Method and device for fusing and integrating BIM pipeline model and live-action three-dimensional platform, and medium

Abstract

The invention belongs to the technical field of urban facilities and live-action three-dimensional, and particularly relates to a BIM pipeline model and live-action three-dimensional platform fusion and integration method and device and a medium. According to the method provided by the invention, through an accurate coordinate system definition and conversion technology, the problem of incompatibility of the BIM pipeline model and the live-action three-dimensional platform in space mapping is solved, the model can be ensured to be accurately embedded into a real scene, accurate position mapping of the BIM pipeline model in the real scene is realized, and the accuracy of position mapping of the BIM pipeline model in the real scene is improved. And powerful support is provided for digital integration of engineering projects. According to the method, the data processing efficiency of the BIM pipeline model is remarkably improved through a batch processing mechanism, batch processing covers the whole process of importing, preprocessing, coordinate conversion, model merging, redundant data cleaning and the like, manual operation is reduced, and efficient automation is achieved.

Description

Technical Field

[0001] The present invention belongs to the field of urban facilities and real-scene three-dimensional technology, and specifically relates to a method, device and medium for integrating a BIM pipeline model with a real-scene three-dimensional platform. Background Art

[0002] Underground pipelines are an important part of urban infrastructure and are known as the "lifeline" and "blood vessels" of the city. They are crucial to ensuring the production and life operations of the city. With the acceleration of urbanization, the spatial layout of underground pipelines has become increasingly complex. Traditional two-dimensional graphics technology has been unable to fully display its complexity, especially in the expression of longitudinal pipeline distribution. In contrast, three-dimensional BIM (Building Information Modeling) technology has shown significant advantages in solving these problems. By integrating the three-dimensional BIM pipeline model into the real-life three-dimensional platform, the complex spatial structure of underground pipelines can be intuitively displayed, helping users to more clearly understand the distribution of pipelines and their interrelationships, thereby improving the efficiency of pipeline management and maintenance.

[0003] However, in practical applications, the integration of these two technologies faces the following problems: (1) Incompatible data formats and structures. Different types of BIM pipeline models (such as Revit files, IFC formats, etc.) have significant differences in geometric structure, attribute data and material expression. When BIM data is directly imported into the real-life 3D platform, the model is often distorted or information is missing due to data format mismatch. (2) Difficulties in spatial positioning and coordinate mapping. BIM pipeline models usually use a local coordinate system, while the real-life 3D platform requires a global coordinate system to support geolocation. Directly loading unprocessed BIM data may cause the model to be offset or rotated incorrectly in the 3D scene, affecting its display effect and application value. (3) Large model size and low loading performance. BIM pipeline models contain rich geometric details and attribute information, which often results in a large model size. When directly loaded, due to the lack of optimization and simplification, it may have a serious impact on the rendering performance and user experience of the 3D platform. (4) Lack of automated processing methods. Most existing technologies rely on manual preprocessing and integration of BIM data, which is labor-intensive, inefficient, and prone to errors due to manual operations, making it difficult to meet the engineering field's demand for efficient data processing.

[0004] Therefore, how to achieve seamless integration with the real-life 3D platform while maintaining the integrity of BIM pipeline data and improve the degree of automation in data processing is an issue that the industry urgently needs to address. Summary of the invention

[0005] In view of the above technical problems, the present invention provides a method, device and medium for integrating the BIM pipeline model with a real-life three-dimensional platform. The physical position mapping of the BIM pipeline model in a real three-dimensional scene can be realized, and the slicing process of the BIM pipeline model can be simplified through automated processing technology, thereby ensuring that the BIM pipeline model can be quickly and accurately integrated into the real-life three-dimensional platform for display and application, thereby realizing efficient integration and accurate display of BIM data and three-dimensional real scenes.

