Modern lattice window based on double-layer superposition and modular assembly and method

Abstract

The invention relates to a modern lattice window based on double-layer superposition and modular assembly and a method. The modern lattice window comprises a module main body, a first slot and a second slot are formed in the two sides of the interior of the module main body respectively, a first template is detachably inserted into the first slot, and a second template is detachably inserted into the second slot; the patterns on the surfaces of the first template and the second template are arranged asymmetrically, the patterns of at least one layer of template are combined with block surfaces with different sizes through geometric segmentation to form a dynamic visual effect, and through double-layer superposition and partial asymmetric arrangement, the visual impact force that the double-layer superposition effect is greater than the single-layer plane effect is realized; and the spatial layering sense is enhanced. Meanwhile, the modern plane composition principle is fused into the traditional lattice window design, a decoration form with modern aesthetic feeling is created, the eastern aesthetics romantic charm is reserved, and the modern design feeling is reflected.

Description

Technical Field

[0001] The present invention relates to the field of lattice windows, and particularly to a modern lattice window and method based on double - layer superposition and modular assembly. Background Art

[0002] Traditional lattice window designs have a long history, carrying rich historical and cultural connotations and the charm of oriental aesthetics. These lattice windows mostly adopt symmetric arrangements and single - plane designs, with delicate and meaningful patterns, reflecting the wisdom and aesthetic pursuits of ancient craftsmen. However, with the passage of time, some limitations of traditional lattice window designs have emerged.

[0003] Traditional lattice window designs are often limited to symmetric aesthetics and fixed pattern arrangements. Although this design method can show a kind of harmony and order, it appears too single and lacks variation in the face of the diverse needs of modern architecture and home decoration. In addition, the production process of traditional lattice windows mostly relies on hand carving. Although the craftsmanship is exquisite, the production efficiency is low, and it is difficult to achieve mass customization. These limitations have restricted the application and development of traditional lattice windows in the modern market to a certain extent. For example:

[0004] Single design: Traditional lattice window designs mostly adopt fixed pattern arrangements, lacking innovation and a modern sense, and it is difficult to meet the diverse needs of modern architecture and home decoration.

[0005] Difficulty in adapting to modern decoration styles: Modern architecture and interior design tend to be simple, geometric, and have dynamic visual effects, while traditional lattice window designs are unable to adapt to these modern decoration styles.

[0006] High production cost and great customization difficulty: The production process of traditional lattice windows is cumbersome, the production cost is high, and it is difficult to achieve mass customization, which restricts its competitiveness in the modern market.

[0007] Therefore, we propose a modern lattice window and method based on double - layer superposition and modular assembly. Through double - layer superposition and partial asymmetric arrangement, the visual impact of the double - layer superposition effect being greater than the single - layer plane effect is achieved, enhancing the spatial sense of hierarchy. At the same time, integrating the principles of modern planar composition into traditional lattice window designs creates a decorative form with a modern aesthetic sense, which not only retains the charm of oriental aesthetics but also reflects a modern design sense. In addition, the application of modular design and modern production processes improves production efficiency and reduces customization costs, making this lattice window design more competitive and adaptable in the modern market. Summary of the Invention

[0008] The purpose of the present invention is to overcome the deficiencies of the prior art, meet the actual needs, and provide a modern flower window and method based on double-layer superposition and modular assembly, so as to solve the following technical problems: the current design is single: the traditional flower window design mostly adopts a fixed pattern arrangement method, lacking innovation and modernity, and it is difficult to meet the diverse needs of modern architecture and home decoration. It is difficult to adapt to modern decoration styles: modern architecture and interior design tend to be simple, geometric, and have dynamic visual effects, while the traditional flower window design is unable to cope well with these modern decoration styles. High production cost and difficult customization: The production process of traditional flower windows is cumbersome, the production cost is high, and large-scale customization is difficult to achieve, which limits its competitiveness in the modern market.

