Affiliation:
1. State University of Trade and Economics
Abstract
The article provides an overview of the possibilities of holographic 3D showcases as one of the methods of visualizing 3D content by recognizing individual objects in the image and transferring them as individual elements to a holographic 3D showcase. Depending on the types of simulation models, there is a need for visualization of the obtained results for their evaluation and testing, with the possibility of further improvement. The use of displays that transmit images on a plane does not make it possible to get a complete picture of the subject being studied. The use of holographic 3D showcases opens the possibility of working with simulated models even at the stage of their creation in software applications for 3D modeling or for creating simulated 3D models. This gives the developer the opportunity to speed up the adjustment of object parameters even at the stage of forming models according to the initial technical task. It should be noted that the holographic 3D showcase is most effective for working with objects that have a 1:1 ratio with a real industrial sample. This makes it possible to adjust the development and testing of the model, as well as to change or evaluate the effectiveness of the functionality and to change the operating parameters without creating a useful model. This technique significantly speeds up the time of model implementation from the design project to the realization of a physical object. The information technologies used in the work of holographic 3D showcases are based on the use of web technologies, which, due to the programming of js scripts and parameters of style tables, allows you to obtain optimal results with a minimum load on the working computer, which allows you to use the application on a computer in parallel with applications for developing simulation models. The ability to display elements of the work area on a holographic 3D showcase directly in the modeling process allows you to focus on details that are invisible on flat displays.
Publisher
Borys Grinchenko Kyiv University
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