Three-dimensional engineering progress management method and system assisted by augmented reality technology
A technology of augmented reality and progress management, applied in image data processing, data processing applications, special data processing applications, etc., can solve problems such as unfavorable communication between designers, unfavorable timeliness of refined project management, and inability to trace construction progress. It is convenient for project progress supervision, convenient and convenient site transfer, and the effect of saving computing resources and manpower
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no. 1 example
[0056] Such as figure 1 As shown, this embodiment provides an augmented reality technology-assisted three-dimensional engineering progress management method, including the following steps:
[0057] S1: Use augmented reality equipment with depth sensors to automatically scan the construction environment, and after the scanning is completed, the current project progress is stored in the form of a virtual space grid and differentiated by time tags.
[0058] S2: When it is necessary to obtain the project progress at the specified time, according to the time tag corresponding to the specified time, re-read the project progress at the specified time in the form of the virtual space grid, and use the form display.
[0059] S3: When the virtual figure overlaps with the actual project, measure the distance between the two points and evaluate the project quantity in a period of time.
[0060] Among them, steps S1 and S2 correspond to the engineering record function, and step S3 corres...
no. 2 example
[0081] Such as figure 2 As shown, this embodiment provides an augmented reality technology-assisted three-dimensional project progress management system that implements the augmented reality technology-assisted three-dimensional project progress management method in the first embodiment, including:
[0082] Engineering record module 1, used to record the progress of the project at a specified time, and save it in the form of space division;
[0083] The measurement module 2 is used to measure the distance between two points when the virtual figure overlaps with the actual project, and evaluate the project quantity within a period of time.
[0084] Further, the engineering recording module 1 further includes:
[0085] The storage unit 11 is used to use the augmented reality device with a depth sensor to automatically scan the construction environment, and after the scan is completed, the current project progress is stored in the form of a virtual space grid, and the time lab...
no. 3 example
[0092] Such as Figure 3-5 As shown, this embodiment provides a specific example of the actual runtime interface corresponding to the implementation of the method in the first embodiment and the system in the second embodiment, as follows:
[0093] image 3 The initial interface for the implementation of the present invention. For the convenience of users on the construction site, the software interface has been simplified to the greatest extent, and only the most basic functions are reserved, including five buttons in total. It is worth noting that when using HoloLens as an augmented reality device, the interface is an optical image displayed in the air during application, and the interaction method is similar to traditional buttons, but with gestures for interaction. Figure 4 It is the interface that the user sees when using it.
[0094] Application method:
[0095] (1) When entering a new construction environment, first click the "Start" button, and the software will a...
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