[0009] In order to achieve the purpose of the present invention, the technical solution adopted by the present invention is: to design a modern flower window based on double-layer superposition and modular assembly, including a module body, with a first slot and a second slot respectively arranged on both sides inside the module body. A first template is detachably inserted into the first slot, and a second template is detachably inserted into the second slot;

[0010] The patterns on the surfaces of the first template and the second template adopt an asymmetric arrangement, and the patterns on at least one layer of the template form a dynamic visual effect through geometric division and combination of blocks of different sizes;

[0011] The side of the module body is provided with a standardized installation interface for connecting with other module bodies.

[0012] Preferably, the installation interface includes a snap or magnetic attraction structure.

[0013] Preferably, the patterns on the first template and the second template are made by CNC engraving or 3D printing technology, and a transparent overlapping combination is formed after double-layer superposition.

[0014] Preferably, multiple module bodies can be freely combined into an overall flower window structure through the installation interface.

[0015] For the assembly method of the modern flower window based on double-layer superposition and modular assembly as described above, the assembly method includes the following steps:

[0016] S1. Pattern design and module disassembly

[0017] Decompose the traditional flower window pattern into double-layer independent patterns, design the patterns of the first template and the second template respectively, and at least one layer adopts asymmetric arrangement and modern plane composition principles;

[0018] According to the requirements of the application scenario, determine the size of the module body and the horizontal and vertical line ratios of the outer contour;

[0019] S2. Module production and processing

[0020] The module body is made of a light-transmitting material, and the patterns of the first template and the second template are processed by numerical control engraving or 3D printing technology;

[0021] Standardized installation interfaces are processed on the side of the module body;

[0022] S3. Double-layer template assembly

[0023] Insert the first template into the first slot of the module body, and insert the second template into the second slot to ensure that the overlapping combination of the double-layer patterns forms a three-dimensional spatial level;

[0024] Check the light and shadow effect after double-layer superposition, and adjust the template angle to achieve the visual effect of "changing scenery with every step";

[0025] S4. Modular installation and combination

[0026] Dock the standardized installation interfaces of multiple module bodies through snap or magnetic attraction structures to form an overall flower window;

[0027] Adjust the arrangement method of the modules according to actual needs to achieve diverse combination effects;

[0028] S5. Application scenario adaptation

[0029] Install the assembled flower window into the building or home environment, verify its dynamic visual effect and spatial level, and optimize the module combination plan.

[0030] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0031] 1. Spatial level: Through the double-layer superposition design, the three-dimensional sense and spatial level of the flower window are enhanced, breaking the limitations of traditional planar design.

[0032] 2. Dynamic visual effect: The asymmetric arrangement and overlapping combination enable viewers to see different pictures from different angles, achieving the dynamic effect of "changing scenery with every step".

[0033] 3. Combination of modern and traditional: Combining the modern planar composition principle with traditional patterns not only retains the charm of oriental aesthetics but also reflects the modern design sense.

[0034] 4. Wide applicability: It is applicable to multiple fields such as architectural decoration, home design, and cultural derivatives, meeting modern diverse needs.

[0035] 5. Production efficiency improvement: The modular design and modern production processes (such as numerical control engraving) can significantly improve production efficiency and reduce customization costs. Description of the drawings

[0036] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0037] Figure 2 is a schematic side view structure of the present invention;

[0038] Figure 3 is a schematic three-dimensional structure of the module main body of the present invention;

[0039] Figure 4 is a schematic structure diagram of the first template of the present invention;

[0040] Figure 5 is a schematic structure diagram of the second template of the present invention;

[0041] Figure 6 is a schematic structure diagram of the first multi-mode superposition change of the present invention;

[0042] Figure 7 is a schematic structure diagram of the second multi-mode superposition change of the present invention;

[0043] Figure 8 is a schematic diagram of the first multi-module combined application scenario of the present invention;

[0044] Figure 9 is a schematic diagram of the second multi-module combined application scenario of the present invention;

[0045] In the figure: 1, module main body; 2, ornamentation; 3, first slot; 4, first template; 5, second slot; 6, second template. Detailed implementation manner

[0046] The present invention will be further described below in conjunction with the accompanying drawings and embodiments:

[0047] A modern flower window based on double-layer superposition and modular assembly, see Figures 1 to 9 , including a module main body 1, with a first slot 3 and a second slot 5 respectively arranged on both sides inside the module main body 1. A first template 4 is detachably inserted into the first slot 3, and a second template 6 is detachably inserted into the second slot 5; the ornamentation 2 on the surfaces of the first template 4 and the second template 6 adopts an asymmetric arrangement method, and the ornamentation 2 of at least one layer of the template forms a dynamic visual effect through geometric segmentation and combination of blocks with different sizes; a standardized installation interface is provided on the side of the module main body 1 for connecting with other module main bodies 1.

