Non-Linear Optics TRIZ Cases

A spliced display panel lens assembly converges light at the seam to magnify images and improve alignment.

A liquid crystal display device uses selective alignment film treatment to orient molecules and reduce frame region light leakage.

A light absorbing layer with specific wavelength absorbers reduces mura and improves color reproducibility by blocking backlight leakage.

An isolated movable member generates induction charges through applied voltages, eliminating signal lines and improving the aperture ratio.

A vehicle display unit uses independent housing halves connected by mounting elements with predetermined breaking points to absorb mechanical stresses.

A liquid crystal panel uses a recess around a protrusive structure to control molecular alignment.

Stacked ITO and doped organic layers lower connection resistance, minimizing voltage differences across the display substrate.

A Mach-Zehnder optical modulator uses phase shifting sections to reduce device length for compact integration.

A liquid crystal display structure uses segmented light blocking patterns to prevent column spacer deformation during the bake process.

Photonic monopulse comparator replaces electronic components with optical delay lines to resolve wide bandwidth limitations in angle of arrival determination.

Perpendicularly-oriented liquid crystal retardation layers on polyimide substrates compensate birefringence, reducing device thickness.

Oblique signal line routing reduces curvature-induced stress on conductive elements within the curved section of a flexible display.

Lateral electric field configuration enhances liquid crystal molecule rotation across segmented pixel electrodes.

A liquid crystal element forms lenses between a light source and modulation portion to refract incident light.

Folded waveguide phase shifter increases boundary area between p-type and n-type semiconductor materials.

Pixel electrodes with oblique lines and protrusions form separation spaces that stabilize liquid crystal orientation.

A display device integrates a light absorbing material into the foam pad between the panel and cabinet to reduce edge light leakage.

Inclined linear electrodes suppress disclination lines at pixel boundaries to resolve the contradiction between dark line reduction and transmittance loss.

Overlapped sealing material prevents moisture ingress while maintaining flexibility.

A virtual image display device uses a polarization separation lens element to regulate light paths for expanded viewing angles.

Vacuum buffer regions absorb excess liquid crystal to prevent non-uniform cell thickness and picture defects.

A backlight module back plate features a groove aligned with the solder spot to prevent direct contact and glue wear.

Graded opacifying layer decouples reflectance and transmittance to eliminate color variations between opaque and transflective zones.

A testing line on an LCD glass substrate forms a closed circuit with driver chip pins to detect structural defects.

First and second light shielding parts overlap video signal lines and metal electrodes to reduce reflections that degrade image quality.

Oblique pixel edges in twisted vertical alignment displays minimize light leaks near anti-viewing directions.

A photo-curable sealant design with an inner isolation wall enables ultraviolet light penetration through a signal transmission module.

Voltage-controlled PDLC strips switch between transparent and opaque states, expanding the viewing angle while maintaining aperture ratio and brightness.

A protection film absorbs scribing pressure variations to reduce groove depth variation and enable accurate cleaving of liquid crystal device substrates.

An LCD employs 110° to 130° alignment treatment angles with optically active substances to restrict edge reverse and maintain luminance levels.

Transparent conductive layers replace opaque metal structures in transflective liquid crystal display panels, boosting aperture ratio and transmitting rate.

A vehicle image display mirror uses a removable polarizing plate to manage light transmission through the half mirror assembly.

A directionally-sensitive optical element masks stray light from surface acoustic wave emitters to enhance image contrast in horizontal parallax-only displays.

Parallel plate birefringent crystals displace backward light laterally, resolving isolation failures in non-collimating beams where angular separation fails.

A variable mechanism adjusts the interval between optical structures to change focus and enhance image clarity.

A peripheral protrusion member structures the organic layer to maintain uniform liquid crystal density across large display areas.

An asymmetry improving electrode on the counter substrate balances electric potential distribution across liquid crystal display panels.

A back-light unit uses a reflective layer to redirect light from LEDs through a transmitting plate toward an optical member.

Segmented black mask prevents light leakage at substrate edges, preserving blank margins to improve cutting precision and production yield.

Introducing optical delay via a retardation plate synchronizes mid-infrared pulses with pump radiation, increasing conversion efficiency by up to 2.5 times.

Segmented light shielding pieces on different layers prevent short circuits while minimizing light leakage between the display and terminal areas.

A color filter array panel integrates spacers from the same material as color filters within the peripheral area to support substrate alignment.

Diverse protrusions in the concentrating structure prevent moiré patterns while filling splicing slits to eliminate uneven light emission shadows.

Removing the backboard reduces manufacturing complexity and device thickness by relocating hanging holes to the bezel frame for wall mounting.

A liquid crystal photoelectric apparatus uses intermediate alignment layers to orient molecules between upper and lower substrates.

A uniaxial anisotropic optical lens condenses light to enhance image quality in liquid crystal displays.

A half-tone mask forms the second passivation layer and pixel electrode simultaneously in a liquid crystal display device.

A switchable single-axis diffuser optimizes light distribution patterns in displays, resolving the trade-off between outdoor brightness and power consumption.

A liquid crystal display uses a patterned alignment layer to form a uniform lying helix structure.

An insulating layer and buffer layer absorb external forces to prevent optical film deformation during pressure tests.