A 3D display apparatus selects specific light sources to align focal points with the user's pupil position.
A grating driving circuit adjusts electrode configurations to maintain optimal 3D image quality.
An image processing apparatus extracts overlapping regions between left and right eye views to share generation data.
Orthogonal electrode arrays create symmetric refractive index distributions in a liquid crystal layer, reducing 3D crosstalk and brightness differences.
A multi-view image display apparatus uses a visual field divider to provide different viewpoints for 3D viewing.
A stereoscopic display system projects phase-shifted viewpoint images to maintain high image quality with fewer projectors.
A depth measurement unit detects pupil distance changes to quantify 3D image projecting or recessed distances.
A hierarchical track structure consolidates multi-view data operations to reduce encoding complexity.
Dynamic virtual display screen repositioning adjusts image parallax to resolve discomfort caused by head tilting in stereoscopic viewing.
A stereoscopic display device detects movement via acceleration sensors to switch between planar and 3D image formats.
Depth-controlled control points resolve data complexity by enabling efficient viewpoint interpolation and extrapolation for artificially rendered images.
Integrated controllers in master-slave image sensors eliminate external processing hardware, reducing system footprint while maintaining accurate stereo vision.
A high frame rate projection system replicates camera shutter sequences to deliver seamless motion perception.
Multiple data lines segment subpixels to reduce moire patterns while maintaining aperture rate and minimizing circuit complexity.
A shutter lens control method synchronizes switching with video refresh rates to extend on-state periods.
A 3D image encoding method extracts parallax data from multiple viewpoint images to reduce computational load.
A display control apparatus sets parallax and blurring levels to generate stereoscopic images with adjustable depth effects.
Adjusts image plane position in virtual space to maintain object location, reducing processing delay and preventing image degradation.
Variable camera separation adjusts disparity to maintain constant perceived-to-actual depth ratios, eliminating cardboard cut-out artifacts.
Automated conversion of two-dimensional video content to three-dimensional images uses neural networks and lens modeling to reduce manual labor and artifacts.
Modular software infrastructure processes 3D media content using adaptive algorithms to optimize rendering and transmission efficiency.
A switching parallax barrier uses a liquid crystal layer and same-layer electrodes to modulate light transmission for stereoscopic imaging.
Detects primary object depth via left-eye right-eye block matching and adjusts subtitle depth to eliminate eye fatigue from focal length shifts.
Moving the light source instead of rotating the sample reduces imaging time and prevents damage from high-intensity irradiation during 3D reconstruction.
Angle adjustable user interface displays interference patterns to correct slant angle misalignment between pixel arrays and lenticular lenses.
A multiview image display apparatus adjusts depth values within a saliency region to reduce visual distortion.
Automated image processing counts enclosed areas in captured frames to eliminate human misjudgment and reduce testing time during 3D environment assessment.
Encoding still image sequences into compressed video reduces asset size and latency while maintaining high resolution for smooth spinner rotation.
Optical baseline determination replaces manual mechanical sliding to eliminate measurement errors and horizontal line inconsistencies in binocular imaging.
Processor disassembles homography matrices into affine and similarity components to calibrate multiview stereoscopic images from handheld captures.
Inter-plane filtering distributes pixel intensity to reduce flicker visibility without increasing frame rate or power consumption.