Optical Elements TRIZ Cases

Segmented lens array with local quality adjustments reduces total length while maintaining wide field of view.

A Diffractive Optical Element focuses wide-angle UVC light into a concentrated beam, overcoming energy degradation over distance.

A deformable mirror corrects wavefront disturbances in segmented image fields to restore optical signal clarity.

A multi-spectral zoom lens divides radiation into separate arms for distinct detectors to capture sharp images during optical zooming.

A polycarbonate resin composition blends specific resins to achieve high transparency and environmental resistance.

A six-lens optical imaging lens distributes refractive power across positive and negative elements to balance focal length and aperture size.

A dual focus lens system moves positive and negative units to adjust optical paths for high image quality.

Optimizing the negative lens diameter ratio allows simpler cylindrical barrels while maintaining aberration correction through parameter changes.

A see-through helmet display uses holographic optical elements to collimate visible light from spaced segments into the user's line of sight.

An insulating layer with multiple steps maintains consistent light-emitting layer thickness between pixel electrodes.

A polymer film with controlled in-plane retardation and low haze achieves high transparency through specific resin composition.

A compact telephoto lens system uses reflective portions to fold the optical path and maintain a long back focal length.

A seven-element camera optical lens structure uses mixed plastic and glass materials to achieve ultra-thin form factors.

A five-element infrared lens module corrects optical aberrations using aspherical surfaces.

Segmented lens groups refract light onto a 4K sensor, resolving the trade-off between wide field of view and image resolution without post-processing.

Curved exit surfaces extract light efficiently, reducing bulk while expanding the field of view.

A seven-lens imaging system uses air gaps between single lenses to correct optical aberrations and reduce total track length.

A five-lens optical imaging assembly uses specific refractive power distribution to achieve high image quality in portable devices.

Alternating high and low refractive index layers create a single filter that transmits two non-overlapping bands, reducing device volume.

A coaxial multi-element optical lens configuration corrects chromatic aberration in laser processing systems.

A six-lens camera assembly with alternating refractive powers achieves a wide field of view exceeding 55 degrees.

A polycarbonate resin composition incorporates cyclic and linear phosphite esters to maintain optical clarity in molded articles.

A zoom lens moves three internal units to adjust focal intervals while keeping the first unit stationary.

A poly(imide-ester-amide) copolymer forms optical films with balanced mechanical and optical properties.

A four-group zoom lens unit uses specific partial dispersion ratios in the third group to reduce chromatic aberration.

Dual imaging lenses guide light through a waveguide to create separate focal planes, reducing visual fatigue in near-to-eye displays.

A five-element optical imaging lens uses alternating refractive powers to control surface area and extend field of view.

Blending polyetherimide sulfones with polysulfone resolves the trade-off between high heat resistance and melt processability while maintaining transparency.

Sixth-order polynomial surfaces fold light paths to reduce system volume while maintaining diffraction-limited imaging quality.

Distinct mirror facet inclinations equalize reception sensitivity across compartments, reducing measurement errors in laser scanners.

A protective plate reflects transmitted light orders back into a substrate waveguide to boost optical efficiency in head-up displays.

A four-group zoom lens configuration corrects optical aberrations using aspheric surfaces and specific refractive index conditions.

Optimizing layer thicknesses balances absorptive and radiative decay rates to resolve low color saturation in conventional multilayer stacks.

A seven-element optical imaging lens assembly uses specific refractive power distribution to achieve compact dimensions.

A lens group forms an optical image on a curved imaging surface to achieve high-quality ultrawide-angle capture.

A five-element lens assembly with negative and positive refractive powers expands the field-of-view while maintaining high imaging quality.

A six-piece camera optical lens design corrects aberrations using specific focal length and thickness ratios to enable ultra-thinning and wide-angle imaging.

A four-element imaging lens uses aspherical surfaces with inflection points to balance optical aberrations while maintaining a compact physical footprint.

Segmented lens elements with asymmetric power balance resolve wide-angle distortion and astigmatism trade-offs.

Optimizing air space distances between lens units reduces ghost images while maintaining a compact overall length.

A heat treatment apparatus controls temperature drop rates using heaters and refrigerant flow to produce optical ceramic materials.

Segmented diffractor arrays reduce thermal gradients and extend operating lifetime by distributing concentrated laser power across parallel regions.

An intermediate aperture stop between lens groups maintains peripheral illumination intensity despite restricted space and high incidence angles.

Four-group zoom lens moves second and fourth groups to suppress axial chromatic and spherical aberrations during high-power zooming.

A movable optical scanner body integrates a light reflecting plate with a support frame to oscillate precisely around an axis.

Alpha, beta-unsaturated amido-containing organosilicon compounds form silicone-hydrogel films with improved wettability and oxygen permeability.

Folded optical paths route display light through a substrate to beam-splitting optics, reducing device volume while maintaining image quality.