Non-Linear Optics TRIZ Cases

A substrate design uses selective gate insulating film deposition to reduce mechanical stress on flexible plastic substrates.

Overlapping color filters form white pixel transmitting areas in liquid crystal display panels without additional photomasks.

Differentiating pretilt angles between branch electrodes and slits improves response time and view angle features of medium and low grayscale in VA-LCD panels.

A display substrate uses hollowed-out position aligning marks to create a detectable height difference for precise layer registration.

Positive wavelength dispersion in the second phase compensation film reduces light leakage at large viewing angles without increasing manufacturing complexity.

Curved branch electrodes replace sharp angles to eliminate discontinuous electric fields, reducing abnormal liquid crystal alignment and curing time.

Segmented light sources and guides illuminate in-plane holes, solving the lack of brightness in camera openings.

A focus GUI moves based on wheel input and arrangement information to provide consistent navigation.

Convex and concave branch electrode portions regulate liquid crystal alignment, reducing dark lines and improving light transmittance.

A non-light-emitting variable transmission device regulates ambient glare to maintain display resolution and contrast.

Segmented scribe structures with raised ridges block lateral ion diffusion to eliminate electronic leakage and boost manufacturing yield.

Symmetrical layer configuration prevents charge accumulation imbalance and image sticking by maintaining a stable common potential center.

A contact hole passes through a flattening film to connect a counter electrode control line, preventing raised portions that disrupt alignment film uniformity.

A viewing angle controllable LCD uses a horizontal alignment liquid crystal layer to adjust phase delay and restrict light passage.

Combination pixel electrode structure modulates light transmittance across distinct regions to suppress crosstalk in parallax barrier displays.

A third electrode positioned between pixels suppresses electric field interference and reverse twist to maintain display quality.

Multi-layer signal lines with specific overlapping regions reduce step differences at intersection points, preventing fractures and maintaining aperture ratio.

A vertically oriented PN junction modulator uses backside contacts to reduce real estate usage and lower contact resistance.

A coated gel buffer structure sits between the display panel and outer frame to enable precise automation assembly.

Buffer layer grooves opposite pixel electrode slits increase alignment film thickness to enhance anchoring force on liquid crystal molecules.

An elastic pole frame secures an extended polarizing film to eliminate side frame visibility.

Filling electrode gaps with high refractive index dielectric minimizes diffraction while preserving oxide layer thickness and contrast ratio.

A nested modulator uses branching signal electrodes to simplify circuit wiring and reduce drive voltage requirements.

Cross-shaped openings in segmented touch electrodes distribute bending stress to prevent micro cracks and bridge fracture in foldable displays.

A liquid crystal display panel uses 4N sub-pixel sub-regions with strip and planar electrodes to control molecular tilting directions.

A graded optical density in the blocking region reduces diffracted light intensity at boundaries.

A liquid crystal display uses a patterned electrode layer with complete coverage regions to stabilize slanting directions of liquid crystal molecules.

A phase modulator uses a birefringent compensation bulk region to stabilize polarisation states across varying viewing angles.

An electronically switchable mirror alternates between reflective and transmissive states to image multiple fields of view onto a camera sensor.

A trans-reflective liquid crystal display substrate positions a reflective layer on a black matrix to increase the pixel aperture ratio.

A display panel design merges spacer units with color resistor layers to simplify the manufacturing process.

Varying display cell wall thickness in watermark zones resolves the contradiction between manufacturing simplicity and visual distinguishability.

A pixel structure uses a discharge device coupled to sub-pixels to manage electrical charge distribution across the array substrate.

A liquid crystal display device uses stacked cholesteric layers to reflect circularly polarized blue light.

Protrusions on the second substrate mate with grooves in the optical adjustment layer to refract light, expanding the viewing angle beyond standard limits.

A light switchable device uses polymer-stabilized liquid crystals to transition between transparent and hazy states.

Thicker alignment films bridge electrode step differences to restore regulating force and eliminate display burn-in.

Island-shaped light-shielding films with separation regions prevent crack propagation in multilayered structures.

Ventilation openings in the panel guide facilitate air exchange between the liquid crystal display and backlight unit.

Segmented bending parts and elastic structures distribute fastening stress across the display panel edge, preventing local compression and image distortion.

Multi-layer light conversion films use segmented organic dye layers to boost efficiency while preventing concentration quenching and thermal degradation.

An optical attenuation layer protects LCD polarizers from sun damage by blocking focused ambient light intensity.

Multi-layer optical film converts unpolarized light to polarized light and adjusts focal location.

A connecting wire structure uses a gradual organic insulating film inclination to prevent resist accumulation between adjacent conductors.

Multilayer graphene suppresses lower sideband noise through destruction resonance, enabling efficient conversion with microvolt driving voltages.

Resistive structures in the lower cladding layer connect waveguides to transmission lines, bypassing capacitance to reduce low-frequency chirp.

A liquid crystal display common electrode finger section overlaps a data line through a low dielectric passivation layer.

A transflective liquid crystal display device uses a single cell gap structure with segmented pixel electrodes to control optical properties.

A rib waveguide semiconductor modulator concentrates p-type regions at the center to enhance carrier density modulation.