Non-Linear Optics TRIZ Cases

A higher voltage in the lower region offsets gravity bias, improving cell-thickness uniformity and 3D image consistency.

This optical modulator uses segmented signal and ground electrodes to raise voltage amplitude, limit losses, and improve bandwidth.

This light controlling panel uses grooved dielectric layers and charged particles to switch between transparent and blocking display modes.

The second light-shielding film overlaps the semiconductor layer, not the gate electrode, reducing etch damage and display defects.

Flexible or rigid conducting elements connect multiple IGU busbars through one seal location, reducing material use and leak risk.

Sloped metal edges and varied substrate spacing guide light through pinholes, improving sensor accuracy while narrowing display borders.

This PDLC film uses a stretched liquid crystal layer to vary haze with incident-light polarization under constant voltage.

This array substrate places data segments between pixel electrodes and uses shielding lines to reduce parasitic capacitance and delays.

Insulating regions and segmented piezoelectric layers sharpen flexible displays while avoiding bulky thickness and external power.

An organic buffer layer absorbs impact while the dual-layer structure supports thin, borderless LCD panels with improved durability.

Independent crossbar control and dielectric filters support high grayscale, fast response, and lower energy use in display pixels.

Closed-loop bias control compensates waveguide phase deviations for accurate optical signals.

This liquid crystal display uses region-specific color-filter transmittance to offset uneven illumination and reduce visible tile seams.

Segmented etching bends display link lines for a narrower bezel.

A substrate-based connection links display and touch sensors, reducing flexible circuits, frame width, and assembly complexity.

A pattern outside the dam improves vision-camera recognition of substrate grinding boundaries, reducing mismeasurement and defects.

Mesh power lines stabilize luminance while transmissive areas improve display visibility.

Routing data links through the display area reduces bezel size while improving image quality and reflected-light uniformity.

A reflective sheet uses smaller edge patterns to redirect light and improve uniform display illumination without spacing changes.

This electronic device shares lines between pixel and sensing circuits to reduce display-region routing and improve aperture ratio.

This array substrate uses opposite-surface line stacking to reduce wiring area and increase pixel aperture by about 10%.

A three-electrode LCD panel uses vias to create multi-domain LC orientation, reducing birefringence-driven leakage in dark states.

A multi-feeding touch panel limits touch-line count, preserving electrode area while distributing parasitic capacitance for better sensing.