Conductive Layers On Insulating-Supports TRIZ Cases

Segmented electrode sections maintain low resistance while improving detection accuracy for small objects.

A transparent electrode complex uses alternating low and high refractive index layers to mask underlying patterns without thick films.

Vacuum buffer chambers isolate wire substrates during reel swaps, preventing contamination and sustaining manufacturing output.

Lattice patterns on a conductive sheet reduce surface resistance and improve detection accuracy in large capacitive touch panels.

Metallic layers surround graphite intercalation compounds to resolve brittleness and normal-direction conductivity limits in aerospace applications.

Aerosol deposition forms a dense silicon nitride film on metal layers to create insulative heat dissipating bodies.

A transparent electrode combines a silver conductive layer with a metal affinity layer containing an organic compound and lanthanoid to enhance conductivity.

Electrochemical metal deposition on printed precursors yields thin, abrasion-resistant structures without damaging plastic substrates.

Segmenting substrate surfaces into smooth and rough zones resolves the haze versus antiblocking trade-off in roll-to-roll manufacturing.

An adhesion enhancement layer fills openings between metal nanowire and wiring layers, increasing adhesive force and enabling narrow bezel designs.

A touch sensor integrated display device shares common electrodes with pixel structures to reduce thickness and simplify manufacturing.

Integrating gold deposition with trace formation eliminates laser ablation steps, simplifying manufacturing efficiency.

Photoreducible silver-heterocycle composition generates in situ catalytic sites for electroless plating.

Tapered pores in the metal oxide layer enable etching and stable conductivity, resolving trade-offs between scratch resistance and electrical performance.

An adsorbent embedded in a flexible conductive material fixes ionized impurities, reducing leakage current and enhancing transducer durability.

A conductive particle uses a core microsphere encapsulated by a macromolecular layer, 3D graphene, and metal.

Curved metal nanowires disperse mechanical stress to maintain electrical conductivity and transparency under deformation.

Segmented conductive tracks on a transparent carrier enable multi-touch detection while maintaining high visual transparency.

A polymeric dispersant stabilizes carbon nanotubes in solvent while bonding to substrates.

Metal oxide films on flexible substrates maintain low sheet resistance and stability through low-temperature plasma or microwave treatment.

A separation layer with chain polymers and cross-linking agents enables clean peeling of metal wirings from carrier substrates.

Integrates display and sensor functions in a single structure using oxide semiconductor transistors, reducing component count and manufacturing costs.

A post-fitting shield member formed by winding a plated fiber bundle in coil form and expanding it over an electric wire.

A flexible touch window uses distinct active areas driven by different schemes to enable bending without physical damage.

Dual metal oxide layers shield the silver alloy from humidity, maintaining conductivity and transparency.

Direct graphene growth on non-conductive substrates eliminates transfer defects and improves monocrystalline quality.

Infrared crystallization of amorphous ITO on metal layers simplifies the process and reduces surface resistance for touch screen applications.

Terminal catechol groups enable strong substrate adhesion while sulfonate interactions stabilize conductivity without metal fillers.

A transparent substrate uses a segmented antiglare layer to vary surface glossiness across its curved display area.

A copper-based ink uses diethanolamine to stabilize hydroxide complexes for screen printing.

An intermediate base layer with pressure-sensitive adhesive joins conductive layers, preventing bubble generation during thermal treatment.

Serpentine conductive electrodes and narrow-width strip patterns enhance flexibility in flexible touch display panels.

Sheet-shaped conductive portion overlaps wiring sheet on resin vehicle floor to absorb electromagnetic waves.

A sintered indium oxide compact with niobium additive forms transparent conductive films via sputtering on non-heated substrates.

A non-crystal indium-tin oxide layer maintains consistent light control through controlled sputtering.

Random irregular grid patterns in laminated metal meshes eliminate moire fringes while preserving electrical conductivity and optical clarity.

A copper particulate dispersion uses a polar vehicle with a 150 to 250 degree Celsius boiling point to enable stable droplet discharge.

Segmented light shielding layers with flatting layers resolve surface roughness from printing methods to enable fine wiring formation.

A conductive polymer film forms through aqueous electrolytic polymerization using high-molecular-weight non-sulfonate electrolytes.

Replacing metal armor with a metallized carbon composite reduces cable weight while maintaining mechanical resistance and lowering Joule effect losses.

Intersecting X and Y electrode lines in a single layer reduce manufacturing complexity while maintaining touch sensitivity.

Anisotropic conductive film uses layered reactive monomer concentrations to enhance adhesion strength and control fluidity.

Segmented parallel wires with through holes disperse bending stress to prevent crack propagation and extend service life in flexible displays.

Preformed triple junctions on electrodes promote localized discharge activity to break down insulating deposits.

Simultaneous etching of transparent conductive films and light-excluding electrode films on both surfaces of a single base sheet.

A silver nanowire transparent conductive film uses an active material compound layer to enable stable wet chemical etching.

Zinc gallium titanium oxide layers shield silver films from aggregation, maintaining low electrical resistance and high transmittance.

A transparent base film combines cyclic olefin polymers with styrene-maleimide copolymers to deliver high light transmittance and thermal stability.

Nanohole copper electrodes blunt crack tips to suppress fracture propagation during repetitive bending cycles.

Subnano-to-nanosecond laser light creates corrugated structures in transparent conductive films, preventing substrate damage and lowering equipment costs.