Non-Linear Optics TRIZ Cases

Electrochemical deposition forms quantum dot color filter layers on a COA array substrate using chitosan and pH-sensitive solubility.

A mounting substrate uses stacked terminal portions to reduce formation area while maintaining electrical connectivity.

Double V-shaped bent electrode tips suppress display coloring and prevent light leakage by stabilizing liquid crystal domains at pixel boundaries.

An alignment film with a monotonic refractive index gradient minimizes reflection loss at optical boundaries.

A liquid crystal display uses dual pretilt angles to switch between narrow and wide viewing modes via bias voltage application.

A stack of switchable Pancharatnam-Berry phase optical elements processes unpolarized image light into orthogonally polarized beams for compact near-eye displays.

Segmented pixel electrode branches with dummy line references reduce disclination lines and improve average image intensity.

An array substrate design featuring pixel electrodes with buffer areas and protruding parts to reduce pretilt angle conflicts between adjacent alignment zones.

Opposite magnetic polarities in display substrates attract layers to prevent displacement and light leakage under external forces.

Parallel wafer bonding eliminates serial alignment of prefabricated photodiodes, reducing manufacturing costs and improving yield.

A second common electrode layer with grid-shaped light-transmitting portions enables conductive adhesive curing on the gate insulating layer.

Segmented positioners limit spacer movement to prevent alignment film scratching and extend panel service life.

Segmented electrophoretic pixels move charged nanoparticles between distinct electrode zones to enable rapid switching and stable display states.

Integrating ultraviolet sensing transistors within display panel layers prevents visible light interference while maintaining detection accuracy.

Extending common electrodes to overlap data lines extracts harmful electric fields, preventing crosstalk while maintaining aperture ratio.

Enlarged light-shielding portions at sub-pixel intersections reduce light leakage and mura defects while maintaining aperture ratio.

Inverting the connection sequence to the front surface prevents damage from curvature mismatch and casing contact during rear bending.

Stepped electric field distortion units form on the lower substrate during thin film transistor fabrication to control liquid crystal directors.

A pixel contact hole overlaps gate metal layers to reduce aperture diameter and improve transmittance in active matrix substrates.

A display backplane uses a light-guiding portion with reflecting surfaces to direct light emissions from adjacent sub-areas.

An insulating film mediates spacer placement on liquid crystal displays to maintain uniform cell gaps.

A transflective display panel design integrates a thickness adjusting layer to replace alignment protrusions.

Filling via holes with photoresist during transparent conductive layer formation eliminates height differences that cause PI dark Mura and uneven brightness.

Inverting white voltage polarity per frame suppresses flicker in reflective liquid crystal displays driven at 1 fps or less.

Position-dependent light-filtering units compensate for curvature-induced deformation, eliminating yellowing and darkening at bending locations.

A spatial light modulator cell uses a phase-change material heater to thermally switch between crystalline and amorphous states for infrared reflection.

Transparent pn-heterojunctions modify surface charges to orient liquid crystals, overcoming limited diffraction efficiencies in photorefractive light valves.

A thin-film lithium niobate waveguide rotates optical signal polarization via a differential electrical drive.

Alternating electrode segments decrease spacing to improve aperture ratio without increasing driving voltage.

A non-light transmissive material layer under a column spacer reflects light to enable precise height measurement.

A lithium niobate-silicon hybrid waveguide modulates light by distributing optical power between a silicon core and a lithium niobate cladding layer.

Segmented branch electrodes prevent texture formation during bending by diversifying liquid crystal tilt directions without slowing response speed.

A reversible electrochemical mirror uses a cation exchange membrane and silver mesh to control reflectance via voltage-driven ion movement.

A coupling modulated micro-ring resonator integrates a Mach-Zehnder interferometer to enable high-speed optical modulation in compact silicon photonics.

Relocating control circuitry to a windshield module reduces mirror weight and vibration while enabling multifunctional rear camera processing.

A second power signal bus surrounds a first power signal bus to provide electromagnetic shielding within the display substrate peripheral region.

Plasmonic antennas encode both wavelength and phase via size and orientation, enabling storage capacity beyond the diffraction limit.

A lamp support member with tension bars and bosses fixes a U-shaped lamp to prevent vibration caused by tolerance mismatches.

Soft adhesive strips on a rigid plastic frame intercept debris from screw holes, preventing optical defects in display devices.

Tapered overcoat layer connects pixel electrodes to conductive films without contact holes.

Transparent common electrode extends beyond gate lines to form storage capacitance, eliminating light-shield wiring that reduces aperture ratio and luminance.

Asymmetric slit common electrode aligns liquid crystal molecules via tailored electric fields, eliminating reverse tilt domains that degrade image quality.

A bistable electrophoretic film switches between light-absorbing and reflective states to regulate fluid temperature.

An auxiliary electrode suppresses unwanted electric fields near storage capacitance lines, preventing dark lines and improving transmittance.

Positioning the first electrode at the sealant junction prevents leakage and improves electrical reliability while minimizing the display frame region.

Conductive backplane voltage control taps distribute equalizing DC potential across the travelling wave electrode structure.

An optical arrangement diverges and mixes light from adjacent triplets to resolve color distortion across spatial angles.

A segmented array substrate with an E-field reflecting layer prevents light leakage through transmissive regions, improving luminance and display quality.