Dry wall imitation method
By applying artificial intelligence and 3D printing technology in the repair of clean water walls, intelligent identification and efficient imitation of clean water walls have been achieved, and the problems of shortage of materials and difficult to guarantee construction quality have been solved, which has improved the repair effect and environmental protection advantages.
Patent Information
- Application Number
- CN202510018630.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-07
- Publication Date
- 2025-04-29
AI Technical Summary
During the historical style repair of Qingshui Wall, these problems are facing shortage of materials, difficulty in ensuring construction quality and loss of process, especially in large-scale style restoration projects, which are more prominent.
The clean water wall imitation method based on artificial intelligence and 3D printing technology is adopted, and the efficient imitation of the clean water wall is achieved through intelligent identification of the original finish, three-dimensional scanning, mold design and printing, concrete pouring and multi-layer color rubbing treatment.
It effectively solved the problem of difficult to ensure construction quality caused by craftsman breakage and process loss in traditional repair processes, improved the construction quality and effect of imitation walls, and improved the degree of factory-based operation and green environmental protection advantages.
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Figure CN119900411A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to a method for imitating a clear water wall. Background Art
[0002] The exposed concrete wall is a typical historical style. At present, in order to restore the original historical style, the old bricks of the same period are mainly used in the repair and restoration process. In recent years, with the prohibition and restriction of the use of clay bricks, this kind of historical style repair process generally faces some problems such as material shortage, especially for large-scale style restoration projects, the problem is more prominent. At the same time, the use of traditional technology to restore the historical style of exposed concrete walls on a large scale also faces the problems of difficult to ensure the construction quality due to the lack of craftsmen and the loss of technology, and the large impact of wet operations on the construction site and the surrounding environment. In addition, with the increasing demand for digital cities, the application requirements of digital technologies such as artificial intelligence in the protection and repair of historical buildings are also rising.
[0003] At present, the industry has some research and accumulation on the prefabrication of blue and red bricks, but most of them are aimed at new buildings. It is difficult to restore the vicissitudes of the exposed concrete walls in historical buildings after years of use. In addition, the degree of digitization and intelligence in the entire prefabrication and restoration process is not high, so there is an urgent need for a method of imitating exposed concrete walls for large-scale reconstruction. Summary of the invention
[0004] The purpose of the present invention is to provide a method for imitating a dry-concrete wall.
[0005] In order to solve the above problems, the present invention provides a dry wall imitation method, comprising:
[0006] Clean the original surface of the dry-water wall to be imitated to restore the original appearance of the original surface;
[0007] Intelligently identify the masonry style and tile joint color of the original surface after cleaning;
[0008] Performing a three-dimensional scan on the dry-concrete wall to be copied to obtain the size information of the dry-concrete wall to be copied, and obtaining a copy wall design drawing based on the size information of the dry-concrete wall to be copied;
[0009] Based on the masonry style and the imitation wall design drawings, construct a three-dimensional model of the mold of each component to be imitated of the drywall;
[0010] Based on the three-dimensional model of the mold of each component, the corresponding mold is printed using 3D printing technology;
[0011] Applying admixture on the inner side of the mold; pouring concrete on the inner and outer admixture surfaces of the mold to form a simulated component;
[0012] Based on the color of the tile joints of the original facing after cleaning, a multi-layer color rubbing treatment is performed on the facing surface of the imitation component after the mold is removed.
[0013] Furthermore, in the above method, the masonry styles include: one straight and one tangent, plum blossom tangent, three straight and one tangent, and all straight.
[0014] Furthermore, in the above method, the color of the tile joints of the original surface after cleaning is intelligently identified, including:
[0015] Artificial intelligence and other technologies are used to complete intelligent recognition of brick surface color, forming a color spectrum of the surface to be imitated, and the color spectrum contains the value space of RGB values of brick surface colors in different areas.
