Conductive Layers On Insulating-Supports TRIZ Cases

Optimized laser line parameters maintain temperature uniformity across large substrates despite flatness defects and position variations.

A polyester single layer film uses a germanium compound catalyst to achieve low haze and low oligomer content.

Dry photoacid doping produces precise electroconductive patterns without wet etching damage or complex mechanical processes.

Oriented carbon fibers in a polymer matrix provide high thermal conductivity while an insulating layer prevents electrical shorts.

Multi-scale lattice patterns on opposite substrate surfaces reduce parasitic capacitance, resolving short circuit risks while maintaining high visibility.

Epoxy and phenoxy resin compositions cure rapidly at low temperatures, preventing warping of flexible boards during thermocompression bonding.

Magnetic heating elements in conductive paste enable rapid induction sintering, resolving the trade-off between high bonding strength and substrate deformation.

Replacing brittle ITO with a flexible polymer composite maintains low resistivity and high transmittance under humidity.

A transparent conductor uses a retardation film base layer and metal nanowires to enhance flexibility and conductivity.

Polygonal mesh electrodes on flexible substrates resolve brittleness issues while maintaining electrical conductivity.

Chromium tie layers replace conductive adhesives to lower interconnect resistance between copper circuitry and stainless steel grounding planes.

A digital output driver uses thin-oxide FETs with a pre-driver and latch to translate core voltages to pad levels.

A conductive film uses thin metal wires with controlled reflectivity to enhance optical visibility.

Touch sensors above the encapsulation unit eliminate separate attachment steps, preventing connection faults between overlapping routing lines.

A gemstone with an electrically conductive layer detects finger touches to control electronic devices.

A composite anisotropic conductive film uses polyurethane and acrylic resins to enable rapid low-temperature curing for semiconductor connections.

A transparent conductive film uses layered dielectric and conductive materials with specific refractive indices to minimize optical contrast.

An electricity conducting adhesive fills openings in a protecting layer to contact silver nanowires and prevent oxidation.

Incorporating alicyclic units into polyester resins reduces birefringence to eliminate interference colors while maintaining dimensional stability.

A nanostructure network forms through controlled solvent evaporation to create poly-crystalline structures.

An elastomeric body embeds gel electrodes to resolve the trade-off between electrical conductivity and mechanical compliance for comfortable skin contact.

A plastic substrate integrates a polyimide film with a hard coating and transparent electrode layer to enable flexible touch screen applications.

Laser etching creates touch electrode structures with isolation lines around output pins to prevent short circuits while reducing production time.

A conductive film uses a constrained random mesh pattern to optimize metal wire length and coverage for display applications.

Segmented conductive patterns with 15 μm spacing reduce visibility interference in touch panels while maintaining electrical conductivity.

A multilayer nanomesh electrode uses single-crystalline copper and a metal oxide layer to enhance optical transmittance and electrical conductivity.

An insulating layer pattern masks metal over-etching to create conductive substrates, reducing process complexity and equipment costs.

A transparent substrate uses a resin pattern layer with grooves to hold conductive metal lines for display applications.

An adhesive film transfers a conductive heating pattern onto glass, eliminating intermediate layers that cause optical distortions.

Porous nanoparticles bind conductive nanowires within a polymer substrate, resolving brittleness and adhesion issues found in traditional ITO electrodes.

A hybrid transparent electrode fills substrate grooves with conductive metal ink to create a patterned lower layer.

Resin storage elastic modulus between 10 and 1,000 MPa prevents conductivity drop during bending.

An optically functional layer with distinct refractive indices reduces pattern visibility and transmittance loss in laminated touch panels.

Patterned conductive film segments block infrared radiation and transmit selected radio frequencies through defined gaps.

A transparent conductive layer forms by removing semiconducting carbon nanotubes from a film using scanning electron microscope imaging.

An oxetane compound stabilizes the conductive polymer solution, ensuring high preservation stability and water resistance.

A segmented ring electrode plate directs fine glass particles toward the outer peripheral portion of a semiconductor wafer during electrophoresis.

An auxiliary mesh pattern reduces moiré visibility while maintaining touch sensitivity in display sensors.

A polymer resin composition forms fine conductive patterns through electromagnetic wave irradiation of non-conductive metal compounds.

Light irradiation welds metal nanowires into a transparent conductive layer.

Segmenting the substrate into thin laminated layers limits burr propagation across boundaries, ensuring stable sprocket hole dimensions for carrier tapes.

Embedded metal inserts in a stiffener reduce package resistance and eliminate land side capacitors, lowering motherboard complexity.

Spray deposition of platinum or palladium salts stabilizes graphene conductivity while maintaining high optical transparency.

Zirconium doped indium oxide sintered compact enables low resistivity transparent conductive film deposition via controlled sputtering.

Graphene transparent conductive film uses a vertical alignment agent to resolve ITO flexibility and polyimide dust trade-offs.

Q-switching IR laser delaminates conductive and alignment films, replacing complex photolithography to boost productivity.

Optimizing indium zinc oxide composition reduces optical loss in infrared light transmittance for optical communication devices.

A dielectric substrate hosts orthogonal electrode sets linked by conductive bridges to deploy uniform electric fields.

Stacked transparent conductive layers in a film-type touch sensor electrode pattern reduce sheet resistance while maintaining high transmittance.

Insulating layer openings in a touch sensor form a static electricity discharge path that prevents disconnection and corrosion of the sensing electrode.