Efficient design implementation system for sample plate building project

Abstract

The invention relates to a sample building project efficient design implementation system, which comprises a design subsystem used for aided design and storage of a decoration design scheme of a sample building, and is characterized in that the design subsystem comprises a storage module, a design template library and an intelligent algorithm module, the design template library integrates design templates related to the sample building, and the intelligent algorithm module is connected with the storage module; the storage module is used for storing the design scheme, and the intelligent algorithm module is further connected with a visualization module and used for displaying the decoration design scheme in a model building in a projection mode. According to the efficient design implementation system for the sample building project, through the integrated design template module, the intelligent algorithm module, the real-time monitoring module, the automatic building module and the cloud synchronization module, all-around efficient collaborative operation from design to construction to construction is achieved, the working efficiency is remarkably improved, and it is ensured that the sample building project is completed on time according to the quality.

Description

Technical Field

[0001] The present invention relates to the field of model building design, and in particular to a high-efficiency design and implementation system for a model building project. Background Art

[0002] The model building is a packaging of commercial housing and a reference example for home buyers of the decoration effect. The quality of its decoration directly affects the buyer's first impression of the commercial housing, is related to the sales of the real estate project, and is an important factor in the real estate sales process. Therefore, the model building serves as a reference example for the majority of home buyers. Real estate developers are paying more and more attention to the design and decoration of the interior decoration of the model building. Moreover, since the model house is a display room for the appearance of commercial housing, there is no mandatory requirement for the structure, and temporary buildings can be quickly erected and implemented according to project requirements.

[0003] The existing model building design implementation plan relies on cumbersome manual drawing and multiple revisions and finalizations of design drafts. During the design and subsequent construction process, once adjustments are needed, such as design changes, material replacements, etc., it will involve the rearrangement and coordination of multiple links, increasing the cost of changes. In addition, due to the lack of standardized and modular applications, each project needs to be designed from scratch before subsequent construction. It is impossible to use existing design experience and resources to quickly replicate or adjust, which further reduces efficiency and slows down the overall design progress. Summary of the invention

[0004] The technical problem to be solved by the present invention is to provide an efficient design and implementation system for a model building project, which can achieve high-precision scanning over a large area.

[0005] The technical solution of the present invention to solve the above technical problems is as follows: A high-efficiency design and implementation system for a model building project, comprising: A design subsystem, used to assist in designing and storing the decoration design scheme of the model building, the design subsystem includes a storage module, a design template library and an intelligent algorithm module, the design template library integrates the design templates related to the model building, the storage module is used to store the design scheme, and the intelligent algorithm module is also connected to a visualization module, which is used to project and display the decoration design scheme in the model building; A construction management subsystem, which is used to monitor the construction site in real time and track the construction progress. The construction management subsystem includes a resource management module and a progress statistics module for recording the use of building materials; The construction subsystem is used to assist in the construction of a model building. The rapid construction module includes a preassembly system and an auxiliary construction module. The preassembly system is used to pre-install common building materials before entering the model building. The auxiliary construction module controls and drives automated construction equipment.

[0006] Preferably, the visualization module includes a scanning module, a demonstration module and a projection module, the scanning module is used to scan the internal and external structures of the model building, the demonstration module is used to read the design plan in the storage module, and the projection module projects the design plan read by the demonstration module according to the model building structure scanned by the scanning module.

[0007] Preferably, the intelligent algorithm module includes: An optimization analysis unit, used for optimizing and analyzing the design scheme; A user interface enables a designer to interact with the design subsystem.

[0008] Preferably, the resource management module further comprises: Inventory monitoring unit, used to monitor the inventory of building materials in real time and remind designers to purchase when the inventory falls below a preset threshold; The loss calculation unit reads data from the progress statistics module and the resource management module to understand the construction progress and the use of building materials. The loss calculation unit calculates and predicts the loss of building materials.

[0009] Preferably, the resource management module further includes: A task allocation unit, which allocates construction tasks to corresponding construction teams or workers according to the construction plan; The exception handling unit is used to monitor and record abnormal situations during the construction process, including but not limited to progress delays, quality problems, etc., and automatically generate alarm information so that timely response measures can be taken.

[0010] Preferably, the auxiliary building module includes: The automated path planning unit is used to automatically plan the moving path of the automated construction equipment according to the structure and construction requirements of the model building; The safety monitoring unit is used to monitor the equipment operating status and surrounding environment in real time during the automation construction process.

[0011] Preferably, it also includes a cloud synchronization module for uploading data in the design subsystem, construction management subsystem and construction subsystem to the cloud server in real time to achieve remote monitoring, data sharing and collaborative work.

