Conductive Layers On Insulating-Supports TRIZ Cases

Bonding ionic polymers to carbon particles prevents water evaporation and ionic extraction, maintaining stable electric conductivity during skin contact.

A conductive substrate uses a patterned surface roughness of 0.1 to 0.3 micrometers to induce diffuse reflection.

An oxide sintered compact containing indium, tin, and germanium deposits amorphous transparent conductive films without substrate heating.

Interleaved graphene and copper layers in a multilayer busbar reduce electrical energy loss while maintaining manageable structural complexity.

An irregular conductive pattern minimizes moire and diffraction while maintaining conductivity in large displays.

A copper-manganese-based darkening pattern layer reduces light reflectance on conductive touch screen structures.

A copper-nickel oxide light reflection reducing layer minimizes reflectance on conductive structures.

Vinyl versatate in the dispersion mediates adhesion between hydrophobic polyolefins and aqueous dispersions, resolving stability trade-offs.

A metal mesh electrode film covered by a black photoresist layer on upper and side surfaces resolves visibility issues in touch panels.

A multi-layer electrode structure uses silver alloy and conductive capping layers to achieve low resistance and high current transmission.

Recessed grid grooves in matrix layers protect conductive films from scratches during manufacturing, improving production yield.

Modified fine cellulose with carboxyl groups disperses conductive substances to resolve non-uniform conductivity and brittleness.

Near-infrared light cures conductive polymer inks without damaging heat-sensitive substrates.

Thermal evaporation on partially cured PDMS creates pillar structures that resolve poor adhesion between metal films and elastic substrates.

Alternating first and second sensing lines employ varying metal layer widths to prevent short circuits in reduced peripheral areas.

Solution deposition of aluminum precursor films eliminates vacuum evaporation losses and organic layer defects in OLED manufacturing.

Photoreduction forms silver particles in situ, eliminating complex dispersing procedures and defects in touch screen displays.

A conductive substrate uses a wet-formed blackened layer on a metal film to prevent reflection while maintaining high productivity.

Metal foil coating on fine wire bundles maintains assembly stability under bending stress while suppressing eddy current losses in alternating magnetic fields.

Benzotriazole migrates from a silane-crosslinked polymer matrix to copper surfaces, preventing discoloration during cable extrusion.

Thermal processing via an insulated window layer replaces chemical etching, eliminating uneven visual quality and reducing material costs in display substrates.

Phosphoric acid doping reduces chlorine content below 0.6 wt% in polyaniline composites, enabling high conductivity for electronic applications.

A polymer compound with unsymmetrical repeating units enhances light emission strength in devices.

A glass-ceramic-ferrite composition integrates specific oxide ratios and ceramic fillers to achieve high relative permeability.

A dry electrode uses conductive silicone protrusions topped with an Ag and AgCl coating to detect bio-signals without wet gel.

A transparent conductive film combines metal oxide, metal, and epoxy layers to achieve high conductivity.

A flexible electrode design adapts to anatomical curvatures for stable neuromodulation contact.

Merging color filter and touch layers into a three-substrate design reduces manufacturing complexity while maintaining reliable detection.

Etching spacers from segmented silicon nitride and carbide layers prevents chemical paths to conductive elements while maintaining dielectric thickness.

A black electrode substrate uses a laminated structure to enhance adhesion and electrical connectivity.

A multilayer transparent conductive electrode combines polythiophene with a hydrophobic adhesive polymer to ensure direct adhesion.

A polycarbonate composition with infrared-absorbing additives enables conductive micro-pattern formation via laser irradiation and plating.

A transparent conductive thin film uses stacked metal oxide and metal layers to deliver high electrical conductivity.

Sandwiching a metal layer between two hafnium oxide layers resolves the trade-off between high light transmittance and low electrical conductivity.

A resin material uses inorganic particles with specific aspect ratios to enhance thermal conduction and adhesiveness.

A conductive film uses a textured substrate to maintain stable electrical resistance during mechanical deformation.

A touch panel design integrates insulation substrates with conductive films to reduce overall thickness.

Phase separation creates concavoconvex shapes in the cured resin layer, eliminating particle projections that cause Newton rings and flicker.

CuNO-based blackening layers match copper etching rates to resolve material removal imbalance and reduce electric resistance in electrical wiring members.

A transparent conductive element with a wave surface reduces wavelength dependency and improves electrical reliability.

Sputter deposition forms a 1 nm to 15 nm oxidized metal layer on the copper substrate, preventing natural oxidation variations during long-term storage.

A conductive polymer coating uses spatially varying surface resistivity to create distinct detecting and inoperative electrode zones.

Jet deposition and thermal imprinting embed metal mesh in substrates, reducing sheet resistance and boosting light transmittance for large-area production.

Replacing rigid indium-tin oxide with silver nanowires reduces material costs and enables large-area solution processing.

Carbon nanotube-coated polymer fibers form coiled electrodes that maintain electrochemical stability during bending and weaving.

Composite transparent conductive film maintains low resistance after 350°C heating, preventing ITO degradation.

A transparent conductive article combines a thin metal grid with a buff-coated carbon nanolayer to deliver high optical transmission.

Pressure-sensitive adhesive layers with low modulus bond the electrode layer to the base, preventing cracks during dynamic folding.

A flexible wiring board uses a metal and nanocarbon composite layer to maintain conductivity during bending.

Multi-stage light irradiation fuses silver nanowires and removes organic binders to produce uniform conductive films without substrate damage.