Conductive Material TRIZ Cases

Acrylic wax and ceramic additives strengthen heater coating adhesion, resisting corrosion and heat while cutting energy use in water or air.

A layered rare-earth thermoelectric composition boosts Seebeck coefficient and conductivity while suppressing heat flow for better cooling and power generation.

A reinforced mesh-polymer electrolyte membrane preserves strength and chemical resistance under high humidity and pressure in hydrogen pumps and electrolyzers.

A radial Ag concentration gradient helps ultrafine Cu-Ag wire retain tensile strength, conductivity, and bending fatigue resistance.

Controlled grain size and misorientation in extruded aluminum wire improve strength uniformity along the full length while preserving conductivity.

Trace Mg and impurity control let this copper alloy keep 97% IACS conductivity while resisting hardness loss at temperatures of 260°C or higher.

A zinc-aluminum alloy coating on steel grounding elements resists corrosion and keeps contact resistance low at lower cost.

Silver and silicon particles form an atomic-level sintered interface that improves bond strength and thermal fatigue resistance.

A conductive layer plus nanomaterial topcoat heats rotor blade surfaces quickly, dissipates charge, and cuts deicing energy demand.

Supplemental lithium and carbon-coated silicon oxide anodes curb first-cycle loss and stabilize high-capacity lithium-ion battery cycling.

Low-conductivity wire insulation suppresses AC skin effect, raising subsea cable power density while improving fatigue resistance.

A nested connection line and protruding electrode lower resistance and defects, improving touch sensitivity in large-area displays.

A soluble coating lets a porous substrate composite stay compact during delivery, then expand at the implant site via moisture, temperature, or pH.

Particle-free nickel complex ink enables MLCC internal electrodes below 400 nm while improving adhesion, lamination, and layer density.

An Fe diffusion layer between a copper core and stainless steel coating boosts wire strength and bending durability without sacrificing conductivity.

A stacked conductive-layer layout shortens through-substrate signal paths, reducing signal loss and easing circuit routing.

A copper-core, aluminum-clad wire uses an interlayer and anodized skin to resist oxidation and intermetallic damage at high temperature.

Specific polymer composition improves film forming ability and optical absorption to raise power conversion efficiency in organic photovoltaic cells.

Graphene dispersed in copper lowers TCR and CTE, reducing thermal breakdown and power loss while supporting higher current density.

A bonded metallic tape over the weld seam helps seal defects in submarine power cables, reducing moisture ingress and water barrier failure.

A curable composite with intercalated layered fillers blocks oxygen and water vapor while preserving transparency and flexibility for device encapsulation.

An ionic resin bio-electrode maintains conductivity after wetting or drying while improving skin compatibility, adhesion, and long-term signal stability.

An ionic resin skin-contact layer keeps bio-electrodes conductive when wet or dry while improving biocompatibility, stretchability, and adhesion.

Oppositely wound insulating fiber thread keeps a rectangular multi-core wire flexible, shape-stable, and resistant to fraying.

Conductive polymer-coated metal electrodes resist corrosion in purified dialysis water while preserving accurate conductivity measurement.

Graphene dispersed within copper lowers temperature rise and power loss, enabling higher current density with less thermal breakdown.

Nanoconductive polymer layers create a communication link that supports conventional conduction and instantaneous field-based data transfer.

A rigid aluminum conductor with a flexible connector section cuts EV charging harness weight, cost, and routing space while absorbing installation tolerances.

A doped polyaniline epoxy coating protects metal substrates by releasing inhibitors on demand, reducing leaching and chromate use.

A movable membrane separates the objective lens from photoresist to limit contamination, misalignment, and resist use in high-throughput 3D lithography.

Lower-magnesium aluminum armor alloy maintains strength and ductility without annealing, enabling continuous cable production with less energy use.

A conductive polymer and water-soluble polymer composition improves coating-film conductivity and coatability without harming resist characteristics.

An ultrathin transparent metallic electrode suppresses TE0 and TM1 waveguide modes in OLEDs, improving light outcoupling and external quantum efficiency.

Supplemental lithium and conductive silicon oxide composites curb first-cycle capacity loss and stabilize high-capacity lithium-ion battery anodes.

Porous insulation lets electroplated metal layers interconnect, lowering high-frequency impedance and eddy current loss with simpler fabrication.

Low-DC, high-AC resistance conductors use skin effect damping to suppress resonant AC currents without adding DC losses.

Conductive hollow beads in a coating burst under lightning current, expel inert gas, disrupt the flash channel, and limit structural damage.

Conductive polyaniline epoxy coatings dissipate static charge on aircraft surfaces while improving durability in extreme conditions and reducing ice buildup.

Metal-coated fibers and conductive polymers create lighter composites that preserve conductivity, strength, and EMI or lightning protection.

A laterally wound shield with semi-hard copper alloy strands and P/PD below 9.9 helps cables resist bending, torsion, wire breakage, and sheath cracking.

A fluorinated conductive polymer composition improves spray and inkjet film uniformity while reducing moisture, acidity, and stray OLED emission.

Ion-plated copper thin films on aluminum wire remove oxide barriers and keep wire weight low while improving adhesion for ultra-thin drawing.

A copper-clad steel conductor replaces soft copper to keep signal wires compact while improving strength, flexibility, conductivity, and crimp retention.

Temporary solubilizing side chains are removed after casting to form insoluble conductive polymer films with higher conductivity.

A polythiophene-carbon protective layer stays conductive in normal use, then raises resistance at high temperature to block short circuits and ignition.

A steel core wrapped with copper enables smaller automotive signal wires while preserving flexibility, strength, conductivity, and crimp retention.

A clear fluorinated-salt additive boosts base oil conductivity while avoiding poor solubility and metal corrosion in antistatic lubrication.

Controlled copolymerization with tetrafluoroethylene raises precursor TQ while preserving high ion exchange capacity in sulfonic acid fluoropolymers.

A surfactant-free conductive polymer and water-soluble polymer coating improves coatability and conductivity while protecting lithography pattern formation.

A tear-separable jacket combines power conductors and optical fibers in one cable, cutting installation cost while preserving insulation and access.

A conductive polymer composite layer heats rotor blade airfoils quickly for deicing, cutting energy demand while preventing refreezing and static charge buildup.

Alternating graphene and non-carbon intercalary layers cut wire weight while maintaining conductivity and improving strength and heat transfer.

A basic-compound conductive coating suppresses acid migration, reducing resist loss while improving film smoothness and conductivity.

A Sn-Cu alloy plating with dispersed Sn-Cu-Cr-Ni intermetallic crystals improves terminal durability and crack resistance under high heat.

A doped polyaniline epoxy coating dissipates static charge, withstands harsh aircraft conditions, and enables resistive heating to melt ice.

A symmetric filler and ground wire layout stabilizes the cable, reduces deformation, and maintains EMI shielding at lower cost.

Surface-modified silver and copper fillers in epoxy matrix boost thermal conductivity above 40 W/M·K while maintaining adhesion strength.

SAN copolymer-based anisotropic conductive film composition improves adhesion to metals like zinc and copper.