Steroscopic Systems TRIZ Cases

Directional pixels emit light from a volumetric array to resolve occlusion and enable multi-observer viewing without special aids.

Applying a controlled ramp voltage reduces disclination formation and crosstalk during 2D to 3D mode transitions.

A pre-processor selects and packs 360-degree video views to optimize transmission bandwidth for virtual reality headsets.

Depth maps guide view synthesis by biasing the rendering vector away from missing data, maintaining image quality despite incomplete scene representation.

Detecting module measures visual angle to synchronize shutter glasses switching frequency with display device output.

A control arbiter allocates one optical sensor to primary and secondary image processors, reducing power consumption and material costs.

An autostereoscopic screen uses overlapping subpixel strips to balance image data across viewing zones.

A light field rendering method maps multiple user eye positions to view areas to determine pixel values based on ray directions.

A system extrapolates synthetic 2D frames from rendered sequences using depth maps and motion vectors.

An elastic structure prevents tilt during position adjustment, reducing visual fatigue from vergence-accommodation mismatch.

A pseudo 3D image creation apparatus calculates statistical pixel values to generate evaluation metrics for depth model combination.

Image processing apparatus generates binocular parallax images from three-dimensional data.

A rendering system adjusts the zero-parallax plane position within a depth field to manipulate object parallax and generate updated depth maps for video frames.

A detection system calculates relative camera positions using 3D imaging data to simplify setup.

A stereo logo insertion method generates spatially interleaved logo pictures for accurate overlay on 3D video streams.

Individually controllable diffuser elements direct light beams to render high-precision 3D images without requiring high frame rates.

A 3D optical adapter attaches to standard cameras to capture stereoscopic images.

Dual micro-lens layers direct left-eye and right-eye signals to preserve full pixel resolution, avoiding the 50% loss typical of alternating pixel methods.

Mapping view point subpixels to square arrays via preliminary correspondence prevents resolution degradation during stripe-to-square conversion.

Dynamic light deflection resolves eye strain from accommodation mismatch by projecting sequential depth layers within the visual integration period.

A display device uses a mask generating unit to create region-specific masks for interlaced and 2D image areas.

A stereoscopic imaging apparatus adjusts the diaphragm F-number to maintain optimal parallax between left and right viewpoint images.

Segmenting pixels into masked parallax and clear no-parallax groups resolves the resolution-versus-stereo trade-off in single-sensor systems.

A stereoscopic display device uses staggered lens units to eliminate moiré patterns and crosstalk between adjacent pixel units.

A system positions 3D text using extracted parallax information from image content.

A controller shifts second view images inversely to lens distance on autostereoscopic displays.

A head-mounted display apparatus rotates left and right eye images around a common axis to maintain stereoscopic alignment.

Cut-outs on display elements align with slanted lenticular lenses to eliminate row-direction brightness variations in autostereoscopic displays.

A camera selection method determines field of view inclusion to synthesize virtual images.

An asymmetric lens sheet cycle breaks periodic alignment with pixel units, removing black and white stripes from lenticular displays.

A digital multi-dimensional photon image platform system calculates parallax values to align stereo frames.

A multiple view liquid crystal display uses a gap layer between the parallax barrier and black matrix to separate light paths.

Eye tracking detects vertical viewer position to adjust display parameters, resolving parallax mismatch for consistent 3D perception.

A driving method for display devices inputs source images with depth information to directly control light-emitting sub-pixels.

Optical anisotropic layers with specific retardation values direct left and right eye signals in polarizing glasses.

Retardation layers in the filter part and polarizing glasses manage wavelength dispersion properties to reduce crosstalk ratios below six percent.

Vertical parallax scanning captures multi-plane depth data to resolve the trade-off between system complexity and realistic three-dimensional perception.

A method shifts pixel rows to generate stereoscopic frames while maintaining image integrity.

Scanner acquires reading settings from destination folders to configure image capture, eliminating large method tables.

Segmenting picture elements into groups with distinct orientations cancels intensity modulations, reducing dark bands in stereoscopic displays.

A 3D adapter splits a single image sensor into left and right optical paths to enable arbitrary format encoding.

Irregular black strips break regularity to prevent moiré phenomena and cross-talk at wide view angles while maintaining front brightness.

A depth camera interchangeability system converts native images to virtual formats for generic consumer use.

A mixed reality device adjusts camera shooting frequency to match ambient light flicker for stable image rendering.

Segmented back frames and foamed plastic substrates reduce material costs while preventing optical collapse.

Segments enhancement data between local storage and streaming to resolve the contradiction between distribution efficiency and piracy resistance.

A 3D image display device generates virtual view images from broadcast signals using extracted camera parameters to synthesize content.

A data compensating unit aligns left and right eye image data using a look-up table to reduce brightness differences in stereoscopic displays.