A construction guidance document generation method, device, equipment and storage medium

Abstract

The present application relates to the field of BIM building technology, and more particularly to a construction guidance file generation method, device, equipment and storage medium; the water treatment system is divided according to the water treatment process characteristics, so as to obtain a plurality of classified function modules; the plurality of classified function modules are updated according to the preset three-dimensional corresponding rule and the preset whole life cycle attribute, so as to obtain a plurality of updated function modules; the plurality of updated function modules are modeled according to the preset BIM modeling method, so as to obtain a plurality of selected models; the engineering design drawings are optimized according to the preset collision detection method and the plurality of selected models, so as to obtain the construction guidance file; the module is divided according to the water treatment process characteristics, which is consistent with the process logic and improves the working condition adaptability; the drawings are optimized through collision detection, the construction guidance file is generated, hidden dangers are checked out, design and construction are connected, cost is reduced and efficiency is improved, and all-round support is provided for the whole life cycle digital management of water treatment engineering.

Description

Technical Field

[0001] This invention relates to the field of BIM building technology, and in particular to a method, apparatus, equipment and storage medium for generating construction guidance documents. Background Technology

[0002] Currently, the water treatment engineering field lacks a systematic and standardized end-to-end management and control system, exhibiting numerous common shortcomings. Existing technologies suffer from crude module design and poor adaptability, failing to accommodate water treatment projects of varying scales and operating conditions. This leads to difficulties in module reuse, information discontinuity, and hinders digital management. Furthermore, low modeling efficiency, severe repetitive design, and the lack of professional clash detection methods in optimizing process design drawings easily result in various construction hazards. Consequently, design and construction become severely disconnected, leading to high rework rates and significant cost waste. Overall, these technologies fail to meet the actual needs of digital and refined design and construction throughout the entire lifecycle of water treatment projects. Summary of the Invention

[0003] In order to overcome the shortcomings of the prior art, the purpose of this invention is to provide a method, apparatus, equipment and storage medium for generating construction guidance documents.

[0004] The first aspect of this invention provides a method for generating construction guidance documents, comprising: acquiring water treatment process characteristics; dividing a preset water treatment system according to the water treatment process characteristics to obtain multiple categorized functional modules; updating the multiple categorized functional modules according to preset three-dimensional correspondence rules and preset full life cycle attributes to obtain multiple updated functional modules; modeling the multiple updated functional modules according to a preset BIM modeling method to obtain multiple selection models; acquiring engineering design drawings and optimizing the engineering design drawings according to a preset collision detection method and multiple selection models to obtain construction guidance documents.

[0005] Furthermore, the step of dividing the preset water treatment system according to the characteristics of the water treatment process to obtain multiple functional modules includes: dividing the water treatment system according to the characteristics of the water treatment process to obtain multiple functional modules; labeling the multiple functional modules according to preset key parameter attributes to obtain multiple attribute functional modules; and classifying the multiple attribute functional modules according to preset unified rules to obtain multiple classification functional modules.

[0006] Furthermore, the step of updating multiple classification functional modules according to preset three-dimensional correspondence rules and preset full lifecycle attributes to obtain multiple updated functional modules includes: encoding multiple classification functional modules according to three-dimensional correspondence rules to obtain multiple encoded entity models; labeling multiple encoded entity models according to full lifecycle attributes to obtain multiple labeled entity models; and updating multiple classification functional modules according to multiple labeled entity models to obtain multiple updated functional modules.

[0007] Furthermore, the step of encoding multiple classification functional modules according to the three-dimensional correspondence rules to obtain multiple encoded entity models includes: splitting multiple classification functional modules to obtain multiple device entity models; and encoding multiple device entity models according to the three-dimensional correspondence rules to obtain multiple encoded entity models.

[0008] Furthermore, the step of modeling multiple update function modules according to a preset BIM modeling method to obtain multiple selection models includes: constructing an index for multiple update function modules based on preset classification rules to obtain multiple index function modules; storing the multiple index function modules in a preset classification database to obtain a classification model library; obtaining site requirements and construction drawings, and selecting multiple selection modules from the classification model library according to site requirements and construction drawings; and modeling the multiple selection modules according to the BIM modeling method to obtain multiple selection models.

[0009] Furthermore, the step of optimizing the engineering design drawings according to a preset collision detection method and multiple selection models to obtain construction guidance documents includes: modeling the engineering design drawings according to a BIM modeling method to obtain multiple engineering models; performing collision detection on the multiple selection models and multiple engineering models according to a collision detection method to obtain collision detection results; and optimizing the engineering design drawings according to the collision detection results to obtain construction guidance documents.

[0010] Furthermore, the step of optimizing the engineering design drawings based on a preset collision detection method and multiple selection models to obtain construction guidance documents includes, after which: obtaining equipment operating parameters and maintenance cycle parameters based on multiple annotated entity models; analyzing the equipment operating parameters based on preset operating conditions to obtain the equipment operating status; and generating a personalized maintenance plan based on the equipment operating status and maintenance cycle parameters.

