CN112288384A - Application of P-BIAS-based fabricated building full-life-cycle management - Google Patents
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Abstract
The invention overcomes the defects in the prior art, provides the application of the full life cycle management of the assembly type building based on the P-BIAS, improves the precision of factory production, and reduces the potential safety hazard of form removal; the concrete pouring reduced on site promotes green construction and avoids material waste, and in order to solve the technical problems, the technical scheme adopted by the invention is as follows: an application of 'P-BIAS' assembly type building full life cycle management is based on a BIM + project cooperative management platform, the full life cycle comprehensive management capability of assembly type projects including BIM deepened design, factory production, assembly type construction and intelligent operation and maintenance is improved, the BIM model digital information is combined, cooperative construction management of data, model, progress, quality, safety and cost is carried out on the related projects, and finally, the application of core competitiveness data assets penetrating into the full life cycle is formed; the invention can be widely applied to the field of constructional engineering.
Description
Technical Field
The invention discloses an application of 'P-BIAS' based fabricated building full-life-cycle management, and belongs to the technical field of building engineering.
Background
The current situation of BIM + assembly: 1. a complete BIM + assembly type management system does not exist, the cooperative management of each stage does not exist, and the management efficiency is not high; 2. each link is not closely connected, so that the BIM cannot be reused, and each stage is repeatedly modeled, so that a large amount of time is wasted; 3. the development of the industrial worker team is slow, the corresponding BIM construction process is less, and the development of the building industrial worker team is not easy to promote.
Disclosure of Invention
The invention overcomes the defects in the prior art, provides the application of the full life cycle management of the assembly type building based on the P-BIAS, improves the precision of factory production, and reduces the potential safety hazard of form removal; the reduced concrete placement on site promotes green construction and avoids waste of materials.
In order to solve the technical problems, the invention adopts the technical scheme that: the utility model provides an application based on "P-BIAS" prefabricated building full lifecycle management, based on BIM + project collaborative management platform, improve the full lifecycle integrated management ability that the fabricated project includes BIM deepened design, batch production, fabricated construction, wisdom operation and maintenance, combine BIM model digital information, carry out the collaborative construction management of data, model, progress, quality, safety, cost to the project of involving, form the application that the full lifecycle of core competitiveness data asset penetration finally.
The BIM deepened design is based on BIM technology to project early-stage planning and design, multiple application perfection project design stages are obtained from BIM + GIS, module design, deepened design, scheme optimization, data synchronization and deepening, and guarantee is provided for production and construction.
The industrial production is based on BIM technology to carry out drawing splitting and component production, and is based on a plurality of links including prefabrication processing, production architecture, transportation scheme, identity identification, material tracking and site simulation to carry out prefabrication management.
The assembly type construction comprises the steps of finely planning the assembly sequence and the assembly method of the PC prefabricated parts, carrying out virtual construction in a three-dimensional model to ensure the feasibility of an assembly scheme, and meanwhile, compiling an assembly implementation scheme by depending on a BIM model to carry out three-dimensional technology intersection of the assembly scheme to an assembly worker.
The intelligent operation and maintenance is implemented by using BIM technology as the technology application including basic fusion cloud computing, big data, mobile internet, IOT internet of things, AI and FM, and the space intelligent management of the project is realized.
Compared with the prior art, the invention has the beneficial effects that: the invention is built through a P-BIAS integrated system, and serves the whole life cycle of design, manufacture, assembly, operation and maintenance of the fabricated building. The information collaborative management is taken as a core, the project management efficiency is improved, and a process management system is perfected; the BIM + assembly type development is promoted, the management process is optimized, the construction period is greatly shortened, and the basic construction of China is accelerated; the development of construction industry industrialization worker teams is promoted, the sprouting development of a large number of construction industrialization markets is promoted, the construction level of workers is improved, and the operation standard is standardized; the research and development of the BIM technology in a factory prefabrication stage are increased, the synchronous promotion and fusion development of building industry industrialization and informatization (two-way fusion) are promoted, the precision of factory production is improved, and the potential safety hazard of form removal is reduced; the reduced concrete placement on site promotes green construction and avoids waste of materials.
