Steroscopic Systems TRIZ Cases

Optimized square lens pitch and focal length eliminate moiré patterns in 3D displays.

Shifting two-dimensional images based on detected viewer positions eliminates dead zones and prevents cross talk in naked-eye 3D displays.

Segmenting the electrode array into voltage-controlled zones creates a Fresnel profile that reduces focal distance and device thickness.

Synchronizing the LCD picture layer with a black shielding pattern reduces transparent aperture area, eliminating cross talk from scattering and bluntness.

A method tunes 3D integral images by filling pixel zones in ascending or descending orders to smooth element image transitions.

Electronic apparatus displays side by side image regions from dual optical systems for wide angle viewing.

Transforming RGB-D depth values into disparity maps shifts pixels to generate stereoscopic images, resolving inaccurate distance estimation in VR displays.

A depth map generation system applies pre-defined heuristic rules to assign pixel depth values for automatic 2D image conversion.

A three-dimensional imaging system moves scattering particles via a suspension force field to form a dynamic projection plane.

An image correcting portion adjusts parallax based on calculated image shift amounts to stabilize three-dimensional imaging.

Computational parallax rendering aligns focal distance with stereoscopic retinal disparity to eliminate vergence-accommodation conflict and reduce eye fatigue.

A video processing system classifies frames by comparing characteristic feature coordinates between halves to generate an accumulation matrix.

A slanted lenticular array directs light to create stereoscopic views in an autostereoscopic display.

A display system uses a micro-louver film to control light dispersion from a mirror array plate, creating focused floating images.

Retroreflector arrays form distortion-free floating images by reflecting moving displays, eliminating aberration from curved optics.

Asymmetric spacing between display units and optical elements maintains consistent depth arrangement regardless of viewing direction.

A video-image replacing unit cyclically applies distinct mask patterns to spatially remove pixels from stereoscopic frames.

An image sensor generates color and depth images using modulated light and phase-difference detection across multiple photo-gates.

A dynamically configurable barrier grid enables autostereoscopic viewing by adjusting light transmission patterns.

Segmented scanning areas update at different timings to reduce liquid crystal response delays, minimizing crosstalk while maintaining brightness evenness.

A volumetric display system uses a rotating multi-petal geometry and reimaging glass to project floating 3D holograms.

A multi-view display adjusts viewing parameters through an optimization mechanism that anticipates viewer movement and state changes.

Varying green subpixel density relative to red and blue pixels reduces angular intensity variations and moiré fringes in autostereoscopic displays.

A 3D display device detects a manipulating object in space to generate user input signals for controlling virtual objects.

Electrowetting lenses direct light from a flat panel display into a volumetric diffuser to create true 3D images.

Gradient models offset pixel values based on depth attributes, reducing manual labor required for stereoscopic conversion.

A hardware encoder processes left and right image streams simultaneously to generate a single stitched encoded frame.

A stereoscopic camera device uses toe-in angle control to synthesize images with improved visual comfort.

A polarization reflector recovers blocked backlight in parallax barrier displays, boosting 3D brightness by up to 32% while maintaining 2D performance.

A head-mounted display uses a sensing module and denoiser to generate reverse shock waves that eliminate heat sink vibrations.

Integrating the phase difference plate directly onto the display substrate eliminates adhesive layers, reducing light loss and improving alignment accuracy.

Manipulating left and right eye image streams through temporal offsets to create retinal rivalry effects in stereoscopic displays.

Superpixel segmentation aggregates image data to fill holes in depth maps, resolving accuracy issues in non-textured regions.

Alternating frame capture across two low-cost cameras eliminates synchronization complexity while maintaining high-speed detection accuracy.

Integrating electrodes and liquid crystal layers into a single structure reduces substrate count and eliminates lamination steps for better yield.

Tilted filter elements in stereoscopic glasses redirect reflected flare light away from viewers, improving image contrast and reducing visual noise.

Processor alters display forms for exceeding areas, preserving depth information while maintaining stereoscopic viewing comfort.

A transmission processing apparatus adjusts frame rates based on foreground image changes to optimize bandwidth usage.

A stereoscopic image generation box converts two-dimensional images into left-eye and right-eye images for direct display output.

Disparity mapping projects pixels onto virtual planes using sensor data, resolving homogeneous region depth failures in stereo vision.

A 3D view synthesis method blends foreground and background video data using calculated weighting coefficients to smooth aliased object borders.

An inclined lenticular lens with optimized pitch reduces image confusion and improves brightness uniformity across viewing angles.

Segmenting optical paths via microlenses expands field of view beyond 180 degrees without increasing device size.

A video see-through head mounted display adjusts image positions using eye tracker data to maintain visual clarity.

Distributed reference marks at upper and lower positions minimize accumulated alignment errors, widening viewing angles in 3D displays.

A grating substrate merges touch electrodes with 3D slit gratings via comb-shaped conductive bridges to unify sensing and light control.

A light collecting unit refracts backlight through rear barrier open regions to enhance brightness without increasing device thickness.