[0011] Furthermore, a construction guidance document generation device includes: an acquisition module for acquiring water treatment process characteristics; a division module for dividing a preset water treatment system according to the water treatment process characteristics to obtain multiple classification functional modules; an update module for updating the multiple classification functional modules according to preset three-dimensional correspondence rules and preset full life cycle attributes to obtain multiple update functional modules; a modeling module for modeling the multiple update functional modules according to a preset BIM modeling method to obtain multiple selection models; and an optimization module for acquiring engineering design drawings and optimizing the engineering design drawings according to a preset collision detection method and multiple selection models to obtain construction guidance documents.

[0012] Furthermore, a construction guidance document generation device includes: a memory and at least one processor, wherein the memory stores instructions; at least one processor invokes the instructions in the memory to cause the construction guidance document generation device to perform the various steps of the construction guidance document generation method described above.

[0013] Furthermore, a computer-readable storage medium stores instructions that, when executed by a processor, implement the steps of a construction guidance document generation method as described above.

[0014] In the technical solution of this invention, functional modules are categorized according to the characteristics of water treatment processes, aligning with the system's process logic and improving the adaptability of modules to different operating conditions. This lays a solid initial foundation for subsequent work and improves design efficiency. Furthermore, through a three-dimensional correspondence rule coding and full lifecycle attribute annotation and update module, the model is digitally upgraded, an information transmission index is built, and seamless information transmission is ensured. Subsequently, a selection model is generated based on BIM modeling methods, reducing redundant design and providing reliable support for subsequent stages. Finally, collision detection is combined to optimize engineering drawings, generate construction guidance documents, identify potential construction hazards, achieve seamless integration of design and construction, reduce rework costs, improve construction efficiency and quality, and provide comprehensive and powerful support for the digital management of the entire lifecycle of water treatment projects. Attached Figure Description

[0015] The above and / or additional aspects and advantages of the present invention will become apparent and readily understood from the description of the embodiments taken in conjunction with the following drawings, in which: Figure 1 This is a first flowchart of a method for generating construction guidance documents according to an embodiment of the present invention; Figure 2 This is a second flowchart of a method for generating construction guidance documents provided in an embodiment of the present invention; Figure 3This is a third flowchart of a method for generating construction guidance documents provided in an embodiment of the present invention; Figure 4 This is a fourth flowchart of a method for generating construction guidance documents provided in an embodiment of the present invention; Figure 5 The fifth flowchart of a method for generating construction guidance documents provided in an embodiment of the present invention; Figure 6 The sixth flowchart of a method for generating construction guidance documents provided in an embodiment of the present invention; Figure 7 The seventh flowchart of a method for generating construction guidance documents provided in an embodiment of the present invention; Figure 8 This is a schematic diagram of a construction guidance document generation device provided in an embodiment of the present invention; Figure 9 This is a structural schematic diagram of a construction guidance document generation device provided in an embodiment of the present invention. Detailed Implementation

[0016] The terms "first," "second," "third," "fourth," etc. (if present) in the specification, claims, and accompanying drawings of this invention are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that such data can be interchanged where appropriate so that the embodiments described herein can be implemented in orders other than those illustrated or described herein. Furthermore, the terms "comprising" or "having" and any variations thereof are intended to cover a non-exclusive inclusion; for example, a process, method, system, product, or apparatus that comprises a series of steps or units is not necessarily limited to those steps or units explicitly listed, but may include other steps or units not explicitly listed or inherent to such processes, methods, products, or apparatus.

[0017] For ease of understanding, the specific process of the embodiments of the present invention is described below. Please refer to [link / reference]. Figure 1 One embodiment of a construction guidance document generation method according to the present invention includes: 101. Obtain the characteristics of the water treatment process; 102. Divide the preset water treatment system according to the characteristics of the water treatment process to obtain multiple functional modules; In this embodiment, the water treatment system is divided according to the preset water treatment process characteristics, which fits the system process logic and functional division, takes into account the process differences of different functions and the same function, and divides the core modules that are suitable for the whole process. This makes the module division more reasonable, improves the adaptability to different project conditions, lays the foundation for comparison and selection of modules with the same function, and opens up the information link in the initial stage of module construction, laying a solid foundation for subsequent parameter labeling, classification management and whole process work, and improving design efficiency. 103. Update multiple classification function modules according to the preset three-dimensional correspondence rules and preset full life cycle attributes to obtain multiple updated function modules; In this embodiment, a unique digital identifier is assigned to the module and its internal components through three-dimensional correspondence rule coding, enabling precise control of the model across all dimensions, improving retrieval and positioning efficiency, and building an index for information transmission at each stage. Combined with full lifecycle attribute annotation, the model integrates core information of the equipment at all stages, completing the digital upgrade. The updated module information is complete and standardized, and can be directly connected to subsequent BIM modeling and other processes, achieving seamless information transmission, improving the efficiency of the entire process, and laying a standardized and refined model foundation for the digital management of the entire lifecycle of water treatment projects. 104. Model multiple update function modules according to the preset BIM modeling method to obtain multiple selection models; In this embodiment, the modeling relies on the complete information of the updated functional modules and combines professional BIM technology to accurately restore the integrated layout and process association of equipment, pipelines, and instruments, ensuring that the model is highly matched with the project's working conditions and process requirements. At the same time, it inherits the modules' built-in codes, parameters, and full lifecycle attributes to achieve standardization and unification of model information. This provides reliable support for subsequent engineering model integration and clash detection, improves modeling efficiency, reduces redundant design, and lays a solid digital model foundation for the generation of construction guidance documents and full lifecycle operation and maintenance, thus promoting the standardization and refinement of water treatment engineering design. 105. Obtain engineering design drawings and optimize them based on preset collision detection methods and multiple selection models to obtain construction guidance documents; In this embodiment, by acquiring engineering design drawings and optimizing them using a preset collision detection method and multiple selection models, a construction guidance document is finally obtained. This document can accurately identify spatial collisions and unreasonable layouts of equipment and pipelines in the drawings, verify whether equipment spacing and maintenance space meet the specifications, and avoid potential construction hazards. The optimized drawings are transformed into construction guidance documents that fit the on-site working conditions, achieving a seamless connection between design results and construction implementation, improving the accuracy of drawings and construction efficiency, reducing rework costs, and leveraging the advantages of the previous digital model to provide precise support for the standardized advancement of construction, ensuring the construction quality of water treatment projects and the efficient advancement of the entire process. In this embodiment, functional modules are categorized according to the characteristics of water treatment processes, aligning with the system's process logic and enhancing the modules' adaptability to different operating conditions. This lays a solid initial foundation for subsequent work and improves design efficiency. Furthermore, through 3D correspondence rule coding and full lifecycle attribute annotation and update modules, the model is digitally upgraded, an information transmission index is built, and seamless information transfer is ensured. Subsequently, a selection model is generated using BIM modeling methods, reducing repetitive design and providing reliable support for subsequent stages. Finally, collision detection is combined to optimize engineering drawings, generate construction guidance documents, identify potential construction hazards, achieve seamless integration of design and construction, reduce rework costs, improve construction efficiency and quality, and provide comprehensive support for the digital management of the entire lifecycle of water treatment projects.