[0016] Furthermore, in the above method, a three-dimensional scan is performed on the dry wall to be imitated to obtain the size information of the dry wall to be imitated, and a design drawing of the imitated wall surface is obtained based on the size information of the dry wall to be imitated, including:
[0017] First, use 3D scanning technology to complete the overall scanning of the dry-concrete wall to be imitated, and obtain the length, width and thickness of the entire wall and the size specifications of the detailed fancy structure. If the dry-concrete wall has a waistline, the information to be obtained includes the height, thickness and length of the entire wall, and the height, thickness, length and position information of the waistline;
[0018] Carry out detailed 3D scanning of the exposed concrete wall to be imitated, obtain the length and thickness information of each brick, and identify the depth of the brick joints, or the depth of the safety flat joints recessed into the brick surface, the depth and tilt angle of the inclined joints recessed into the brick surface, and the curvature of the ingot joints;
[0019] Based on the size information of the exposed concrete wall to be imitated, a design drawing of the imitated wall surface is obtained.
[0020] Furthermore, in the above method, based on the masonry style and the imitation wall design drawings, a three-dimensional model of the mold of each component to be imitated of the drywall is constructed, including:
[0021] Using Unity, SketchUp, SolidWorks, and Rhino software, a 3D model of the mold is constructed based on the wall design drawings formed in the previous steps, and the 3D model of the mold is converted into a format recognizable by the 3D printing machine.
[0022] Furthermore, in the above method, based on the three-dimensional model of the mold of each component, the corresponding mold is printed using 3D printing technology, including:
[0023] Print adaptive molds using 3D printing technology based on 3D models;
[0024] The supporting frame of the mold is manufactured in accordance with the size, specification and finishing style of the component to be imitated.
[0025] Furthermore, in the above method, applying the additive on the inner side of the mold comprises:
[0026] Apply the additive on the inside of the mold evenly and cover the entire surface of the mold; if there are fancy lines on the surface of the component to be imitated, focus on applying the additive on the corners of the fancy lines.
[0027] Furthermore, in the above method, pouring concrete on the surface of the internal and external admixtures of the mold to form the imitation component includes:
[0028] During the concrete pouring process, it should be vibrated while pouring to ensure that the concrete slurry fits fully with the mold to prevent the formation of bubbles, honeycombs and rough surfaces.
[0029] Furthermore, in the above method, after pouring concrete on the surface of the internal and external admixtures of the mold to form the imitation component, the method further includes:
[0030] After the concrete is poured, it is cured, and the curing time is generally 7-14 days. During the curing period, the temperature must be between 5℃ and 35℃, and the humidity must be above 95%. During the curing period, avoid heavy collisions, trampling and violent vibrations to avoid damage to the concrete. At the same time, pay attention to avoid direct sunlight and excessive wind to prevent cracking of the concrete surface and excessive evaporation of water.
[0031] Before formally removing the formwork, conduct a trial formwork removal to ensure that the formwork is detached from the concrete surface, and do not knock it hard; the removed formwork should be cleaned promptly and coated with release agent and covered for protection.
[0032] Furthermore, in the above method, based on the color of the tile joints of the original facing surface after cleaning, a multi-layer color rubbing treatment is performed on the facing surface of the imitation component after demolding, including:
[0033] Before applying multiple layers of paint, the finishing layer should be cleaned first to remove pollutants and impurities on the surface to ensure the flatness and smoothness of the base surface;
[0034] The corresponding pigments are prepared according to the color spectrum classification, and the order of multi-layer color rubbing of the finishing is determined in combination with the specifications of the finishing;
[0035] According to the color spectrum and the order of color rubbing, the multi-layer color rubbing of the imitation finish is completed, and the color rubbing process is performed layer by layer. After the color of the previous layer of finish meets the requirements, the next step of color rubbing is performed. The color should be applied evenly during the process to avoid obvious brush marks;
[0036] After the surface color rubbing reaches the expected effect, apply the surface protective agent to ensure that the durability of the wall will not decrease due to water leakage during use.
[0037] Compared with the prior art, the present invention is based on digital technical means such as artificial intelligence to automatically identify the masonry form and brick surface color of the exposed brick wall, form a color spectrum of the exposed brick wall finish, and form a suitable mold based on technologies such as 3D printing. Through the multi-layer color rubbing process of the finish, the "original" restoration of the exposed brick wall finish with concrete materials is carried out based on the prefabrication process. It can not only effectively solve the problems of the need to improve the construction quality of the traditional repair process due to the interruption of craftsmen and the loss of craftsmanship, but also effectively improve the performance of the finish and the green and low-carbon level of the implementation process, and at the same time provide a new solution for the restoration of historical finishes.
