Navigation of a User-Controlled Virtual Object in Indoor and Outdoor Environments, Considering Occlusion Challenges and Utilizing Spatial Computing
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Abstract
In the context of augmented reality (AR), it is a revolutionary platform that enables the simulation of lively virtual experiences in a real-world setting. The project, called an immersive experience, imagines the dragon flight in the open and through narrow passages. One of the key features of the project is real-time path planning, which involves automatic detection and avoidance of dynamic obstacles, along with a user interface which considers control responsiveness and immersion. The project aims to engage the user by blending spatial awareness and responsive interaction within the virtual environment. One of the main goals is to create an intuitive and captivating simulation of virtual objects by means of breaking down spatial and occlusion limitations. The last-mentioned refers to human comprehension.
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