Steroscopic Systems TRIZ Cases

Multifocal plane rendering adjusts disparity and orientation to support natural viewpoint changes while avoiding vergence-accommodation conflicts.

A video signal processor detects incoming formats and converts 3D signals to 2D for immediate display.

Spatial light modulators map multiple focal planes to fewer planes, resolving vergence-accommodation conflict in near-eye displays.

UV-triggered photochromism alters barrier translucency, eliminating the need to remove physical barriers when switching between 2D and 3D display modes.

Canonical image generation process reduces computing time for light field displays by replacing electromagnetic wave propagation with discrete hogel models.

A 3D video transformation apparatus estimates disparity and correlation information to determine the correct display format for stereoscopic output.

An optical barrier between segmented optical elements prevents light leakage, maintaining full resolution for both images.

Interleaves resampled partial images from input warps to generate composite multiview output, achieving 28.7 full-HD frames per second.

Aligning a laser projector and cameras vertically eliminates side-edge cavitation in depth mapping caused by horizontal occlusion.

A depth-fill algorithm updates background models using temporal information to recover missing pixels in texture-less regions.

Segmented light source modules maintain viewpoint resolution in large displays by reducing crosstalk between adjacent point sources.

A light path adjuster refracts beams from multiple display panels to create a seamless three-dimensional image.

Movable lens equivalent units redirect light to specific eye positions, resolving crosstalk and energy trade-offs in naked-eye 3D displays.

Temporal smoothing of sensor data maps user movement to view indices, eliminating jittery transitions in 3D art displays.

Dynamic view assignment via eye tracking resolves the trade-off between multi-user capability and spatial resolution in autostereoscopic displays.

A polarizing switch panel embedded in a touch layer directs light polarization to generate binocular disparity images for autostereoscopic viewing.

A 3D visualization system captures spatial phase characteristics via a micropolarizing array to synthesize depth cues in real time.

An image display apparatus separates input images into distinct 2D and 3D areas for independent manipulation.

A parallax barrier display uses interlaced finger electrodes to suppress voltage fluctuations and reduce electromagnetic noise in touch sensing.

Segmenting depth data into an enhancement layer allows selective transmission, reducing bandwidth for non-3D devices while preserving quality.

Automated depth map generation converts single 2D images into 3D video sequences, reducing process complexity and eliminating manual viewpoint capture.

Orthogonal Field Evolving Cavity tessellates light to expand field of view, eliminating the pipe effect and nausea in compact displays.

Virtual image sensors resolve shallow depth of field limitations in view-dependent devices by generating focused 3D appearances with accurate gaze direction.

A lens array converges light to shorten focal distance, reducing depth and weight of bulky stereoscopic display apparatuses.

A guide frame directs observer eyes to a predefined viewing area, eliminating complex eye-tracking processes and reducing system costs.

A spacer defines distance between display panel and parallax barrier surrounding areas.

A dual-view segmentation mechanism routes 3D image content to legacy and modern display servers through a unified application interface.

Depth-based patch selection fills hole areas with similar pixel values to reduce distortion in high depth background areas of multiview images.

Segmented suppression members block twisting forces from deforming the rail, preserving optical accuracy during user adjustment.

Dynamic frame rate adjustment mitigates cinematic judder by switching to multiples of 24 fps while conserving power during non-cinematic playback.

Pre-calculated depth buffers enable accurate occlusion management when mapping live video streams onto 3D objects, resolving rendering quality limits.

A viewing system segments performer characters into independent instances for real-time binocular stereopsis rendering.

Orthogonal projection of point cloud data onto voxel texture planes enables constant rendering speed regardless of point count.

A controller adjusts display values based on coupling relationships to cancel crosstalk in autostereoscopic displays.

Partition walls segment barrier electrodes to prevent vertical line defects caused by column spacer anomalies in 3D displays.

System detects stereoscopic lens attachment, then prompts users to adjust focus differences between parallel optical systems caused by manufacturing errors.

Alternating odd and even pixel rows separate left and right eye images, mitigating crosstalk while maintaining high resolution in mobile displays.

A multi-focal display system modulates light wavefront divergence to match object depth, coupling viewer vergence with accommodation.

Automated scoring algorithms evaluate image pairs to resolve the trade-off between processing efficiency and stereo image quality.