Non-Linear Optics TRIZ Cases

A support-stage barrier wall confines adhesive during narrow-frame assembly, reducing overflow into the display region and edge dark lines.

Microstructured concave regions isolate quantum-dot segments while a barrier layer limits water vapor and oxygen ingress for durable color output.

Transparent capacitor electrodes preserve charge capacity without blocking pixel light, supporting high-aperture displays.

Polarizers and a voltage-driven liquid crystal panel switch between narrow privacy and wide share modes while maintaining luminance without added power.

Staggered upper and lower touch signal lines maintain connectivity while reducing capacitance and preventing pixel-edge light leakage.

Thin organic insulation reduces light absorption and scattering while preserving luminance in polymer liquid crystal displays.

A planarization opening creates a thicker local alignment layer that improves adhesion and buffers peripheral stress.

Temperature, wavelength, and fabrication shifts can lower extinction ratio; split polarization paths and reflection compensate rotation-angle drift.

Orthogonal optic-axis alignment in dual compensation layers offsets phase retardation to reduce light leakage and color cast.

Electric-field control reorients the liquid crystal layer to switch viewing angles while limiting light loss in displays.

Curved and asymmetric spacer patterns maintain uniform substrate gaps while reducing diffraction and strengthening optical-device construction.

Reflective and transmissive pixel regions balance outdoor viewability with indoor brightness, while λ/2, λ/4, and positive C plates improve viewing angles.

Shared touch bridges compensate for temperature and parasitic-capacitance variation, improving sensing accuracy and preventing ghost touches.

Angled bus bar arms distribute current across electrochromic devices to limit hot spots, curtain effects, and uneven optical switching.

Opaque color-rendering layers block metal reflection; embedded light valves reopen optical paths and preserve metallic sheen under varied lighting.

Resistance-tuned oxide semiconductors balance fast driver operation, low pixel leakage, and stable switching on one substrate.

Multiple liquid crystal layers and polarizers block dark-area light leakage, helping LCD displays approach OLED-level contrast.

Switchable haze makes the projection display transparent when off, then diffuses projected light for visible images when on.

Segmented common-electrode layers linked by bridge patterns and spacers reduce voltage deviations while preserving storage-capacitor function.

Overlapping holes in layered insulation align with a conductive repair path for laser cutting and welding, simplifying signal-line repair.

Charged pigment particles in non-polar liquid microcells enable rapid light modulation while limiting diffraction and particle settling.

A reflective three-layer wiring structure limits heat from titanium nitride light absorption while supporting corrosion protection and pixel-electrode coupling.

Three-plate vertical stacking increases pixel capacitance without expanding horizontal area, helping preserve resolution and reduce jump voltage differences.

Through-substrate electrodes, spacers, and bridge pads help detect touch capacitance without TN display capacitance shielding.

Different liquid crystal spacing, birefringence, and alignment directions improve anti-peeping at viewing angles below 40 degrees.

A segmented color-resist layout places the third color resist across selected sub-pixel regions to mitigate yellow white-point shift.

Connecting the metal oxide semiconductor layer to the data line through a via hole expands pixel aperture while supporting reliable electrical connection in VR displays.

Step-shaped dielectric side surfaces reduce reflection artifacts in a charged-particle light panel while preserving switchable transmission and blocking.

Independent control of two guest-host liquid-crystal cells reduces transmission while keeping chromaticity stable across darkened states.

Extension portions stabilize electro-optic polymer layer formation by securing electrode intervals and suppressing dielectric breakdown.

Conventional positron sources are large and complex, while Kerr-effect waveguides separate and accelerate electron–positron pairs for energy conversion.

Dielectric patterns, spacers, and charged-particle ink balance external-light blocking with clear transmissive viewing.

This backlight unit uses a reflective ring and perforated sheet to redirect light and improve luminance uniformity.

Vertical dual channels shrink TFT area while preserving current characteristics.

A through-hole adhesive layer replaces protective adhesive, simplifying dispensing and improving encapsulation and display-panel yield.

A color filter substrate uses blue resist coverage to adjust transmitted-light b* values, reducing yellow shift while increasing brightness.

This display case uses region-specific substrate gaps and a dam to maintain bonding and moisture protection with a narrower bezel.

Learn how SiO2 alignment films extend across the LCD sealant interface to strengthen bonding and limit moisture ingress.

This case uses antinode positioning and cholesteric liquid crystal layers to improve OLED light extraction, brightness, and life.

An overlapping electrode layout limits disclination lines in the aperture, improving transmissivity and reducing backlight power demand.

A variable-transmittance mask forms flat and raised overcoat regions, integrating spacers while avoiding dissimilar-material interfaces.

A skin-layer optical film uses alternating polymeric layers to reduce spectral ringing while transmitting infrared light for sensors.

This display panel uses spacers and bridge pads to connect touch electrodes across the liquid crystal layer for TN sensing.

A stacked waveguide, encapsulation layer, and heater form trench flanks to improve thermal confinement and modulator density.

An electrode connection part inside the second substrate hole maintains direct contact while reducing bezel space for display components.

Rotated strip-electrode directions across liquid crystal cells reduce moire interference and control light refraction.

A relay electrode and stacked insulating films preserve insulation and pixel connections as LCD pixel pitch shrinks.

This case combines uniform excitation light with conductor temperature control to suppress instantaneous voltage-dependent lens effects.

Orthogonal convex lens members shape light paths across the display to support multi-view output while reducing reverse viewing.

Periodic notches and differential nanobar bias tune slot-resonance wavelength and quality factor, addressing delocalized modes.