Optical Elements TRIZ Cases

Six-element wide-angle lens assembly uses aspheric surfaces and inflection points to correct aberrations while maintaining compact size.

Segmenting refractive power across seven elements with inflection points balances image quality against device size constraints.

A zoom lens design using specific lens group arrangements to achieve high variable power ratios.

A thicker support structure on the movable portion prevents mask contact during deposition.

Segmented bonded lens groups resolve the contradiction between small endoscope volume and structural complexity while expanding depth of field.

A mid-wave infrared lens assembly uses Germanium and Silicon elements to correct monochromatic and chromatic aberrations.

A corrector plate placed between the collimator and eyepiece pre-distorts off-axis light to maintain image clarity in augmented reality headsets.

A zoom lens design merges focusing and vibration reduction sub-groups within a single optical unit to reduce device complexity.

Five-element infrared lens assembly uses specific surface curvatures to capture high-intensity images while correcting aberrations for compact systems.

Segmented aspheric lens groups correct edge distortion in wide-angle imaging, maintaining image quality across a 180-degree field of view.

Actuators elastically deform a micromirror to maintain a flat reflection surface, reducing dynamic deformation without increasing mass moment of inertia.

A curable composition containing episulfide and aromatic heterocyclic compounds polymerizes into a cured product with high refractive index.

A wearable image display controller adjusts self-location estimation frequency based on vehicle compartment detection.

A six-element lens assembly uses aspheric surfaces with off-axis inflection points to correct optical aberrations across the field of view.

A five-element camera lens corrects longitudinal and lateral aberrations through optimized refractive power distribution.

Switchable polarization retarders and gratings adjust hologram focal length, resolving stereopsis focus conflicts in wearable displays.

Aligning the mirror support structure center of gravity with the rotation axis prevents ringing oscillations that degrade image quality.

A transparent substrate display region uses reflective scattering elements to redirect light for image generation.

Aspheric curvatures on six lens elements expand the field of view while reducing assembly size and manufacturing costs.

Segmented laser scan rows modulate optical power to control temperature and prevent overheating of the fiber tow and underlying layup.

A five element imaging lens uses specific surface curvatures and air gaps to reduce system length below 4 mm.

A six-lens image capturing assembly uses specific refractive powers and aspheric surfaces to focus light on a sensor.

Wavelength-selective glass transmits 315 to 400 nm light while blocking shorter UV rays.

A seven-piece camera optical lens combines plastic and glass elements to achieve ultra-thin wide-angle imaging capabilities.

Curved holographic optical elements embed display functions within eyeglass lenses to combine holographic and geometric optical powers.

A six-lens imaging assembly achieves telephoto effects through precise refractive power distribution.

Incorporating sulfonic acid components into silicone hydrogels enables lysozyme adsorption without compromising oxygen permeability.

Segmented lens elements with controlled focal ratios shorten total length while correcting spherical aberrations and coma for high resolution.

Segmented lens elements with tailored curvature radii resolve the trade-off between high image quality and compact total track length.

A polarizing beam splitter and quarter wave plate separate input and output light paths, reducing optical length and preserving resolution.

A six-lens imaging system with specific refractive power arrangements corrects optical aberrations in compact devices.

Cemented fifth lens resists temperature variations while maintaining wide field of view and small F-number.

A rear attachment lens extends focal length using specific lens group configurations.

Optimized curvature ratios in a five-lens structure balance large aperture and wide angle requirements against ultra-thinness constraints.

Compensation electrodes apply voltage to counteract gravity, maintaining meniscus shape across orientations.

Aspheric eighth lens with inflection points corrects axial chromatic aberration while reducing total track length for downsized cameras.

A head-mounted display system dynamically restricts the visible field of view using real-time sensor data to adjust visual output.

Volume holographic optical elements extract specific viewing angles from a light field image, expanding the exit pupil area for multi-directional viewing.

A three-group imaging lens moves only the second group to reduce weight while maintaining optical precision.

A seven-element camera lens design achieves ultra-thin form factors while maintaining wide-angle optical capabilities.

Dynamic image pre-distortion compensates for optical aberrations from headset optics and user eyes, eliminating retinal distortions.

A three-unit image pickup optical system segments refractive powers to correct off-axis aberrations and maintain high resolving power.

Aspheric fifth lens element reduces light divergence and incident angle sensitivity, stabilizing the inverse telephoto structure.

Segmented lens elements with tailored curvatures reduce overall length and broaden the field of view without degrading imaging quality.

High refractive index materials in positive lens units reduce curvature of field while maintaining compact overall size and flat image field.

A zoom lens design uses dynamic interval adjustment between positive and negative lens units to achieve high optical characteristics.