Steroscopic Systems TRIZ Cases

A display device with a tilt prevention unit applies elastic force to maintain alignment.

Coordinate normalization and depth grade reversal eliminate pseudoscopic effects in integral imaging displays.

Varying bus line widths connect to segmented electrodes, reducing RC delay and peak current in large panels.

Runtime compensation using calibration files corrects pixel non-uniformities between stereo panels, reducing eye strain from brightness discrepancies.

An aerial imaging element pairs with a mirror surface to reflect light and form real images in air.

A multi-layer 3D display calibration method uses image capturing and homography calculation to determine geometric relations between layers.

A 3D display device adjusts video parallax based on captured eye features to maintain stereoscopic quality.

A liquid crystal lens panel integrates electrode patterns and uniformly lying helix material to separate left-eye and right-eye images.

Filter glasses combine dichroic stacks with absorptive layers to transmit intended spectral bands while blocking opposing light.

A parallax image generation device shifts depth values at image edges closer to the display screen to generate corrected stereoscopic images.

A 3D source device generates image signals with disparity signaling metadata to enable accurate subtitle overlay.

Eye tracking detects viewpoint movement speed to correct parallax in real time, maintaining depth perception without image instability.

A navigation model constructs navigable 3D models from images using virtual camera paths and resting positions.

Controlling backlight illumination direction with a switchable lens array eliminates view repetitions and ghost images at cone boundaries.

A personal immersive display uses misaligned subpixels and varying planarization film thickness to direct light toward a smaller imaging lens.

Position-dependent microlens spacing resolves limited viewing zones and discomfort in conventional 3D displays.

An information processing apparatus displays two-dimensional images alongside associated three-dimensional coordinates to verify spatial data.

Prioritizes hole pixel filling using disparity maps to resolve occlusion artifacts while reducing input view requirements.

A crosstalk reduction system updates pixel intensities based on detected vertical viewing angles to enhance 3D perception.

A birefringent layer separates light rays to capture rich color data in plenoptic cameras.

A 3D display manipulates left and right eye image timing to deliver distinct visual content.

A synchronization detection system discriminates between multiple 3D signals using unique identifiers to control shutter lenses.

Sequential aperture-arrays filter sub-screen light via polarization, reducing frame rate requirements and resolving vergence-accommodation conflict.

OLED light-emitting devices create bright and dark grating units to resolve low contrast between liquid crystal deflection states that causes high crosstalk.

Dynamic focus selection updates AR shooting previews by switching targeting between virtual and real objects.

Adding luminance patches enables complete subtractive crosstalk cancellation while preserving color fidelity and preventing negative pixel values.

Neural network system processes video motion vectors and image characteristics to generate stereo-pair images with enhanced depth perception.

A stereo image processing unit aligns left and right eye seam positions using calculated disparity amounts to generate consistent panoramic views.

Mathematical relationships between scene geometry and camera parameters control stereographic output.

Merging successive frames into an integrated image compensates for boundary holes and discordance during virtual point view extrapolation.

A depth-dependent spatial filter maps image elements to reduce crosstalk in multi-view displays.

A 3D content adaptation device adjusts depth based on observer prescription glasses characteristics.

A video processing unit synchronizes subtitle depth with stereoscopic video content.

A 3D depth image generating system extracts partial images from two cameras to reduce processing complexity.

Determines calibration parameters from captured pattern images to correct optical layer misalignment and reduce crosstalk in 3D displays.

An adjustable focal length third camera pairs with fixed focal lenses to measure varying distances, resolving precision trade-offs in ADAS systems.

Merging three display layers via an intermediary optical element reduces vergence-accommodation conflict while minimizing device weight and manufacturing cost.

An HDMI splitter box processes video signals to enable dual-view gaming, overcoming the hardware limitations of single-port consoles and standard televisions.

A liquid crystal lenticular lens uses a single electrode with curved lines to create a stereoscopic image.

A multi-view image display apparatus adjusts input image depth to align objects with the focal plane and minimize visual artifacts.

Autostereoscopic displays insert central subset views into transition zones to create expanded smooth formats for seamless 3D rendering.

Modified driving waveforms with softened ON-edges reduce acoustical noise in liquid crystal polarization rotators while maintaining contrast ratio.

A video display apparatus adjusts stereoscopic parallax levels based on detected screen size to support user customization.

Ray tracing circuitry generates calibration maps for a lenticular display, mapping two-dimensional images to pixels to minimize crosstalk between viewing zones.

A headset with a multiply curved display reduces user discomfort from restricted sight by expanding the field of view without increasing device complexity.

A 3D monitor integrates image processing with a lenticular lens to display auto-stereoscopic images directly from side-by-side sources.

Multi-AUV sonar fusion creates high-resolution 3D maps, overcoming the power and time limits of single-platform synthetic aperture systems.

Spatial optical modulator synchronizes with display fields to eliminate cross-talk while maintaining full resolution.

Shifts left and right images to resolve viewer discomfort from fixed 3D depth ranges by enabling personalized visual comfort.

A Quad Diamond display system plots 2D histograms of left and right image pixels to facilitate precise stereoscopic camera registration.