Conductive Layers On Insulating-Supports TRIZ Cases

Synthesizing metal nano-particles in an inert atmosphere suppresses surface oxide film formation for high-conductivity thin films.

A transparent conductive layer coated with a silver palladium neodymium alloy improves surface quality and oxidation stability.

Indium hafnium tantalum oxide targets enable low-resistivity films at 150°C, resolving the trade-off between electrical resistance and optical transmittance.

A carbon nanotube conductive film forms through catalyst deposition in mesoporous silica channels followed by precursor reaction and template removal.

Optimizing refractive indices in the composite structure minimizes transmittance variation across wavelengths while maintaining low surface resistance.

Elastic members separate electrodes to measure pressure through capacitance variation while reducing noise interference from the display panel.

Silver nanowires form oxide complexes to boost transmissivity and conductivity, replacing brittle metal oxides.

A silver-coated resin particle with controlled compressive modulus enables uniform deformation under physical impact.

A touch sensor uses a double-layer electrode layout with alternately distributed traces to enhance signal transmission reliability.

Photocuring silver carboxylate-phosphite complexes forms metallic silver particles in situ for conductive patterns.

Adsorbing a colored compound onto metal nanowires prevents diffused reflection and black floating in displays without compromising transparency.

Balancing thermal shrinkage between the conductive film and protective layer prevents excessive curling while maintaining high scratch resistance.

Optimizing metal component ratios in connection portions prevents resistivity increases and adhesion loss after long-term storage.

Crystalline tellurium oxide particles replace glass frit in conductive pastes to form low-resistance tracks on semiconductor substrates.

A resin composition forms fine conductive patterns via electromagnetic irradiation of embedded metal compounds.

Hydrogenated graphene opens a bandgap to enable logic operations, while surface adsorbates control carrier type without complex gate structures.

A transparent electrode uses a plating layer on thin metal wires to enhance conductivity while maintaining optical transparency.

Low surface area base metal powder slows oxidation, preserving glass frit wettability for void infiltration and weather resistance.

A light control film uses polymer-dispersed liquid crystals to switch between scattering and non-scattering modes.

Replacing brittle indium tin oxide with flexible silver nanoplates reduces yellowish tint while maintaining electrical conductivity.

An insulating layer with openings exposes sensing electrodes to prevent static electricity accumulation between them, avoiding short circuit defects.

An electrostatic ink composition uses a low molecular weight resin binder to support high loadings of elongate conductive species for printed circuits.

A conductive film uses a lattice groove structure with a separation unit to enable selective layer removal during pattern formation.

Vacuum suction filtration deposits MXene and nanotube layers on a substrate to form a double-film structure for precise thickness control.

Tin oxide resistive layers resolve chemical resistance trade-offs in vehicle maintenance environments while sustaining low production costs.

Controlled surface contact angles on the PET film prevent cissing during coating, stabilizing shape and improving peelability.

Grouped main electrodes linked by connecting traces produce conductive transparent substrates that maintain high transmittance and mechanical stability.

A graphene circuit pattern forms on metal traces through immersion in graphene oxide solution.

Copper gold foil surface layer enriches conductive particles via magnetic attraction during hot pressing.

A protective intermediary layer shields metal conductive fibers from ozone and moisture, maintaining conductivity and transparency under harsh conditions.

Replacing sulfuric acid with p-toluene sulfonic acid during PEDOT:PSS surface treatment prevents film loss while maintaining high conductivity.

Terminal hydrophobic group prevents film thickness reduction and pattern degradation during high-temperature semiconductor manufacturing.

A CuO darkened pattern layer reduces light reflection on conductive traces while maintaining electrical conductivity.

Color-matching the isolation layer with conductive wires eliminates visible edge wiring, removing the need for optical adhesives or front bezels.

A transparent conductive film uses a conductive adhesive layer in metal mesh openings to bond device components.

High and low refractive index coating layers reduce light scattering from metal nanowires, eliminating milky appearance while maintaining low sheet resistance.

A flexible electrode uses an amino group monolayer to adsorb metal nanoparticles onto a substrate.

A polyurethane matrix carries metal particles to form a single conductive layer, eliminating braiding steps and reducing curing time.

Differentiating sensing electrode patterns across base film regions resolves the trade-off between high optical transmittance and electrical sensitivity.

Mixed solvent electroless plating coats aluminum cores with silver, preventing corrosion and maintaining conductivity.

Low-temperature liquid-phase reduction yields metal powder that forms sintered bodies relieving stress concentration during bending.