Steroscopic Systems TRIZ Cases

A liquid crystal grating panel uses alternating electric fields to direct pixel columns to specific eyes.

A lens display device uses misaligned liquid crystal lens arrays to route polarized light for full-resolution naked-eye 3D viewing.

Modulatable electrowetting grating switches light valves between transmissive and shading states to control pixel illumination.

An image signal processor calculates zoom and focus parameters using depth map data to enable simultaneous operations.

A 2D image processing apparatus calculates regional sharpness and adjusts focus levels before generating left and right eye images.

Mirror lenses create virtual images at varying focal distances while the beam splitter manages light paths to resolve optical load mismatches.

An integrated optical switching device merges touch sensing with stereoscopic display layers to unify input and visual output functions.

A 3D display optical structure uses asymmetric curvature radii to compensate aperture ratios and align light transmittance across pixel regions.

Encoding depth information within video frame pixels eliminates separate synchronization streams.

A refractive beam mapper with square profile microlenses directs light rays through stacked display layers to maintain image quality.

A stereoscopic image synthesis method adjusts disparity maps using zero disparity regions to generate virtual view angle images.

A multi-view stereoscopic display adjusts left and right eye image brightness to reduce visual discomfort.

A 2D-to-3D image adjustment controller modifies brightness, depth, and focus settings to personalize visual output for individual viewers.

Base stations emit test sounds while depth cameras track headset position to determine HRTFs, reducing calibration time compared to complex speaker arrays.

A stereoscopic display device adjusts light source brightness dynamically to compensate for optical losses in the parallax barrier.

A stereo camera module selects planar, cylindrical, or spherical re-projection modes to transform image information into depth data.

Segmented illumination sources enable high angular resolution without sacrificing spatial resolution in 3D displays.

An imaging apparatus guides users through scan shooting operations by generating subject maps and providing targeted shooting instructions.

Spherical coordinate positioning corrects distortion and viewport dependency for timed text in 360 degree video environments.

An autostereoscopic display uses an inclined parallax barrier to separate light paths from sub-pixels into distinct viewing zones.

A finite aperture omni-directional camera model aligns lens and focal point coordinates with spherical or cylindrical projections to enable depth of field rendering.

A binocular display positions pictures on elements using wearer parameters to optimize viewing.

A modified 3D rendering pipeline uses vertex and fragment shaders to interpret depth information for immersive 360 panoramic content.

Integrates transparent electrode layers directly onto a lenticular lens array substrate to enable capacitive touch sensing without additional films.

Segmented electrode layers in a lens panel control light paths to reduce crosstalk and improve 3D image clarity without spectacles.

Head tracking sensors generate distortion maps that adjust stereo images on a flat combiner, eliminating heavy relay lenses.

Spatial orientation input enables multi-depth interval refocusing, resolving interface complexity and memory load trade-offs.

A disparity sensor compares light before and after AR glasses lenses to drive active dimming adjustments.

A variable disparity 3D display adjusts image depth incrementally based on detected motion to reduce viewer discomfort.

Placing alignment marks on a spacer layer reduces distance to the micro-lens formation plane, resolving accuracy issues from excessive mark-to-plane separation.

A segmented autostereoscopic display uses a quincunx arrangement of elementary zones to project distinct views for each eye.

An auto-stereoscopic display system determines pixel intensities using weighting functions based on viewer position.

Non-integer lenticular lens ratios eliminate user discomfort from false depth perception while maintaining high resolution.

Combining per-core statistics into global control data prevents unintended differences between left and right eye views, reducing eye strain in 3D displays.

A stereoscopic camera system captures horizontal and off-horizontal image data to produce parallax-corrected views.

A stereoscopic image processing apparatus shifts left-eye and right-eye image elements to modify parallax based on detected viewer distance.

A hexagonal grid autostereoscopic display uses specific translation vectors to direct light through a lens array.

Redundant emission regions compensate for misalignment errors, improving radiation characteristics without increasing manufacturing precision requirements.

Thin film polarization replaces bulky glass spacers to reduce weight while maintaining 3D display uniformity.

A stereoscopic display system uses a parallax optical module to adjust light projection direction for clear viewing at different depth positions.

Liquid crystal switching creates a dynamic parallax barrier that eliminates resolution loss from fixed masks, allowing all pixels to contribute to both images.

A distribution server generates data sets containing three-dimensional shape data and stereo texture data to support rendering.

Dynamic quality parameter adjustment reduces radio resource consumption while maintaining 3D service reliability.

A parallax gradient calculation unit modifies 3D image depth by computing adjustment values for pixel movement.

Millimeter wave detection tracks user position to dynamically switch display parameters, resolving visual errors for multiple viewers at varying angles.

Multi-channel lens system with transmission areas directs reflected light to camera sensors for wearable displays.

Light source module blocks illumination during mixed image display to prevent crosstalk and enhance 3D visual quality.

An integrated pixel structure replaces opaque barriers with built-in optical components, resolving brightness reduction while enabling naked-eye 3D display.