[0018] Please see Figure 2 In a second embodiment of a construction guidance document generation method of the present invention, step 102 specifically includes: 201. Divide the water treatment system into multiple functional modules based on the characteristics of the water treatment process; In this embodiment, the water treatment process characteristics refer to the inherent technological features of a system in water treatment scenarios such as industrial wastewater treatment and pure water preparation, which are essential for achieving core objectives such as water purification, desalination, and water quality regulation. These characteristics also form the core basis for adapting the modular division of the water treatment system. The entire water treatment process consists of multiple functionally independent yet interconnected process units, each undertaking a specific water treatment task. For example, pretreatment is responsible for initial filtration of impurities and reduction of turbidity, reverse osmosis for deep desalination, and the dosing system for water quality regulation. These functional divisions are clear and form a complete process chain. For the same water treatment function, the system can be customized according to the project's operating conditions. Different treatment processes are adopted (e.g., treatment capacity, raw water quality, site conditions), meaning that there are multiple process implementation methods under the same function; each independent process unit requires the cooperation of equipment, pipelines, and instruments to achieve the process target. The components form an inseparable integrated process system, and different process units have their own exclusive core process parameters; the logic of dividing multiple functional modules is based on the functional division of the entire water treatment process, breaking down the entire water treatment system into basic modules with independent process functions, covering the entire process from preliminary purification to deep treatment and water quality adjustment, and dividing core modules such as pretreatment module, reverse osmosis module, EDI module, dosing system module, and ultrafiltration unit module, matching the hierarchical and differentiated water treatment process characteristics; 202. Label multiple functional modules according to preset key parameter attributes to obtain multiple attribute functional modules; In this embodiment, key parameter attributes are labeled for each module. These key parameter attributes include throughput, floor space, equipment model, material specifications, and operating pressure. For example, the pretreatment module integrates a quartz sand filter model, an activated carbon filter model, and a security filter model. The key parameter attributes of this module are labeled as follows: throughput 50 m³ / h, floor space 12 m², and operating pressure 0.2 MPa-0.4 MPa. The reverse osmosis module includes a reverse osmosis membrane module and a high-pressure pump frequency converter. The key parameter attributes of this module are labeled as follows: frequency range Hz 0-50 Hz, membrane element model BW30-4040, and other process parameters. The dosing system module integrates a dosing metering pump, a chemical tank, and a pH meter, specifying the pH meter's measurement range as 0-14, calibration cycle as 1 month, and maintenance space as ≥0.8m. All modules integrate corresponding process equipment models, pipeline models, and integrated instrumentation models, and uniformly label key parameters such as treatment capacity, floor space, and equipment model. This ensures that each water treatment functional module has a unified labeling of key parameters such as treatment capacity and equipment model, allowing each module's integrated model to be equipped with complete process and equipment parameter information, clearly defining module performance indicators. This facilitates comparison and selection of modules with the same function and allows for rapid retrieval and reuse, improving design efficiency. It also lays a precise and standardized parameter data foundation for subsequent BIM modeling, coding binding, and construction drawing optimization. 203. Classify multiple attribute function modules according to preset unified rules to obtain multiple category function modules; In this embodiment, the various attribute functional modules are classified, named, and labeled according to unified rules. These unified rules include unified naming and labeling specifications: naming according to the specifications can clearly distinguish each attribute functional module, facilitating subsequent retrieval and comparison; labeling relevant parameters according to the specifications allows design and maintenance personnel to intuitively obtain the actual process parameters of the equipment from the model file, while also facilitating the viewing, organization, and reuse of the model, and providing support for the reuse of attribute functional modules and the entire process of system operation and maintenance; for example, specific attributes such as equipment model, frequency range, installation date, calibration cycle, and associated sensor number are bound to model elements, such as binding the high-pressure pump to the model CRN5-10 and the frequency range 0-50Hz. In this embodiment, functional modules are divided according to the characteristics of water treatment processes, which aligns with the process logic and functional division of the water treatment system. This approach considers different functions and different treatment processes within the same function, making the module division more rational and laying the foundation for comparative selection of modules with the same function. It also improves the adaptability of modules to different project conditions. Key parameter attributes are labeled for each functional module, providing complete and standardized process parameter information and clearly defining module performance indicators. This provides accurate and unified data support for subsequent BIM modeling, coding, and binding. Furthermore, the attribute functional modules are classified according to preset unified rules, achieving standardized and regulated module management. This facilitates model retrieval, organization, and reuse, effectively improving the design efficiency of the water treatment system. Overall, a standardized process from module division to parameter labeling and classification management is formed, connecting the information links of each stage of module construction. This lays a solid modular foundation for subsequent construction drawing optimization, intelligent operation and maintenance, and other full-process water treatment engineering work, ensuring the efficient advancement of digital management throughout the entire lifecycle.