[0006] The present invention is achieved through the following technical solutions: A method for integrating a BIM pipeline model with a real-scene three-dimensional platform, the method comprising the following steps: (1) Create data sources: Create two independent data sources: source data source and result data source; (2) Importing and preprocessing the BIM pipeline model: importing the original BIM pipeline model in different formats into the source data source. After the import is completed, the original BIM pipeline model is preprocessed; the preprocessing includes base point coordinate setting, rotation angle setting, display mode setting and material library setting; (3) Coordinate system definition and conversion: Based on the geographical area and coordinate datum of the actual engineering project, define the coordinate reference system of the BIM pipeline model preprocessed in step (2); and convert the local plane coordinate system of the preprocessed BIM pipeline model into the national standard coordinate system; (4) Model merging and simplification: Merge the sub-layers of the same type in the BIM pipeline model processed in step (3) to simplify the model structure and obtain a simplified BIM pipeline model; (5) Model checking and storage: Check the accuracy of coordinate system conversion, the integrity of sub-layer merging, and the consistency of geometric structure and attribute data of the simplified BIM pipeline model; If the check passes, the data of the simplified BIM pipeline model is stored in the result data source, and the process goes to step (6); if the check fails, the process goes back to step (3); (6) Redundant data removal: Identify the redundant data of the BIM pipeline model in the result data source and remove the redundant data; (7) Slice generation and cache service publishing: The BIM pipeline model processed in step (6) is sliced, and the sliced ​​BIM pipeline model cache file is published as a three-dimensional service.

[0007] Furthermore, in step (2), the preprocessing includes the following steps: (2.1) Base point coordinate setting: Set the base position of the BIM pipeline model in three-dimensional space, that is, the center point coordinates of the BIM pipeline model; (2.2) Rotation angle setting: Set the rotation angle of the BIM pipeline model according to the actual situation to ensure that the direction of the BIM pipeline model matches the real scene; (2.3) Display mode setting: Select the display mode based on the project requirements and model detail display requirements; (2.4) Material library setting: Load the material library corresponding to the BIM pipeline model.

[0008] Furthermore, step (4) specifically includes the following steps: (4.1) Filter sublayers with the same suffix name; (4.2) Merge sublayers: merge all sublayers with the same suffix name filtered out in step (4.1) into a unified layer; (4.3) Redefine the merged layer: Name the merged layer the corresponding pipeline name for easy subsequent identification and query.

[0009] Furthermore, step (6) specifically includes the following steps: (6.1) Identify duplicate points and duplicate surfaces: traverse the BIM pipeline model in the result data source and identify duplicate points and duplicate surfaces; (6.2) Remove duplicate points: Apply deduplication algorithms to detect and remove duplicate points; (6.3) Remove duplicate faces: Use face data detection tools to identify duplicate faces and delete the redundant parts; (6.4) Check model integrity: After removing duplicate points and faces, check the BIM pipeline model to ensure that all geometric structures of the BIM pipeline model remain intact and no key pipeline information is lost.

[0010] Furthermore, the specific operation steps of step (7) are as follows: According to specific application requirements, select the 3D model data storage and transmission format, including 3D Tiles, S3M, etc.; According to the selected transmission format, the BIM pipeline model processed in step (6) in the result data source is sliced ​​to generate tile cache files of multiple levels; The sliced ​​BIM pipeline model tile cache file is published as a 3D service on the real-life 3D platform, and follows the general 3D service interface specifications to achieve accurate display and smooth operation of the BIM pipeline model in 3D space; The real-scene 3D platform dynamically loads the published BIM pipeline 3D services based on the user's interactive operations.

[0011] Furthermore, the three-dimensional service interface specification includes the 3D Tiles standard.

[0012] Furthermore, steps (1)-(4) are processed in batches. By specifying the original BIM pipeline model file path, source data source path, and result data source path, the user can set preprocessing parameters, coordinate transformation rules, and model merging strategies with one click.

[0013] Furthermore, steps (6)-(7) are processed in batches, and redundant data cleaning and model slicing operations are efficiently performed through batch algorithms; the BIM pipeline model in the result data source is automatically sliced ​​according to preset rules or parameters to generate multi-level cache files, and the cache files are organized and managed according to layer names to ensure orderly storage and fast access to different types of pipeline models.

[0014] A processing device for integrating a BIM pipeline model with a real-life three-dimensional platform, the device comprising: a memory, a processor, and a BIM pipeline model automation processing tool stored in the memory and executable on the processor, wherein the BIM pipeline model automation processing tool implements a method for integrating a BIM pipeline model with a real-life three-dimensional platform when executed by the processor.

