Steroscopic Systems TRIZ Cases

Linearly spaced cameras within interpupillary distance generate 3D images that match vergence and focus, reducing eye fatigue.

Directional backlight and prism beam splitting separate viewer images to cut crosstalk and flicker while preserving ultra HD 3D quality.

Dual photoelectric pixel data is corrected for disparity distortion before binning, improving image quality while limiting processing complexity.

RGB and depth data are combined to reconstruct a live 3D upper-body view, predict pixel disparities, and smooth artifacts during streaming.

By generating the second-eye image and depth map inside the HMD, mixed reality displays keep depth accuracy while cutting data transfer.

Active optical steering directs light to tracked eye positions, reducing cross-talk and preserving color in autostereoscopic viewing beyond 1 meter.

Eye-position tracking steers pixel light through an active parallax barrier to cut cross-talk and preserve color in far-view autostereoscopic viewing.

Stereo-to-light-field processing matches near-eye display sampling and compensates optical distortion to reduce vergence-accommodation conflict.

Time-divided display regions and switched backlight zones cut autostereoscopic afterimages and crosstalk while preserving bright 3D viewing.

When people or objects are detected, the glasses switch from a full projected image to a hidden image so users can stay aware without stopping projection.

Coordinated image capture across two devices measures changing spacing to build stronger stereoscopic images for VR, AR, and XR use.

Side-by-side live view images use region-specific zoom frames so users can identify the zoom target position clearly across dual optical systems.

Depth-guided warping and boundary adjustment turn mono images into stereo pairs while preserving detail and reducing visual discomfort.

Eye-tracked light steering redirects pixels to each eye, preserving stereoscopic depth across wider viewing angles without sacrificing resolution or brightness.

Stored calibration profiles, ray tracing, and kernel lookup correction reduce lenticular display crosstalk and improve 3D image clarity.

Pixel-level shutter panels control rear light transmittance to create natural 3D overlap and occlusion without glasses or moving parts.

Off-axis dual mirrors and time-switched backlights widen the 3D eye box while reducing afterimages and crosstalk.

Distance-sensed camera adjustment keeps magnified stereoscopic surgical images aligned with patient anatomy on a see-through display.

Time-synchronized multi-angle video is mapped to repeating pixel columns and parallax barriers to deliver clear 3D playback on digital photo frames.

A multiplexer lets idle image sensor paths process active sensor data, cutting power use and latency without turbo mode.

Multi-angle illumination expands the near-eye display eyebox without time-sharing control, avoiding image loss and aliasing.

Eye-tracked light strips and a lenticular panel deliver glasses-free 3D with adaptive perspective and full screen resolution.

A light guide plate and transmissive spatial light modulator replace bulky image combiners to deliver compact AR holographic viewing.

Spatially updating message objects in 3D UI cuts repeated inputs and cognitive burden through distance-based visuals and 2D-3D transitions.

Curved anodes and independent sub-pixel driving reduce gaps, suppress Moire fringes, and improve 3D viewing area in high-PPI displays.

Dynamic luminance distribution across multiple virtual depth surfaces expands 3D image range while reducing eye strain from disparity-focus conflict.

View dependency indications let 3D scene signals render specular and Lambertian regions more accurately while limiting data rate and processing load.

External image or sound detection shifts projection glasses from a central display to a smaller hidden image, maintaining viewing continuity during hazards.

User position and gesture sensing lets a floating image shift to a designated 3D display point for a more suitable viewing experience.

A controllable parallax barrier and eye tracking expand HUD field of view and eye box while reducing ghosting and dimming.

Oblique light entry and a movable optical element keep retinal projection aligned with pupil motion while reducing size, weight, and power.

A waveguide combiner and boresight sensors keep left and right HMD projectors aligned despite stress and temperature shifts.

Maps 2D eye front-image pixels to 3D positions from OCT data, enabling simpler stereoscopic viewing of ocular morphology.

User-selected band luminance guides exposure and focus in multispectral imaging, improving capture accuracy for the target wavelength.

Structured light and tracking cameras measure optical combiner curvature in real time, correcting AR distortion from thermal and mechanical changes.

Precomputed virtual barrier mapping replaces per-frame viewpoint conversion, cutting AR 3D display latency while preserving pixel assignment accuracy.

Side-by-side live views use a clear target-area indicator so users can tell which optical image will be enlarged during zoom.