Non-Linear Optics TRIZ Cases

Controlled Tb-Y-Sc garnet composition suppresses thermal lensing and keeps 1064 nm beam diameter change within 10% at high laser power.

Modular extruded beams and pillars support larger, thinner display panels while distributing stress, limiting deformation, and reducing weight.

Independent dual light sources, partition walls, and a lens reduce light overlap in local dimming backlights to improve contrast and limit halo.

Connection-point pitch tuning in fragmented detection electrodes cuts moiré interference while preserving capacitive sensing and display quality.

Reflective grooves and a 0.5-4 mm diffusion plate spacing narrow light angles, reduce bright-dark interference, and improve local dimming contrast.

Near-vertical via-hole sidewalls cut opening area and wire coverage demands, enabling higher pixel density and stable signal transmission.

Grooves in the display panel lock the adhesive member in place, boosting circuit film bonding reliability and preventing driving failure.

A rotated gate and optimized channel layout improve IGZO TFT light stability without enlarging shielding areas that cut display transmittance.

An inorganic layer placed outside the bending area shields panel metal layers from oxidation and corrosion, improving display durability.

Selective reflection and transmission in a stacked light modulation layer expand wearable display color gamut while reducing color deviation.

A transition display region shortens signal paths around the light-transmitting area to ease wiring and reduce uneven AMOLED display.

Fluidic refractive-index tuning lets silicon geometric-phase metasurfaces work in transmission, enabling compact flat optics and refractometers.

A liquid crystal switch panel with shielding and light-transmitting layers toggles wide and narrow viewing angles while limiting information leakage.

Placing the touch electrode layer on the polarizer surface cuts LCD display thickness while simplifying electrode formation and lowering cost.

A segmented circuit cover links the circuit board and protective panel to keep thin displays electrically stable and durable.

Segmented liquid crystal regions cut ambient light from bright backgrounds, helping near-eye waveguide displays keep virtual images clear.

A reflective polarizer, partial reflector, and lens stack fold the light path to shrink head-mounted optics while improving image quality.

A sidewall trench transistor controls channel length in minimal area, cutting power and wiring resistance for dense displays.

Protective pillow bodies under signal wires isolate barrier groove edges, reducing moisture-driven short circuits in display panel array substrates.

By shrinking blue transmissive area and enlarging red or green areas, this FFS panel reduces bluish whites while preserving transmittance.

Controlling S value and channel thickness in a polycrystalline oxide semiconductor suppresses photodegradation while preserving mobility and stability.

A single semiconductor layer forms the active layer, source, and drain to cut photomasks and reduce data-line breakage in display substrates.

Inverted pyramidal recesses and a low-roughness incident surface diffuse direct light to suppress source images and keep thin backlights uniform.

A belt-shaped anti-reflection stack prevents capacitance insulating film steps, reducing LCD light leakage in COA active matrix substrates.

Saw-tooth phase modulation in a silicon waveguide replaces bulky AOMs, enabling compact, low-cost optical frequency shifting for easier beat detection.

A serpentine waveguide layout shortens the electrical transmission line, cutting high-frequency losses while preserving modulation efficiency.

Micro-slits split reflective patterns into connected portions, cutting dark-state light leakage and improving contrast uniformity in reflective panels.

An absorbing member intercepts reflected return light inside the optical isolator, cutting stray scattering and preserving isolation reliability.

A sandwich composite plate with inner and side frames boosts large thin display rigidity while limiting heat-driven deformation.

Layered circuit cover regions connect the board and protective panel to keep thin displays electrically stable and impact resistant.

A dual-package backlight structure uses a higher-conductivity outer package to remove heat from the light conversion member and protect light efficiency.

A porous and polycrystalline WO3 bilayer enables voltage-selective visible and NIR modulation for more stable smart glass control.

Voltage-tuned quantum well meta units use Mie and guided mode resonances to speed light modulation while delivering high reflectance and large phase shifts.

Selective switching between stacked touch electrodes and low potential cuts EMI radiation while preserving accurate touch coordinate detection.

A striped light shielding layer masks peripheral wiring in transparent displays, preserving electrical connections and uniform transparency.

Intersecting inner and outer cut lines with crack dams and grooves enable custom panel shapes while limiting crack propagation during cutting.

Using Pr2O3 with B2O3 improves short-wavelength transmittance while preserving Faraday-effect performance and easier vitrification.

Border protrusions in the reflective sheet lock into the lens hole to prevent separation, reduce mura, and keep display lighting uniform.

A larger anchor region in the first sealing part blocks moisture ingress, protecting light conversion material and preserving display visibility.

Integrated color resistance blocks and micro-cavities cut film layers and thickness in color e-paper while improving contrast and simplifying manufacture.

Integrated semiconductor optical amplifiers lower coupling loss and enable faster phase modulator testing without separate fiber alignment.

Pads and fastening members keep the display substrate grounded to the frame under heat, preventing lift-induced detachment and light unevenness.

A hybrid secondary lens and foamed diffuser plate with microstructures, particles, and microbubbles suppress MURA while boosting LCD backlight brightness.

Polar surface anchoring guides ferroelectric nematic alignment, enabling low-field director reorientation and stable monodomain electro-optic states.

Polarization splitting with a reflective polarizer and quarter-wave plate improves dual-image virtual display visibility in bright surroundings.

An interlocking 3D silicon-polysilicon modulator boosts phase shift in a smaller footprint while lowering optical insertion loss and power use.

Stronger frame adhesive structures around bonded layers resist thermal expansion mismatch, reducing warping and rupture in large display modules.

Inorganic films shield transparent TFT electrodes from moisture penetration, preserving active-layer integrity while maintaining light transmittance.

Curved and oriented reflector arrays redirect ambient light to widen viewing angles, reduce Moiré artifacts, and preserve contrast in reflective displays.

Patterned half-waveplate regions and segmented OLED optics preserve see-through transmittance while keeping virtual image displays compact.