Optical Elements TRIZ Cases

Segmenting smart glasses into modular front and rear assemblies with temple cavities resolves structural complexity while maintaining wearing comfort.

A display device manufacturing method reduces the number of masks required during production.

A zoom lens with negative and positive groups achieves high resolution and large aperture.

A five-lens camera optical lens design corrects aberrations using specific refractive power distributions and aspherical surfaces.

Segmented movable lens groups control aberration fluctuations during zooming, enabling a wide angle of view with compact magnification side lens diameter.

Differential capacitance sensing eliminates parasitic interference to monitor MEMS mirror position accurately during scanning cycles.

Alternating positive and negative lens powers correct chromatic aberration while expanding the field angle in compact mobile devices.

A seven-lens optical imaging system uses aspheric surfaces to correct aberrations and achieve high resolution.

An asymmetric correction lens adjusts laser scanning line curvature while suppressing sub-scanning shifts caused by assembly inaccuracies.

Segmented straps redistribute weight to reduce cheek pressure, resolving adjustment difficulties while maintaining a secure fit.

Relocating the optical engine to the waveguide side improves mechanical stability and alignment precision while minimizing device weight and thickness.

Nested cover lids driven by a single source reduce dashboard depth while preventing protrusion above the instrument panel.

A six-element optical system uses aspheric surfaces and an inflected sixth lens to correct off-axis aberrations.

A nine-lens camera optical lens corrects spherical aberration and field curvature to achieve large aperture, wide angle, and ultra-thinness.

Strain gauge sensors detect support structure deformations in head-mounted displays, enabling control circuitry to apply corrective digital image warping.

Optimized retroreflector angles redirect external light away from the display panel, ensuring high contrast and stability for air floating video.

A five-element imaging lens uses aspheric surfaces to correct aberrations and maintain high resolution.

Adjusting combiner spacing within defined ranges prevents virtual image gaps and excessive overlap, enhancing display surface completeness and visibility.

Dynamic coordination between sensor inclination and lens position translates the focal plane while maintaining a constant depth range.

Actuators shift projector positions to create dynamic focal planes, resolving depth perception contradictions in augmented reality overlays.

Optimizing refractive indices across eight lenses corrects on-axis and off-axis aberrations, enabling ultra-thin wide-angle imaging with large apertures.

An eight-element optical imaging lens design uses precise surface curvature control to correct aberrations and maintain high imaging quality.

A five-element imaging lens uses a movable first lens to enable auto focusing and compact design.

A seven-element camera lens design distributes optical power to achieve an ultra-thin profile while maintaining a large effective image plane.

A modular multi-feedback controller structure filters predefined frequency modes and minimizes signal deviation to manage micromechanical actuator dynamics.

Integral movement of positive lens groups corrects spherical aberration and distortion across magnification ranges while maintaining mechanical stability.

A polymer membrane covers the interpupillary-distance adjustment mechanism to maintain a consistent number of creases across the full movement range.

A segmented thin-film interference filter uses repeat unit blocks to maintain optical density while allowing bending without cracking.

Cementing adjacent lens elements merges surfaces, reducing treatment needs while maintaining a high effective focal length ratio.

A three-lens imaging system positions an aperture diaphragm to maintain telecentricity and reduce manufacturing sensitivity.

Blending two polycarbonate resins with defined refractive indices balances aberration correction against chromatic aberration in optical lenses.

Segmenting refractive power across four groups allows high zoom ratios within compact dimensions, resolving the trade-off between size and optical performance.

A six-element imaging lens uses specific refractive power distribution to maintain a large aperture in compact portable devices.

A meta lens display device integrates refractive and diffractive layers to convert wide emission distributions into narrow ones.

Segmented lens groups with specific focal length ratios correct aberrations while maintaining compact size for high-pixel density sensors.

Segmenting the optical system into front and rear groups reduces overall lens length while correcting spherical aberration for high pixel count sensors.

A movable image source adjusts exit pupil position relative to user eyes via grating areas.

A spatial filter modifies the phase pupil function to extend imaging depth.

A sub-wavelength periodic grating modifies the emission cone of an optoelectronic device exit surface.

A headset receives state information from external devices to present content.

Multiple holographic outcouplers reflect polarized light to expand the wearable display eyebox.

Eight lens elements correct aberrations to increase incident light and maintain compact size in dark environments.

Seven-element camera optical lens design corrects chromatic aberration while maintaining ultra-thin total optical length constraints.

A four-lens camera optical lens design uses specific curvature radius ratios to correct spherical aberrations and reduce sensitivity.

A head mounted display uses a light path converter to redirect sub-image light toward the lens assembly.

Resin filling concave portions prevents large dents on mirror surfaces, maintaining high light utilization efficiency.

A five-element infrared lens system uses specific refractive power combinations to achieve wide field of view and reduced distortion.