[0038] The present invention uses artificial intelligence and other modern technologies to automatically identify the original wall masonry form and brick color, and simultaneously completes the intelligent arrangement of the new wall masonry form. It uses 3D printing technology to form a suitable decorative imitation mold, and based on the prefabrication concept and multi-level color matching technology, it completes the efficient restoration of various types of clear water wall finishes, which can effectively improve the effectiveness of the implementation process, ensure the construction quality, and achieve precise control of the finishing effect and effective improvement of performance.
[0039] The present invention has obvious advantages in reducing costs and increasing efficiency, which is mainly reflected in that it first uses modern technologies such as artificial intelligence to complete the intelligent recognition of the original wall masonry form, avoiding the uncertainty of manual recognition, and realizes automatic recognition of the original wall color based on image recognition and other technologies, thereby improving the accuracy and efficiency of the restoration of the finish, and uses 3D printing technology to form a suitable mold, avoiding the waste of traditional templates.
[0040] The present invention can complete the accurate and efficient restoration of various types of clear water wall finishes based on the prefabrication concept and multi-level color rubbing technology. The whole implementation process has a high degree of factory operation and obvious green and environmental protection advantages.
[0041] The present invention provides a new solution for the restoration of typical historical features, avoiding the problems faced by traditional repair techniques such as the need to improve restoration efficiency and difficulty in ensuring repair quality due to the lack of craftsmen and the loss of craftsmanship. It can be widely used in large-scale style restoration projects.
[0042] The development of this method can effectively avoid the problems of long construction time and difficult quality assurance in traditional repair processes, and transform traditional on-site wet work into factory prefabrication, thereby improving construction quality and results. BRIEF DESCRIPTION OF THE DRAWINGS
[0043] Figure 1 It is a flow chart of a dry wall imitation method according to an embodiment of the present invention;
[0044] Figure 2 is a schematic diagram of a facing masonry style according to an embodiment of the present invention;
[0045] Figure 3 is a schematic diagram of an orthophotograph of an embodiment of the present invention;
[0046] Figure 4 is a schematic diagram of an SU model combined with point cloud model conversion according to an embodiment of the present invention;
[0047] Figure 5 It is a schematic diagram of a CAD drawing redrawn according to an embodiment of the present invention;
[0048] Figure 6 This is a schematic diagram of a detailed design of a brick surface according to an embodiment of the present invention;
[0049] Figure 7 Schematic diagram of a three-dimensional model of a mold according to an embodiment of the present invention. DETAILED DESCRIPTION
[0050] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the present invention is further described in detail below with reference to the accompanying drawings and specific embodiments.
[0051] like Figure 1 As shown, the present invention provides a dry wall imitation method, comprising:
[0052] Step S1, cleaning the original facing surface of the dry-wall to be imitated to restore the original appearance of the facing surface;
[0053] Here, cleaning is to remove the contaminants on the surface and restore it to its original appearance. The cleaning method depends on the type of contamination on the surface, such as water cleaning, chemical cleaning, physical cleaning, etc.
[0054] Step S2, intelligently identifying the masonry style and tile joint color of the original surface after cleaning;
[0055] Preferably, Figure 2 As shown, the original brick wall masonry form can be intelligently identified based on image recognition, artificial intelligence and other technologies, such as common finishing forms, including one straight and one ding, plum blossom ding, three straight and one ding, full straight and other masonry styles;
[0056] Preferably, artificial intelligence and other technologies can be used to perform intelligent identification of brick surface colors, forming a color spectrum of the surface to be imitated, wherein the color spectrum includes the value space of RGB values of brick surface colors in different regions.
