Optical Elements TRIZ Cases

Curved substrate and grating layers converge light rays to eliminate dead-area crosstalk in naked eye 3D displays.

Stacked display panels use different color filter thicknesses to reduce transmitted light loss and maintain luminance in head-up displays.

A six-lens optical lens uses aspheric surfaces to achieve wide viewing angles.

A distortion compensation module adjusts display images using ray tracing and eye tracking data.

Optimized focal lengths and spacing in a five-element structure resolve the trade-off between ultra-thin design and wide angle imaging quality.

A convergent front lens paired with a divergent correcting element achieves passive thermal stability through optical compensation.

Five lens groups with specific refractive powers and an aspheric plastic element reduce device complexity while maintaining high zoom magnification.

A photocurable composition combines cyclic and episulfide compounds to produce optical materials with refractive indices exceeding 1.73.

An optical lens uses negative and positive aspheric groups to achieve wide field-of-view imaging.

Coordinated movement of second through fifth lens groups achieves high zoom ratios while correcting aberrations across the entire range.

A display apparatus positions image capturing units inside the angle formed by lines extending from the user's pupil to the display unit sides.

A compact optical structure uses a cavity beam splitter to merge light from multiple LEDs into a single path.

An optical imaging lens uses five elements with specific curvatures to enlarge the field of view and reduce aberrations without increasing total track length.

Anamorphic condensing lens with diffractive structure corrects wavefront aberration across scanning directions.

Segmented charge generation layers and a curved insulating layer reduce electrical noise between pixels while maintaining common electrode continuity.

Selective wavelength coupling in holographic waveguides resolves precision versus efficiency trade-offs for augmented reality displays.

A six-lens imaging lens configuration with specific refractive power distribution and aperture stop placement.

A zoom lens uses a cemented second group to correct aberrations across focal lengths.

A six-lens wide-angle optical system with optimized refractive power distribution and precise spacing.

Fourier analysis tailors scanning beam waveforms to resolve velocity uniformity bottlenecks across the field of view.

A segmented first lens group with negative and positive elements manages refractive power distribution to achieve a wide angle of view.

A structured antenna layer confines surface plasmons to generate localized modes that enhance energy out-coupling in light emitting devices.

A curved diffractive optical combiner directs image light into an eyebox area using a partially reflective diffraction grating.

Segmented eyeglass lens facets prevent stray light recollision by redirecting incoming beams, maintaining large field of view and exit pupil in thin lenses.

A ten-element optical imaging lens assembly uses aspheric surfaces and varied refractive powers to deliver high resolution and large aperture.

Replacing TiO2 with Nb2O5 eliminates transmittance degradation while maintaining a refractive index of 1.81-1.89 and low relative partial dispersion.

A six-piece camera optical lens design using segmented plastic and glass elements to achieve ultra-thin wide-angle imaging.

Cementing fourth and fifth lenses corrects chromatic aberration while optimizing focal length ratios to reduce total lens length.

A five-element camera optical lens uses specific curvature radius ratios to balance refractive power and reduce physical thickness.

A six-element imaging lens uses specific Abbe numbers to correct chromatic aberration.

A multi-element optical imaging lens uses variable gaps between elements to adjust focal length along the optical axis.

Alternating positive and negative lens elements correct aberrations to achieve large field of view and high resolution.

Computational optimization selects optimal material combinations to minimize chromatic aberrations across SWIR and LWIR bands.

Segmented photodetectors and periodic illumination reduce sensor size and power consumption while maintaining high angular resolution for fast eye tracking.

A folded optical path redirects image light through nested elements to reduce device weight and volume.

Moving the second lens group corrects camera shake without heavy motors, reducing device complexity while maintaining aberration performance.

An optical filter uses a volume-weighted absorption portion to correct color shifts across viewing angles.

A single-piece aspheric camera lens achieves wide-angle imaging through optimized curvature ratios.

Conjugate focal planes position emitters and detectors to eliminate beam splitter obstruction, restoring optical efficiency.

An external wide-angle lens design minimizes surface projection to reduce scratching risks while maintaining high image resolution.

A six-piece camera optical lens corrects chromatic aberrations while maintaining a total optical length under 5.74 mm.

Segmented lens groups with crossed cylindrical elements resolve size constraints in wide area persistent scanning imaging systems.

A seven-element wide-angle camera lens combines plastic and glass materials to achieve high definition imaging.

An image-forming lens shifts two independent groups to focus light onto an imaging plane.

A six-element optical lens design achieves high imaging performance with a compact form factor.