Conductive Pattern Formation TRIZ Cases

Integrating transparent and metal conductive layers via an insulator reduces impedance in capacitive touch panels, improving signal transmission sensitivity.

A decoder card uses conductive logic regions to encode unique identification data for secure system access.

Using RF signal electrode as bias ground eliminates buried bias structures, reducing optical loss and DC drift in Z-cut lithium niobate devices.

A board clamping device applies a downward bending moment to correct upward warpage during double-sided mounting operations.

Self-assembly membranes replace mechanical roughening to enhance metal adhesiveness and simplify high-density PCB fabrication.

Porous nanostructured electrodes measure neurotransmitter oxidation currents to resolve spatial resolution and speed limitations in neural sensing.

A metal pattern forming method uses lyophilic and liquid-repellent base portions to transfer conductive ink selectively.

Graytone masks merge excimer and CO2 laser processes into one step, eliminating separate equipment needs while maintaining manufacturing precision.

A two-step electroplating process creates uniform porous structures on heat sink substrates.

Printing-based deposition replaces complex mechanical wire handling to resolve accuracy limits on thin substrates while boosting production speed.

A printer device deposits high-viscosity conductive and dielectric fluids automatically.

A pivotable ink pan with a side-mounted doctor blade controls anilox roller ink transfer.

Continuous-flow microreactors generate reactive silver precursor inks for direct deposition onto substrates.

A liquid crystal display pixel electrode structure enables laser cutting of drain connections for defect repair.

Laser-induced paste release from patterned sheets enables precise alignment and higher throughput in photovoltaic cell manufacturing.

A photosensitive resin composition with a styrene-rich binder polymer and anthracene sensitizer enhances resist pattern adhesiveness.

Segmented pad sets with symmetric trace routing preserve signal transmission when manufacturing defects break conductive paths, reducing scrap rates.

An AI system evaluates multiple printing factors to resolve the contradiction between manufacturing precision and optimization time.

A cold spray method deposits aluminum powder onto ceramic substrates to form conductive metal layers.

A mask layer with lower reflectance sits between metal jumpers and the transparent substrate to block reflected light.

Edge tempering creates compressive stress in OGS substrates, preventing stress release and edge cracks during cutting.

Printing an elastomer pattern beneath a conductor layer reduces stress during bending, improving reliability while simplifying mass production.

Treating flexible fluoroelastomer substrates enables uniform conductive ink deposition via inkjet printing.

Metal nanowire touch panels bridge non-conductive gaps between electrodes and traces, reducing contact resistance and improving manufacturing yield.

A defected ground structure suppresses electromagnetic interference propagation within a multi-layer circuit board.

Microwave plasma sintering creates a low-void metal film that resolves the trade-off between conductivity and adhesive strength.

A conducting substrate forms darkening layers through electroplating and oxidation to reduce surface reflectivity.

Segmented phase change layers within conductive holes manage local circuit temperatures to prevent overheating in high-density boards.

Thickening the second metal foil locally prevents laser penetration errors, ensuring reliable via conductor connections under thermal stress.

A fused deposition modeling filament containing embedded conductive wires creates integrated electronic circuits within printed objects.

Print conductive paste to form precise circuit patterns on double-sided flexible printed circuit boards.

Protruding conductive patterns anchor insulating resin to lateral faces, preventing peeling and enabling larger coil sizes.

An alignment layer with different orientation directions minimizes retardation differences between front and side views while maintaining light transmittance.

High-speed stencil removal and shaped squeegees deposit conductive solder paste onto printed circuit boards, reducing end-of-track bumps by up to 19 percent.

Selective baking of metal ink wirings maintains uniform surface wettability, preventing separation and ensuring reliable interconnection.

Annular bumps prevent adhesive contamination on exposed pads, eliminating protective layer removal steps and improving connection reliability.

A circuit board structure uses a barrier layer to define intaglio patterns and blind vias for precise conductive material deposition.