the following steps:

[0126] Obtain the display position, viewing angle, and lighting environment parameters of the visual product in the application scenario set where the target application scenario is located, and take the average value as the display position, viewing angle, and lighting environment parameters of the visual design model in the target application scenario.

[0127] Reference Figure 6 As shown, the analysis of users' personalized display needs, to determine at least one display emphasis position, includes the following steps:

[0128] The user's personalized display needs are categorized into location description and non-location description parts;

[0129] Extract location keywords from the location description to obtain at least one location orientation;

[0130] In the visual design model, determine the emphasis position corresponding to the location and orientation, and use the basic design block that appears at the emphasis position as the display emphasis position;

[0131] When a display keyword or its corresponding similar keywords appear in a non-positional description section, the display keyword will be used as a feature display keyword.

[0132] The design blocks corresponding to the featured keywords will be the focus of the display.

[0133] Although partial and simulated displays are provided, showcasing many features of the visual design model, different users have different needs. Inevitably, some users' needs will not be met. Therefore, for these users, their needs need to be analyzed to determine their required display methods, and corresponding displays should be provided. It should be noted that user needs are not necessarily specific location requirements; sometimes they may be relatively vague descriptive text. Therefore, classification and identification are necessary to ultimately obtain more suitable personalized display instructions.

[0134] Setting up the basic design blocks to obtain personalized display instructions involves the following steps:

[0135] When setting up, instructions for design blocks that are to be highlighted in the display are set as display instructions, and instructions for design blocks that are not to be highlighted in the display are set as hidden instructions.

[0136] A visual design intelligent display system, used in the aforementioned visual design intelligent display method, includes:

[0137] The model decomposition module obtains the visual design model to be displayed, deconstructs the visual design model to obtain at least one basic design block, and forms display keywords for the basic design block.

[0138] The mode switching module allows switching between three display modes: partial display, simulated display, and personalized display.

[0139] The switching settings module displays the settings according to the display mode selected by the user. When the user does not select a mode, it sequentially displays partial and simulated displays.

[0140] The partial display setting module obtains at least one key concept of the designer's visual design model, forms at least one partial display strategy based on the key concept, sets at least one basic design block in a linked manner based on the partial display strategy, and obtains a partial display instruction. During partial display, the visual design model is displayed according to the partial display instruction. The partial display adopts dynamic display and static display simultaneously.

[0141] The simulation display setting module analyzes at least one target application scenario based on the purpose of the visual design model, determines the display position, display angle, and lighting environment parameters of the visual design model in the target application scenario, and uses these as simulation display instructions. During the simulation display, the visual design model is displayed according to the simulation display instructions.

[0142] The personalized display settings module acquires the user's personalized display requirements, analyzes these requirements to obtain at least one display emphasis position, sets the basic design blocks based on the at least one display emphasis position, and obtains personalized display instructions. During personalized display, the visual design model is displayed according to the personalized display instructions. The personalized display uses dynamic and static displays simultaneously.

[0143] Furthermore, this solution also proposes a storage medium on which a computer-readable program is stored, which executes the aforementioned intelligent visual design display method when invoked.

[0144] It is understandable that the storage medium can be a magnetic medium, such as a floppy disk, hard disk, or magnetic tape; an optical medium, such as a DVD; or a semiconductor medium, such as a solid-state drive (SSD).

[0145] In summary, the advantages of this invention are as follows: By setting up a model decomposition module, a partial display setting module, a simulation display setting module, and a personalized display setting module, the visual design model can be displayed in different modes. In each mode, the display focuses on different aspects, thereby showcasing all features of the visual design model to the user. Furthermore, considering the potential for mutual occlusion due to the complex structure of the visual design model, the model is deconstructed to avoid the impact of occlusion on the display effect. Additionally, the actual usage scenarios of the visual design model are simulated to present its practical application. Moreover, the invention provides users with the option to choose the display focus, allowing for customized display options when proactive display fails to meet user needs.

[0146] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed invention. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A visual design intelligent display method, characterized in that, include: Obtain the visual design model to be displayed, deconstruct the visual design model to obtain at least one basic design block, and form display keywords from the basic design block; The display mode can be switched between three modes: partial display, simulated display, and personalized display. When a user selects between partial display, simulated display, and personalized display, the display will proceed according to the user's selected display mode; otherwise, partial display and simulated display will proceed in sequence. Obtain at least one key concept from the designer's visual design model; based on the key concept, formulate at least one partial display strategy; based on the partial display strategy, link at least one basic design block to obtain partial display instructions. During partial display, the visual design model is displayed according to the partial display instructions. The partial display uses dynamic and static displays simultaneously. Based on the purpose of the visual design model, at least one target application scenario is identified through analysis; Determine the display location, viewing angle, and lighting environment parameters of the visual design model in the target application scenario as a simulated display instruction; During the simulation demonstration, the visual design model is displayed according to the simulation demonstration instructions; Obtain users' personalized display requirements, analyze these requirements to obtain at least one display emphasis position, and set the basic design blocks based on this emphasis position to obtain personalized display instructions. During personalized display, the visual design model is displayed according to the personalized display instructions. The personalized display uses dynamic and static displays simultaneously.

