Steroscopic Systems TRIZ Cases

A multiview display apparatus adjusts depth values to reduce crosstalk in rendered images.

Segmented electrodes control positive liquid crystal alignment to switch display modes, resolving manufacturing complexity.

A controller separates 3D image signals into view components for display.

A 3D display uses a phase retardation film with alternating regions to guide light polarization for stereoscopic viewing.

Virtual elements adapt display modalities to physical surfaces, resolving the trade-off between user experience and system complexity.

Dynamic view allocation reduces crosstalk and resolution loss for mobile viewers.

Multiple liquid crystal surfaces with windows filter parallel rays to restore original colors and control projection distance.

Dynamic orientation adjustment maintains 3D effects across postures, resolving the trade-off between display quality and versatility.

A robotic mounting structure positions a display and imager to capture segmented two-dimensional representations within three-dimensional space.

An equilateral triangle layout reduces manufacturing costs and computational overhead while improving depth map accuracy.

Segmenting experience space into polyhedral regions reduces computational complexity while preserving spatial relationships for immersive remote attendance.

Segmented sub-pixel repeating groups enable universal driving methods that simplify fabrication costs while providing improved 3D display performance.

A 3D image processing apparatus specifies indispensable output areas to guide parallax adjustment for accurate viewpoint synthesis.

A stereoscopic display adjusts image disparities through multiple view angles to provide customized 3D effects.

A unified initial stereoscopic header consolidates common parameters across multiple streams to eliminate redundant data storage.

Information processing apparatus identifies object parts in 3D models from multiple camera views.

Orbital angular momentum encoding directs light into distinct view zones, eliminating cross-talk and boosting light efficiency in autostereoscopic displays.

Processor determines main object by analyzing object information from both images, improving detection accuracy despite reduced sensor size.

A 3D display apparatus uses a main lens and sequential sub-images to focus light at distinct view points within a single zone.

Dynamic pixel conversion compensates for physical misalignment between tiled 3D screens, ensuring a flat stereoscopic image.

A time-shared elemental image array display method generates multiple visual images with offsets to improve spatial resolution on an LCD panel.

Pixel filtering reduces network bandwidth demands by increasing correlation within 3D image content for efficient compression.

A 3D camera adjusts laterally displaced optical imaging systems using actuators and a digital image analyzer to align stereoscopic fields of view.

Target region filling techniques promote stereo consistency by sharing information during computation across left and right images.

A single-panel head-mounted display optics block shifts the perceived center of the image for each eye.

A display processor generates stereoscopic and pseudoscopic image series for 3D viewing.

A flexible active retarder panel uses UV-aligned liquid crystal droplets dispersed in a polymer layer to control light phase shifting.

Two-layer barrier electrodes fill gaps between first barriers to suppress moire interference while maintaining high image quality during eye tracking.

A video pass-through system merges grayscale and color camera data to render immersive content.

Parallax adjustment unit modifies left and right eye image signals to reduce motion sickness from excessive parallax in 3D displays.

A controller adjusts a three-dimensional image filter position to maintain optimal viewing alignment.

Switchable birefringent lenticular elements eliminate oblique-angle artefacts in 2D mode while enabling stereoscopic views in 3D mode.

An electrowetting lens unit separates light beams into distinct viewing zones to enable glasses-free three-dimensional image rendering.

A robot moves a single camera to capture two images for 3D synthesis.

Coordinate transformation and interpolation align narrow-interval camera capture with wider viewer spacing, preventing invisible portion visibility.

A near-eye display device adjusts image coordinates based on measured pupillary distance to eliminate rendering distortion.

Segmented display areas and phase delay layers widen the viewing angle of 3D polarized displays without introducing moire patterns or compromising yield.

A compact 3D camera integrates a flash unit and image sensor to capture depth information using structured light patterns.

A display mode timer adjusts virtual object visibility based on user focus and context factors.

Inclined cylindrical lenses divide parallax images across multiple lenses without generating oblique line-like noise or moire artifacts.

Automultiscopic display system detects eye position to render viewpoint-specific images via selective sub-multipixel coloring.

Electromagnetic actuators position pixels in three dimensions, eliminating headwear requirements and viewer discomfort from stereoscopic illusions.

A controller adjusts parallax barrier configurations based on skeletal tracking data to deliver accurate three-dimensional images.

A dual view display apparatus aligns liquid crystal molecules parallel to viewing angles to control light emission direction.

A light guide provides an optical communication channel within eyeglass frames to transmit signals between optical engines.

A 3D display apparatus generates intermediate images based on disparity information to provide continuous views.

Liquid crystal optical element uses segmented electrodes to create refractive index distributions for lens functionality.

A baffle assembly restricts light divergence from a display unit to enable viewing of stereo images from oblique angles.