Conductive Layers On Insulating-Supports TRIZ Cases

Hot embossing imprinting patterns graphene directly on polymer substrates, eliminating resist and lift-off steps that increase process complexity.

Embossed carrier layer grooves filled with conductive material link grid sections to leads, eliminating complex ITO etching steps.

Non-conductive metal compound particles embedded in polymer resin form metal nuclei under electromagnetic irradiation to create conductive patterns.

A conductive film uses a mesh-shaped wiring pattern with non-equal pitches to minimize moiré interference in display devices.

An oxide seed layer promotes uniform metal deposition on flexible polymer supports to form conductive films.

A conductive sheet uses dendrite-shaped fillers within a polyurethane elastomer to maintain electrical contact during mechanical deformation.

Water immersion creates transparent aluminum oxide on pattern sides, resolving conductivity versus transmittance trade-offs.

Niobium oxide anti-crack buffer layer protects ITO from contamination, reducing specific resistance while maintaining optical transmittance.

Segmented heating cycles remove binder resin without oxidizing copper particles, achieving resistivity below 6 µΩcm.

A high Tg urethane resin binder in an anisotropic conductive film reduces bubble formation and maintains adhesive strength during substrate thermal expansion.

A crystallizable polymer substrate film with controlled crystallinity enhances mechanical durability in flexible electroconductive layers.

A touch screen panel uses a first insulation layer to cover driving shield electrode sides on the opposite substrate surface.

Silver nanowires in a binder resin enable foldable touch panels to withstand 200,000 cycles at 0.5 mm radius without conductivity loss.

Shared electrodes detect touch position and pressure within a layered display, reducing device thickness by eliminating separate sensor hardware.

A conductive film structure uses a hard coating layer to planarize the surface before depositing nano-material conductors.

Silver ink composition enables metallic silver formation at reduced temperatures using specific chemical reduction agents.

Composite ZnGaSi oxide sputtering target enables direct current deposition of transparent thin films without oxygen atmosphere, preventing film cracking.

Embedding electroconductive fibers unevenly in a resin matrix lowers haze and surface resistance while preventing atmospheric corrosion.

A core-shell structure combines soft polymer cores with hard resin shells to maintain connection reliability and resist acidic plating erosion.

Alkaline self-condensation of coupling agents forms siloxane networks on metal powder surfaces to enhance sintering delay properties.

Co-deposited silver films form continuous conductive layers, eliminating surface roughness and optical loss from island growth.

An aluminum oxide barrier prevents silver nanowire oxidation, maintaining low sheet resistance and high light transmittance for display applications.

A three-layer anisotropic conductive film uses photoradical polymerization to form a B-stage conductive core between thermosetting resin sheets.

Polyorganosiloxane adhesive maintains polymerization stability while preventing additive transfer to protect optical properties.

An irregular mesh pattern in a conductive film prevents moiré visibility across displays by varying pitch and shape within predetermined ranges.

A touch display device uses a single base film for opposing electrodes to reduce thickness and fabrication costs.

A photoresist-defined method creates coaxial metal structures with complete surface coverage using a single photomask.

Stacked transparent electrode layers with a specific insulation layer and contact holes create a uniform touch screen surface.

Controlling hydrogen and sp2 content in plasma-deposited amorphous carbon films yields high conductivity without compromising chemical stability.

An annular insulator couples to a conductive brush via prong-locked retainers to establish a shaft-to-housing current path.

High-pressure water atomizes molten copper in an inert atmosphere to produce fine particles with low oxygen content.

Copper, tin, and manganese powder prevents silver sintering during soldering heat exposure.

A transmissive electrode combines metal and metal oxide layers to maintain electrical conductivity while allowing light transmission.

An AlN buffer layer combined with a graded AlGaN superlattice reduces strain and light absorption, boosting deep ultraviolet light output power.

Optical interference from graded refractive index layers reduces reflectance and improves color feeling in transparent conductive films.

A zinc tin oxide moisture barrier protects a gallium-doped zinc oxide film from hygrothermal deterioration while maintaining low sheet resistance.

A flexible electrode manufacturing method deposits a metal-oxide seed layer on plastic substrates using sputtering to enable precise electroless plating.

Direct embossing forms the metal mesh conductive layer, eliminating vacuum coating and etching steps that generate heavy metal waste.

A pressure-sensitive adhesive composition with a thiol compound and crosslinking agent forms a cured layer on conductive films.

Composite transparent conductors integrate light-scattering particles to tune optical haze levels while preserving electrical conductivity.

Ultra-long silver nanowires bridge cracks in flexible displays, maintaining conductivity and optical transmissivity.

Silane coupling agents protect metal fibers from oxidation in polymer matrices, ensuring conductivity stability under harsh environmental conditions.

An intersecting nanostructure network forms a conductive layer that resolves the trade-off between high electrical conductivity and light transmission.

A stretchable electrode sheet uses a metal particle conductive layer to maintain electrical continuity during deformation.

Highly conductive patterns on a transparent base increase current intensity and gain without reducing the transmittance required for vehicle windshields.

Low alkali oxide insulating layers prevent thermal breakdown and leakage currents in electronic devices operating above 400 °C.

A metal fine particle dispersion liquid enables selective bonding on patterned fluorine-containing resin layers.

A suspended single carbon nanowire manufacturing method uses controlled photoresist pyrolysis to create thin, dense nano-electrode pairs.

Thermoset polyurethane films replace low glass transition temperature polymers to deliver high thermal stability and chemical resistance for touch panels.

Film manufacturing apparatus aligns measurement positions using a surface mark for precise resistance calculation.