Non-Linear Optics TRIZ Cases

A wavelength conversion element uses a blocking wall structure layer to define microgrooves filled with conversion particles.

A liquid crystal display thin film transistor substrate uses a multiple-layer conductive structure with transparent and opaque layers to simplify manufacturing.

A transflective thin film transistor array substrate uses separate patterning steps for reflective and pixel electrodes to optimize optical performance.

A display panel uses substrate via holes to route driving signal lines through the base substrate for electrical connection with bonding terminals.

Piezoelectric substrates enable variable delay lines in optical filters, accommodating varying bit rates without requiring fixed hardware designs.

An electrophoresis display device uses an in-plane electric field to move charged particles within a charge layer.

Ferroelectric blocks increase electric field intensity while minimizing optical signal loss in electro-optic modulators.

A display screen embeds a front sensor in a second non-display area within the first opening area to maximize visible pixels.

New SPD emulsion formulations optimize polyiodide particle and polymer concentrations to achieve high transmittance ranges.

Angled slit geometry in segmented common electrodes improves liquid crystal restoring force to eliminate trace mura while maintaining high aperture ratio.

Segmenting quantum rod films by orientation and adding a wavelength film resolves the contradiction between high color saturation and device complexity.

Dynamic acoustic excitation in a hollow waveguide enables rapid wavelength switching without physical reconfiguration.

Segmented gate lines and black matrix layers suppress light leakage, improving contrast ratio and uniformity in display devices.

Direct laser writing replaces photolithography masks to form uniform valleys, reducing manufacturing complexity and cost.

Electromagnet carriers move LEDs laterally and vertically to eliminate halo effects in liquid crystal displays.

Low-resistance alignment films in red and green pixel areas prevent bright pixel defects caused by data coupling at high temperatures.

A liquid crystal display uses overlapping subpixel electrodes separated by an insulating layer to control voltage distribution across distinct regions.

Complementary color filters on red, green, and blue sub-pixels produce a bright white state while maintaining high color saturation.

Slit-shaped openings in LCD peripheral lines reduce plasma concentration during dry etching, preventing over-etching and maintaining uniform resistance.

A ridge-type lithium niobate waveguide modulator uses coplanar RF electrodes to enhance electric field application efficiency.

P-doped semiconductor barriers segment the electrode stack to prevent current leakage between n-doped regions while maintaining 100 GHz bandwidth.

Metal lines on the color filter substrate connect signal sources to the common electrode, eliminating external common lines and reducing frame width.

A biaxial compensation film aligns oblique light polarization states to enhance side viewing contrast in vertical alignment displays.

A color filter substrate uses spaced light-shielding structures to block peripheral light leakage while isolating static electricity transmission.

Recesses in the wiring layer increase contact area and bonding force, preventing reflective layer detachment and improving display quality.

Varying height differences at bonding parts reduce stress concentration and prevent corner breakage in edgeless display modules.

Extended dimming panel substrate shields thin liquid crystal display substrates from frame impact during transportation, preventing cracking.

Staggered arc-shaped side surfaces on array and color film substrates enable precise edge grinding to prevent micro-crack formation.

A liquid crystal display device uses an overlapping ground electrode to enable a narrower frame design.

Back-face injection ports separate filling from terminals, preventing leakage while simplifying manufacturing and reducing punching complexity.

Segmented refractive index layers resolve electric field distribution limits to enable high-resolution phase modulation.

Segmented bending protection layers with inclined and flat surfaces distribute mechanical stress to prevent crack defects in signal lines during device flexing.

Concurrent patterning of capacitance electrodes along recessed portions prevents residual etching stopper layers from compromising manufacturing precision.

A guide panel featuring dual partition walls and extensions integrates with the cover bottom to form a unified structural support.

Asymmetric pixel aperture areas compensate for chromaticity adjustments, preventing the brightness loss typical of uniform shielding designs.

An optical sensor uses a photoelectric conversion element to generate a voltage modulation signal that adjusts electrochromic lens transmittance.

Three retardation layers with specific angular relationships improve contrast ratio at a 60-degree viewing angle for outdoor applications.

An interference filter reflects ultraviolet light to prevent polyimide aging while allowing visible transmission.

Tapered barriers reduce polyimide resistance in non-display zones, preventing mura and smudges caused by uneven substrate distribution.

An arched light bar shifts LED emission toward display corners, eliminating vignetting while maintaining thermal management via heat dissipation material.

Nano-antenna metasurfaces replace mechanical mirrors to achieve fast, two-dimensional laser beam deflection without moving parts.

Angled strip electrodes disrupt diffraction patterns between black matrixes, eliminating Moire interference in 3D displays.

An adhesive frame with notches and depressed sections accommodates flexible circuit boards within a liquid crystal display module.

Discontinuous light shielding regions disperse cutting forces to maintain sealing integrity and increase product yield.

A backlight module uses an injection molded backboard with a heat dissipation chamber and convection holes to cool LED lamps.

A display device uses silicon oxide and nitride insulating layers to connect transparent electrodes.

A pixel structure where the pixel electrode overlaps the common electrode to form a storage capacitor.

Pixels with distinct uneven reflection structures direct light through a lenticular lens, resolving luminance deterioration and pattern superimposition.

A second microlens with a flat center portion transmits parallel light without bending to enhance display quality.

A modular fixture aligns open cells and backlights using vendor-specific adapter pins.