[0057] Step S3, performing a three-dimensional scan on the dry wall to be imitated to obtain the size information of the dry wall to be imitated, and obtaining a design drawing of the imitated wall surface based on the size information of the dry wall to be imitated;
[0058] Preferably, step S3 may include:
[0059] Step S31, as Figure 3As shown, overall information acquisition: first complete the overall scan of the dry-water wall to be imitated using 3D scanning technology, including: the length, width and thickness of the entire wall, the size and specifications of the detailed fancy structure, etc. If the dry-water wall has a waistline, the information to be acquired includes the height, thickness, length of the entire wall, the height, thickness, length and position information of the waistline, etc.;
[0060] Step S32, as Figure 6 As shown, detailed information acquisition: a refined three-dimensional scan of the dry-wall to be imitated is performed, including the length and thickness information of each brick, and the recognition of the depth of the brick joints, including the depth of the flat joints recessed into the brick surface, the depth and inclination angle of the inclined joints recessed into the brick surface, the curvature of the ingot joints, etc.
[0061] Step S33, as Figure 4 and 5 As shown, a design drawing of a simulated wall surface is obtained based on the size information of the dry-wall to be simulated.
[0062] Step S4, constructing a three-dimensional model of the mold of each component to be imitated of the drywall based on the masonry style and the imitation wall design drawing;
[0063] Preferably, Figure 7 As shown, Unity, SketchUp, SolidWorks, Rhino and other software can be used to build a 3D model of the mold based on the wall design drawings formed in the above steps, and the 3D model of the mold can be converted into a format recognizable by a 3D printing machine.
[0064] Step S5, based on the three-dimensional model of the mold of each component, printing the corresponding mold using 3D printing technology;
[0065] Preferably, an adaptive mold is printed using 3D printing technology based on the three-dimensional model.
[0066] Preferably, in order to ensure the stability of the imitation component during the slurry pouring and curing process, the support frame of the mold should be made in combination with the size, specification, finishing style, etc. of the component to be imitated.
[0067] Step S6, brushing the admixture on the inner side of the mold; pouring concrete on the admixture surface inside and outside the mold to form a replica component;
[0068] Preferably, step S6 comprises:
[0069] Step S61, to facilitate demoulding in the later stage, apply additives on the inner side of the mold, and the application process should be uniform and cover the entire surface of the mold. If there are fancy lines on the surface of the component to be imitated, the corners of the fancy lines should be painted with emphasis.
[0070] Step S62: During the concrete pouring process, the concrete should be poured while being vibrated to ensure that the concrete slurry fits the mold well and to prevent problems such as bubbles, honeycombs, and rough surfaces.
[0071] Step S63, after the concrete is poured, it should be cured, and the curing time is generally 7-14 days; during the curing period, the temperature should be between 5℃ and 35℃, and the humidity should be above 95%. During the curing period, heavy collisions, trampling and severe vibrations should be avoided to avoid damage to the concrete. At the same time, it is also necessary to avoid direct sunlight and excessive wind to prevent cracking of the concrete surface and excessive evaporation of water.
[0072] Step S64, before formally removing the formwork, first try to remove the formwork to ensure that the formwork is separated from the concrete surface, and do not knock it hard. The removed formwork should be cleaned in time and coated with a release agent and covered for protection.
[0073] Step S7, based on the color of the tile joints of the original facing surface after cleaning, a multi-layer color rubbing treatment is performed on the facing surface of the imitation component after the demolding.
[0074] Preferably, step S7 includes:
[0075] Step S71, before multi-layer color rubbing, the finishing layer should be cleaned to remove pollutants and impurities on the surface to ensure the flatness and smoothness of the base layer surface.
[0076] Step S72, mixing corresponding pigments according to the color spectrum classification, and formulating the order of multi-layer color rubbing of the finishing in combination with the specifications of the finishing.
[0077] Step S73, according to the color spectrum and the order of color rubbing, the multi-layer color rubbing of the imitation finish is completed. The color rubbing process should be carried out layer by layer. The next step of color rubbing can be carried out after the color of the previous layer of finish meets the requirements. The color should be applied evenly during the process to avoid obvious brush marks.
[0078] Step S74, surface and finished product protection: After the surface color rubbing reaches the expected effect, apply the surface protection agent to ensure that the wall will not experience a decrease in durability due to problems such as water leakage during use, thereby achieving the goal of surface protection.
[0079] After the surface is completed, the finished product should be protected and the surface should not be painted, bumped or scratched.
