Most modules in the aluminum alloy formwork system can be used together in multiple projects, so it is necessary to complete the establishment of formwork for standard components in advance to achieve "once and for all". After completing the modeling of the general part, the next step is to build a model for the special part of the project, and classify and name all templates.

Using BIM technology for multi-party collaborative design can reach a consensus as quickly as possible, build a BIM construction collaboration platform, provide explanations, and upload model content. Through QR code technology, three-dimensional visualization of aluminum membrane panels can be realized in real time. Through the QR code, the aluminum formwork model is single-numbered and bidirectionally associated with the entity, and a synchronized analysis model of the aluminum membrane panel construction data is built, which can control the actual construction on site and facilitate timely grasp of the performance dynamics of the aluminum membrane panel.

Since the aluminum membrane panels are prefabricated assembly systems with many node components, in the traditional design process, each design change requires a large amount of repetitive work, making the data statistics confusing and difficult to distinguish. Combined with the use of Weiqi platform, Glodon BIM5D, Fuzor and other products, a collaborative platform was built to bring together supervision, design, construction, aluminum alloy formwork manufacturers and other parties to work together, eliminating the need for complicated paper two-dimensional drawing transfers and realizing the design Intended for rapid three-dimensional display, real-time feedback of design opinions, and multi-directional interactive design.

Use the visualization and parametric functions of BIM to create a virtual prototype of the aluminum membrane panel construction, which can display each node in an all-round three-dimensional manner. Producing animations of the construction process of aluminum membrane panels can directly guide on-site construction. For example, virtual prototypes and construction process animations can be uploaded to the cloud platform, and through QR code technology and mobile terminal platforms, they can be picked up and viewed on-site to achieve the purpose of real-time disclosure.

Before the model of the aluminum membrane panel is officially released, Revit must be used to create a structural model including walls, columns, beams, slabs, and stairs. Then, through BIM technology, virtual formwork can be implemented in the computer and the aluminum formwork construction environment can be analyzed. Conduct live simulations.

By using early demolition technology, the turnover rate and construction efficiency of aluminum membrane panels can be improved, thereby continuing to reduce costs. Through visualization technology, the traditional form of physical trial assembly is transformed into model collision detection and construction process simulation. When problems are discovered, rectification can be carried out on site in a timely manner. This not only greatly improves the accuracy of construction, but also increases the speed of construction.

In accordance with the cutting requirements for aluminum diaphragm panels, the BIM model of the aluminum diaphragm panels established has reached LOD500 level, and the model will contain complete component parameters and attributes. The BIM model should be compiled based on final confirmation by all participating parties, and the final version should be updated and maintained. The BIM model should be parametrically designed according to the specific needs of the virtual prototype to achieve the purpose of comparison with the actual site.

Because the types of aluminum membrane panels are relatively complex, including side panels, bottom panels, corners, supports, etc. The simulated pre-assembled aluminum membrane panels are a closely related whole, so it is necessary to check whether the links between the aluminum membrane panels are reasonable, whether there are overlapping collisions or splicing gaps, etc. In the three-dimensional view of Revit, you can intuitively The conflicting parts are found and the size of the aluminum diaphragm is adjusted to avoid collisions. At the same time, the cutting order of the aluminum diaphragm will also be changed, which greatly improves the efficiency of the school team and reduces the mold matching error rate caused by incorrect dimension marking to zero. At the same time, it is necessary to clarify the turnover flow of aluminum membrane panels and carry out early dismantling and turnover planning in advance.

Common quality problems of on-site aluminum alloy formwork are mostly axis offset, elevation error, structural deformation, loose joints, etc. After the formwork is completed, the on-site construction management personnel set up a three-dimensional scanner at the designated location to conduct reverse modeling, compare the model with the model established in the previous stage, conduct statistical analysis, and confirm that it is correct before pouring.

After the pouring is completed, the actual measured quantities will be input into the formwork model. If there is a problem with the quality of the concrete molding, you need to find the corresponding formwork according to the formwork number where the problem occurred. Check in time whether it is a problem with the construction process or the formwork is damaged. Scan the QR code to compare the model. According to the template size, check the template for straightness. Discover problems with aluminum membrane panel components as early as possible. If damage occurs, provide timely warning and replacement to avoid physical quality problems after turnover.