[0015] A processing storage medium for integrating a BIM pipeline model with a real-life three-dimensional platform, wherein the storage medium can store a BIM pipeline model processing automation tool and BIM pipeline model data; a method for implementing the integration of a BIM pipeline model with a real-life three-dimensional platform when the BIM pipeline model automation processing tool is executed by a processor Beneficial technical effects of the present invention: The method provided by the present invention solves the incompatibility problem between the BIM pipeline model and the real-scene three-dimensional platform in spatial mapping through precise coordinate system definition and conversion technology, ensures that the model can be accurately embedded in the real scene, realizes the precise position mapping of the BIM pipeline model in the real scene, and provides strong support for the digital integration of engineering projects.

[0016] The method provided by the present invention significantly improves the data processing efficiency of the BIM pipeline model through a batch processing mechanism. The batch processing covers the entire process of importing, preprocessing, coordinate conversion, model merging and redundant data cleaning, reduces manual operations and realizes efficient automation. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 The present invention provides a flowchart of a method for integrating a BIM pipeline model with a real-scene three-dimensional platform in an embodiment of the present invention. DETAILED DESCRIPTION

[0018] In order to make the purpose, technical solution and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0019] On the contrary, the present invention covers any substitution, modification, equivalent method and scheme made on the essence and scope of the present invention as defined by the claims. Further, in order to make the public have a better understanding of the present invention, some specific details are described in detail in the detailed description of the present invention below. Those skilled in the art can fully understand the present invention without the description of these details.

[0020] The present invention provides a method embodiment for integrating a BIM pipeline model with a real-scene three-dimensional platform, the method comprising the following steps: (1) Create a data source: Create two independent data sources, the source data source and the result data source; in this step, two independent data sources are designed and created to support efficient management and processing of BIM data: the source data source is used to store the imported original BIM pipeline model and its related data, and the related data includes geometric information, attribute information and material information. The result data source is used to store the processed and optimized BIM pipeline model to ensure that the optimized BIM pipeline model meets the display and application requirements of the three-dimensional platform. The present invention generates a final model adapted to the real-life three-dimensional platform by performing multi-level processing and optimization on the original data in the source data source, and saves it to the result data source. The result data source supports on-demand publishing, which facilitates flexible application in different scenarios.

[0021] (2) Import and preprocessing of BIM pipeline models: Import the original BIM pipeline models in different formats (including Revit, IFC, and CityGML formats) into the source data source. After the import is completed, the original BIM pipeline models are preprocessed; the preprocessing includes base point coordinate setting, rotation angle setting, display mode setting, and material library setting; this step can more accurately display the details and appearance of the model.

[0022] (3) Coordinate system definition and conversion: Based on the geographical area and coordinate datum of the actual engineering project, define the coordinate reference system of the BIM pipeline model preprocessed in step (2); and convert the local plane coordinate system of the preprocessed BIM pipeline model into the national standard coordinate system; Specifically, the coordinate reference system of the defined preprocessed BIM pipeline model includes the Gauss-Krüger plane rectangular coordinate system, the local plane coordinate system or the independent coordinate system; and in the conversion process, special attention should be paid to the uniformity of geographic elevation, the adaptability of the projection method and the accuracy control of the model to avoid positioning deviation due to error accumulation.

[0023] Since the BIM pipeline model usually adopts a local coordinate system, in order to ensure the correct positioning of the BIM pipeline model in the three-dimensional platform, this step is used to define and convert the coordinate system of the BIM pipeline model.

[0024] (4) Model merging and simplification: Merge the sub-layers of the same type in the BIM pipeline model processed in step (3) to simplify the model structure and obtain a simplified BIM pipeline model; (5) Model checking and storage: Check the accuracy of coordinate system conversion, the integrity of sub-layer merging, and the consistency of geometric structure and attribute data of the simplified BIM pipeline model; If the check passes, the data of the simplified BIM pipeline model is stored in the result data source, and the process goes to step (6); if the check fails, the process goes back to step (3); (6) Redundant data removal: Identify the redundant data of the BIM pipeline model in the result data source and remove the redundant data; (7) Slice generation and cache service publishing: The BIM pipeline model processed in step (6) is sliced, and the sliced ​​BIM pipeline model cache file is published as a three-dimensional service.

[0025] In step (2) of this embodiment, the pretreatment includes the following steps: (2.1) Base point coordinate setting: Set the base position of the BIM pipeline model in three-dimensional space, that is, the center point coordinates of the BIM pipeline model; this step ensures that the model can be accurately aligned with the actual geographical location after import; (2.2) Rotation angle setting: Set the rotation angle of the BIM pipeline model according to the actual situation to ensure that the direction of the BIM pipeline model matches the real scene; this step is particularly important for complex underground pipeline layouts.