[0048] Specifically, see Figures 1 to 9 , the installation interface includes a snap or magnetic attraction structure.

[0049] Furthermore, see Figures 1 to 9 , the ornamentation 2 of the first template 4 and the second template 6 is made by CNC engraving or 3D printing process, and forms a transparent overlay combination after double-layer superposition.

[0050] It should be noted that, see Figures 1 to 9, multiple module bodies 1 can be freely combined into an overall lattice window structure through the installation interfaces.

[0051] It should be noted that referring to Figures 1 to 9 , for the double-layer overlapping design of the lattice window, both the external structure size and the arrangement pattern of each layer of patterns can be arranged, combined, and varied in the form of modules.

[0052] For example, for the assembly method of a modern lattice window based on double-layer stacking and modular assembly, the assembly method includes the following steps:

[0053] S1. Pattern design and module disassembly

[0054] Disassemble the traditional lattice window pattern into double-layer independent patterns 2, and design the patterns of the first template 4 and the second template 6 respectively, with at least one layer using asymmetric arrangement and modern planar composition principles;

[0055] According to the application scenario requirements, determine the size of the module body 1 and the horizontal and vertical line ratios of the outer contour.

[0056] S2. Module production and processing

[0057] Use light-transmitting materials to make the module body 1, and process the patterns 2 of the first template 4 and the second template 6 through numerical control engraving or 3D printing technology;

[0058] Process standardized installation interfaces on the side of the module body 1;

[0059] S3. Double-layer template assembly

[0060] Insert the first template 4 into the first slot 3 of the module body 1, and insert the second template 6 into the second slot 5 to ensure that the overlapping combination of the double-layer patterns 2 forms a three-dimensional spatial level;

[0061] Check the light and shadow effect after double-layer stacking, and adjust the template angle to achieve the visual effect of "changing scenery with every step";

[0062] S4. Modular installation and combination

[0063] Dock the standardized installation interfaces of multiple module bodies 1 through snap or magnetic attraction structures to form an overall lattice window;

[0064] Adjust the arrangement pattern of the modules according to actual needs to achieve diverse combination effects;

[0065] S5. Application scenario adaptation

[0066] Install the assembled lattice window into a building or home environment, verify its dynamic visual effect and spatial level, and optimize the module combination plan.

[0067] Embodiment 1

[0068] Double - layer superimposed and asymmetrically arranged lattice window design

[0069] Design overview: This embodiment adopts a double - layer superimposed design, decomposing traditional lattice window patterns into multiple layers, and forming a sense of spatial hierarchy through overlapping combinations. At the same time, it adopts an asymmetric arrangement form, using modern plane composition principles to break the traditional symmetrical arrangement and create a modern design sense.

[0070] Specific steps:

[0071] S1. Double - layer superimposed design: Design the lattice window as a double - layer structure, and arrange the patterns of each layer using different repetitive composition and specific composition techniques to enhance the visual dynamic effect. Through overlapping combinations, viewers can see different pictures from different angles, achieving the visual effect of "changing scenery with every step".

[0072] S2. Asymmetric arrangement: Adopt geometric segmentation and combinations of blocks of different sizes to break the limitations of traditional symmetrical arrangements. The external contour uses a simple combination of horizontal and vertical lines, forming a contrast with the dense internal patterns to enhance the visual impact.

[0073] S3. Materials and processes: Select light - transmitting materials (such as acrylic, ceramic composite materials) to make the lattice window to enhance the light and shadow effect, and combine CNC engraving and 3D printing technologies to achieve precise production of complex patterns.

