Non-Linear Optics TRIZ Cases

A pixel electrode structure with layered metal oxide components.

Segmented sub-electrodes in a liquid crystal lens enable precise focus control while reducing driven circuit complexity and electric field interference.

A flat panel display adjusts color filter substrate resist thicknesses to maintain preset transmittance ratios across sub-pixels.

Adjustable astigmatism lens units and divergence optics modify beam parameters through precise tilting and positioning.

Segmented slit electrodes compensate for alignment errors between the polarizing plate and rubbing direction, maintaining uniform brightness.

A liquid crystal lens device uses matrix electric fields to generate divisional scenes on a single display screen.

Inclined second light-emitting elements on a chamfer compensate for light at the splicing seam, reducing dark shadows in large Mini LED displays.

A flexible cholesteric liquid crystal writing surface creates transmissive marks via pressure and erases them through mechanical flexing.

Symmetrical slanted pixel electrodes compensate for refractive index anisotropy without domain division, preventing color shift and enhancing aperture ratio.

A patterned intervening layer with a star-shaped structure modifies the electric field distribution within liquid crystal display pixels.

A vertical alignment display device uses C-plate and A-plate optical units to gather dispersed polarization states of colored light into an extinction point.

Convex shield electrode tints boundary light leakage into blue, minimizing external emission and enhancing contrast ratio.

A black matrix structure with predefined openings and inner shading patterns reduces combined width.

A light blocking assistance member covers peripheral contact holes in a thin film transistor array panel to prevent stray light reflection.

A supercontinuum light source merges distinct spectral channels through a beam combiner to deliver broad optical output.

An elastic component moves a heat sink toward or away from LEDs based on ambient temperature, preventing overheating and color shifts without electrical power.

A tunnel-shaped cavity display apparatus uses a sacrificial layer to define fluid-fillable cavities between electrodes on a single substrate.

Liquid crystal pi-cells transform linearly polarized light into orthogonal states, eliminating chromatic color contamination in stereoscopic displays.

Varying insulating layer thickness in seal and liquid crystal regions equalizes wire stress during bending, preventing breakage.

A backlight unit uses a distance maintaining portion to space optical sheets from the diffusion plate for uniform light distribution.

Second electrode climbs over common line step to prevent discontinuity and burn-in while slits enhance transmittance.

A pixel electrode overlaps floating and common-voltage electrodes to create three luminance levels with one transistor, resolving visibility limits.

Optically anisotropic layers with wavelength-specific positive and negative retardation values reduce color shift and improve viewing angle characteristics.

Controlled lamination parameters minimize structural distortions in the mirror assembly, resolving the trade-off between high display luminance and clear reflected views.

A quantum optical switch uses evanescent coupling between linear and nonlinear waveguides to enable ultra-fast broadband all-optical switching.

Slits and insulating layers on electrodes generate localized inclination points that accelerate response time during high-tone to low-tone switching.

Segmented LED modules with lenses direct light to specific liquid crystal panel areas, reducing component count while maintaining high contrast.

Multi-scan touch sensing techniques subtract blanking-period data from active-period readings to eliminate display-to-touch crosstalk noise.

A first recess part in an organic layer increases the relative contact area between a frame sealant and a substrate.

A reflection plate integrates a printed circuit board to route light emission diodes through dedicated holes.

Segmented PCB design with asymmetric light source arrangement improves thermal conduction while simplifying chassis installation via hook mechanisms.

A reflective grating film layer and uniaxial optical films with refraction portions redirect light energy to improve display viewing angles.

A liquid crystal display pixel electrode uses slit patterns and corner control regions to align molecules.

Common electrode cutting patterns overlap gate lines to increase aperture ratio and light transmittance in liquid crystal displays.

Electrically-controllable lenses adjust optical power within head-mounted displays to correct vision impairments without prescription eyewear.

A liquid crystal lens panel uses specific refractive index and dielectric constant ranges to separate light paths for left and right eyes.

Segmenting the common electrode into a main strip and symmetric branches reduces width to increase transmittance while maintaining uniform electric fields.

A curved liquid crystal display panel uses a compensation layer with filling molecules to maintain uniform thickness across the middle and edge regions.

A transflective liquid crystal display panel uses an electrode structure with alternately arranged common and pixel electrodes to enlarge the display view.

Concave and convex electrode structures suppress dark line formation by improving transmittance uniformity and voltage responsiveness.

Asymmetric bent lead lines and optimized GSSG structures reduce common mode noise while maintaining high-frequency characteristics.

A polarizing plate with a pattern layer featuring optical patterns and flat sections diffuses light to enhance display side contrast ratio.

A pixel electrode contact structure in thin-film transistors liquid crystal displays reduces electrical resistance at the connection interface.

Local gold application on silver or copper electrodes ensures stable connections without increasing conductor loss for high-frequency signals.

Segmenting thick color resist layers allows separate via manufacturing, preventing light leakage and ensuring reliable electrode contact.

Strategic hollow structures in pixel electrodes equalize lateral capacitances, eliminating mura caused by uneven data line interactions.

Glass dummy blocks with lower hardness prevent electric discharging from pyroelectric effects, maintaining optical signal quality and reducing tool abrasion.

Heat radiating structures on a mounting frame communicate with outer frame outlets to dissipate thermal energy from display modules.

Bow-tie radiator arrays expand operational bandwidth by dynamically adjusting phase and magnitude across wide frequency ranges.