Non-Linear Optics TRIZ Cases

Spacer geometry and liquid crystal tilt above 9° reduce poor alignment and residual phase retardation, cutting dark-state light leakage.

Optimized step angle, taper, and alignment-film wettability stabilize liquid crystal orientation to cut light leakage and protect contrast ratio.

Separate through-holes and organic and inorganic insulating films isolate touch-display electrodes to reduce light leakage and shorts.

Groove etching and a dual-use planarization layer protect bending-area wiring from cracks while simplifying display panel fabrication.

A dual-LCD stack boosts luminance and power efficiency by removing the color filter from the second panel and timing backlight colors.

Narrower blue pixel branch electrodes and wider gaps reduce side-view gamma mismatch, suppress blue shift, and preserve LCD transmittance.

A separate touch-electrode substrate cuts resistance, preserves visible transmittance, and maintains capacitive input sensitivity in thin displays.

Metal-oxide transistor layers and transparent conductive regions raise aperture ratio and light transmission while keeping display power use low.

A light-transmitting substrate lets the LED sit within the screen footprint, cutting PCB and bezel size while preserving display illumination.

A shield layer between the data line and TFT components cuts parasitic capacitance to stabilize pixel potential and keep luminance uniform.

A bent sealing portion extends into the receiving area to increase adhesive contact, blocking light conversion material leakage and impurity entry.

Movable off-axis mirrors adjust focal length while holding beam position and avoiding the transmission loss and chromatic aberrations of refractive optics.

Alternating high- and low-index film layers cut ambient light reflectivity and improve display contrast without excessive thickness.

Adjusting spacer sidewalls and keeping liquid crystal tilt above 9° cuts residual phase retardation and dark-state light leakage.

A lithium-aluminosilicate glass composition balances ion exchange, fracture toughness, and formability for thin cover glass with better drop resistance.

Adjusted sub-pixel capacitor ratios and color resist thickness align common voltages to suppress LCD crosstalk and afterimage.

An integrated e-ink layer lets a transparent OLED switch to opaque mode for higher contrast and readability without losing on-demand transparency.

An intermediate carrying substrate and light-controlled laser release align Micro LEDs for one-shot transfer to all sub-pixels, reducing time and cost.

A dielectric gap lets BTO-clad SiN waveguides deliver efficient visible-light phase modulation while limiting propagation and coupling loss.

Microlens light extraction and electrochromic shading improve quantum dot display brightness while reducing ambient light interference.

By routing data connection lines through layered vias in the display region, this case cuts fan-out space and enables narrower lower bezels.

Vertical waveguide coupling integrates lasers with LiNbO3 electro-optic modulators to improve optical link stability, scalability, and cost.

Optical resonator neurons provide strong nonlinear activation for all-optical AI, cutting power use and optical noise while preserving accuracy.

A mixed backlight lens layout combines anisotropic reflection and refractive lenses to improve luminous efficiency and panel luminance uniformity.

Shifted black matrix positions in peripheral display regions curb angular light leakage and color shift in compact optical assemblies.

A beneath-display sensor and sensing path let electrophoretic screens detect light direction without enlarging the bezel.

Combining pixel electrode, anode, and source-drain functions in one conductive layer cuts TFT array masks, cost, and process complexity.

Two-mask patterning creates stacked cholesteric color layers with different spacer thicknesses, cutting reflective display process complexity and cost.

A concave adhesive-molding interface relieves panel expansion stress while preserving narrow bezel protection and display durability.

Overlapping electro-optic electrodes reduce fringing fields and fly-back effects to improve non-mechanical beam steering efficiency.

Dividing pixel light-shielding into separated portions reduces signal crosstalk while preserving contrast ratio and image quality.

By moving spacers outside TFT second electrodes in the gate driver area, this LCD panel layout cuts stress, metal precipitation, and damage.

A wavelength-selective reflective layer blocks red light absorption in the substrate while preserving blue-green transmission for accurate LCD color.

A liquid crystal viewing angle control panel switches privacy and share modes while preserving luminance and smoother boundary image quality.

High-k or high-mobility electrodes in a sandwich waveguide phase shifter cut power use while improving optical signal control.

Matching transistor channel width to electrode wiring length simplifies touch-display routing and helps reduce semiconductor chip size.

Placing multi-gate TFT channel regions under inter-pixel wiring raises aperture ratio, keeps openings simple, and lowers current density.

A layered silicon photonics chip uses optical loop-backs and CMOS feedback control to cut loss, latency, noise, and footprint.

Voltage-controlled electrodes and insulating members steer light without mechanical parts, increasing phase difference and refraction angle.

Buffer and counterweight features keep Micro-LED light beads from rotating or flipping during mass transfer, improving alignment accuracy.

A glass core substrate routes optical and electrical paths to integrate lasers and modulators with lower loss, smaller footprint, and better thermal control.

A stacked relay and capacitor electrode layout raises LCD retention capacitance while avoiding the yield loss, leaks, and broken wiring of conventional designs.

Stacked high- and low-index layers suppress ambient light reflection on display panels while improving contrast and reflected color balance.

An organic insulating buffer structure spreads chip-mounting pressure to prevent pad and substrate cracks and cut display panel defects.

A stepped front plate overlaps the bezel to conceal adhesive lines, improving the off-screen appearance without costly assembly changes.

Black and transparent particles in a light shutter curb IPS light leakage during black display while preserving luminance and viewing quality.

Independent conductive divisions enable zoned PDLC light adjustment while removing one electrode layer and avoiding PVB penetration issues.

A grounded shielding electrode with an RC time constant below touch pulse width suppresses electrostriction and eliminates screen squeal.

Layered phosphors in the lamp cover and optical sheet replace the quantum dot sheet to improve color reproduction, cut size, and lower cost.

Varying strip-electrode and alignment directions across stacked liquid crystal cells reduces periodic overlap and suppresses moire.