Steroscopic Systems TRIZ Cases

A liquid crystal lens cell shifts focal length via voltage to refract view images into distinct viewpoints.

QVE mappings reconstruct reference depth data to preserve artistic intent across varying screen sizes and technologies.

Ommatidium columns mimic insect eyes to acquire accurate three-dimensional space information while reducing device size and computational cost.

Merging depth plane images with zoom control information prevents timing errors during 3D image transmission to resolve the vergence-accommodation conflict.

An image processor determines object depth using structured light to selectively modify captured images based on spatial position.

Oblique grating orientation splits light to separate left and right eye images, eliminating candy stripe patterns that cause granular sensation.

A 3D display apparatus adjusts light emitting direction using independently controllable backlight cells and shutter patterns to selectively render images.

Dynamic buffer zone adjustment compensates for shielded subpixels, maintaining image brightness and avoiding color cast issues during 3D viewing.

External stereo screens resolve fixed focal plane ambiguity by projecting variable depth content, expanding the angular viewing range to 160 degrees.

A fire monitoring system uses overlapping camera fields of view to enable precise three-dimensional position tracking.

A video providing apparatus reconstructs low-resolution right video streams using binocular disparity and spatial interpolation to match left video quality.

A working range map generation unit synthesizes depth data with captured images to display measurable zones on a screen.

Periodically varying flexuous conductive lines reduce moire fringe unevenness and enhance aperture ratio in glasses-free 3D liquid crystal displays.

Dual imaging sensors capture context and focus images based on user gaze direction.

Adjustable spacer positioning in electric field driven liquid crystal lens cells reduces light distortion and crosstalk for clearer stereoscopic images.

A system captures two-dimensional imagery and determines viewer perspective using positioning sensors to generate dual imagery for three-dimensional display.

Dynamic slit positioning corrects the relative relationship between barriers and eyes, resolving brightness versus crosstalk trade-offs.

A renderer adapts view mapping via a handshake mechanism to optimize display output.

An angled display surface reduces parallax-induced user fatigue while maintaining stereoscopic depth perception.

A view curve modifier adjusts viewing positions to generate output views for 3D image data sampling.

A stereoscopic display device alternates left and right image data across odd and even display lines to increase vertical resolution.

A 3D display device detects viewer positions and dynamically adjusts multiple views to maintain stereoscopic perception.

A near-eye optical viewing system uses a movable fixed-curve mirror to generate virtual true 3D images.

Integrating touch detection and polarization control into a single panel reduces device thickness and fabrication costs while enhancing power efficiency.

Vertex shifting simulates multiple viewpoints within one rendering pass, reducing processing overhead and improving efficiency.

A 3D display signal embeds frame type synchronization indicators to ensure absolute left and right eye image alignment.

A deformable optical layer buckles into a lenticular array to switch between 2D and 3D display modes.

Array of cameras captures real-time video from multiple angles to stitch immersive media without placing equipment within the field of play.

Liquid crystal electrodes control light transmission in a switchable parallax barrier, resolving luminance loss during 2D to 3D conversion.

Segmentation and intermediary processing replace obstructed fisheye lens areas with scaled adjacent camera data, restoring realistic human-eye perspective.

A rigid support structure holds image capturing device groups in predetermined geometric relationships to ensure consistent placement.

A 3D display apparatus specifies observer viewpoint positions to set stereoscopic viewing regions and controls ray emission within those areas.

A 3D display device adjusts image parallax based on operating element distance to maintain realistic interaction.

Stepped non-conductive structures align liquid crystal molecules in opposing directions, simplifying manufacturing while enhancing diffraction efficiency.

Blank area analysis calculates blank region sizes before display to prevent selection of low-quality images with large gaps.

Dynamic parallax barriers adjust slit widths based on measured viewer distance, resolving the trade-off between image alignment precision and viewing range.

Automated patrol patterns reduce image data volume while maintaining multi-user viewing capability, resolving control complexity in emergency response systems.

Column-by-column scanning with synchronous lenticular lens updates prevents simultaneous frame overlap, resolving image crosstalk in stereoscopic displays.

A liquid crystal optical unit switches between vertical and horizontal electric fields to control image orientation.

Trench-based liquid crystal optics steer display light toward viewer pupils, reducing power consumption and enhancing privacy by restricting illumination.

Dynamic adjustment of 3D image data positions and tilt angles compensates for mismatched viewing distances, reducing visual fatigue.

Information processing apparatus manages virtual viewpoint generation by comparing viewpoint data from multiple cameras to control output streams.

Segmented uniaxial retardation layers with opposite signs manage wavelength dispersion characteristics, improving upper and lower viewing angles.

Film-type patterned retarder deviates phase retarding regions from pixel regions to align with viewer line of sight.

A stereoscopic imaging device supplements original images with matching optical properties to generate balanced displayed images.

A single projector switches image data at ultra-high bit segment rates to deliver distinct left and right eye images without motion artifacts.

A holographic projection system defines allow zones outside user sight areas to position visual objects without obstruction.

Optical layer adjusts ray directions to diverge light, concentrating rays on the viewing zone to improve 3D image quality.

A letterbox margin processing apparatus detects video margins by analyzing frame packing types to select specific image regions for accurate identification.