[0019] Please see Figure 3 In a third embodiment of the construction guidance document generation method of the present invention, step 103 specifically includes: 301. Encode multiple classification functional modules according to the three-dimensional correspondence rules to obtain multiple encoded entity models; In this embodiment, each functional module is coded according to the three-dimensional correspondence rules and a coded entity model is generated. Each module and its internal components are given a unique standardized digital identifier, which realizes the precise and standardized identification and control of the water treatment system model from the whole to the part. The unified coding rules give each module a unique "digital ID card", improve the efficiency of model retrieval and positioning, and lay the foundation for information transmission at each stage. 302. Annotate multiple coded entity models based on their full lifecycle attributes to obtain multiple annotated entity models; In this embodiment, the full life cycle attributes include equipment manufacturer, maintenance space requirements (≥0.8m), etc.; covering the full life cycle attributes of water treatment equipment from factory to operation and maintenance, the coded entity model is labeled with the full life cycle attributes covering the factory to operation and maintenance stage, generating a labeled entity model, so that the model is upgraded into a digital model integrating core information of the entire stage such as equipment manufacturer and maintenance space requirements; 303. Update multiple classification function modules based on multiple labeled entity models to obtain multiple updated function modules; In this embodiment, the classification function module is updated based on multiple labeled entity models to form more new function modules. This allows the modules to integrate coded identifiers and full lifecycle attributes, completing the upgrade of the fully digital information module. The updated module information is complete and standardized, and can be directly connected to subsequent BIM modeling, construction optimization and other processes to achieve seamless information transmission and improve the efficiency of the entire process. In this embodiment, by encoding and labeling the classification function module with its full lifecycle attributes and completing module updates, a comprehensive upgrade of the water treatment system module from a basic classification unit to a fully digital information module is achieved. The module and its internal components are assigned unique digital identifiers based on three-dimensional correspondence rules, enabling precise control of the model across all dimensions, improving retrieval and positioning efficiency, and establishing a core index for information transmission at each stage. Labeling the coded entity model with attributes covering the entire lifecycle from equipment manufacturing to operation and maintenance allows the model to integrate multi-dimensional core information, completing the transformation from a geometric carrier to a digital information model. Finally, updating the classification module with labeled models integrates encoding and full lifecycle attributes, creating a complete and standardized update function module that can directly connect to subsequent BIM modeling, construction optimization, and other stages, achieving seamless information transmission throughout the entire process, improving work efficiency at each stage, and laying a standardized and refined model foundation for the full lifecycle digital management of water treatment engineering design, construction, and operation and maintenance.

[0020] Please see Figure 4 In the fourth embodiment of the construction guidance document generation method of the present invention, step 301 specifically includes: 401. Decompose multiple classification function modules to obtain multiple device entity models; In this embodiment, multiple functional modules are broken down to obtain multiple independent equipment entity models composed of equipment, instruments, and pipelines, covering all core physical components of the water treatment system process. For example, the pretreatment module is broken down into equipment models such as quartz sand filters, activated carbon filters, and security filters, as well as pipeline models connecting each device and instrument models such as pressure gauges. This makes each physical component an independent BIM modeling and management unit, laying the foundation for subsequent standardized coding and attribute binding, and adapting to the process characteristics of water treatment systems with numerous equipment, complex pipelines, and interconnected instruments. 402. Encode multiple device entity models according to the three-dimensional correspondence rules to obtain multiple encoded entity models; In this embodiment, the three-dimensional correspondence rule is a correspondence rule between equipment type, code segment, and model element. This rule is customized for the water treatment system, clearly defining the one-to-one correspondence between the code segment and the equipment type and model element. This allows the code to have the attribute of "knowing the component from the code," achieving standardization and unification of the coding rules. After decomposition, all independent equipment entity models, including equipment models, instrument models, and pipeline models, are assigned a unique code for each item, ensuring no omissions or duplications. The code includes core information such as process unit identifier, equipment type identifier, and serial number. For example, the high-pressure pump of the reverse osmosis module can be coded as "RO-PUMP-001," where "RO" is the process unit identifier, "PUMP" is the equipment type identifier, and "001" is the serial number. The code directly identifies the process module, specific type, and unique serial number of the component. All equipment entity models are assigned unique codes to generate coded entity models. Each model component has a unique digital identifier, realizing the transformation from "physical component" to "digitally coded component." The transformation enables the linkage query between codes, models, and attributes, upgrading codes from "simple identifiers" to "information retrieval portals"; In this embodiment, by splitting and classifying functional modules and standardizing the coding of equipment entity models, the water treatment system BIM model achieves refined and digital management from overall modules to individual components, adapting to the process characteristics of numerous system equipment, complex pipelines, and interconnected instruments. The splitting of modules yields independent equipment, instrument, and pipeline entity models, making each core physical component a separate modeling and management unit, laying a solid foundation for subsequent coding and attribute binding. A unique code is assigned to each entity model according to customized 3D correspondence rules, ensuring one code per item, with the code containing key process and equipment information, enabling identification of the component from the code. The code also serves as an information retrieval entry point, achieving linked queries between the code, model, and attributes. This improves the accuracy and efficiency of model retrieval and positioning, and also achieves standardized and unified coding rules, laying a core digital foundation for subsequent full lifecycle attribute binding and information transmission at each stage.

