Conductive Layers On Insulating-Supports TRIZ Cases

Holes in the second insulation layer trap external light, reducing interior component visibility and enhancing display surface characteristics.

An electric conducting substrate applies a segmented metal mesh structure to balance high conductivity with minimal view obstruction on touch panels.

Alternating graphene and organic composite layers reduce sheet resistance deviation while maintaining high optical transmittance.

A coating material forms a conductive release layer using a π-conjugated polymer composite and epoxy compound.

A transparent conductor uses a transmittance-controlling layer to balance optical properties across laminate parts.

A patterned conductor uses vertically oriented metal crystal grains to form a rectangular main cut surface.

Staggered touch electrodes separate the touch structure from OLED elements, resolving flexibility and light transmittance contradictions.

A protecting layer shields conductive metal patterns from electrolyte corrosion while maintaining low resistance.

Periodic etching regions in sensing electrodes suppress moiré patterns and enhance image quality by disrupting regular overlap with display pixels.

Alternating electrode and insulating patterns with random pores and islands minimize reflection differences, suppressing moire generation in touch panels.

Segmented light blocking layers absorb external glare and recycle internal photons, resolving the trade-off between color accuracy and light output ratio.

A stress reduction layer sits between the substrate and metal catalyst to lower tensile stress during high-temperature annealing.

Self-assembled nanostructured conductive pattern layer prevents cracks during bending by reducing stress transmission through porous geometry.

Low discharge power sputtering reduces average maximum curvature to improve adhesion between transparent electrodes and lead-out wiring lines.

A transparent flexible silver nanowire conducting film uses wet sintering and graphene dispersion to create a durable, highly conductive surface.

A resin composition with low oxygen copper powder achieves stable electrical conductivity in semiconductor devices.

Conductive film radiation patterns integrate into display structures to support wireless communication across multiple frequency bands.

Mechanical peeling of a flexible substrate from a carrier eliminates laser irradiation damage and solvent costs.

A conductive laminate uses a crosslinkable polymer adhesive with low boiling point monomers to prevent bubble formation during thermal treatment.

A metal substrate with polished surface roughness supports a chemically generated buffer layer for superconducting thin-film strip conductors.

A polycyclic aromatic epoxy resin and fluorene epoxy resin blend maintains high viscosity to transfer pressure uniformly during bonding.

A 3D topological insulator layer maintains differential electric charge across conductive outer surfaces to detect touch inputs via capacitance changes.

Acrylic copolymer anisotropic conductive film achieves high adhesive strength through specific compression bonding.

A silver-coated copper alloy powder maintains electrical conductivity and storage stability by preventing core oxidation via a complete silver barrier layer.

In situ nitrosyl ion generation initiates one-step polymerization, resolving two-step process complexity while preserving mesoporous silica structure.

Electrically conductive adhesive film uses metal particles and organic phosphines to bond semiconductor chips without flux-induced moisture absorption.

Self-assembled colloidal lattices form voids in conductive materials, enhancing infrared properties and signal-to-noise ratios for spectroscopy.

A conductive film uses metallic filler particles in an elastomer to maintain low electrical resistance during mechanical extension.

Hybrid nanoparticle self-assembly forms narrow transparent electrode grids, eliminating Moiré interference and reducing indium costs.

Pulsed light sinters metal nanowires through a mask, eliminating photolithography steps and chemical waste while achieving narrow pitch.

A flexible transparent conductive electrode uses a silver nanowire coating with specific binding agents to ensure uniform dispersion.

Annealing amorphous ITO after patterning resolves the trade-off between etching precision and durability, enabling fine line widths without residue.

A thin-film electrochromic device removes conductor layers at the perimeter to eliminate edge defects and ensure uniform coloration.

A liquid-crystal light-adjusting member uses a semicrystalline inorganic oxide and metal conductive layer to achieve high near-infrared reflectance.

A copper oxide ink formulation uses a reducing agent and dispersant to form low-resistance conductive patterns on substrates.

Hybrid ruthenium oxide nanosheets with metal clusters reduce sheet resistance while maintaining light transmittance for flexible displays.

A nanoparticle mask layer matches the refractive index of transparent electrodes, eliminating etching lines and improving screen resolution.

Polyglycerin additive prevents crack formation in thick conductive patterns by stabilizing metal particle bonding during solvent evaporation.

Segmented insulating resin layers prevent particle displacement during heating, maintaining conduction reliability while reducing short circuit risks.

An undercoat of hydrophobically modified polyester resin resolves adhesion deterioration and haze increase during 1 to 10 μm fine line formation.