[0074] Application scenarios: This embodiment is applicable to fields such as architectural decoration and home design, especially suitable for spaces that need to display a sense of spatial hierarchy and dynamic visual effects.

[0075] Embodiment 2

[0076] Modular - assembled lattice window design

[0077] Design overview: This embodiment adopts a modular design, designing the lattice window as a disassemblable module, which is convenient for production, transportation and installation. The modules are connected through standardized interfaces, supporting multiple combination methods.

[0078] Specific steps:

[0079] S1. Modular design: Decompose the lattice window into multiple modules, each module having an independent structure and function. The modules are connected through standardized interfaces (such as snap - fasteners, magnetic attraction), and can be freely combined and disassembled.

[0080] S2. Diversified combinations: Through the combination of different modules, various different lattice window styles and patterns can be formed to meet personalized customization and diversified needs.

[0081] S3. Efficient production: Adopting modular design and modern production processes (such as CNC engraving) can greatly improve production efficiency and reduce customization costs.

[0082] Application Scenario: This embodiment is applicable to flower window projects that require a large amount of customization and production, such as public places like large-scale building decoration, hotels, and restaurants.

[0083] Example 3

[0084] Flower Window Application Combining Traditional Culture and Modern Design

[0085] Design Overview: This embodiment combines traditional cultural elements with modern design principles to create a flower window decoration scheme that not only retains the charm of Oriental aesthetics but also reflects a modern sense of design.

[0086] Specific Steps:

[0087] S1. Application of Traditional Cultural Elements: Incorporate traditional patterns and designs, such as dragons and phoenixes, flowers and birds, mountains and waters, etc., into the flower window design, and reinterpret and combine them through modern design techniques to make them more in line with modern aesthetic needs;

[0088] S2. Application of Modern Design Principles: Adopt modern planar composition principles and an asymmetric arrangement form to break the limitations of traditional flower window design, and use geometric division and combinations of blocks of different sizes to create a modern sense of design;

[0089] S3. Application in Multiple Fields: Apply the flower window design of this embodiment to multiple fields such as architectural decoration, home design, and cultural derivatives to meet the personalized customization requirements under different scenarios and needs.

[0090] Enhancement of Light and Shadow Effects: Select light-transmitting materials to make the flower window, and combine with lighting design to enhance the light and shadow effects. Make the flower window present rich visual effects under different light conditions.

[0091] Application Scenario: This embodiment is applicable to places that need to display the charm of traditional culture and a modern sense of design, such as museums, cultural centers, high-end residences, etc.

[0092] Comparative Example 1

[0093] Traditional Flower Window Design:

[0094] Design Overview: Traditional flower window design mainly adopts a symmetric arrangement and a single-plane design. The patterns are mostly traditional patterns, such as dragons and phoenixes, flowers and birds, mountains and waters, etc., and show exquisite patterns and profound cultural connotations through exquisite carving techniques.

[0095] Analysis of Limitations:

[0096] Lack of Spatial Hierarchy: Due to the use of a single-plane design, traditional flower windows lack spatial hierarchy, making the overall visual effect relatively flat and difficult to meet the pursuit of spatial hierarchy in modern architecture and home decoration.

[0097] Lack of dynamic visual effects: The patterns of traditional stained glass windows are arranged in a fixed way, lacking dynamic visual effects. The images seen by viewers from different angles are basically the same, lacking variety and freshness.

[0098] High customization cost: Traditional stained glass windows are mostly handmade, with low production efficiency and difficulty in meeting personalized customization needs, resulting in high customization costs.

[0099] Comparative Example 2

[0100] Some existing modern window designs:

[0101] Design Overview: Some modern stained glass designs attempt to break the limitations of traditional symmetrical arrangements and single-plane designs, and introduce some modern design elements, such as geometric shapes, abstract patterns, etc., in order to achieve innovation.

[0102] Limitation analysis:

[0103] The fusion of traditional aesthetics and modern design is awkward: some modern stained glass designs fail to find the right balance when trying to combine traditional aesthetics with modern design principles, resulting in an awkward or uncoordinated overall visual effect and a lack of harmonious beauty.

