SYSTEM AND METHOD FOR ADVANCED VISUALIZATION AND AUTOMATED PRODUCTION TOOLS FOR AUTOSTEREOSCOPIC 3D, MULTIVIEW AND VOLUMETRIC DISPLAYS

Smart overview of the Invention

A system designed for advanced visualization incorporates a camera rig with multiple cameras that capture images from various perspectives. It features at least two visual guides that define a volumetric space within an environment, which can be physical, virtual, or hybrid. This volumetric space is dynamically updated based on changes to parameters associated with the camera rig, allowing for enhanced interaction and visualization.

Significance of the Camera Rig

The camera rig is essential for generating effective 3D visualizations, particularly for displays that do not require glasses. Traditional methods involve manually constructing camera rigs and testing multiple viewpoints, which can be time-consuming. The proposed system automates this process, significantly reducing the effort needed to achieve optimal 3D effects on various displays.

Parameters and Real-Time Adjustments

Key parameters associated with the camera rig include focal length, interocular distance, convergence points, scale, position, and orientation of the cameras. The system can automatically optimize these parameters in real-time based on user input or environmental changes. Users can modify settings through a graphical interface or other tools, ensuring a responsive and adaptable visualization experience.

Visual Guides and Their Functions

The visual guides play a crucial role in defining optimal positions within the volumetric space. These guides include a pop guide for forward projection and a depth guide for positioning objects safely in the scene. Additionally, a two-dimensional guide indicates where objects appear on the display plane without motion parallax. Together, these guides ensure accurate and effective visual representation in 3D space.

Methodology for Generating Visualizations

The method involves generating visualizations using the camera rig while continuously updating the volumetric space based on various parameters. Techniques include casting an invisible plane to determine object positions and adjusting the camera rig's scale and interocular distance accordingly. This systematic approach allows for real-time modifications to enhance the overall visualization quality in both virtual and physical environments.