A metal tie layer with strong metal-oxygen bonding improves high-frequency dielectric behavior while preserving coatability and copper adhesion.
A severable conductive grid on a flexible dielectric substrate enables precise, scalable flat cable splicing without slow soldering or crimping.
A chromium oxide underlayer helps nickel temperature sensor films survive heat treatment, improving adhesion while raising TCR for accuracy.
Controlled solvent swelling and PET adhesion let wiring print directly on an adhesive layer without transfer-induced cracking or buckling.
Curved silver nanowires joined by a low-boiling alkynyl-hydroxy compound cut contact resistance while preserving transparency and flexibility.
Liquid-coated dielectric layers with photo-initiators improve adhesion and optical effects in security pigment flakes while cutting process cost.
Crosslinked copolymer films improve adhesion during nanostructure transfer, enabling near-100% yield for narrow, ultrathin ribbons.
A fluorinated amide copolymer disperses inorganic filler while preserving oxidation resistance and stable viscosity over time.
Photothermal ink locally converts light to heat to reduce metal ions and repair fine-pattern disconnections without vacuum equipment.
Electron beam irradiation dopes carbon nanomaterial films in seconds, cutting sheet resistance while preserving transparency and large-area uniformity.
A polymer binder layer between ITO and Ag improves adhesion, prevents peeling under deformation, and keeps multilayer conductivity stable.
Spatial indium variation and two-step plasma etching sharpen transparent electrode patterns for efficient ultra-high-resolution display manufacturing.
Metal nanowires with a cross-linkable compound improve conductivity, stability, and surface smoothness for flexible transparent electrodes.
A copolymer and surface-treated silica balance low dielectric loss with 250°C modulus retention for high-frequency insulating substrates.
A tin intermediate layer between silver coatings helps resin particles resist heat-cycle peeling while preserving conductive film conductivity.
Porous adhesive and breathable fabric layers enable a stretchable capacitive sensor garment that captures motion accurately without sacrificing comfort.
Light radiation crystallizes indium oxide on polymer substrates to achieve low resistivity and high transmittance without heat damage.