[0021] Please see Figure 5 The fifth embodiment of a construction guidance document generation method according to the present invention, step 104, specifically includes: 501. Based on preset classification rules, construct an index for multiple update function modules to obtain multiple index function modules; In this embodiment, the index is constructed based on preset multi-dimensional classification rules. The core of the classification rules covers the core selection dimensions of water treatment engineering, including process type, treatment capacity range, and floor area, while also taking into account the relationship between equipment and physical components such as sensors and controllers. A standardized index table is established according to the classification rules to ensure that the information of the modules in the database is complete, the index is clear, and the standards are unified. The index table is like a "digital catalog" of the modules, which clarifies the storage location and core retrieval information of each module, realizes the accurate correspondence between modules and retrieval conditions, and generates index function modules. Each module is matched with exclusive index information, which supports fast retrieval by process type, treatment capacity, floor area, and other conditions, reduces the difficulty of module search, and realizes centralized control and standardized management of modules. 502. Store multiple indexing function modules in a preset classification database to obtain a classification model library; In this embodiment, the classification model library is a standardized module resource library dedicated to the water treatment system. It has the core characteristics of "searching by conditions, quick retrieval, and repeated reuse" and is the core basis for subsequent project module selection. 503. Obtain site requirements and construction drawings, and select multiple selection modules from the classification model library based on site requirements and construction drawings; In this embodiment, the actual needs of the project site (such as raw water and wastewater indicators, specified treatment processes, site area limitations, etc.) and the construction drawings are considered to ensure that the selected modules meet the project's process requirements and construction specifications. The index function module in the classification model library can quickly search, compare, and filter according to the core requirements of the site and construction drawings through the index table to select suitable modules and generate multiple selection modules. The selection modules are standardized modules that fully match the actual needs of the project and can be directly used for subsequent BIM modeling. 504. Model multiple selection modules using BIM modeling methods to obtain multiple selection models; In this embodiment, the BIM modeling method uses standardized selection modules as basic units. Relying on professional BIM software such as Revit and ArchiCAD, and employing computer graphics technology and parametric modeling, it structurally assembles and integrates multiple selection modules that have been classified, coded, and have attribute binding. The modeling process strictly follows the actual process flow of the water treatment system, combining selection modules such as pretreatment, reverse osmosis, EDI, dosing system, and ultrafiltration unit according to the process sequence and spatial relationship. It fully restores the connection relationship and layout of equipment, pipelines, and instruments. The modeling focuses on the core process links of water treatment, accurately realizing the integrated digital presentation of equipment, pipelines, and instruments, ensuring that the model is highly matched with the project process requirements and on-site conditions. The selection model formed by BIM modeling not only has accurate three-dimensional geometric shape, but also inherits the information such as coding, parameters, and full life cycle attributes of the modules, providing a unified and standardized digital process model for subsequent integration with the engineering model, collision detection, construction guidance, and digital operation and maintenance. In this embodiment, by establishing a multi-dimensional index for the update function modules and constructing a classification model library, standardized management and rapid retrieval and reuse of water treatment system modules are achieved, improving the efficiency of module retrieval and matching. Based on site requirements and construction drawings, the selection modules are accurately selected from the model library, ensuring that standardized modules are highly compatible with project conditions and reducing redundant design. Then, BIM software is used to assemble and integrate the selection modules into a model, strictly reproducing the spatial relationships and connection forms of equipment, pipelines, and instruments according to the process flow, forming a complete and parameter-unified selection model. The entire process achieves integrated and efficient operation from module management and rapid selection to BIM modeling, ensuring both model accuracy and process authenticity while inheriting full lifecycle attributes. This provides a stable and reliable model foundation for subsequent collision detection, construction guidance, and digital operation and maintenance, improving the overall efficiency and standardization of water treatment engineering design and modeling.

