Non-Linear Optics TRIZ Cases

A display system uses mirrors and a lens to extend the optical path for virtual images.

A non-light-emitting variable transmission device uses a conductive tape bus bar extending through an antireflective layer hole to contact the transparent conductive layer.

An adhesive layer with a storage modulus of 1 kPa to 100 kPa reduces shear force on the electronic ink layer during bending, extending device service life.

Varying scattering dot density across regions redirects light paths, compensating for natural decay to resolve low edge brightness in direct-lit displays.

Segmenting the inorganic insulating layer exposes overcoat boundaries to UV light, eliminating non-cured regions caused by roof layer absorption.

A dielectric layer divides voltage across the reflective electrode to match threshold voltages, resolving poor contrast in transmissive-nematic displays.

Acute angled branch electrode ends prevent irregular molecular arrangements, increasing transmittance and widening viewing angles.

A monolithically integrated photonic circuit uses a trench-exposed nonlinear waveguide to generate higher harmonic frequencies.

Wavelength-selective reflective films in the backlight unit suppress luminance non-uniformity and mura defects at bezel boundaries.

Reflective black matrices redirect non-transmitted light back to the backlight source in liquid crystal display panels.

Overlapping color and monochromatic filter layers replaces the black matrix, eliminating peeling risks and reducing reflectivity.

A fluidic lens uses a double elastomer membrane to control focal length through actuation.

A liquid crystal lens uses a light adjustment structure to reflect and converge edge light toward the central imaging region.

Opposite cholesteric liquid crystal layers with left and right spiral structures achieve total infrared reflection across both polarization states.

A wavelength-converted LED integrates a dichroic filter to recycle red light, expanding the color gamut from 69% to 87% of the NTSC standard.

Offsetting pixel electrodes in alternating rows increases spacing to reduce electric field interference and stabilize molecular movement in large displays.

Varying spacer intervals prevent directional movement under impact, protecting the alignment film from scratches that cause light leakage.

Insulation film regions in pixel substrates create electrical potential gradients for multi-domain liquid crystal displays.

A retaining wall structure blocks alignment liquid overflow at signal line bridging positions to protect seal contact quality.

A liquid lens device defines focal length by capturing images at multiple candidate planes and calculating contrast to select the optimal plane.

A display panel signal line employs a multi-layer bridge portion to prevent hydrofluoric acid corrosion in adaptor holes, maintaining low contact impedance.

A pixel structure manufacturing method reduces mask steps to four by reusing masks for gate and semiconductor patterning.

Symmetrical dummy electrodes equalize internal stress on optical waveguides to suppress temperature drift and extinction ratio degradation.

Comb-like electrodes with projecting connecting portions control liquid crystal molecular orientation in display devices.

Segmented electrode structures on Z-cut substrates suppress DC drift and charge accumulation, ensuring reliable optical performance in harsh environments.

A linear patterned layer diffuses transmitted light to enhance side-angle visibility in liquid-crystal displays.

Composite sealing glue merges electrical conductivity and water vapor barrier functions to eliminate wide frame glue requirements.

A semi-transparent pattern on the counter substrate enables UV light to cure sealant from the side.

Shielding portions in the common electrode layer reduce capacitance between connecting portions and gate lines.

A semiconductor apparatus positions a color filter layer outer edge between an effective pixel region and a joining member to maintain optical integrity.

A broadband light source assembly uses an all-normal dispersion optical fiber to convert femtosecond pump pulses into radiation.

Symmetrical pixel arrangement about a horizontal centerline ensures uniform light transmittance across liquid crystal display panels.

Adhesive bonds column and ball spacers to prevent dislodgement, ensuring consistent luminance across bent plastic substrates.

A display device redirects light from non-pixel regions to pixel regions using segmented optical elements with varying refractive indices.

Bent common wirings detour around spacer seats to prevent contact with non-seat regions, reducing display defects from misregistration.

A liquid crystal display positions spacers on color filter substrates to maintain uniform cell gap thickness.

A bendable display panel uses segmented sealants with distinct Young's moduli to reduce substrate strain during bending.

Segmented panel protection layers and a filling part improve impact resistance while maintaining folding ease.

Segmented slender spacers on opposing substrates intersect to distribute load, preventing alignment film damage and light leakage during panel flexure.

Inkjet dispensing deposits spacers at precise positions on liquid crystal display substrates, resolving aggregation issues that degrade screen quality.

An opaque reflective layer under uneven resin improves photoresist patterning accuracy and prevents short circuits.

Filling undercut structures prevents ITO electrode cutoff, maintaining conductivity and enhancing the viewing angle.

A liquid crystal lens structure adjusts focal length and light direction using an electric field to create convex or concave optical effects.

Segmented light-emitting sets emit distinct colors to generate white light, eliminating quantum dot film costs and simplifying backlight module structure.

An intermediary resin layer bonds the electrostatic shielding film to the sealing portion, resolving adhesion peeling while maintaining electrical conductivity.

A photonic crystal-based phase modulator efficiently controls optical signals within an integrated computing architecture.

Segmented conductive layers resolve the trade-off between detection sensitivity and display visibility.

Self-assembling aluminum nanoparticles create dense arrays that produce angle-independent plasmonic color.

Segmented common electrode slits reduce edge-induced disclination, improving transmittance and contrast while preventing short-circuiting.

A porous transparent conductive layer on the rear substrate surface shields electrostatic fields while maintaining high light transmissivity.