Detailed Description
The invention is based on the application of a BIM + project collaborative management platform in the full life cycle of BIM. BIM is a technical key and an optimal platform in an assembly type building system, through the establishment of a P-BIAS system, a scientific system perfects the management process of the assembly type whole life cycle, provides coordinated and consistent information for projects, provides powerful support for the whole industrial chain of the assembly type building, and the information of each stage can be rapidly collected and integrated through the technical carding of the internet of things, so that the information can be timely fed back. In the era that the connection of industrialized elements and information elements is more and more compact, the BIM technology is perfectly integrated with the assembly type building, and the innovation and development of the building are promoted.
The invention relates to a P-BIAS-based full life cycle BIM application which takes P Platform management (Platform management) as a core and promotes BIAS BIM deep Design (BIM Design), Industrial Production (Industrial Production), Assembly construction (Assembly construction) and intelligent Operation and maintenance (Smart Operation and maintenance).
1. Platform management (Platform management): in order to improve the comprehensive management capacity of the whole life cycle (design, production, assembly, operation and maintenance) of the assembly type project, the BIM + project cooperative management platform is based on. And (4) performing collaborative construction management on the project on data, model, progress, quality, safety and cost by combining the digital information of the BIM model. Finally, the application of core competitive data assets in the whole life cycle is formed.
BIM deepening Design (BIM Design): project planning and design in the early stage based on the BIM technology. The application of multiple application perfection project design stages is realized from BIM + GIS, module design, deepened design, scheme optimization, data synchronization and deepening, and guarantee is provided for production and construction.
2.1 prophase plan
And (4) formulating a unified model standard based on the BIM collaborative management platform, and completing the full life cycle application standard of the model in the initial design planning stage.
2.2 model building
And carrying out three-dimensional modeling on the model based on the CAD graph, carrying out model splitting and mechanical analysis on the BIM cooperative management platform, and plotting the split model to provide a production drawing for a factory prefabrication stage.
2.3 deepening the design
Optimizing a model comprehensive pipe, reserving a hole, deepening a supporting and hanging bracket and the like based on the cooperative management platform. And forming a multi-professional cooperative working set. The deep design stage of the BIM can be completed by multiple persons in a cooperative manner.
2.4 deepening the figure
And setting a drawing standard based on the BIM management platform, and performing a sound drawing on the deeply designed model to provide a drawing for the construction stage.
3. Industrial Production (Industrial Production): and (4) carrying out drawing splitting and component production based on the BIM technology. The method comprises the following steps of prefabricating and managing based on a plurality of links such as prefabricating and processing, production architecture, transportation scheme, identity identification, material tracking and site simulation.
3.1 prefabrication
And (4) establishing a prefabricating and processing base, and carrying out production exchange on technical responsible persons and prefabricating workers of prefabricating manufacturers. According to the prefabricated drawing derived from the high-precision BIM model, the prefabricated part is subjected to flow numerical control machining production in a factory workshop by adopting automatic equipment. And performing sampling inspection on the prefabricated part in the production process. And after all prefabrication is finished, performing off-site acceptance in a factory and forming an acceptance record sheet.
3.2 Intelligent transportation
The BIM technology is utilized to simulate the loading and transportation of the prefabricated assembly units and the prefabricated pipe groups, prefabricated components are reasonably placed, the space of a transport vehicle is fully utilized, and the transportation efficiency is improved to the maximum extent.
And manufacturing the processing information, the distribution information, the acceptance information, the assembly information and the like of each prefabricated part into a chip. And performing information tracing management on the materials of the prefabricated part parts based on the BIM collaborative management platform, and performing cloud data management and control on the materials.
3.3 site simulation
After the prefabricated components are transported to a construction site, reasonable prefabricated component stacking plane planning is carried out in advance according to the assembly sequence of each prefabricated pipe section, the construction link is guaranteed to be 'taken along with loading', and efficient material transfer is achieved.
4. Assembly construction (Assembly construction): the assembly order, the assembly method, and the like of the PC prefabricated parts are finely planned, and the virtual construction is performed in the three-dimensional model, ensuring the feasibility of the assembly scheme. Meanwhile, an assembly implementation scheme is compiled by depending on a BIM model, and the assembly scheme is handed over to an assembly worker in a three-dimensional technology.
4.1 three-dimensional intersection
The assembly order, the assembly method, and the like of all the prefabricated parts are finely planned, and the virtual construction is performed in the three-dimensional model, ensuring the feasibility of the assembly scheme. Meanwhile, an assembly implementation scheme is compiled by means of a BIM model, a BIM cooperative management platform is uploaded, and a two-dimensional code is generated to meet the three-dimensional technology of the assembly scheme for an assembly worker.
