Steroscopic Systems TRIZ Cases

Integrating grating and touch electrodes on a single substrate resolves the trade-off between light transmittance and fabrication cost in 3D displays.

Perpendicular metal nanowires replace bulky polarizers and phase retarders, reducing device thickness while maintaining stereoscopic image quality.

Dual distance sensors measure left and right eyeball distances to normalize pupil images, resolving low precision from user wearing variations.

Server processes multiple streams into directional sub-streams matching user vision, lowering power consumption and enabling higher resolutions.

A volumetric 3D display simulation method acquires stereo pixel voxel parameters to model actual physical dimensions and dynamic timing.

A display system alternates polarization states over time to interlace left and right image rows on a single panel.

Adjusts shutter lens timing relative to phosphor-based LED backlight response to eliminate left-right eye crosstalk.

Creates opposite brightness polarities between corresponding image regions to induce fluctuating lustre sensations while maintaining binocular fusion stability.

A light field display control unit switches a zoom lens among specific focal lengths using periodic signals to generate image lights at corresponding imaging distances.

Time-division driving the active parallax barrier panel increases viewpoints while minimizing resolution deterioration.

A light transmitting display system calculates distinct left and right eye viewpoints to align images with background objects.

A stereoscopic display screen uses a semi-transparent mirror to form a hollow cavity for virtual background imaging.

Mask time division multiplexing resolves the depth resolution trade-off by displaying near and far region images sequentially to quadruple pixel density.

A barrier panel uses liquid crystal alignment and diffraction units to manage light transmission.

A multiview display device calculates mixed pixel values from adjacent visual views to generate smoother image transitions.

A 3D display device integrates a black matrix and grating on the light exit side of the first substrate to shield sub-pixel crosstalk.

A stereoscopic display adjusts settings based on observer distance to maintain image quality.

A pin-mirror reflection unit aligns camera and user optical axes within a compact electronic device.

Dual diaphragms block stray light from adjacent microlenses, resolving ghost images while maintaining stereoscopic depth perception.

Image capturing units detect pupil positions to drive lateral movement of display modules, resolving discomfort from fixed device structures.

A three-dimensional display system switches between two and three dimensional modes based on user presence estimates.

Computes effective inter-ocular distance using maximum ocular divergence angle and viewing distance to resolve viewer discomfort from outward eye divergence.

Augmented reality workspace merges digital displays into a unified spatial environment for intuitive content manipulation across devices.

A virtual reality voxel slice tool creates planar and spherical cuts within three-dimensional mesh models for interactive data evaluation.

A generation unit produces virtual viewpoint images by determining the positional relationship between a virtual viewpoint and a water surface.

A time code display device extracts left and right image signals to compare synchronization status.

A server calculates camera parameters by analyzing image information of a dynamic object moving at predetermined speed across multiple cameras.

Tilting OLED pixels beneath lenticular lenses directs light emission to reduce crosstalk and enhance contrast in autostereoscopic displays.

A 3D image weaving method generates panel images from calibrated input and virtual view data.

A naked-eye three-dimensional display system adjusts its viewing area by detecting viewer facial features through image processing.

A multiview image processing system calculates pixel disparities to position on-screen displays and closed captions within appropriate depth ranges.

A method generates data representative of pixel beams to create standardized light-field representations.

A depth-fused 3D display device uses transparent organic light-emitting panels separated by a circular polarizer to blend foreground and background images.

Segmenting the holographic field of view into foveal and peripheral zones reduces computational load while minimizing vergence-accommodation conflict.

Timing controller adjusts display luminance using depth map data to optimize power consumption.

A light field display generates images by controlling optical layer parameters to evenly propagate rays across a viewing space.

A multiview camera array captures angled images mapped to a diffraction grating backlight that directs light beams toward specific viewing positions.

Separating menu domains from main video prevents positional displacement of highlight displays during 3D conversion.

Shutter eyewear uses crossed liquid crystal shutters to control image visibility, resolving bulky optics trade-offs.

A display assembly uses a lens and optically clear adhesive with varying thickness to alter light refraction for three dimensional appearance.

Adapting image block counts per region optimizes computational load for autostereoscopic displays.

A movable viewing window advances across the display to isolate fully transitioned pixels for shutter glasses.

A multi-view display rearranges pixels to provide mono-vision without requiring specific viewer positioning.

Multi-panel architecture with liquid crystal depth adjustment resolves optical interference and resolution loss in stereoscopic displays.

Sparse light sources paired with diffractive layers generate directional beams, resolving power consumption versus angular resolution trade-offs.

Clusters focal plane pixels by depth to reduce geometric and chromatic aberrations in spatial light modulator displays.

An image display device dynamically moves a virtual image plane based on depth information to resolve vergence-accommodation conflict and reduce visual fatigue.

A separable distortion disparity system corrects pixel images to maintain scene correspondence across viewpoints.

Replacing sheet polarizers with a wire grid polarizer reduces heat absorption and device weight, eliminating cooling fans in stereoscopic projection.

Stochastic jittering distributes projection samples across aperture planes to enhance autostereoscopic image quality.