[0026] (2.3) Display mode setting: Select a display mode based on project requirements and model detail display requirements; specifically, the display mode includes any one of a shaded mode and a realistic mode; the specific selection mode needs to be determined based on project requirements and model detail display requirements.

[0027] (2.4) Material library setting: Load the material library corresponding to the BIM pipeline model. This step ensures that the model can be presented with a realistic appearance and texture when displayed on the 3D platform; the elements in the material library include information such as the material type, color, and reflectivity of the pipeline, thereby improving the visual effect and authenticity of the model.

[0028] For the case of multiple sub-layers of the same type of pipeline models, such as pipe fittings and pipe fitting accessories of water supply pipelines, by merging sub-layers of the same type and simplifying the model structure, we can improve the efficiency of subsequent data processing and reduce the consumption of computing resources, as well as optimize rendering performance and ensure the display effect of the model in the three-dimensional platform. Step (4) Model merging and simplification, specifically includes the following steps: (4.1) Filter sublayers with the same suffix name; since sublayers of the same type usually have the same file name suffix, such as "Pipe Fittings_Drinking Water", "Pipe Fittings Accessories_Drinking Water", etc., you can filter and merge them according to the file name suffix. Make sure that all sublayers with the same suffix name are identified so that they can be processed uniformly; (4.2) Merge sublayers: merge all sublayers with the same suffix name selected in step (4.1) into a unified layer. During the merging process, ensure that the suffix names of all sublayers are the same to ensure that the merged layers belong to the same type of BIM pipeline model; (4.3) Redefine the merged layer: Name the merged layer the corresponding pipeline name for easy identification and query. For example, if the merged layer has a suffix of "_drinking water", the unified layer can be named "drinking water" to clearly identify the content of the layer.

[0029] In this embodiment, step (5) can ensure that the BIM pipeline model data stored in the result data source meets the following requirements: accurate coordinate system conversion, complete sub-layer merging, and consistent geometric structure and attribute data, so as to facilitate subsequent optimization and release.

[0030] Step (6) of this embodiment specifically includes the following steps: (6.1) Identify duplicate points and surfaces: Traverse the BIM pipeline models in the result data source and identify duplicate points and surfaces; usually, redundant data may come from the merging of multiple sub-layers or the superposition of different types of pipeline models.

[0031] (6.2) Remove duplicate points: Apply deduplication algorithms to detect and remove duplicate points; while removing duplicate points, ensure that adjacent geometric structures are correctly connected; avoid destroying the integrity of the model structure due to vertex deletion.

[0032] (6.3) Remove duplicate faces: Use the face data detection tool to identify duplicate faces and delete the redundant parts; ensure that each face retains only a unique identification code and check whether the surrounding geometric structure is affected; the surrounding faces are faces with the same or overlapping geometric shape and position; duplicate faces are usually caused by errors when merging or importing multiple models; (6.4) Check model integrity: After removing duplicate points and faces, check the BIM pipeline model to ensure that all geometric structures of the BIM pipeline model remain intact and that no key pipeline information is lost; if lost, the missing parts will be converted separately.

[0033] Step (6) removes redundant data through algorithm identification, which can effectively reduce the amount of data and platform load, and improve model loading speed and rendering performance.

[0034] The specific operation steps of step (7) of this embodiment are as follows: Select the 3D model data storage and transmission format according to specific application requirements; specifically, 3D Tiles, S3M, etc. According to the selected transmission format, the BIM pipeline model processed in step (6) in the result data source is sliced ​​to generate tile cache files of multiple levels; The sliced ​​BIM pipeline model tile cache file is published as a 3D service on the real-life 3D platform, and follows the general 3D service interface specifications to achieve accurate display and smooth operation of the BIM pipeline model in 3D space; The real-scene 3D platform dynamically loads the published BIM pipeline 3D services based on the user's interactive operations.

[0035] Specifically, the three-dimensional service interface specification includes 3D Tiles and S3M standards.