[0012] The beneficial effect of the present invention is that by integrating design templates, intelligent algorithms, real-time monitoring, automated construction and cloud synchronization modules, all-round and efficient collaborative operations from design to construction to building are realized, which significantly improves work efficiency and ensures that the model building project is completed on time and with quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1It is an overall structural block diagram of a high-efficiency design and implementation system for a model building project of the present invention; Figure 2 A schematic diagram of the connection relationship between the design subsystem and the visualization module of a high-efficiency design implementation system for a model building project of the present invention; Figure 3 It is a structural block diagram of a construction management subsystem of a model building engineering efficient design implementation system of the present invention; Figure 4 This is a structural block diagram of a construction subsystem of a model building engineering efficient design and implementation system of the present invention; Figure 5 This is a schematic diagram of the connection relationship between a design subsystem and a cloud synchronization module of a model building engineering efficient design implementation system of the present invention.

[0014] In the accompanying drawings, the components represented by the reference numerals are listed as follows: 1. Design subsystem; 11. Storage module; 12. Design template library; 13. Intelligent algorithm module; 2. Construction management subsystem; 21. Resource management module; 22. Progress statistics module; 3. Visualization module; 31. Scanning module; 311. 3D scanner; 32. Demonstration module; 33. Projection module; 331. Smart screen; 332. Projector; 4. Construction subsystem; 41. Pre-assembly system; 42. Auxiliary construction module; 5. Cloud synchronization module. DETAILED DESCRIPTION

[0015] The principles and features of the present invention are described below in conjunction with the accompanying drawings. The examples given are only used to explain the present invention and are not used to limit the scope of the present invention.

[0016] like Figure 1 , Figure 2 , Figure 3 , Figure 4 and Figure 5 As shown, a high-efficiency design and implementation system for a model building project includes: The design subsystem 1 is used to assist in designing and storing the decoration design scheme of the model building. The design subsystem 1 includes a storage module 11, a design template library 12 and an intelligent algorithm module 13. The design template library 12 integrates design templates related to the model building. The storage module 11 is used to store the design scheme. The intelligent algorithm module 13 is also connected to a visualization module 3 for projecting and displaying the decoration design scheme in the model building. Construction management subsystem 2, the construction management subsystem 2 is used to monitor the construction site in real time and track the construction progress. The construction management subsystem 2 includes a resource management module 21 for recording the use of building materials and a progress statistics module 22; The construction subsystem 4 is used to assist in building a model building. The rapid construction module includes a preassembly system 41 and an auxiliary construction module 42. The preassembly system 41 is used to pre-install common building materials before entering the model building. The auxiliary construction module 42 controls and drives automated construction equipment.

[0017] In the embodiment, the visualization module 3 includes a scanning module 31, a demonstration module 32 and a projection module 33. The scanning module 31 is used to scan the internal and external structures of the model building and store the internal and external structures in the storage module 11. The demonstration module 32 is used to read the design plan in the storage module 11. The intelligent algorithm module 13 automatically compares the scanned internal and external structures with the design plan and notifies the designer.

[0018] The projection module 33 projects the design plan read by the demonstration module 32 according to the model building structure scanned by the scanning module 31 , and displays it through the smart screen 331 or the projector 332 .

[0019] In an embodiment, the intelligent algorithm module 13 includes: An optimization analysis unit, used for optimizing and analyzing the design scheme; The user interaction interface enables the designer to interact with the design subsystem 1 .

[0020] In an embodiment, the resource management module 21 further includes: Inventory monitoring unit, used to monitor the inventory of building materials in real time and remind designers to purchase when the inventory falls below a preset threshold; The loss calculation unit understands the construction progress and the use of building materials by reading the data of the progress statistics module 22 and the resource management module 21. The loss calculation unit calculates and predicts the loss of building materials.

[0021] In an embodiment, the resource management module 21 further includes: A task allocation unit, which allocates construction tasks to corresponding construction teams or workers according to the construction plan; The exception handling unit is used to monitor and record abnormal situations during the construction process, including but not limited to progress delays, quality problems, etc., and automatically generate alarm information so that timely response measures can be taken.

[0022] In an embodiment, the auxiliary building module 42 includes: The automated path planning unit is used to automatically plan the moving path of the automated construction equipment according to the structure and construction requirements of the model building; The safety monitoring unit is used to monitor the equipment operating status and surrounding environment in real time during the automation construction process.

[0023] In the embodiment, a cloud synchronization module 5 is also included, which is used to upload the data in the design subsystem 1, the construction management subsystem 2 and the construction subsystem 4 to the cloud server in real time, so as to realize remote monitoring, data sharing and collaborative work. Designers, construction managers and construction teams can access data anytime and anywhere, thereby improving communication efficiency and decision-making response speed.