4.2 field Assembly
Adopt truck crane or crawler crane to install according to the construction order in proper order, rethread assembled support system accomplishes the component fast and struts, after a small amount of on-the-spot reinforcement and template preparation, can carry out concrete placement, accomplishes the construction of a construction unit, and the overall process is quick accurate, has both accelerated the construction progress by a wide margin, has guaranteed construction quality again, will on-the-spot wet work and template, scaffold frame, recruitment, energy consumption etc. will be minimum, has really realized "five sections one environmental protection": energy saving, land saving, water saving, material saving, time saving and environmental protection.
4.3 collaborative management
And associating the BIM model with the field progress, quality, safety and cost based on the BIM cooperative management platform, and implementing field space management.
5. Smart Operation and maintenance (Smart Operation and maintenance): technical applications such as cloud computing, big data, mobile internet, IOT internet of things, AI and FM are fused on the basis of the BIM technology, and spatial intelligent management of projects is achieved.
5.1 framework building
On the basis of the building integral BIM model, various applications of the operation, maintenance and management of the whole building are borne, and the BIM model information, the alarm information, the data information concerned by a user and the like of the building are intensively displayed.
5.2 coding System
And finishing the construction of a BIM model coding system based on a BIM collaborative management platform. Complete the related work of BIM + intelligent operation and maintenance
5.3 space management
By utilizing big data, cloud computing and IOT (Internet of things) technologies, all subsystems, data information and service resources are integrated comprehensively on the basis of a unified platform, so that the operation and maintenance management level and the comprehensive service capacity of the building are improved.
The embodiments of the present invention have been described in detail, but the present invention is not limited to the above embodiments, and various changes can be made without departing from the gist of the present invention within the knowledge of those skilled in the art.
Claims (5)
1. The application is characterized in that based on a BIM + project cooperative management platform, the full-life-cycle comprehensive management capability of assembled projects including BIM deep design, factory production, assembled construction and intelligent operation and maintenance is improved, and cooperative construction management of data, models, progress, quality, safety and cost is performed on the related projects by combining BIM model digital information, so that the application of core competitiveness data assets to carry out the full life cycle is finally formed.
2. The application of the 'P-BIAS' based fabricated building full-life-cycle management as claimed in claim 1, wherein the BIM deepening design is project planning and design in the early stage based on BIM technology, and project design stage application is completed from BIM + GIS, module design, deepening design, scheme optimization, data synchronization and deepening, so that guarantee is provided for production and construction.
3. The application of the 'P-BIAS' assembly building whole life cycle management-based on the claim 1, wherein the factory production is based on BIM technology to carry out drawing splitting and component production, and is based on a plurality of links including prefabrication, production architecture, transportation scheme, identity identification, material tracking and site simulation to carry out prefabrication management.
4. The application of the 'P-BIAS' based fabricated building full-life-cycle management is characterized in that fabricated construction comprises finely planning the assembling sequence and the assembling method of PC prefabricated components, performing virtual construction in a three-dimensional model to ensure the feasibility of an assembling scheme, and meanwhile, compiling an assembling implementation scheme by relying on a BIM model to perform three-dimensional technical convergence of the assembling scheme to an assembling worker.
5. The application of claim 1, wherein the intelligent operation and maintenance is based on BIM technology as a technical application including basic fusion cloud computing, big data, mobile internet, IOT internet of things, AI and FM, and realizes spatial intelligent management of projects.
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| CN202011009420.8A CN112288384A (en) | 2020-09-23 | 2020-09-23 | Application of P-BIAS-based fabricated building full-life-cycle management |
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| CN202011009420.8A CN112288384A (en) | 2020-09-23 | 2020-09-23 | Application of P-BIAS-based fabricated building full-life-cycle management |
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Cited By (3)
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| CN113128846A (en) * | 2021-03-30 | 2021-07-16 | 中铁建工集团有限公司 | BIM-based large steel structure construction engineering full life cycle management method |
| CN113741361A (en) * | 2021-08-17 | 2021-12-03 | 中国电建集团华东勘测设计研究院有限公司 | Prefabricated part asset full-life-cycle management system, method, storage medium and equipment based on building information model technology |
| CN114036622A (en) * | 2021-11-23 | 2022-02-11 | 中建八局第二建设有限公司 | BIM-based fabricated concrete building design and construction method |
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Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN113128846A (en) * | 2021-03-30 | 2021-07-16 | 中铁建工集团有限公司 | BIM-based large steel structure construction engineering full life cycle management method |
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