Steroscopic Systems TRIZ Cases

Merges real-space imagery with virtual environments using targeted luminance modification to create seamless visual transitions.

A liquid crystal lens modulates light paths using a dielectric layer with varying capacitance.

A subtitle display system computes proxy depth values from abstract 3D content maps to position text elements dynamically.

A stereoscopic image generation apparatus adjusts pixel shifts based on detected parallax values to improve depth perception.

A processing system segments image objects and interpolates depth parameters to generate stereoscopic views.

A stereoscopic image processing apparatus generates left and right images by shifting a two-dimensional source.

Single-substrate branched electrodes reduce manufacturing costs while enabling three-dimensional display through precise liquid crystal orientation.

An optimized stereoscopic camera system dynamically adjusts interaxial separation and convergence distance to maintain a consistent perceived depth range.

Inclining the display device enables realistic 3D viewing without glasses, preventing image deformation through precise coordinate projection calculations.

An insulating layer separates signal and common electrode lines in a parallax barrier, resolving shorting risks caused by narrow gaps.

Dynamic multi-frequency pattern adaptation resolves trade-offs between spatial frequency and depth range, enhancing measurement precision for moving objects.

A stereoscopic display system shifts content positions in the depth direction to separate overlapping visual elements.

A 3D image apparatus modifies depth values based on view pose differences to synthesize output images.

A movable barrier slot directs distinct images to separate users, resolving the narrow visual field of static parallax barriers.

Interleaving alternating camera frames eliminates motion blurring and strobing artifacts while preserving screen brightness.

Spatial image segmentation eliminates unnatural viewing caused by parallax mismatch while reducing hardware costs associated with multi-camera setups.

Hardware pixels-per-degree metrics dynamically scale rendering resolution to balance computational complexity with image precision.

Transparent electrodes control opaque particles via polarity to resolve ITO light absorption and circuit complexity.

Tilting principal rays via a parallax setting unit aligns convergence with focus, reducing observer fatigue in augmented reality work sites.

Image processing apparatus adjusts clip positions to maintain geometric consistency in mixed reality displays.

A tracing-type stereo display apparatus dynamically adjusts its sub-pixel array based on viewer position data.

A backward depth mapping method calculates reference view coordinates from virtual view pixels to ensure accurate stereoscopic image synthesis.

A nanophotonic phased array generates dynamic three-dimensional imagery through synchronized angular scanning and modulation of incident illumination.

Repositions 2D content along the Z-axis using pre-generated depth buffers to create spatial effects in extended reality environments.

A display panel module synchronizes signal writing and power supply timing using a single drive circuit to support both 2D and 3D image modes.

A 3D display apparatus multiplexes video data streams to allocate specific image frames to connected glasses.

Segmented photoelectric units enable adjustable stereoscopic parallax direction independent of display orientation.

A spatially varying polarizer provides position-dependent phase retardation to align light polarization for sensitive optical components.

A head-mounted display builds a 3D background model and projects video data into it to generate wide-angle 3D images.

A processor adjusts 3D video depth settings by applying scale factors derived from scene content analysis.

Segmenting the lens definition layer isolates shrinkage in gap regions, reducing angle deviation from 0.17° to 0.008° for accurate 3D display alignment.

A 3D image display device uses an optical plate with inclined light transmission regions to direct sub-pixel light toward specific viewing zones.

A liquid crystal lens uses segmented slit electrodes to adjust molecular tilting for precise refractive index control.

Integrating barrier and electrode patterns on one substrate eliminates separate components, reducing device thickness and fabrication costs.

A 3D video shooting control system calculates and adjusts camera baseline length to maintain optimal stereoscopic effects.

A voltage-controlled liquid crystal lens replaces physical convex structures to function as a stereoscopic display element.

Imaging sensor divides pixel array into regions of interest, applying 3D depth analysis only where needed to reduce processing time and power consumption.

A light field display apparatus aligns sub-pixel view regions with the human pupil diameter to enable simultaneous monocular focusing and binocular convergence.

Suitability detector analyzes visual cues in video frames to determine conversion readiness, eliminating manual inspection bottlenecks.

Three spaced sensor units enable auto convergence calibration, preventing depth information loss in 3D applications.

Hardware logic synchronizes stereo signals, replacing inefficient software processing to improve synchronization reliability.

Concave lens arrays eliminate dark regions between viewing zones, ensuring uniform naked-eye 3D images.

A polarization switching panel incorporates rescue lines to repair conductive pattern defects and maintain image quality.

A camera module adjusts optical signal power based on object distance to maintain measurement accuracy.

A selective-aperture array segments light rays into multiple perspective views across pupil regions to form real spatial light spots.

A virtual viewpoint image generation system allocates rendering processing across multiple modules to adapt output formats.

A rendering method computes depth data edges and measures background pixel variation to shift input pixels for high-quality output.

Different phase difference values in right and left eye areas compensate for optical filter deviations, reducing crosstalk.