Highlight-driven opacity mapping suppresses surrounding structures to resolve navigation complexity on standard 2D displays.
A graphics system generates new points to fill gaps in 3D point clouds during zoom operations.
A unified digital image selection system generates vector and raster selection representations from a single user input.
Dynamic micropolygon decomposition builds acceleration hierarchies on-demand, reducing computational costs for highly complex geometry modeling.
Tetrahedral meshing resolves noise sensitivity and computational complexity in 3D reconstruction by applying preliminary action and segmentation principles.
A volume rendering method modifies color values based on spatial distance from input points to reduce computational load.
A VR system uses a CPU to select visible points from a point cloud for GPU rendering at high frame rates.
A mesh shader outputs legacy parameters alongside an axis-aligned bounding box structure for tile-based rendering visibility streams.
Bounding volume segmentation reduces memory bandwidth bottlenecks by filtering unnecessary data before rendering.
Well-fit bounding volumes reduce false positives and unnecessary shader program execution by better conforming to underlying geometry.
Adaptive reference levels adjust space division methods based on Morton distance to reduce computational resources and memory bandwidth.
A virtual light source inside tissue models absorption and scattering to produce photo-realistic medical volume rendering.