Optical Elements TRIZ Cases

A spacer overlaps the transistor and first electrode connection portion to enhance holding force.

A virtual image display apparatus uses a refractive reflective optical member to correct aberrations and enhance resolution.

Time-multiplexed scanning forms high-resolution images using fewer micro LED lines, easing repair and boosting manufacturing efficiency.

Overlapping diffraction elements direct combined light to expand the exit pupil without increasing device size or requiring complex CPU processing.

A five-lens plastic optical system corrects chromatic aberrations through specific refractive power distribution and air gap constraints.

A zoom lens uses specific resin materials to stabilize optical performance during temperature changes.

A nine-element camera optical lens balances refractive powers and spacings to achieve large aperture performance while maintaining ultra-thinness.

Reduces decentering sensitivity and manufacturing difficulty by redistributing movement parameters across four lens groups.

A meta-lens fisheye design uses columnar structures to determine phase distribution for compact optical systems.

A color separating lens array directs incident light onto specific pixels using diffraction and refraction.

Self-service imaging captures calibration patterns to correct optical disparity, eliminating expensive downtime and external equipment costs.

A four-element slim lens assembly with specific curvatures resolves the trade-off between miniaturization and resolution.

Segmented lens groups with independent movement reduce overall weight while preserving high optical performance across the entire zoom range.

A nine-piece camera optical lens design corrects on-axis and off-axis aberrations through specific refractive power distribution.

Nested diffractive lens arrays in a waveguide expand the exit pupil area, resolving the trade-off between device portability and multi-directional viewing.

A seven-element optical assembly uses aspheric surfaces and inflection points to correct aberrations.

A six-element imaging lens assembly uses aspherical surfaces to achieve compact telephoto performance.

A head-mounted display optical assembly uses rotationally asymmetrical free-shaped surface lenses to correct chromatic aberration.

A five-element imaging lens uses aspheric surfaces to maintain a low profile while delivering high brightness.

A six-element camera optical lens design balances refractive powers to achieve large aperture and wide angle capabilities.

Integrating a lens with a refractive reflective optical member corrects aberrations and enhances resolution over a wide angle of view.

Incorporating cyclobutanediol with phosphate esters slows crystallization kinetics, enabling amorphous article formation without bubbling.

Five-element imaging lens assembly with aspheric surfaces corrects spherical aberration while reducing total track length.

A polarizing film uses isotropic dyes in protective layers to enhance color perception without complex alignment steps.

Segmenting the optical path into four elements with optimized refractive indices resolves the trade-off between extended focal length and reduced light entry.

An optical member corrects the inclination of a light emission surface to reduce aberration on an exit pupil.

Segmenting the lens into five groups reduces moving mass in the focus group, enabling fast quiet operation across a wide focal range.

Inverting the retrofocus arrangement resolves the contradiction between long back focus and compact size, suppressing angle of incidence on the imaging device.

A wire grid polarizer recycles polarized light through reflection to boost optical efficiency in display panels.

Segmented optical imaging lens assemblies optimize F-number parameters for finite and infinite distances, improving imaging quality while reducing lens size.

A light blocking sheet uses micro concave structures on its inner hole periphery to scatter incident light and reduce reflection area.

An eight-lens optical imaging assembly uses specific lens spacing to achieve a compact structure.

Segmented translucent cover and angled shading stop block solar radiation to prevent blinding while protecting internal components.

A zoom lens moves six segmented units to achieve high zoom ratios and wide angles of view.

A light combining element merges single-color and dual-color Micro-LED emissions into a full-color image for AR projection assemblies.

UV irradiation forms cracks in the pre-hydrophobic layer, separating it from the wall to reduce manufacturing complexity and time.

Synchronization detecting unit receives light beams through no-power lens portions to determine write timing.

A six-piece camera optical lens uses alternating positive and negative refractive powers to correct chromatic aberrations.

Segmenting optical functions across seven elements resolves the trade-off between image quality and compact volume in modern electronic devices.

A polymerizable optical composition incorporates a specific ultraviolet absorbing agent and radical initiator to form a transparent lens material.

Positioning four coupling bars along resonant vibration nodes minimizes dynamic stress on the bars, preventing endurance degradation in MEMS optical deflectors.

A nine-lens camera optical lens design corrects on-axis and off-axis aberrations through optimized refractive power distribution.

A four-element optical imaging lens design reduces volume while maintaining high imaging quality through specific surface curvatures.

Pinlight array generates overlapping light cones to expand field of view beyond twenty degrees without bulky freeform optics.

Interlocking comb electrodes boost torque at low voltages while maintaining linear response and mechanical robustness.

A six-piece plastic camera optical lens design minimizes total length while maintaining high imaging quality.

Opposing cable routing on the video-image substrate resolves wiring complexity in head-mounted displays while maintaining compact device volume.

Segmented lens elements with specific refractive powers enable wide angle of view and high resolution for far objects while maintaining compact device size.