Optical Elements TRIZ Cases

Buffer layer absorbs stress from protective coatings, preventing crack propagation and maintaining glass bend strength on non-planar surfaces.

Positioning rotation means at the folding mirror support edge adapts light rays to user size without increasing device complexity.

Opposite polarity bias voltages applied to piezoelectric sensor electrodes detect mirror displacement via connection beam torsion.

Integrating a color filter and wavelength conversion pattern reduces structural complexity while improving color accuracy and viewing angle performance.

An eight-element imaging lens assembly uses aspheric surfaces with off-axis critical points to correct optical aberrations.

A seven-element camera optical lens uses free-form surfaces to correct off-axis aberrations and enhance imaging quality.

A five-lens optical configuration uses specific refractive powers and aspherical surfaces to maintain high resolution in compact spaces.

A seven-element camera optical lens resolves the trade-off between ultra-thin miniaturization and wide-angle imaging quality through precise curvature control.

Field evolving cavities with 1D-1D curved optical structures modulate light paths to eliminate eye strain from close viewing zones.

A polycarbonate resin composition blends a copolymer and phosphorus stabilizer to enhance impact resistance and hue stability.

A cosmetic shroud covers forward-facing display inactive areas to conceal rear-facing optical components.

A catadioptric optical configuration produces a magnified curved intermediate image using two curved mirrors and a polarization prism.

Optimizing the fifth lens curvature and refractive power distribution resolves brightness and thickness trade-offs in wide-angle camera modules.

A condensing lens converts signal light into parallel beams before reflection from a curved half mirror.

A three-dimensional film layer enables antireflective surface structures on uniform optical materials.

Thermoforming a flexible polymer substrate into a curved shape compensates for angular shift, preventing cracking and maintaining optical performance.

A four-piece infrared lens system uses specific refractive power distributions to achieve wide field of view and high resolution.

A five-lens imaging system uses air gaps between single lenses to achieve a wide angle of view and short total length.

A seven-element camera optical lens combines glass and plastic materials to correct chromatic aberrations.

A movable second lens group switches a GEO optical system between wide and narrow fields of view to reduce coverage time.

A nose pad with a rotation adjustment mechanism changes posture to fit different nose shapes.

Aspherical surfaces in a two-unit zoom lens system correct optical aberrations, resolving the trade-off between image quality and reduced thickness.

A nine-element camera optical lens balances large aperture and ultra-thinness by optimizing focal length ratios to resolve imaging quality constraints.

A refractive layer with a concave surface concentrates light emission while quantum dot layers filter wavelengths to enhance optical purity.

A three-element wide-angle lens uses specific refractive power distribution to expand the field of view.

A holographic optical element reflects collimated infrared light to uniformly illuminate the user's eye for stable tracking.