Non-Linear Optics TRIZ Cases

Large ion-complexes in a polycationic electrolyte restrict lateral diffusion, resolving image blurring caused by ion migration in directly addressed displays.

Conductive buffer layer mediates electric fields within liquid crystal capsules to lower driving voltage requirements.

Inclined surface bumps on the driving chip distribute stress during compression, preventing crack formation in the insulating layer of flexible OLED displays.

A head-up display picture generator couples to a lower case side wall or bottom portion based on mirror count.

Auxiliary spacers fill voids at sealed corners to prevent gap unevenness caused by atmospheric pressure.

Controlling data line geometry reduces light leakage from black matrix displacement, increasing aperture ratio and display uniformity.

A segmented optical modulation high frequency line uses varying characteristic impedances to efficiently input high frequency electrical signals.

A blocking structure on the first substrate confines liquid crystals within the frame sealing adhesive region during assembly.

Perforations in the common electrode minimize overlap with data lines, reducing signal delay while maintaining aperture ratio.

Protrusions at pixel electrode joints prevent disclination and reverse tilt, eliminating Trace Mura defects under varying driving conditions.

Protruding portions on pixel electrodes realign liquid crystal molecules, preventing abnormal arrangements from propagating to the light transmitting region.

Optimizing refractive index differences and adding curved protrusions improves brightness while maintaining privacy protection.

Cushion material absorbs external impact forces while a peripheral wall bonded to the front window prevents peeling stress on the transparent adhesive layer.

Differentiated spacer structures in the peripheral area compensate for stress, resolving transmittance fluctuations that cause image quality defects.

A non-pixelated liquid crystal phased array uses alternating linear electrodes to steer light beams efficiently.

Liquid crystal display device uses half and quarter wavelength plates to control light polarization states for proper black and white levels.

A ground tab with a bent portion contacts the upper and side surfaces of an LCD mold frame to provide stable electrostatic discharge.

A luminous flux control member with a radially distant recessed portion redirects light to remote regions.

An opening/closing module controls light passage through display regions to enable imaging sensors.

Segmenting common electrodes into distinct regions enables integrated touch detection without increasing wiring complexity or reducing the pixel aperture ratio.

Segmented pillar-shaped spacers in the active and shield areas maintain consistent cell gaps, preventing impurity distribution from causing display unevenness.

A polarizing optical device uses an extrafine metal wire grid structure to manage light polarization.

A liquid crystal measurement circuit applies specific potential patterns to electrodes to track mobile ion progression within the display layer.

Positioned light conversion dots around reflective sheet holes reduce edge blue light intensity to eliminate luminance inconsistencies in thin displays.

Transparent layers with distinct refractive indices converge light in a liquid crystal display, resolving alignment issues from stacked microlenses.

Noise avoidance line on integrated circuit film counters source driving signal interference to eliminate touch sensing errors.

A liquid crystal display uses a first alignment layer with lower electrical resistivity than the second to discharge molecular ions.

A magnetic coupling device mounts LED panels to cabinets using attractive forces between interlocking members.

Varying pixel electrode area compensates for color filter thickness differences, ensuring uniform liquid crystal capacitance and stable image transmission.

Transparent photovoltaic converters power electrochromic pixels to create high-contrast graphics, overcoming poor luminance in bright daylight.

A reflection preventing layer between substrates and gate lines reduces external light reflection through destructive interference, enhancing image contrast.

A three-mask process fabricates thin film transistor substrates for liquid crystal displays.

Segmented partitions and organic passivation layers prevent color mixture between neighboring pixels while maintaining process margin.

A strength-reinforcing member protrudes from a second substrate and sits inside a connecting member to stabilize electrical connections between substrates.

A backlight unit supporting member with a groove and adhesive layer secures the diffuser, preventing thermal deformation and uneven light distribution.

A display panel integrates an anti-peep structure using liquid crystal molecules to control light transmission through internal substrates.

Extending branch electrodes over neighboring pixels balances storage capacitance across varying pixel sizes, preventing voltage shifts and flickers.

A liquid crystal display pixel structure uses asymmetric storage capacitors to balance coupling effects across sub-pixels.

Curved liquid crystal displays employ asymmetric pixel electrodes to minimize misalignment-induced texture, improving transmittance and response speed.

Phase shifters in the waveguide array steer light beams to expand scanning range while eliminating vibration susceptibility from moving parts.

Paired barrier electrodes eliminate gaps between ITO layers to suppress moire interference while maintaining high transparency in 3D displays.

An eyepiece optical system with negative and positive lenses expands the viewing angle while maintaining compact apparatus size.

A low blue light backlight module uses wavelength conversion materials to emit white light with controlled emission spectra.

A liquid crystal display device uses a transverse electric field to enable in-cell touch panel functionality.

Differentiated column spacers prevent edge failures from excessive liquid crystal dispensing, ensuring uniform cell gap and light transmission.

A laser treatment converts a color filter film into a black material layer within a specific repair region to block light emission from defective pixels.

A TFT substrate wiring configuration distributes ground potential and signals to peripheral circuits through extended conductive paths.