Steroscopic Systems TRIZ Cases

Shifting stereo camera exposure timing and reusing multi-read luminance data shortens ADAS obstacle detection cycles in low light.

Vergence-based gaze estimates are cross-checked with local depth-map data to improve fixation distance accuracy for adaptive eyewear.

A nonlinear calibration model uses eye tracking and multi-view camera data to cut autostereoscopic display crosstalk with less memory and processing.

Dual frame timers let stereo image sensors use different exposure times and binning, improving low-light sensitivity without losing normal video rates.

Exposure timing is shifted between stereo cameras to preserve SNR and ranging accuracy for sudden obstacle detection in low light.

A variable pixel layout period matched to eye position and lens refraction cuts naked-eye 3D display crosstalk across viewing angles.

Multiple 3D image displays generate non-overlapping viewpoints per eye to preserve wide FOV while improving depth reproduction and resolution.

A transparent flat plate back-projects virtual objects for direct touch interaction, reducing binocular disparity and ray-casting complexity.

Two image sensors track user and scene positions so a see-through display can keep rear-scene content aligned as the viewer moves.

Fixed tiled optics and sensor arrays capture aligned 3D, visible, and X-ray gigapixel images in one exposure without calibration.

Depth-guided warping and boundary adjustment turn mono images into stereo views while preserving detail and improving 3D viewing comfort.

Synchronizes POV updates between oblique aerial imagery and 3D model views to correct scale mismatch and enable seamless scene navigation.

Preset stereoscopic shapes supply fixed depth data so video see-through stays smooth even when full 6 DOF tracking is incomplete.

Early depth testing prioritizes pixel shading and supports alternate eye rendering to cut VR graphics load and rendering time.

Dynamic camera refresh rate matching keeps environmental images aligned with app timing, reducing XR display lag and repeated old frames.

Cut-outs around backlight LEDs interrupt heat flow in the display backplate, reducing camera motion and preserving 3D imaging alignment.

Frequency-domain image comparison automates multiscopic display calibration to correct optical element alignment and reduce crosstalk and ghosting.

An external accessory captures additional object regions so the headset can build stereoscopic images without added helmet weight, power draw, or dizziness.

Captured display images and eye tracking refine optical-element alignment on the fly, reducing crosstalk and depth distortion.

Eye and ear tracking keeps 3D image and sound aligned with viewer movement, improving immersion and audio-visual interaction.

Hybrid lens arrays and a barrier balance 3D luminance, viewing angle, and crosstalk through aperture ratio adjustment.

Focus-state markers guide viewpoint movement in virtual shooting, making shallow depth-of-field navigation more intuitive and easier to control.

A primary and wide-angle camera are fused into a 3D point cloud to expand viewing angle conversion and improve mobile depth accuracy.

Pre-calibrated 360° image composition and interleaved multi-band filtering cut complexity and support real-time medical imaging.

Dynamic IoT camera switching keeps only in-range volumetric devices recording, cutting power use, data load, and rendering cost.

A user-timed stop index corrects actuator overrun in display optics adjustment, improving stereoscopic viewing comfort and alignment.

Motion-aware autofocus uses object tracking and gyroscope rotation data to adjust lens target position and reduce blur during movement.

Non-uniform scaling enlarges key facial or status regions on an outward-facing 3D display, improving visibility and social communication.

Disassemblable rig segments preserve spherical alignment and calibration consistency while cutting transport and setup effort.

UV stroboscopic stereo imaging reconstructs 3D rotating-sample surfaces in real time with lower cost and computational load.

Uses 3D shape data to identify which cameras capture a selected object, cutting feed review time and easing multi-camera video switching.

A movable mirror shifts reflected image depth to create volumetric visual effects without complex 3D display hardware.

Voice and gesture input guide a head-worn wearable to capture stereo images of the desired scene area for more relevant computer services.

Playback metadata defines per-frame edge offsets so stereoscopic video can correct window violations without permanently altering source images.

Dual IMUs and a Kalman filter recalibrate binocular display spacing and alignment in real time, reducing distortion without user intervention.

Depth maps drive automatic left-right disparity scaling and offset in XR video recording to reduce manual tuning and viewer visual fatigue.

Optical separation layers split viewpoints and left-right eye images so multiple users can see high-resolution 3D content without crosstalk.

Micro-lens arrays and a parallax barrier steer two images to different viewing angles, letting one vehicle display serve multiple occupants.

A slanted lens and asymmetric sub-pixel layout improve viewpoint separation and reduce crosstalk in 3D displays.

Localized light-to-heat conversion deforms polymer cells into stable 3D and braille surfaces without motors, pneumatics, or vibration-only feedback.

A MEMS scanning mirror alternates optical paths so one rear sensor can capture spatial video with lower hardware complexity and power use.

Left and right electrode zones identify approach direction, allowing touch input only for the user who can view that side of the display.

Periodic light beam deflection expands viewing areas for multiple viewers without increasing display apparatus volume or visible switching.

A multiplexed metasurface encodes polarization- and wavelength-dependent phase profiles for compact wide-FOV imaging and sharper depth sensing.

Gaze-driven foveated rendering concentrates peak resolution at the eye focus, easing near-eye display weight and power limits.

Viewer position guides retroreflector rotation so aerial images can switch spaces without the display's virtual image blocking visibility.

Movable and rotatable display positioning lets aerial images shift between real and mirror image spaces for more flexible information presentation.

Intermediate camera-view images keep virtual objects aligned with captured scenes as the field of view changes, reducing rendering load.

Virtual 3D model shifting opposite the principal ray improves air-floating image brightness and clarity while reducing ghosting and power use.

A specific pattern border lets a 3D display detect stereoscopic content accurately and switch modes automatically for smoother viewing.