Non-Linear Optics TRIZ Cases

Positioning a spacer inside an insulating layer opening maintains uniform substrate distance while preventing alignment layer contact that causes light leakage.

Varying via hole contact areas distribute current to prevent burnout from static electricity and overcurrent events.

A liquid crystal display sealing layer uses a photopolymerization initiator to cure resin via ultraviolet light irradiation.

Segmented reflector plates with asymmetric positioning grooves eliminate corner splicing deviations and shadow issues in Mini LED displays.

Relocating scan lines to a peripheral drive element area improves aperture ratio and suppresses moire interference.

Ge or Ta mediators maintain electrochemical device stability under high brightness light exposure.

Segmented electrode strips with openings create localized electric fields to orient liquid crystal molecules.

A reflective liquid crystal display device uses alignment layers with low azimuthal anchoring energy to modulate light reflectance.

Laser ablation removes pixel electrodes to isolate drain connections while a through hole connects the pixel and common electrodes outside the contact area.

Locally formed step films constrain columnar spacer contact areas, reducing frictional forces and preventing light leakage from display unevenness.

A light source device uses an optical waveguide and cone sheet to direct illumination.

Photopolymerizable monomers form structured protrusions via UV irradiation, eliminating ITO etching steps and reducing manufacturing complexity.

High-k transparent insulating film boosts storage capacitance without enlarging electrode area, resolving trade-offs between fineness and withstand voltage.

Distinct structural areas create high refractive index contrast to confine optical beams, reducing loss without increasing device complexity.

Height gaps between adjacent spacers in a display panel prevent Mura formation caused by non-uniform spacer heights.

A thermally insulating volume separates a thermochromic device from an electrochromic device to maintain independent optical control.

Column spacers rest on black matrix layers to maintain consistent cell gaps in liquid crystal displays.

Segmented data lines bend away from spacers to resolve resolution versus arrangement space contradictions, ensuring stable cell gap uniformity.

Leaving polarizing plate corners unbonded absorbs thermal shock stress, preventing cracks and improving yield.

Adjusting photo-spacer gaps and density in cambered LCD panels maintains uniform cell spacing.

Irregularly dispersed grooves on the cholesteric film reduce color shift at large viewing angles while maintaining enhanced brightness.

A low refractive index layer with a rectangular cross section redirects light rays toward pixel electrodes in liquid crystal displays.

A segmented dimming panel uses definition parts to cut adjacent dimming regions into preset shapes.

Embedding rod-shaped nanoparticles within liquid crystal matrices enables direct light modulation, resolving energy efficiency and contrast trade-offs.

A liquid crystal panel uses separate electrodes to generate perpendicular and parallel electric fields, controlling molecular orientation states.

Chevron-shaped subpixel electrodes and variable liquid crystal layer thicknesses synchronize switching speeds across red, green, and blue channels.

Jumper wiring connects multiple lead wirings on one substrate to eliminate crossing sections, reducing manufacturing complexity and increasing layout freedom.

A liquid crystal display panel uses a protective plate electrode layer connected to a transparent electrode layer for static charge dissipation.

A patterned color filter substrate design ensures uniform spacer heights across liquid crystal displays.

Block region summation flattens noise in in-cell displays where longer electrode distances reduce sensitivity, improving detection accuracy.

Agglomerates surrounding spacers alter liquid crystal pre-tilt angles, reducing dark-state light leakage while maintaining uniform cell gaps.

A manufacturing method for narrow border displays uses a flexible substrate to bend integrated circuit chips away from the panel face.

Outward connecting portions prevent inward protrusion, stabilizing the cell gap and reducing processing time during dispenser control.

A multilayered thin film transparent electrode uses a metal layer with varying thickness from edge to center.

A backlight shielding electrode prevents light-induced conductivity changes in the semiconductor layer, eliminating bright and dark waterfall stripes.

Preliminary black matrix widening calculated via elastic modulus and radius eliminates color shift and light leakage from misaligned substrates.

Segmenting the polarizing layer into distinct wire grid and mirror regions resolves the trade-off between visible light reflectance and display properties.

Relocating capacitive electrode units inside trunk electrodes increases the display aperture ratio by removing opaque common electrodes from the pixel area.

Three stacked liquid crystal panels with controlled azimuth angles improve oblique light blocking while maintaining luminance uniformity.

A display panel uses a groove in the second substrate to insert sub-spacers, increasing the step difference between main and sub-spacers.

Translucent parts in the gap refract light to shift images, hiding the joint without increasing device thickness.

Insulated conductive film on gate extraction wiring suppresses display non-uniformity and prevents shield electrode corrosion.

Varying sealant segment widths and hydrophobic surfaces maintain shape accuracy, preventing deformation that lowers yield rates.

Shielding patterns and filling structures on curved display substrates prevent light leakage caused by alignment displacement.

A photochromic optical adhesive layer transitions between transparent and light-shading states to manage light transmission in display modules.

Nesting a camera in an optical film via hole with a transparent light source resolves the trade-off between high display ratio and full coverage.

Segmented pixel electrode alters electric field distribution, eliminating disclination lines caused by capacitor electrode coverage in PSA displays.

A transmittance adjusting layer balances light intensity across wavelength ranges in a display backlight module.

A variable optical attenuator uses two coaxially aligned tunable lenses to control light attenuation through dynamic divergence and convergence.

Specific via-hole geometry guides polyimide fluid flow, preventing backflow accumulation and eliminating Mura defects in liquid crystal displays.