Stereoscopic Photography TRIZ Cases

A stereoscopic display device uses MEMS mechanical shutters to extract partial rays from small images and reconstruct them into a three-dimensional image.

Terahertz wave scanning detects three-dimensional coordinates of vehicle radar sensors to correct assembly errors and restore ADAS precision.

A 3D imaging device shifts image pathways horizontally and vertically to form a composite view without special glasses.

A photostimulable plate reading device uses an optical filter to transmit blue luminescence while blocking scattered red laser light.

Parallel optical systems with aperture stops and positive lenses resolve base length versus device size trade-offs.

A processor links user and file images to multiple projection surfaces within a booth unit for shared workspace display.

An ultrasonic depth sensor array acquires three-dimensional imaging data using acoustic beamforming, resolving infrared interference in outdoor sunlight.

A control unit determines display methods for virtual objects based on positional relationships to vary binocular parallax.

A protective carrier isolates flexible imaging plates from drive wheels and guide rails during transport.

Segmented micro-projectors and retro-reflective screens reduce device weight and cost while maintaining high-quality 3-D spatial accuracy.

A 3D imaging device uses spectral filters to capture multi-viewpoint images without mechanical movement.

A projector adjusts synchronization signals using light meter measurements from stereoscopic glasses lenses.

A monocular stereoscopic imaging device synchronizes zoom lens movement with diaphragm aperture adjustments to maintain consistent optical output.

Imaging apparatus adjusts parallax amounts in captured image data to generate comfortable 3D viewing experiences.

An image processing device adjusts perspective images to align subject positions using a reference position.

Nested paraboloidal reflectors capture spatially offset panoramic views, resolving the trade-off between wide field of view and accurate depth perception.

Adjustable mirror mounting resolves beam path alignment complexity by allowing vertical separation and vibration-free positioning.

Reflective surfaces enable a single smartphone lens to capture dual views for stereoscopic imaging.

A lens base member uses asymmetric positioning portions to restrict rotation about the optical axis and maintain alignment between left and right optical systems.

A lens component with partial lenses and flat parts directs light from a display panel to form distinct images.

Orthogonal spectral ranges in the backlight enable reliable image separation while eliminating flicker and reducing energy consumption.

A stereoscopic imaging apparatus corrects brightness between images captured with different exposure times to generate parallax information.

A reflective optical system uses free-form mirrors to form images while maintaining a compact layout.

A camera array system fuses multi-channel images using disparity maps to generate depth data.

A 3D imaging device uses a rotating filter array to direct light rays onto an image sensor with distinct wavelength dependences.

Segmented projection on a curved surface masks visible edges and increases the vertical field of view for immersive viewing.

A camera adaptor box differentiates control values to synchronize dual cameras.

Asymmetric adhesive application minimizes circuit board warpage, preserving camera unit alignment against temperature changes.

Friction wheel drives move cassettes past a read gap, reducing mechanical stress on imaging plates.

A microprism array deflects left and right images for single-camera depthmap calculation.

Processor calculates revolution angles from multi-point feature registration to specify unknown wide-angle optical parameters.

A stereoscopic display device moves a parallax barrier using a defined switching pitch to align with viewer position.

A 3D imaging device uses a polarizer group to convert light beams into preset polarization angles for sensor capture.

Multi-segmentalized shading parts on a polarizing-axis control plate reduce moiré interference by disrupting repetitive pattern superposition.

Flat murals with lenticular panels direct specific wavelength streams to stereo glasses, eliminating expensive projector costs.

A 3D camera controller adjusts convergence angle via optical path compensation during focal length changes.

Segmented display sections with mechanical shutters extract light from central image areas, increasing density and brightness without distortion.

Spherical camera arrays align entrance pupils with user eyes, correcting point of view offset from conventional front-mounted HMD sensors.

Dynamic interocular adjustment reduces foreground object disparity to preserve comfortable depth perception in stereoscopic imaging.

A stereoscopic display system uses an image guiding plate with periodic optical structures to diverge image beams into multiple directions.

Tilting mechanisms with shape memory alloy lines adjust lens orientation to capture near scenes without increasing manufacturing costs.

Removing the sealed housing and flat window eliminates optical aberrations, reducing size and weight while enabling deeper water usage.

A single-lens camera calculates overlap width based on focus distance to guide user alignment for stereo imaging.

Integrated bracket positions cameras opposite each other to ensure accurate image overlap while reducing assembly errors.

A stereoscopic display system uses polarized light and eye tracking to project images directly to viewer eyes without glasses.

Accessory apparatus moves optical elements via a drive unit and processor to prevent autofocus failure and misalignment in 3D displays.

A stereoscopic display device segments the screen into multiple viewpoint regions to enable simultaneous viewing for several observers.