[0036] For the key steps in the above processing flow, the present invention introduces a batch processing mechanism, which significantly improves data processing efficiency and effectively reduces labor costs. Specifically, it includes the following two aspects: First, batch import, preprocessing and merging of BIM pipeline models are processed in batches: In this embodiment, steps (1) to (4) are processed in batches. By specifying the original BIM pipeline model file path, the source data source path, and the result data source path, the user can set the preprocessing parameters (including base point coordinates, rotation angle, display mode, material library settings, etc.), coordinate conversion rules, and model merging strategies with one click.

[0037] The present invention supports batch processing of the entire process from the original BIM pipeline model to the simplified BIM pipeline model. Batch operations are automatically performed according to user-defined rules, all original BIM files are processed uniformly, and the processed BIM pipeline model is stored in the result data source, ensuring that the entire processing process is efficient, standardized and accurate.

[0038] Second, redundant data removal and batch processing of slice generation: In this embodiment, steps (6)-(7) are processed in batches, and the redundant data cleaning and model slicing operations are efficiently performed through a batch algorithm; According to preset rules or parameters (such as LOD level, geometric error, etc.), the BIM pipeline model in the result data source is automatically sliced ​​to generate multi-level cache files, which are organized and managed according to layer names to ensure orderly storage and fast access to different types of pipeline models. This batch processing strategy significantly reduces the complexity of manual operations and improves the overall efficiency of slice generation and data management.

[0039] Through the above-mentioned batch processing method, the present invention can realize the rapid conversion and efficient integration of massive BIM pipeline model data in complex engineering projects.

[0040] Embodiment 2: A processing device for integrating a BIM pipeline model with a real-life three-dimensional platform, characterized in that the device comprises: a memory, a processor, and a BIM pipeline model automation processing tool stored in the memory and executable on the processor, wherein the BIM pipeline model automation processing tool, when executed by the processor, implements the method for integrating a BIM pipeline model with a real-life three-dimensional platform in Embodiment 1.

[0041] Embodiment 3: A processing storage medium for integrating a BIM pipeline model with a real-life three-dimensional platform, characterized in that the storage medium can store a BIM pipeline model processing automation tool and BIM pipeline model data; when the BIM pipeline model automation processing tool is executed by a processor, the method for integrating a BIM pipeline model with a real-life three-dimensional platform in Embodiment 1 is implemented.

[0042] The method provided by the present invention can ensure the precise spatial positioning of the BIM pipeline model. The pre-processing method of the BIM pipeline model of the present invention can ensure the accurate spatial position and direction of the model in the real three-dimensional scene, and realize the precise integration of the BIM pipeline model in the real three-dimensional platform.

[0043] The method provided by the present invention adopts batch processing to improve the level of data processing automation, realizes full-process automation processing from data import, preprocessing to three-dimensional service publishing, simplifies the cumbersome model processing process into automated operations, significantly reduces manual operations and error rates, improves work efficiency, and meets the rapid response needs of large-scale engineering projects.

[0044] Through the method of the present invention, the deficiencies in the current integrated application of BIM technology and real-life three-dimensional platform can be effectively compensated, and a full-process solution from data to scene can be provided for engineering projects, which is widely applicable to digital and intelligent management scenarios in the fields of municipal pipe networks, architectural design, underground engineering, etc.

[0045] 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. A method for integrating the BIM pipeline model with the real-scene three-dimensional platform, characterized in that: The method comprises the following steps: (1) Create data sources: Create two independent data sources: source data source and result data source; (2) Importing and preprocessing the BIM pipeline model: importing the original BIM pipeline model in different formats into the source data source. After the import is completed, the original BIM pipeline model is preprocessed; the preprocessing includes base point coordinate setting, rotation angle setting, display mode setting and material library setting; (3) Coordinate system definition and conversion: Based on the geographical area and coordinate datum of the actual engineering project, define the coordinate reference system of the BIM pipeline model preprocessed in step (2); and convert the local plane coordinate system of the preprocessed BIM pipeline model into the national standard coordinate system; (4) Model merging and simplification: Merge the sub-layers of the same type in the BIM pipeline model processed in step (3) to simplify the model structure and obtain a simplified BIM pipeline model; (5) Model checking and storage: Check the accuracy of coordinate system conversion, the integrity of sub-layer merging, and the consistency of geometric structure and attribute data of the simplified BIM pipeline model; If the check passes, the data of the simplified BIM pipeline model is stored in the result data source, and the process goes to step (6); if the check fails, the process goes back to step (3); (6) Redundant data removal: Identify the redundant data of the BIM pipeline model in the result data source and remove the redundant data; (7) Slice generation and cache service publishing: The BIM pipeline model processed in step (6) is sliced, and the sliced ​​BIM pipeline model cache file is published as a three-dimensional service.

