Optical Elements TRIZ Cases

This case uses closed curved transflective surfaces to extend floating height while preserving image integrity and central visibility.

A four-lens imaging configuration balances wide field of view, high resolution, and correction of coma, astigmatism, and distortion.

Pneumatic chambers dynamically redistribute facial pressure, helping head-mounted devices fit varied facial structures during extended wear.

Aspherical surfaces and lens-power ratios support compact camera packaging while preserving imaging quality and reducing aberrations.

Nonlocal metasurfaces shorten optical paths, while digital processing compensates aberrations for high-quality computational imaging.

Multiple focus lens units move along different loci to improve close-range focusing while suppressing spherical aberration and coma.

Wavelength conversion and selective films limit microLED light mixing without partitions.

Separate lens-group paths correct aberrations while limiting focus breathing.

This optical system separates wide-angle correction from focusing to support compact macro imaging, autofocus, and aberration control.

A positive-negative-positive lens layout separates zoom motion from fixed aberration correction to stabilize optical performance.

Seven-lens optics balance compactness, resolution, and aberration control.

This fluorophosphate glass balances visible clarity with near-infrared blocking while addressing thin-filter absorption and melt uniformity.

A layered polarizer structure creates asymmetric display emission angles, limiting windshield projection and unintended viewing.

Multiple scanners arranged around a central axis combine magnified scan angles to project images across inattentive regions.

Non-rotationally symmetric curved optical members redirect light in a guide, improving brightness and viewing angle.

A six-element optical layout uses aspheric surfaces to correct aberrations while balancing aperture, sensitivity, field of view, and size.

Negative and positive lens groups improve image quality, distortion, and temperature stability.

An AlN layer between Ta2O5 and Si:H improves interface durability, reducing chipping and delamination during singulation.

A six-element lens with a prism redirects the optical path, supporting wide-angle imaging, large aperture, and chromatic correction.

A nested lens structure preserves optical focus in a compact head-mounted module, while filtered venting protects components and supports airflow.

An optical splitter divides one display's image light into two beams, reducing near-eye device size, weight, and power use.

This optical lens uses mixed refractive forces, aspherical surfaces, and tuned curvature ratios for compact, wide-angle imaging.

A metalens, ring aperture, and aspheric lens improve relative illumination and field of view in a compact far-infrared camera.

A stepper motor rotates the webcam polarizer from detected head angles to reduce facial reflections and stabilize image quality.

This case nests a retractable strap between optical modules, improving headset portability while protecting the modules during storage.

A stacked micro image text and lens array structure modulates light through refractive media for compatible stereoscopic display.

A six-lens layout uses tailored refractive powers and surface shapes to correct aberrations while keeping camera modules thin.

A six-element lens balances refractive power, curvature, and glass index for day-night confocal imaging in vehicle laser radars.

Six-lens optics balance image quality, sensitivity, field of view, and compact size.

Resonant frequency control helps MEMS mirrors reduce flicker in Lissajous scanning.

Written waveguide markings enable precise alignment and reduce color shifts.

Seven lenses balance optical performance, brightness, and stabilization in compact devices.

This case uses powered reflective optics and a partially reflective element to reduce weight and distortion in see-through HMDs.

Alternating lens powers and aspheric surfaces support large-aperture, ultra-wide imaging in an ultra-thin camera lens.

This case combines glass or crystal substrates with metalens arrays for beam splitting, focusing, polarization conversion, and filtering.

Siloxane hydrogel balances oxygen permeability, water content, and hydrophilicity.

This optical case uses segmented lens groups and tuned focal lengths to exceed an 80-degree field of view with reduced aberrations.

This case combines a fused aromatic monomer, acylphosphine initiator, and amine to preserve transmittance in cured lenses.

Specified focal, curvature, and thickness ratios correct aberrations in a seven-element lens for thin, wide-angle cameras.

Separate heat sinks route imaging and processor heat to the frame and temples, reducing localized heating and thermal throttling.

Aspheric surfaces and tailored refractive powers balance compact telephoto size with brighter, wider-field, higher-quality imaging.

A retractable shading element covers the lens, reducing external light without raising display brightness in bright environments.

A protruding second bank layer forms an undercut, reducing pixel-electrode gaps and simplifying light-emitting element separation.

Focal-length, spacing, and curvature constraints support a compact seven-lens camera optic with wide-angle, large-aperture imaging.

Metalens correction enables compact far-infrared imaging without inflection-point lenses.

A sliding part drives clamping ends to position user-provided lenses, preventing contact wear and light leakage in head-mounted displays.

Separate cooling and cleaning hardware adds cost and space; this case routes air through heat dissipation to clean sensors.

Segmented transmission and blocking areas stabilize light blockers and preserve color separation in display devices.

Optimized dielectric dispersion couples cathode-interface SPPs, improving OLED light out-coupling while preserving barrier resistance.

This case uses a movable spherical element between cylindrical lenses to correct astigmatism and stabilize anamorphic ratio.