[0104] Lack of systematic and modular design: Some existing modern stained glass designs are still relatively traditional in structure and production, lacking systematic and modular design, making them inconvenient to produce, transport and install, and difficult to achieve multiple combinations, limiting their application scenarios and flexibility.

[0105] Material and process limitations: Some modern stained glass designs fail to fully consider the lighting effects and precise production requirements when selecting materials and processes, resulting in mediocre overall visual effects and difficulty in meeting the requirements of large-scale customization and production.

[0106] In summary, both traditional stained glass window designs and some existing modern stained glass window designs have obvious limitations and are difficult to meet the requirements of modern architecture and home decoration for spatial hierarchy, dynamic visual effects, personalized customization, and production efficiency. The modern stained glass window design based on double-layer superposition and modular assembly proposed in the present invention is a targeted improvement and innovation aimed at these limitations.

[0107] In addition, the components designed in the present invention are all universal standard parts or components known to technical personnel in this field. Their structures and principles can be known to technical personnel through technical manuals or through conventional experimental methods. They can be fully implemented by technical personnel in this field. Needless to say, the content protected by the present invention does not involve improvements to internal structures and methods.

[0108] The embodiments disclosed in the present invention are preferred embodiments, but not limited thereto. Those of ordinary skill in the art can easily understand the spirit of the present invention based on the above embodiments and make different extensions and changes. However, as long as they do not depart from the spirit of the present invention, they are within the protection scope of the present invention.

Claims

1. A modern stained glass window based on double-layer superposition and modular assembly, comprising a module body (1), characterized in that: A first slot (3) and a second slot (5) are respectively provided on both sides of the module body (1); a first template (4) can be detachably inserted into the first slot (3), and a second template (6) can be detachably inserted into the second slot (5); The patterns (2) on the surfaces of the first template (4) and the second template (6) are arranged in an asymmetrical manner, wherein the patterns (2) on at least one layer of the template form a dynamic visual effect through geometric segmentation and combination of blocks of different sizes; The side of the module body (1) is provided with a standardized installation interface for connecting with other module bodies (1).

2. The modern stained glass window based on double-layer superposition and modular assembly as claimed in claim 1 is characterized in that: The installation interface includes a snap-on or magnetic structure.

3. The modern stained glass window based on double-layer superposition and modular assembly as claimed in claim 1 is characterized in that: The patterns (2) of the first template (4) and the second template (6) are made by numerical control engraving or 3D printing technology, and are stacked in two layers to form a transparent combination.

4. The modern stained glass window based on double-layer superposition and modular assembly as claimed in claim 1 is characterized in that: A plurality of the module bodies (1) can be freely combined into an integral window structure through a mounting interface.

5. The method for assembling a modern stained glass window based on double-layer superposition and modular assembly as described in any one of claims 1 to 4, characterized in that: The assembly method comprises the following steps: S1. Pattern design and module splitting The traditional stained glass window pattern is disassembled into two layers of independent patterns (2), and the patterns of the first template (4) and the second template (6) are designed respectively, wherein at least one layer adopts an asymmetrical arrangement and a modern plane composition principle; Determine the size of the module body (1) and the ratio of the horizontal and vertical lines of the outer contour according to the application scenario requirements; S2. Module production and processing The module body (1) is made of a light-transmitting material, and the patterns (2) of the first template (4) and the second template (6) are processed by numerical control engraving or 3D printing technology; A standardized installation interface is processed on the side of the module body (1); S3, double-layer template assembly Inserting the first template (4) into the first slot (3) of the module body (1), and inserting the second template (6) into the second slot (5), ensures that the double-layered patterns (2) are combined to form a three-dimensional spatial hierarchy; Check the light and shadow effects after double layer superposition, and adjust the template angle to achieve the visual effect of "changing scenery with every step"; S4, Modular installation and combination The standardized installation interfaces of multiple module bodies (1) are connected together by means of a snap or magnetic structure to form an integrated window. Adjust the arrangement of modules according to actual needs to achieve diversified combination effects; S5. Application scenario adaptation Install the assembled stained glass windows in buildings or home environments to verify their dynamic visual effects and spatial hierarchy, and optimize the module combination plan.

Images