Steroscopic Systems TRIZ Cases

A view converter transforms stereoscopic rendering into monoscopic display with controlled convergence distance to place external objects consistently.

Electrode arrays adjust the liquid crystal layer's refractive index to separate left and right eye images, preventing resolution loss during 2D/3D switching.

Random spacer arrangement in the liquid crystal barrier suppresses luminance unevenness and color moire phenomena caused by periodic interference patterns.

An actuation device moves a holographic display module to extend image deflection range beyond static optical limits.

A stereoscopic display system illuminates specific pixels based on real-time pupil position to form virtual images in a plane before the eye.

Segmented ITO electrodes and alignment films resolve electric field uniformity issues, enabling reliable 2D and 3D image switching.

Segmented sub-pixel electrodes with asymmetric gaps reduce texture while maintaining aperture ratio.

Optical interference filter uses absorbing thin film layers to reduce back reflectance in 3D glasses.

Segmenting basic and multiple view videos into residual components resolves the trade-off between translation movement support and processing complexity.

An adjustment device uses a focal lens to project virtual images onto a case surface, allowing eye tracking cameras to detect left-right display deviations.

Hardware input device detects user intent to combine sensor data for three-dimensional immersive media generation.

Motorized pixel positioning creates distinct viewing zones, resolving conflicts between device utilization and viewer satisfaction.

Rotating 2D images based on viewpoint parameters creates pseudo-3D visuals, reducing computational complexity and specialized knowledge requirements.

A dual camera system adjusts optical focus by processing gaze direction and depth map data to capture sharp images of objects at varying distances.

A gear-driven mechanism adjusts interpupillary distance in head-mounted displays by moving display assemblies via a button assembly and spring bias.

A liquid crystal panel switches between transparent and opaque states to enable simultaneous stereoscopic and two-dimensional image display.

A 3D imaging system uses Fresnel lenses to focus light of varying wavelengths at different spatial points for depth perception.

A 3D display apparatus uses segmented directional backlight sources to raise image resolution without requiring smaller micro lenses.

Epipolar rectification aligns multi-view images using feature points, resolving distortion that causes visual discomfort.

Generating synthetic viewpoints beyond original camera limits to maintain perceived eye distance and depth impression across wider viewing zones.

Automated depth map generation resolves labor-intensive manual conversion bottlenecks in 2D to 3D rendering pipelines.

A virtual view rendering system warps detected text with constant depth values to maintain accurate character positioning.

A thin-film angular filter suppresses stray light in multiview displays, resolving the trade-off between viewing angles and image distortion.

Image processing system embeds viewing identifiers in target images to guide viewer positioning without adjustable light splitters or external sensors.

A 3D display apparatus inserts compensation frames between eye-specific image frames to maintain visual separation.

Slanted sub-pixels enable non-slanted lenticular lenses, reducing banding and improving color distribution.

A folded parallel light channel stereo imaging system redirects optical paths to enable compact integration within thin mobile devices.

A display system tracks user position to dynamically adjust gray values for continuous rendering.

An optical image stabilizer actuator adjusts sensor alignment to minimize streaking noise in stereo imaging systems.

A visual effects system merges polarized and non-polarized displays via a beam splitter to create combined imagery.

A stereoscopic display device integrates a lens array and microstructure layer to modulate light direction.

Geometric distortion of 2D images into stereo pairs eliminates depth mapping errors and popping artifacts while delivering realistic 3D perception.

A light field display uses segmented sub-displays to render partial view images for each eye viewpoint.

Multiplex electrodes merge touch sensing with stereoscopic display functions, eliminating separate layers to reduce device thickness.

A hybrid subsystem orchestrates animated transitions between stereoscopic and non-stereoscopic imaging modes.

A reference optical flow map combines with an initial map using an alpha matte derived from foreground and background image segmentation.

A disparity transform function modifies object depth values using a rendered roundness factor table to correct stereoscopic display geometry.

A depth camera interchangeability system processes native images into emulation formats for generic consumers.

A frame rate conversion apparatus manages left and right frame buffers to maintain alternating display sequences.

A light guide plate integrates holographic elements to emit image display light while suppressing unnecessary stray emission.

A mono video processing system partitions frames and shifts pixels laterally based on calculated depth maps to synthesize stereo output.

A 3D display substrate integrates a lens array directly onto the color filter layer using layers with different refractive indices to form a concave-convex interface.

A planar stereoscopic display apparatus aligns light rays through a static optical device to produce floating images without mechanical scanning.

Shutter glasses control viewing windows to separate 3D and 2D image channels, resolving depth conflict during mixed content presentation.

Stereoscopic display conveys 3-D depth while displacement sensor detects finger distance to resolve information capacity versus device size contradiction.

A 3D display system synthesizes observer position data to guide viewers toward the optimal viewing area.

Integrating an RGB-D fusion module within the camera housing eliminates processing delays caused by separate computer units, enabling accurate subject tracking.