[0022] Please see Figure 6 The sixth embodiment of a construction guidance document generation method according to the present invention, step 105 specifically includes: 601. Model the engineering design drawings using BIM modeling methods to obtain multiple engineering models; In this embodiment, the BIM modeling logic for engineering design drawings is based on construction drawings and equipment drawings. Utilizing professional BIM software such as Revit and ArchiCAD, and employing computer graphics technology, a precise 3D geometric engineering model covering all building components is constructed. The modeling scope is comprehensive, encompassing all components such as walls, columns, doors, windows, and equipment pipelines, achieving a visual representation of the entire project and providing intuitive support for design communication and construction implementation. During the modeling process, each geometric component is assigned rich attribute information such as material specifications, models, and costs, ensuring the integrity of both geometric form and data information. Simultaneously, parametric technology is used to define the dimensional and positional relationships between components through logical rules. For example, modifying the wall height can trigger adjustments to related doors, windows, and floor slabs, ensuring consistency and accuracy after model modification. Ultimately, multiple complete, accurate, and adjustable engineering models are generated, adapting to the needs of subsequent collision detection, construction guidance, and other processes. 602. Perform collision detection on multiple selection models and multiple engineering models according to the collision detection method to obtain the collision detection results; In this embodiment, spatial collisions between different professional models such as structures and pipelines can be automatically identified. Pre-set spatial relationships between models may cause collision conflicts. Any modification to the model by any party can be synchronized to all relevant parties in real time, achieving integrated design and management. Collision detection is carried out using BIM software and is based on a digital operation and maintenance platform for water treatment systems, integrating functions such as model browsing, parameter query, fault warning, and maintenance management. The digital operation and maintenance platform for water treatment systems can be linked with on-site sensors and control systems in real time. Through the mapping relationship between BIM model elements and physical equipment, equipment operating parameters, historical calibration records, and fault maintenance records can be queried. The detection logic of the collision detection method is to use BIM software to detect collisions and identify cross-conflicts of pipelines such as water supply and drainage pipes, cable trays, and instrument gas pipes, automatically generating a "Clash Detection Report" and optimizing pipeline routing. Based on the model verification of the reasonableness of equipment spacing, it ensures that the spacing between key equipment such as ultrafiltration devices and reverse osmosis devices is not less than 1.5m to meet the requirements of maintenance access. After assembling reusable modules such as selection models and engineering models, the data is processed through Navisworks. The software performs collision detection. For example, it can accurately locate the intersection conflict between water supply and drainage pipes and cable trays at an elevation of 3.2m, generate a collision report, and adjust the cable tray path to an elevation of 3.5m to avoid interference. For vulnerable components such as dosing pumps and security filter elements, the software simulates maintenance operations in the model, verifies that the maintenance space is not less than 0.8m, and checks the maintenance route and whether the operating space is sufficient to ensure on-site operation is feasible. The collision detection results include collision location information, and the maintenance space for vulnerable components meets the requirement of ≥0.8m. 603. Optimize the engineering design drawings based on the collision detection results to obtain construction guidance documents; In this embodiment, based on the collision detection results, the collision locations in the engineering design drawings are adjusted and optimized one by one to form a detailed design model. Collision detection is then carried out again, and the above adjustment and detection process is repeated until all collision issues are completely resolved. Based on the collision-free detailed model, 3D visualization drawings, bills of materials, construction schedules, and other construction guidance documents are further generated. This seamlessly transforms the design results into technical data that can directly guide on-site construction, achieving a closed-loop process from design refinement and collision elimination to construction implementation. This effectively improves the accuracy of drawings and the efficiency of construction implementation, providing accurate and reliable data for on-site construction. In this embodiment, a BIM-based full-process digital design and inspection method is used to improve the design quality and implementation efficiency of water treatment engineering. Based on construction drawings and equipment drawings, a parametric engineering model containing complete geometric and attribute information is constructed using BIM software such as Revit and ArchiCAD, enabling linked modification of components and data consistency, providing a reliable foundation for subsequent clash detection and construction guidance. By automatically identifying spatial conflicts between multi-disciplinary models and combining tools such as Navisworks to complete refined clash detection, problems such as pipeline intersections and insufficient equipment spacing can be quickly located, ensuring that the spacing of key equipment and maintenance space meet the specifications and supporting real-time modification from multiple terminals. The design model is iteratively optimized based on the clash detection results until clashes are completely eliminated, and finally, three-dimensional visualized handover drawings, bill of materials, and construction schedule are generated, achieving seamless transformation of design results to the construction phase. The overall solution effectively reduces design errors, shortens the detailing cycle, and reduces construction risks, providing strong support for digital operation and maintenance and full life cycle management of engineering projects.

