Non-Linear Optics TRIZ Cases

Rubber supporting elements with metal inserts replace plastic frames to reduce mold costs while accommodating heat expansion of the light guide plate.

Segmented electrodes generate uniform electric fields to control polar particle movement and display gray scales without increasing device complexity.

A second common electrode layer sits between the liquid crystal and first substrate to standardize upper substrate structure.

Columnar spacers engage contact and non-contact reception portions on substrates to maintain cell gap.

A display panel design isolates the gate driving circuit within a sealed peripheral space to reduce parasitic capacitance.

Position limiting structures align the bracket and frame, eliminating screw fastening steps and reducing assembly complexity.

Dual-sided common electrodes reduce horizontal crosstalk by lowering sheet resistance and accelerating potential restoration.

Segmented pixel electrodes with varying block widths compensate for data line interference to achieve uniform brightness without reducing aperture ratio.

Oxygen reservoirs in the insulating layer compensate for thermal loss during processing, preventing characteristic variations that cause display unevenness.

Varying alignment layer thickness buffers spacer pressure on driving circuits while enabling conductive member penetration to prevent light leakage.

A liquid crystal display device uses a third electrode with specific width ratios to create asymmetric viewing angle characteristics.

Shading region capacitance compensation expands pixel electrode overlap to offset gate-source capacitance, reducing voltage jump flicker without aperture loss.

Linear slits in pixel electrodes stabilize liquid crystal tilt azimuths across four alignment regions, reducing dark lines and enhancing transmittance.

Extending the substrate positions the IC chip away from the panel, allowing a dedicated heat radiation layer to contact the chip and suppress temperature rise.

Plus or y shaped supporters constrain spacer position to prevent light leakage from external force displacement.

A barrier structure confines movable ball spacers within non-pixel regions, preventing light leakage and maintaining high aperture ratio.

Replacing the RF filter with a high finesse Fabry-Perot etalon reduces phase noise and improves RF frequency stability.

A liquid crystal display uses a boosting capacitor to apply differential voltages to subpixels.

Insert molding unifies plastic and metal components into a single frame structure, eliminating separate clamping parts and reducing assembly complexity.

An ultra thin display module embeds LED lamp beads within a secondary lens to reduce overall thickness.

A liquid crystal display common electrode uses slits with varying stretching directions to align molecular rotation across pixel edges.

Random embossings on a diffusion plate coating minimize contact stress to prevent cracking and scratching during storage.

Dummy source bus lines in a liquid crystal display device reduce frame area while maintaining background visibility through transparent electrodes.

An optical composite film with refractive portions and a reflective raster layer redirects light energy across viewing angles.

A phase difference compensating plate uses oblique deposition to create columnar structures that stabilize optical parameters.

Relocating fixation hooks to the frame sidewall allows the bracket to remain thin, resolving the trade-off between mounting reliability and device thickness.

Auxiliary electrodes positioned at control electrode gaps reduce light leakage and dark areas, improving contrast ratio.

A color liquid crystal display panel integrates dichroic dye into the liquid crystal layer to achieve full color display without a conventional polarizer.

A guide panel connects a display module to a sliding back cover, reducing device thickness while maintaining structural stability.

A liquid crystal light deflector modulates light phase via electrode-controlled molecular orientation.

Lower substrate electric field distortion slits widen viewing angles while preventing degradation from upper substrate misalignment.

A single-gap transflective LCD applies distinct voltage potentials to transmission and reflection areas to independently control liquid crystal polarization states.

Stacked color filter patterns extend into light-shielding regions to improve alignment accuracy.

A liquid crystal terminal structure uses a planarizing film-free region to ensure stable electrical conduction.

A turning section aligns substrates while an adjustable support mechanism maintains precise positional accuracy during adhesive bonding.

A color conversion sheet uses reflection filters between layers to redirect specific wavelengths and minimize light loss.

Variable hanging gaps in the backlight film layer accommodate thermal expansion, preventing plate wrinkling and ensuring reliability in ultra-large displays.

A liquid crystal display manufacturing method reduces photo masks by forming source electrodes and video signal lines through collective etching.

Dual seal members with varied particle sizes increase moisture migration distance, preventing material degradation without raising viscosity.

Scattering particles with controlled size distribution redirect primary light to enable white light generation using fewer quantum dot phosphors.

Bound states in the continuum enhance nonlinear interaction, boosting conversion efficiency and bandwidth for mid-infrared imaging.

Placing auxiliary electrodes in an intermediate layer reduces common electrode resistance without shrinking the pixel aperture, eliminating display flickering.

Light block prevents stray light from entering neighboring zones while lenses form unique beamlets, reducing light bleeding between viewing zones.

A surface-plasmon multiple quantum well modulator couples incident light into a metal layer surface plasmon mode via applied voltage.

Polymerizing thermal reactive monomers on the alignment film surface increases anchoring force, resolving weak molecular bonding in liquid crystal displays.

A liquid crystal display screen protrudes from the casing to allow dew drainage and evaporation.

A backlight unit uses a light guide plate and fixing projections to connect the substrate and chassis without screws.

A reflective shielding layer on an LED emergent surface redistributes luminous intensity to enhance color saturation and brightness contrast.

A multi-tone mask exposes stacked black and transparent photoresist layers to form spacers and matrices in one step.

A dynamic amplitude mask varies its configuration with scan angles to suppress reflection artefacts and maintain high signal-to-noise ratios.