2. The method for integrating the BIM pipeline model with the real-scene three-dimensional platform according to claim 1, characterized in that: In step (2), the pretreatment includes the following steps: (2.1) Base point coordinate setting: Set the base position of the BIM pipeline model in three-dimensional space, that is, the center point coordinates of the BIM pipeline model; (2.2) Rotation angle setting: Set the rotation angle of the BIM pipeline model according to the actual situation to ensure that the direction of the BIM pipeline model matches the real scene; (2.3) Display mode setting: Select the display mode based on the project requirements and model detail display requirements; (2.4) Material library setting: Load the material library corresponding to the BIM pipeline model.

3. The method for integrating the BIM pipeline model with the real-scene three-dimensional platform according to claim 1 is characterized in that: Step (4) specifically includes the following steps: (4.1) Filter sublayers with the same suffix name; (4.2) Merge sublayers: merge all sublayers with the same suffix name filtered out in step (4.1) into a unified layer; (4.3) Redefine the merged layer: Name the merged layer the corresponding pipeline name for easy subsequent identification and query.

4. The method for integrating the BIM pipeline model with the real-scene three-dimensional platform according to claim 1 is characterized in that: Step (6) specifically includes the following steps: (6.1) Identify duplicate points and duplicate surfaces: traverse the BIM pipeline model in the result data source and identify duplicate points and duplicate surfaces; (6.2) Remove duplicate points: Apply deduplication algorithm to detect and remove duplicate points; (6.3) Remove duplicate faces: Use face data detection tools to identify duplicate faces and delete the redundant parts; (6.4) Check model integrity: After removing duplicate points and faces, check the BIM pipeline model to ensure that all geometric structures of the BIM pipeline model remain intact and no key pipeline information is lost.

5. The method for integrating the BIM pipeline model with the real-scene three-dimensional platform according to claim 1, characterized in that: Step (7) The specific steps are as follows: Select the format for storing and transmitting 3D models; According to the selected transmission format, the BIM pipeline model processed in step (6) in the result data source is sliced ​​to generate tile cache files of multiple levels; The sliced ​​BIM pipeline model tile cache file is published as a 3D service on the real-life 3D platform, and follows the general 3D service interface specifications to achieve accurate display and smooth operation of the BIM pipeline model in 3D space; The real-scene 3D platform dynamically loads the published BIM pipeline 3D services based on the user's interactive operations.

6. The method for integrating the BIM pipeline model with the real-scene three-dimensional platform according to claim 5 is characterized in that: The 3D service interface specifications include the 3D Tiles standard and the S3M standard.

7. The method for integrating the BIM pipeline model with the real-scene three-dimensional platform according to claim 1, characterized in that: Steps (1) to (4) are processed in batches. By specifying the original BIM pipeline model file path, source data source path, and result data source path, the user can set preprocessing parameters, coordinate transformation rules, and model merging strategies with one click.

8. The method for integrating the BIM pipeline model with the real-scene three-dimensional platform according to claim 1, characterized in that: Steps (6)-(7) use batch processing to efficiently perform redundant data cleaning and model slicing operations through batch algorithms; based on preset rules or parameters, the BIM pipeline model in the result data source is automatically sliced ​​to generate a multi-level cache file, and the cache file is organized and managed according to the layer name to ensure orderly storage and fast access to different types of pipeline models.

9. A processing device for integrating a BIM pipeline model with a real-scene three-dimensional platform, characterized in that: The device includes: a memory, a processor, and a BIM pipeline model automation processing tool stored in the memory and executable on the processor. When the BIM pipeline model automation processing tool is executed by the processor, the method for integrating the BIM pipeline model with the real-life three-dimensional platform described in any one of claims 1 to 8 is implemented.

10. A processing storage medium integrating a BIM pipeline model with a real-scene three-dimensional platform, characterized in that: The storage medium can store BIM pipeline model processing automation tools and BIM pipeline model data; when the BIM pipeline model automation processing tool is executed by the processor, the method for integrating the BIM pipeline model with the real-life three-dimensional platform as described in any one of claims 1 to 8 is implemented.

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