[0024] The designer interacts with the intelligent algorithm module 13 through the user interaction interface, and uses the ready-made templates in the design template library 12 or designs the decoration plan of the model building from scratch. The design plan and the historical plan are stored in the storage module 11. The optimization analysis unit in the intelligent algorithm module 13 automatically evaluates and optimizes the design plan to ensure that the plan is practical and beautiful. At the same time, the user interaction interface provides an intuitive operation interface to facilitate real-time interaction between the designer and the design subsystem 1. When the design plan is determined, the visualization module 3 accurately scans the internal and external structures of the model building through the scanning module 31. The demonstration module 32 reads the design plan in the storage module 11, and the projection module 33 projects the design plan according to the actual structure of the model building, so that the designer and the customer can intuitively see the final effect. Before construction, the resource management module 21 monitors the inventory of building materials in real time through the inventory monitoring unit, and reminds procurement when the inventory is lower than the preset threshold. The loss calculation unit predicts and calculates material loss according to the construction progress and the use of building materials to optimize resources. Configuration, the task allocation unit assigns specific construction tasks to the corresponding construction teams or workers according to the construction plan to ensure that the construction is carried out in an orderly manner. During the formal construction phase, the construction management subsystem 2 monitors the construction site in real time and tracks the construction progress through the progress statistics module 22 to ensure that the project is advanced on time. At the same time, the resource management module 21 continuously monitors the use of materials and works with the loss calculation unit to adjust the material supply plan in time. During the construction process, the pre-assembly system 41 first prompts the pre-installation of commonly used building materials before the building materials enter the model building, which reduces the on-site assembly time and speeds up the construction progress. An abnormal handling unit is set up at the construction and decoration site to monitor abnormal situations during the construction process, such as progress delays, quality problems, etc., and automatically records and generates information so that timely response measures can be taken to reduce losses. During the construction of the model building, the automated path planning unit automatically plans the moving path of the automated construction equipment according to the structure and construction requirements of the model building to improve construction efficiency. The safety monitoring unit monitors the equipment operation status and surrounding environment in real time to ensure construction safety.

[0025] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. An efficient design and implementation system for a model building project, characterized in that: include: A design subsystem (1) for assisting in designing and storing a decoration design scheme for a model building, wherein the design subsystem (1) comprises a storage module (11), a design template library (12) and an intelligent algorithm module (13), wherein the design template library (12) integrates design templates related to the model building, the storage module (11) is used to store the design scheme, and the intelligent algorithm module (13) is further connected to a visualization module (3) for projecting and displaying the decoration design scheme in the model building; A construction management subsystem (2), the construction management subsystem (2) is used to monitor the construction site in real time and track the construction progress, the construction management subsystem (2) includes a resource management module (21) for recording the use of construction materials and a progress statistics module (22); The construction subsystem (4) is used to assist in building a model building. The rapid construction module includes a preassembly system (41) and an auxiliary construction module (42). The preassembly system (41) is used to pre-install common building materials before entering the model building. The auxiliary construction module (42) controls and drives an automated construction device.

2. The efficient design and implementation system for a model building project according to claim 1 is characterized by: The visualization module (3) comprises a scanning module (31), a demonstration module (32) and a projection module (33); the scanning module (31) is used to scan the model building, and the demonstration module (32) is used to read the design solution in the storage module (11).

3. The efficient design and implementation system for a model building project according to claim 2 is characterized by: The scanning module (31) is used to scan the internal and external structures of the model building and store the internal and external structures in the storage module (11); the intelligent algorithm module (13) automatically compares the scanned internal and external structures with the design scheme of the storage module (11) and notifies the designer.

4. The efficient design and implementation system for a model building project according to claim 2 is characterized by: The projection module (33) projects the design solution read by the demonstration module (32) according to the model building structure scanned by the scanning module (31), and displays it through the smart screen (331) or the projector (332).

5. The efficient design and implementation system for a model building project according to claim 1 is characterized by: The intelligent algorithm module (13) has: An optimization analysis unit, used for optimizing and analyzing the design scheme; A user interaction interface enables a designer to interact with the design subsystem (1).

6. The efficient design and implementation system for a model building project according to claim 3 is characterized by: The resource management module (21) has: Inventory monitoring unit, used to monitor the inventory of building materials in real time and remind designers to purchase when the inventory falls below a preset threshold; A loss calculation unit, wherein the loss calculation unit understands the construction progress and the use of building materials by reading data from the progress statistics module (22) and the resource management module (21), and the loss calculation unit calculates and predicts the loss of building materials.

7. The efficient design and implementation system for a model building project according to claim 3 is characterized by: The resource management module (21) further comprises: A task allocation unit, which allocates construction tasks to corresponding construction teams or workers according to the construction plan; The exception handling unit is used to monitor and record abnormal situations during the construction process, including but not limited to progress delays, quality problems, etc., and automatically generate alarm information so that timely response measures can be taken.

8. The efficient design and implementation system for a model building project according to claim 1 is characterized by: The auxiliary construction module (42) comprises: The automated path planning unit is used to automatically plan the moving path of the automated construction equipment according to the structure and construction requirements of the model building; The safety monitoring unit is used to monitor the equipment operating status and surrounding environment in real time during the automation construction process.

9. The efficient design and implementation system for a model building project according to claim 1 is characterized by: It also includes a cloud synchronization module (5) for uploading data in the design subsystem (1), the construction management subsystem (2) and the construction subsystem (4) to a cloud server in real time, thereby realizing remote monitoring, data sharing and collaborative work.

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