[0080] In summary, the present invention is based on digital technical means such as artificial intelligence to automatically identify the masonry form and brick surface color of the exposed brick wall, form a color spectrum of the exposed wall finish, and form a suitable mold based on technologies such as 3D printing. Through the multi-layer color rubbing process of the finish, the "original" restoration of the exposed brick wall finish with concrete materials is carried out based on the prefabrication process. It can not only effectively solve the problems of traditional repair technology caused by the interruption of craftsmen and the loss of technology, but also effectively improve the performance of the finish and the green and low-carbon level of the implementation process, and at the same time provide a new solution for the restoration of historical style finishes.
[0081] The present invention uses artificial intelligence and other modern technologies to automatically identify the original wall masonry form and brick color, and simultaneously completes the intelligent arrangement of the new wall masonry form. It uses 3D printing technology to form a suitable decorative imitation mold, and based on the prefabrication concept and multi-level color matching technology, it completes the efficient restoration of various types of clear water wall finishes, which can effectively improve the effectiveness of the implementation process, ensure the construction quality, and achieve precise control of the finishing effect and effective improvement of performance.
[0082] The present invention has obvious advantages in reducing costs and increasing efficiency, which is mainly reflected in that it first uses modern technologies such as artificial intelligence to complete the intelligent recognition of the original wall masonry form, avoiding the uncertainty of manual recognition, and realizes automatic recognition of the original wall color based on image recognition and other technologies, thereby improving the accuracy and efficiency of the restoration of the finish, and uses 3D printing technology to form a suitable mold, avoiding the waste of traditional templates.
[0083] The present invention can complete the accurate and efficient restoration of various types of clear water wall finishes based on the prefabrication concept and multi-level color rubbing technology. The whole implementation process has a high degree of factory operation and obvious green and environmental protection advantages.
[0084] The present invention provides a new solution for the restoration of typical historical features, avoiding the problems faced by traditional repair techniques such as the need to improve restoration efficiency and difficulty in ensuring repair quality due to the lack of craftsmen and the loss of craftsmanship. It can be widely used in large-scale style restoration projects.
[0085] The development of this method can effectively avoid the problems of long construction time and difficult quality assurance in traditional repair processes, and transform traditional on-site wet work into factory prefabrication, thereby improving construction quality and results.
[0086] The various embodiments in this specification are described in a progressive manner, and each embodiment focuses on the differences from other embodiments. The same or similar parts between the various embodiments can be referenced to each other.
[0087] Professionals may further appreciate that the units and algorithm steps of each example described in conjunction with the embodiments disclosed herein can be implemented in electronic hardware, computer software, or a combination of the two. In order to clearly illustrate the interchangeability of hardware and software, the composition and steps of each example have been generally described in the above description according to function. Whether these functions are performed in hardware or software depends on the specific application and design constraints of the technical solution. Professionals and technicians may use different methods to implement the described functions for each specific application, but such implementation should not be considered to be beyond the scope of the present invention.
[0088] Obviously, those skilled in the art can make various changes and modifications to the invention without departing from the spirit and scope of the invention. Thus, if these modifications and variations of the invention fall within the scope of the claims of the invention and their equivalents, the invention is also intended to include these modifications and variations.
Claims
1. A method for imitating a dry wall, characterized in that: include: Clean the original surface of the dry-water wall to be imitated to restore the original appearance of the original surface; Intelligently identify the masonry style and tile joint color of the original surface after cleaning; Performing a three-dimensional scan on the dry-concrete wall to be copied to obtain the size information of the dry-concrete wall to be copied, and obtaining a copy wall design drawing based on the size information of the dry-concrete wall to be copied; Based on the masonry style and the imitation wall design drawings, construct a three-dimensional model of the mold of each component to be imitated of the drywall; Based on the three-dimensional model of the mold of each component, the corresponding mold is printed using 3D printing technology; Applying admixture on the inner side of the mold; pouring concrete on the inner and outer admixture surfaces of the mold to form a simulated component; Based on the color of the tile joints of the original facing after cleaning, a multi-layer color rubbing treatment is performed on the facing surface of the imitation component after the mold is removed.
2. The dry-wall imitation method according to claim 1, characterized in that: The masonry styles include: one straight and one tangent, plum blossom tangent, three straight and one tangent, and all straight.
