Optical Elements TRIZ Cases

A dual-axis optical deflector uses piezoelectric actuators to excite orthogonal resonating oscillation modes for precise mirror pivoting.

A zoom lens system moves four front groups to adjust intervals while holding the fifth group stationary.

An organonitroxide chain transfer agent controls exothermic polymerization kinetics, eliminating cracks and voids while maintaining oxygen permeability.

Nanostructured metasurfaces reduce chromatic aberrations in compact head-mounted displays.

A fixed-focus projection lens combines plastic and glass elements to reduce volume.

Aspheric lens design corrects spherical and chromatic aberrations while maintaining a total track length under 6.0 mm for high-resolution imaging.

Moving second, third, and fourth lens groups enables continuous focal length adjustment from 13.91 mm to 23.03 mm without digital pixel loss.

Actuators adjust a curved optical combiner to align virtual images with real-world views.

Hybrid glass-plastic lens construction with aspheric surfaces resolves the trade-off between miniaturization and high imaging quality.

Movable jaws orient the device while a gantry roller affixes the protector, resolving alignment precision and speed contradictions.

A thermoplastic resin composition incorporates ultraviolet absorbers to enhance optical protection.

Segmented lens units with negative refractive power move independently to minimize aberration fluctuation during focusing from infinity to close distances.

A zoom lens uses a reflecting member in the first component to change the optical path and achieve compact design.

Integrated dual-section anamorphic lens with perpendicular symmetry planes corrects astigmatism to resolve weight and focusing trade-offs.

A lateral-light-shifting optic moves light from subpixels to enhance perceived resolution and color gamut in display devices.

A compact optical combiner uses a rotating MEMS mirror to combine RGB laser beams into a collimated output.

A six-element optical imaging lens uses specific surface shapes and optimized parameters to produce a wide field of view.

Stacked dielectric steps increase focused beam intensity by 10% to 25%, resolving the trade-off between high efficiency and manufacturing precision.

Segmented dichroic beamsplitters in prisms combine RGB light without collimation, boosting image brightness.

A six-lens camera assembly achieves an f/1.8 ratio to admit more light.

Segmenting the first lens group isolates the focusing function, reducing moving mass and barrel diameter while maintaining optical quality.

An addition curable silicone resin composition combines flexible organopolysiloxane chains with rigid resin-like segments to form a durable cured product.

A zoom lens design with specific refracting power and lens group arrangements.

A six-element optical imaging lens uses aspherical surfaces to refract light rays and achieve a wide field of view.

Optimizing focal length ratios and lens refractive indices resolves the contradiction between high imaging quality and ultra-thin wide-angle dimensions.

Electronic merging of video signals from shifted CCD arrays increases digital image resolution while maintaining sensitivity and reducing cost.

A six-element lens system uses aspheric surfaces and optimized air gaps to balance refractive powers across multiple optical elements.

A zoom lens uses a stationary first unit and moving second unit with aspherical surfaces to maintain compact size.

Offset emitter columns and scanning mirrors increase active emitters per unit solid angle, resolving resolution limits in near-eye displays.

A first optical element bonds light guiding materials via a half mirror layer to guide image light through precise angle control.

Optimized curvature ratios and focal power distribution in a six-element ultra-wide-angle lens assembly correct aberrations to enhance imaging quality.

Aspherical lens surfaces resolve the contradiction between miniaturization and optical precision, enabling high-resolution imaging with reduced weight and cost.

A five-element optical lens assembly corrects chromatic aberrations through optimized refractive powers and aspheric surfaces.

Downward convex cover curvature redirects display light toward the opening, reducing stray light while lowering device height.

A holographic optical element reflects display light while transmitting environmental light through wavelength selectivity.

A four-lens optical imaging assembly balances refractive powers to achieve a 20-30mm focal length within a compact structure.

Four-group near infrared lens with mixed glass and plastic elements achieves wide angle imaging.

A six-piece camera optical lens uses specific refractive power configurations to achieve ultra-thinness and wide-angle capabilities.

A projection optical system uses seven to nine single lenses with asymmetric surfaces to control spherical, astigmatic, and chromatic aberrations.

Five moving lens groups correct aberrations in a compact zoom lens, enabling thin projector designs without sacrificing image quality.

A retrofocus wide-angle lens system uses segmented front and rear groups with cemented elements to achieve a compact form.

Segmented lens groups suppress aberration fluctuations while shortening back focal length for wider angles of view.

An acrylate-based optical material composition incorporating phosphorus compounds and initiators to form hardened lenses.

Seven lens optical imaging system achieves high focal length while correcting aberrations to resolve compact device thickness constraints.

A compact imaging lens uses a cemented resin rear group to deliver high optical performance.