Non-Linear Optics TRIZ Cases

Thickened dummy region black matrix balances film thickness to mitigate seesaw effect and reduce peripheral mura in liquid crystal displays.

A photocurable adhesive bonds a cover plate to a display unit within an elastic member sealed by a metal frame.

Segmenting subpixels into independent light emitting portions enables flexible electronic paper operation while managing light interference with microcapsules.

A liquid crystal display panel uses source lines on different wiring layers to reduce the required wiring area.

A display panel integrates a conductive via structure to connect fan-out wires, signal lines, and electrostatic discharge electrodes within the substrate layers.

A reflective polarizing plate with stacked refractive index layers directs light transmission to improve display brightness.

Blue-detuned pumping stabilizes laser-cavity detuning against thermo-optic effects, enabling self-starting Kerr soliton combs without external tuning.

Recessed LEDs in a lightguide plate with reflective resin layers reduce thickness while suppressing luminance unevenness.

A monolithic optical amplifier integrates a phase change element to control signal interference and adjust gain on a single substrate.

Grooves and ground electrodes terminate electric field lines between input-side signal electrodes, suppressing cross-talk without reducing substrate thickness.

Specific resistivity and dielectric constant ratios create a rest potential that prevents particle migration, improving display state retainability.

Second pixel electrodes align tilted liquid crystal molecules to increase light transmittance.

An inlet in the sealant allows precise liquid crystal amount regulation, preventing unfilled or overfilled regions that degrade picture quality.

A liquid crystal display panel uses an impurity blocking structure to maintain uniform diffusion within the active region.

A feedback capacitor stabilizes current in an electrochrome driver, preventing inrush currents and extending element lifespan.

Segmented light-shielding layers on opposing substrates improve squeeze resistance without reducing the aperture ratio.

A light ray direction control element uses electrophoretic particles to manage light transmission and absorption across distinct regions.

Extending pixel electrodes and color filters into the light-shield area modifies electric field distribution across the display substrate.

A dam pattern with diverging branches manages alignment film placement on the non-display region of a liquid crystal display substrate.

Spatial dispersion separates wavelengths for independent polarization rotation, resolving narrow bandwidth limits in conventional Faraday rotators.

Vertical segmentation of scan and signal wirings reduces parasitic capacitance, preventing driving speed decreases as pixel counts increase.

Rear screw fastening hides connections within the case top and cover bottom assembly, reducing bezel size and device thickness.

Integrally formed reflective support member guides light and holds optical sheets in a display bottom cover.

Cascaded micro-nano fibers coherently superpose frequency-tripled light to enhance optical conversion efficiency.

A conductive layer connects to a counter electrode between adjacent pixel electrodes, preventing electric field interference and enhancing numerical aperture.

An enlarging part on the second common electrode improves voltage recovery speed, reducing crosstalk in large-size liquid crystal displays.

Bending the non-display area toward the side face reduces thickness while segmented curvature radii prevent wrinkles at connection points.

Adjusting barrier layer opening widths and color filter black matrix dimensions maximizes aperture ratios to reduce backlight power consumption.

Branch electrode segmentation mitigates excessive fringe field effects to improve transmittance and viewing angle characteristics.

Segmented common lines use orthogonal transparent and metal conductors to minimize parasitic capacitance while reducing glare from reflected ambient light.

Flow guiding portions in the color resist layer redirect alignment liquid into via holes, preventing surface tension accumulation that causes Mura defects.

A liquid-crystal display screen uses a common electrode as both a touch sensing and display element.

Mismatched photo spacer heights eliminate dark fringes caused by uniform substrate distances in liquid crystal displays.

Voltage-driven oxygen vacancy migration in metal oxide films enables spectral tunability and fast response times without thermal heating.

Obliquely inclined slits in pixel and common electrode cutouts distort electric fields to stabilize liquid crystal molecule alignment.

External modulation of refractive index enables continuous wavelength tuning of electromagnetic radiation through nonlinear crystals.

Varying via areas on the substrate compensate for IR drop in Mini-LED backlights, resolving brightness mura caused by voltage variations.

A cholesteric liquid crystal display uses a patterned ink layer to produce multicolor images through color mixing.

A cholesteric liquid crystal display integrates a solar cell to generate self-sustaining power for the device.

Segmented multi-layer electrodes resolve insufficient electrical field application in horizontal field displays, reducing color shift and improving reliability.

A double-sided electrode structure in a fringe-field-switching liquid crystal display panel generates a transverse electric field to deflect molecules.

Segmented source lines with bend points and overlapping storage capacitors reduce light leakage while maintaining signal integrity.

Segmented electrodes with varying phase shifts linearize silicon microring modulators, reducing driver complexity and enabling scalable PAM-N operation.

Controlling the adhesion parameter via adhesive layer thickness and surface unevenness resolves cell gap non-uniformities in thin liquid crystal displays.

A backlight assembly produces non-uniform brightness to offset optical errors in headset displays.

A polarization layer with varying thickness conforms to a decorated printed layer in an image display apparatus window.

Lenses larger than reflection sheet holes cover exposed substrate areas, preventing light absorption and improving uniformity.

A liquid crystal display device uses indented color filter portions to maintain constant cell gaps and prevent electrode disconnection.

Trenches in a lithium niobate substrate tailor the effective microwave index, enabling thin buried oxide integration while maintaining velocity matching.

Varying elastic moduli in the support layer prevent fitting wrinkles and cutting seams, enabling a seamless narrow-frame full-screen display.