3. The dry-wall imitation method according to claim 1, characterized in that: Intelligent identification of the color of the tile joints of the original surface after cleaning, including: Artificial intelligence and other technologies are used to complete intelligent recognition of brick surface color, forming a color spectrum of the surface to be imitated, and the color spectrum contains the value space of RGB values of brick surface colors in different areas.
4. The dry-wall imitation method according to claim 1, characterized in that: Performing a three-dimensional scan on the dry-water wall to be copied to obtain the size information of the dry-water wall to be copied, and obtaining a copy wall design drawing based on the size information of the dry-water wall to be copied, including: First, use 3D scanning technology to complete the overall scanning of the dry-concrete wall to be imitated, and obtain the length, width and thickness of the entire wall and the size specifications of the detailed fancy structure. If the dry-concrete wall has a waistline, the information to be obtained includes the height, thickness and length of the entire wall, and the height, thickness, length and position information of the waistline; Carry out detailed 3D scanning of the exposed concrete wall to be imitated, obtain the length and thickness information of each brick, and identify the depth of the brick joints, or the depth of the safety flat joints recessed into the brick surface, the depth and tilt angle of the inclined joints recessed into the brick surface, and the curvature of the ingot joints; Based on the size information of the exposed concrete wall to be imitated, a design drawing of the imitated wall surface is obtained.
5. The dry-wall imitation method according to claim 1, characterized in that: Based on the masonry style and the imitation wall design drawings, a three-dimensional model of the mold of each component to be imitated of the drywall is constructed, including: Using Unity, SketchUp, SolidWorks, and Rhino software, a 3D model of the mold is constructed based on the wall design drawings formed in the previous steps, and the 3D model of the mold is converted into a format recognizable by the 3D printing machine.
6. The dry-wall imitation method according to claim 1, characterized in that: Based on the three-dimensional model of the mold of each component, the corresponding mold is printed using 3D printing technology, including: Print adaptive molds using 3D printing technology based on 3D models; The supporting frame of the mold is manufactured in accordance with the size, specification and finishing style of the component to be imitated.
7. The dry-wall imitation method according to claim 1, characterized in that: Apply additives to the inside of the mold, including: Apply the additive on the inside of the mold evenly and cover the entire surface of the mold; if there are fancy lines on the surface of the component to be imitated, focus on applying the additive on the corners of the fancy lines.
8. The dry-wall imitation method according to claim 1, characterized in that: Concrete is poured on the surface of the internal and external admixtures of the mold to form a simulated component, including: During the concrete pouring process, it should be vibrated while pouring to ensure that the concrete slurry fits fully with the mold to prevent the formation of bubbles, honeycombs and rough surfaces.
9. The dry-wall imitation method according to claim 1, characterized in that: After pouring concrete on the surface of the internal and external admixtures of the mold to form the imitation component, the method also includes: After the concrete is poured, it is cured, and the curing time is generally 7-14 days. During the curing period, the temperature must be between 5℃ and 35℃, and the humidity must be above 95%. During the curing period, avoid heavy collisions, trampling and violent vibrations to avoid damage to the concrete. At the same time, pay attention to avoid direct sunlight and excessive wind to prevent cracking of the concrete surface and excessive evaporation of water. Before formally removing the formwork, conduct a trial formwork removal to ensure that the formwork is detached from the concrete surface, and do not knock it hard; the removed formwork should be cleaned promptly and coated with release agent and covered for protection.
10. The dry-wall imitation method according to claim 3, characterized in that: Based on the color of the tile joints of the original surface after cleaning, the surface of the imitation component after demolding is subjected to multi-layer color rubbing treatment, including: Before applying multiple layers of paint, the finishing layer should be cleaned first to remove pollutants and impurities on the surface to ensure the flatness and smoothness of the base surface; The corresponding pigments are prepared according to the color spectrum classification, and the order of multi-layer color rubbing of the finishing is determined in combination with the specifications of the finishing; According to the color spectrum and the order of color rubbing, the multi-layer color rubbing of the imitation finish is completed, and the color rubbing process is performed layer by layer. After the color of the previous layer of finish meets the requirements, the next step of color rubbing is performed. The color should be applied evenly during the process to avoid obvious brush marks; After the surface color rubbing reaches the expected effect, apply the surface protective agent to ensure that the durability of the wall will not decrease due to water leakage during use.