[0023] Please see Figure 7 In the seventh embodiment of a construction guidance document generation method of the present invention, step 105, further includes the following: 701. Obtain equipment operating parameters and maintenance cycle parameters based on multiple annotated entity models; 702. Analyze the equipment operating parameters according to the preset operating conditions to obtain the equipment operating status; In this embodiment, the operating conditions adapted to the water treatment process are first preset, and the standard ranges of each operating parameter are defined (e.g., the standard range of reverse osmosis module operating pressure is 0.2MPa-0.4MPa, and the standard range of pH value is 6.5-8.5). Combined with the personalized attributes of the equipment itself, such as model and treatment conditions, differentiated operating condition standards are formed. Then, the real-time extracted equipment operating parameters are compared with the preset standards to determine whether the equipment is in different states such as "normal operation", "minor abnormality", and "serious abnormality", providing a clear basis for subsequent early warning and maintenance. At the same time, an operation and maintenance threshold early warning mechanism is set as an extension of the equipment operation status analysis. This system enables "early warning of anomalies and proactive risk control." Warning trigger scenarios are divided into two categories: first, equipment operating parameters exceeding preset ranges (e.g., high-pressure pump operating pressure exceeding 0.4 MPa, pH meter measurement value below 6.5); second, equipment calibration or maintenance cycles expiring (e.g., pH meter calibration cycle of the dosing system reaches one month, routine maintenance cycle of the ultrafiltration unit expires). The warning mechanism involves the platform linking with the BIM model to highlight abnormal or expired equipment, while simultaneously pushing warning information to maintenance personnel (clearly specifying the warning type, equipment code, abnormal parameters, and expiration time), ensuring maintenance personnel can quickly locate problems and respond promptly. 703. Generate personalized maintenance plans based on equipment operating status and maintenance cycle parameters; In this embodiment, personalized maintenance plans are automatically generated by combining equipment maintenance cycles and operating status, clarifying maintenance space, tool list and operation steps, improving maintenance efficiency and accuracy, standardizing maintenance operations, reducing equipment failures and labor costs, extending equipment service life, ensuring continuous and stable operation of the water treatment system, and connecting with full life cycle digital management to provide precise support for operation and maintenance work, and improve the overall standardization and intelligence level of operation and maintenance. In this embodiment, equipment operating parameters and maintenance cycle parameters are automatically extracted based on the labeled entity model, eliminating the need for tedious manual data entry and ensuring data accuracy. By pre-setting differentiated operating conditions, the system accurately analyzes the equipment's operating status and, combined with a maintenance threshold early warning mechanism, provides dual warnings for abnormal parameters and cycle expiration. This is linked to the BIM model for highlighting and pushing detailed warning information, helping maintenance personnel quickly locate and respond to risks proactively. Simultaneously, based on the equipment's operating status and maintenance cycle, the system automatically generates personalized maintenance plans including maintenance space, tool lists, and operating procedures. This addresses the pain points of traditional maintenance, such as poor adaptability and low efficiency, standardizing operating procedures, improving maintenance accuracy and efficiency, avoiding over-maintenance or omissions, reducing labor and consumable costs, lowering equipment failure rates, extending equipment lifespan, ensuring continuous and stable operation of the water treatment system, and connecting to full lifecycle digital management. This provides precise support for maintenance work and comprehensively optimizes maintenance efficiency.

[0024] The above describes a method for generating construction guidance documents according to an embodiment of the present invention. The following describes a device for generating construction guidance documents according to an embodiment of the present invention. Please refer to [link / reference]. Figure 8 One embodiment of the construction guidance document generation device of the present invention includes: Module 1 is used to acquire water treatment process characteristics; The partitioning module 2 is used to partition the preset water treatment system according to the characteristics of the water treatment process, so as to obtain multiple classification functional modules; Update module 3 is used to update multiple classification function modules according to preset three-dimensional correspondence rules and preset full life cycle attributes to obtain multiple update function modules; Modeling module 4 is used to model multiple update function modules according to a preset BIM modeling method to obtain multiple selection models; Optimization module 5 is used to acquire engineering design drawings and optimize them according to preset collision detection methods and multiple selection models to obtain construction guidance documents; In this embodiment, functional modules are categorized according to the characteristics of water treatment processes, aligning with the system's process logic and enhancing the modules' adaptability to different operating conditions. This lays a solid initial foundation for subsequent work and improves design efficiency. Furthermore, through 3D correspondence rule coding and full lifecycle attribute annotation and update modules, the model is digitally upgraded, an information transmission index is built, and seamless information transfer is ensured. Subsequently, a selection model is generated using BIM modeling methods, reducing repetitive design and providing reliable support for subsequent stages. Finally, collision detection is combined to optimize engineering drawings, generate construction guidance documents, identify potential construction hazards, achieve seamless integration of design and construction, reduce rework costs, improve construction efficiency and quality, and provide comprehensive support for the digital management of the entire lifecycle of water treatment projects.

[0025] Figure 9This is a schematic diagram of a construction guidance document generation device 900 provided in an embodiment of the present invention. This construction guidance document generation device 900 can vary significantly due to different configurations or performance. It may include one or more central processing units (CPUs) 910 (e.g., one or more processors) and a memory 920, and one or more storage media 930 (e.g., one or more mass storage devices) for storing application programs 933 or data 932. The memory 920 and storage media 930 can be temporary or persistent storage. The program stored in the storage media 930 may include one or more modules (not shown in the diagram), each module including a series of instruction operations on the construction guidance document generation device 900. Furthermore, the processor 910 may be configured to communicate with the storage media 930 and execute a series of instruction operations in the storage media 930 on the construction guidance document generation device 900 to implement the steps of the construction guidance document generation method provided in the above-described method embodiments.

[0026] A construction guidance document generation device 900 may further include one or more power supplies 940, one or more wired or wireless network interfaces 950, one or more input / output interfaces 960, and / or one or more operating systems 931, such as Windows Server, MacOSX, Unix, Linux, FreeBSD, etc. Those skilled in the art will understand that... Figure 9 The illustrated structure of a construction instruction document generation device does not constitute a limitation on a construction instruction document generation device. It may include more or fewer components than illustrated, or combine certain components, or have different component arrangements.

