Low-frequency oxygen plasma with an AAO template creates nanoscale roughness on polymeric nanofibers while preserving fiber shape and boosting cell growth.
A one-bath blocked-isocyanate cord coating and tuned sidewall rubber ratios improve run-flat tire durability under heat and load.
A hydroxybenzoate and amino-modified silicone oil balances emulsion stability, fusion prevention, and low silicon residue in carbon fiber precursors.
A formaldehyde-free dipping composition bonds synthetic fiber to rubber with RFL-like peel adhesion while reducing health and environmental risks.
Partial finish removal, plasma or corona treatment, and a protective coating improve UHMW PE fiber bonding and preserve surface energy over time.
A melt-blown aromatic polyester cleaning web improves heat resistance, oil compatibility, and toner removal while preventing fluffing.
Sulfuric acid parchmentizing strengthens aramid fiber supports while preserving high porosity, avoiding resin binders for insulation and honeycomb uses.
A migrating surface additive and timed antistatic application enable continuous spunmelt nonwoven production with barrier control and lower energy use.
Steam-assisted wet spinning and staged heat treatment lower residual solvent in meta-aramid fiber, reducing yellowing and gas release.
A crimped high-strength sheath yarn improves resin coating adhesion and durability without sacrificing glove fit, stretch, or workability.
Silicone-copolymerized urethane impregnation strengthens woven polyester sports fabric while preserving flexibility, abrasion resistance, and low air permeability.
A carbonic acid polyester finish makes aramid fabric water-repellent while preserving wet and dry v50 performance without 25-stage washing.
A hot polymer layer and multi-nozzle powder spray create uniform, durable nanoparticle-coated yarns while containing and recovering overspray.
Compressed-air spraying of a low-viscosity fiber-processing agent suppresses spindle scum in whirling air spinning while preserving yarn quality.
Epoxy-alkoxy organosilicon pretreatment enables low-viscosity silicone coating with strong fabric adhesion to suppress air bag gas leakage.
Epoxy-alkoxy organosilicon pretreatment enables low-viscosity silicone coating with strong fabric adhesion to suppress air bag gas leakage.
A mixed ester and silicone finish prevents monofilament fusing during carbon fiber processing while avoiding suspected endocrine disruptors.