Non-Linear Optics TRIZ Cases

Relocating repair lines to the color filter substrate reduces RC delay and power consumption while enhancing open circuit repair capability.

An organic insulating film opening in a display device releases trapped gases, suppressing transistor characteristic variations and improving reliability.

Segmenting the common electrode into plate and strip layers reduces storage capacitance, mitigating charge defects and improving light transmission.

Varying distances between subpixel and common electrodes in distinct regions improves side visibility while maintaining high contrast ratios.

A light blocking line placed between the data line and common electrode in an IPS LCD structure.

An image-forming optical system transfers shaped intensity and wavefront data between a homogenizer and spatial light modulator.

Alternating impedance layers surround a central cavity to confine acoustic and optical waves, reducing energy loss and radiation loss.

Variable adhesive strength on a liquid crystal display polarizing plate distributes shrinkage stress, preventing corner peeling under high temperatures.

Optical waveplate uses OCB mode liquid crystal and negative biaxial retardation films to control polarization across a broad spectrum.

Integrates reflective layers as etching stops between color filters to define pixel patterns on semiconductor substrates.

Replacing black ink particles with an electro-optic layer eliminates aggregation issues and accelerates response time.

A protection line in liquid crystal displays intercepts electrostatic charges before they reach driver signal lines.

Continuous weirs covered by sealing material prevent liquid crystal intrusion and air pushing-in during curing.

A first electrode layer covers a sensing resistor to shield it during semiconductor processing steps.

A separable alignment structure with an insertable guide unit protects flexible substrates in liquid crystal displays.

Segmented pixel electrode slits suppress dark lines near edges, maintaining transmittance while improving viewing angle characteristics.

A fluorescent sheet combines organic and inorganic phosphors with a transflective film to convert incident light into white light for liquid crystal displays.

Electromagnets join prong segments to rods, enabling precise substrate rotation and transfer while reducing damage risks in LCD manufacturing.

Relocating the common electrode to a color film substrate reduces array substrate complexity and manufacturing costs.

High refractive index lenses in direct backlights reduce device thickness without increasing manufacturing costs or sacrificing light utilization efficiency.

Segmented microlens and multi-mask structure blocks stray light while transmitting over 35% of image light, resolving fingerprint sensor quality degradation.

Auxiliary capacitance electrodes equalize total pixel capacitance across varying electrode areas in liquid crystal displays.

Segmented slits in the common electrode shield data lines while preventing dark crinkles near gate lines.

Segmented counter electrodes with openings reduce lateral bleeding and improve display quality without complex subpixel structures.

Second cutouts near first cutout ends enhance electric field intensity to stabilize liquid crystal molecule orientation.

Integrating barium titanate with diamond waveguides manages device complexity while enabling precise electro-optic polarization control.

Segmented pixel units with varied color sub-pixel layouts balance contrast enhancement against manufacturing complexity while suppressing color moiré effects.

A display panel integrates an infrared light-transmitting functional layer to route sensor signals through the substrate.

A transflective layer manages light transmission and reflection within a polymer dispersed liquid crystal display structure.

Shielding layer creates high and low voltage domains to reduce color shift without adding transistors or lowering aperture ratio.

Anisotropic birefringence molecules in domain regulating protrusions provide optical compensation to liquid crystal layers.

A fluorescent color filter absorbs ultraviolet rays to emit visible light directly within the liquid crystal display stack.

Staggered via holes connect multi-layer wirings to disperse stress concentration, preventing groove alignment and enhancing durability.

Segmented curing prevents reactive monomer deterioration and mura formation in polymer stability alignment processes.

Asymmetric light distribution and biaxial retardation films suppress black level luminance in upper viewing directions, resolving contrast ratio distortion.

Concentric metal lines confine heat to a microresonator heater element, reducing thermal crosstalk.

An oxide insulating layer covers the peripheral portion of an oxide semiconductor layer to increase separation between gate and wiring structures.

A porous lid allows electrophoretic dispersion liquid filling through a partition, then blocks porosity to prevent leakage and volatilization.

A display panel post spacer design incorporates a supporting block protruding from the second substrate to prevent alignment film damage.

Periodic amorphous regions in the crystal supply required phase shifts, overcoming double refraction limits and enabling deep ultraviolet generation.

An air layer between the upper substrate and phosphor reduces total internal reflection at the boundary, enabling trapped light to escape the device.

Thin barrier layers protect alignment layers from impurities, reducing gasket width and boosting wafer yield.

Pre-formed notches on the optical film allow accurate alignment of the back light against the liquid crystal cell, preventing misalignment during assembly.

A liquid crystal display forms common and pixel electrodes using a single photomask with photosensitive film patterns of varying thicknesses.

Segmented PN finger waveguides remove etch transition features to lower parasitic capacitance and power consumption in high-speed silicon modulators.

A polarization structure absorbs reflected light to prevent abnormal discharge, eliminating metal shield patterning steps.

Stacking color filters as insulating layers eliminates separate masking processes, resolving alignment issues and boosting manufacturing yield.

Segmented push-pull arms double effective voltage swing, reducing energy per bit to 1 fJ while maintaining CMOS compatibility.

An emission layer absorbs light and emits blue wavelengths to reduce brightness loss and color shifts at oblique viewing angles.

Patterned opaque common electrode strips direct light to respective eyes, eliminating complex lenticular lenses and reducing production costs.