[0027] A computer-readable storage medium storing instructions that, when executed by a processor, implement the steps of a construction guidance document generation method as described above.

[0028] Those skilled in the art will clearly understand that, for the sake of convenience and brevity, the specific working process of the system, device, or unit described above can be referred to the corresponding process in the foregoing method embodiments, and will not be repeated here.

[0029] If the integrated unit is implemented as a software functional unit and sold or used as an independent product, it can be stored in a computer-readable storage medium. Based on this understanding, the technical solution of the present invention, in essence, or the part that contributes to the prior art, or all or part of the technical solution, can be embodied in the form of a software product. This computer software product is stored in a storage medium and includes several instructions to cause a computer device (which may be a personal computer, server, or network device, etc.) to execute all or part of the steps of the methods described in the various embodiments of the present invention. The aforementioned storage medium includes various media capable of storing program code, such as USB flash drives, portable hard drives, read-only memory (ROM), random access memory (RAM), magnetic disks, or optical disks.

[0030] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A method for generating construction guidance documents, characterized in that, include: Obtain the characteristics of water treatment processes; The pre-designed water treatment system is divided according to the characteristics of the water treatment process to obtain multiple functional modules. Multiple classification function modules are updated based on preset three-dimensional correspondence rules and preset full lifecycle attributes to obtain multiple updated function modules. Multiple update function modules are modeled according to the preset BIM modeling method to obtain multiple selection models; Obtain engineering design drawings and optimize them based on preset collision detection methods and multiple selection models to obtain construction guidance documents.

2. The method for generating construction guidance documents as described in claim 1, characterized in that, The water treatment system is divided according to the characteristics of the water treatment process to obtain multiple functional modules, including: The water treatment system is divided into multiple functional modules based on the characteristics of the water treatment process. Multiple functional modules are labeled according to preset key parameter attributes to obtain multiple attribute functional modules; Multiple attribute function modules are classified according to a preset unified rule to obtain multiple category function modules.

3. The method for generating construction guidance documents as described in claim 1, characterized in that, The process involves updating multiple classification functional modules based on preset three-dimensional correspondence rules and preset full lifecycle attributes to obtain multiple updated functional modules, including: Multiple classification functional modules are encoded according to the three-dimensional correspondence rules to obtain multiple encoded entity models; Multiple coded entity models are labeled based on their full lifecycle attributes to obtain multiple labeled entity models; Multiple classification functional modules are updated based on multiple labeled entity models to obtain multiple updated functional modules.

4. The method for generating construction guidance documents as described in claim 3, characterized in that, The process of encoding multiple classification functional modules according to three-dimensional correspondence rules to obtain multiple encoded entity models includes: Multiple classification function modules are split to obtain multiple device entity models; Multiple device entity models are encoded according to the three-dimensional correspondence rules to obtain multiple encoded entity models.

5. The method for generating construction guidance documents as described in claim 1, characterized in that, The process involves modeling multiple update function modules according to a preset BIM modeling method to obtain multiple selection models, including: Based on preset classification rules, multiple update function modules are indexed and constructed to obtain multiple index function modules; Multiple indexing modules are stored in a pre-defined classification database to obtain a classification model library; Obtain on-site requirements and construction drawings, and select multiple selection modules from the classification model library based on on-site requirements and construction drawings; Multiple selection modules are modeled using BIM modeling methods to obtain multiple selection models.

6. The method for generating construction guidance documents as described in claim 1, characterized in that, The process of optimizing engineering design drawings based on a preset collision detection method and multiple selection models to obtain construction guidance documents includes: The engineering design drawings are modeled using BIM modeling methods to obtain multiple engineering models; Collision detection was performed on multiple selection models and multiple engineering models based on the collision detection method to obtain the collision detection results; The engineering design drawings are optimized based on the collision detection results to obtain construction guidance documents.

7. The method for generating construction guidance documents as described in claim 3, characterized in that, The step of optimizing the engineering design drawings based on a preset collision detection method and multiple selection models to obtain construction guidance documents includes, after which: Equipment operating parameters and maintenance cycle parameters are obtained from multiple labeled entity models; The equipment operating parameters are analyzed according to the preset operating conditions to obtain the equipment operating status; Personalized maintenance plans are generated based on equipment operating status and maintenance cycle parameters.

8. A construction guidance document generation device, characterized in that, include: The acquisition module is used to acquire water treatment process characteristics; The partitioning module is used to divide the preset water treatment system according to the characteristics of the water treatment process, so as to obtain multiple classification functional modules; The update module is used to update multiple classification function modules according to preset three-dimensional correspondence rules and preset full life cycle attributes to obtain multiple update function modules. The modeling module is used to model multiple update function modules according to a preset BIM modeling method to obtain multiple selection models; The optimization module is used to acquire engineering design drawings and optimize them based on preset collision detection methods and multiple selection models to obtain construction guidance documents.

9. A construction guidance document generation device, characterized in that, include: A memory and at least one processor, wherein the memory stores instructions; At least one of the processors invokes the instructions in the memory to cause the construction guidance document generation device to perform the steps of the construction guidance document generation method as claimed in any one of claims 1-7.

10. A computer-readable storage medium storing instructions thereon, characterized in that, When the instructions are executed by the processor, they implement the various steps of the construction guidance document generation method as described in any one of claims 1-7.

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