2. The visual design intelligent display method according to claim 1, characterized in that, The process of deconstructing the visual design model to obtain at least one basic design block includes the following steps: Obtain the six-view projection of the visual design model, and map the points in the visual design model to the points projected in the six-view projection. The six-view projections are the front view projection, back view projection, left view projection, right view projection, upward view projection, and downward view projection of the visual design model. At least one sampling point is uniformly set in the contour of the six-view projection. The coordinate model of the sampling point is performed. Based on the coordinate fitting of the sampling point, the contour fitting function of the six contours of the six-view projection is obtained respectively. Using the curvature formula, the curvature values ​​of points in the six contours of the six-view projection are calculated, and points in the six contours of the six-view projection with curvature values ​​greater than the preset values ​​are used as projection joints. The points corresponding to the projected joints in the visual design model are used as joints; The visual design model is segmented at the key points to obtain at least one basic design block; The curvature formula is as follows: Where A is the curvature value of a point in the contour, x is the x-coordinate of a point in the contour, and f(x) is the contour fitting function. It is the second derivative. It is the first derivative.

3. The visual design intelligent display method according to claim 2, characterized in that, The process of generating display keywords from basic design blocks includes the following steps: In the big data, obtain at least one similar contour whose difference from the basic block contour of the design is less than a preset difference, and obtain the descriptive text of at least one similar contour in the big data. Intersect at least one descriptive text to obtain at least one preliminary keyword; Relevance detection is performed on the pre-selected keywords. At least one unverified profile of the pre-selected keywords is obtained from the big data and the number of at least one unverified profile is counted as the first number. The number of unverified contours that have partial overlap with the basic design block is counted and used as the second number; When the ratio of the second number to the first number is greater than the preset ratio, the prepared keyword will be used as the display keyword, and the display keyword will be paired with the basic design block.

4. The intelligent visual design display method according to claim 3, characterized in that, The process of developing at least one local display strategy based on key conceptual points includes the following steps: Based on big data, similar keywords are generated for display keywords, and these similar keywords express the same meaning as the display keywords. In the ideation points, identify display keywords. When a display keyword or its corresponding similar keywords appear in the ideation points, the display keyword will be used as the target display keyword. The design basic blocks that display all target keywords are used as the target design basic blocks; For the key points of the concept, a local display strategy is formed, which is to display the basic target design blocks in the visual design model.

5. The visual design intelligent display method according to claim 4, characterized in that, The step of linking at least one basic design block to obtain a partial display instruction includes the following steps: When setting up linkage, set the instructions of the target design block in the visual design model as display instructions, and set the instructions of other design blocks in the visual design model as hidden instructions. Combine the instruction settings as partial display instructions.

6. The visual design intelligent display method according to claim 5, characterized in that, The process of analyzing and determining at least one target application scenario based on the purpose of the visual design model includes the following steps: Based on the purpose of the visual design model, at least one service product of the visual design model is obtained through analysis. The service product is a product that is used in conjunction with the visual design model. Based on big data, obtain at least one visual finished product similar to the visual design model; Obtain at least one application scenario in which the visual product appears; Identify service products within application scenarios and obtain the service products that appear in those scenarios. Using the overlap formula, calculate the degree of overlap of service products in the two application scenarios. Application scenarios with a degree of overlap greater than a preset value are grouped into a single set to obtain an application scenario set; Select one of the application scenarios from the set of application scenarios as the target application scenario; The formula for overlap is as follows: Wherein, B represents the degree of overlap of service products in the two application scenarios, D and E represent the number of service products in the two application scenarios, and C represents the number of overlapping service products in the two application scenarios.

7. The visual design intelligent display method according to claim 6, characterized in that, The process of determining the display position, viewing angle, and lighting environment parameters of the visual design model in the target application scenario, as a simulated display instruction, includes the following steps: Obtain the display position, viewing angle, and lighting environment parameters of the visual product in the application scenario set where the target application scenario is located, and take the average value as the display position, viewing angle, and lighting environment parameters of the visual design model in the target application scenario.

8. The visual design intelligent display method according to claim 7, characterized in that, The analysis of user personalized display needs to determine at least one display emphasis position includes the following steps: The user's personalized display needs are categorized into location description and non-location description parts; Extract location keywords from the location description to obtain at least one location orientation; In the visual design model, determine the emphasis position corresponding to the location and orientation, and use the basic design block that appears at the emphasis position as the display emphasis position; When a display keyword or its corresponding similar keywords appear in a non-positional description section, the display keyword will be used as a feature display keyword. The design blocks corresponding to the featured keywords will be the focus of the display.

9. The intelligent visual design display method according to claim 8, characterized in that, The process of setting the basic design blocks to obtain personalized display instructions includes the following steps: When setting up, instructions for design blocks that are the focus of display are set as display instructions, and instructions for design blocks that are not the focus of display are set as hidden instructions.

10. A visual design intelligent display system, used to implement the visual design intelligent display method as described in any one of claims 1-9, characterized in that, include: The model decomposition module obtains the visual design model to be displayed, deconstructs the visual design model to obtain at least one basic design block, and forms display keywords for the basic design block. The mode switching module allows switching between three display modes: partial display, simulated display, and personalized display. The switching settings module displays the settings according to the display mode selected by the user. When the user does not select a mode, it sequentially displays partial and simulated displays. The partial display setting module obtains at least one key concept of the designer's visual design model, forms at least one partial display strategy based on the key concept, sets at least one basic design block in a linked manner based on the partial display strategy, and obtains a partial display instruction. During partial display, the visual design model is displayed according to the partial display instruction. The partial display adopts dynamic display and static display simultaneously. The simulation display setting module analyzes at least one target application scenario based on the purpose of the visual design model, determines the display position, display angle, and lighting environment parameters of the visual design model in the target application scenario, and uses these as simulation display instructions. During the simulation display, the visual design model is displayed according to the simulation display instructions. The personalized display settings module acquires the user's personalized display requirements, analyzes these requirements to obtain at least one display emphasis position, sets the basic design blocks based on the at least one display emphasis position, and obtains personalized display instructions. During personalized display, the visual design model is displayed according to the personalized display instructions. The personalized display uses dynamic and static displays simultaneously.

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