Carbon Fibres TRIZ Cases

See how water-bath coagulation applies polymer sizing to carbon fibers while replacing hazardou

See how a sizing agent with unsaturated terminal and polar groups improves carbon fiber bondabi

See how a continuous AlBN network coating with Al—N and B—N bonds protects ceramic matrix compo

See how a gripping and tension application system applies controlled stress to carbon fiber reb

See how modified polyolefin emulsion sizing with amine compounds improves carbon fiber adhesion

A low-melting copolyamide sizing improves carbon fiber bundle resin adhesion, handleability, and resistance to sizing shedding.

A mixed aliphatic-aromatic epoxy sizing boosts carbon fiber interfacial strength to improve open-hole tensile performance in composites.

A silica-sol coating and heat treatment turn carbon fiber into a lightweight, high-conductivity composite for electronic heat dissipation.

Covalent crosslinking between epoxy sizing and vinyl ester matrix strengthens the fiber interface and raises composite shear strength.

A hybrid epoxy, thermoplastic, and rubber-particle prepreg improves fiber-resin adhesion while resisting thermal microcracks during storage.

A mixed aliphatic-aromatic epoxy sizing layer improves carbon fiber adhesion while suppressing premature resin reaction during storage.

A phenolic base coat plus a rubber top coat helps carbon fiber cords resist bending fatigue while bonding strongly to matrix rubber.

Covalent crosslinking at the carbon fiber sizing layer strengthens vinyl ester composites by improving interface integrity and shear strength.

A two-stage oxidation and carbonization route controls crystallite orientation and stress-strain behavior to raise carbon fiber strength without sacrificing toughness.

An epoxidized polybutadiene sizing film boosts fiber-matrix bonding in radiation-cured composites by initiating polymerization and forming covalent links.

A mixed water-soluble and water-insoluble polyamide sizing film improves carbon fiber resin adhesion while resisting moisture-driven delamination.

Sequential oxidation and nitrogen gas treatment raises carbon fiber surface N/C ratio to improve resin adhesion without washing, drying, or strength loss.

A low-melting copolyamide sizing improves carbon fiber bundle adhesion to matrix resins while reducing shedding and preserving handleability.

Controlled oxidation and carbonization tune crystallite orientation and stress-strain behavior to raise carbon fiber strength and toughness.

A dual epoxy sizing on carbon fibers improves resin adhesion while preserving prepreg property stability during long-term storage.

A vacuum-tight mold with compression compacts molten thermoplastic and fibers to cut porosity, boost strength, and avoid post-molding finishing.

Carbodiimide-modified polyolefin and polyfunctional fiber sizing improve carbon fiber adhesion, dynamic properties, and water resistance.

A bonded Al-B-N coating protects ceramic matrix composites from high-temperature chemical degradation while preserving thermal conductivity.

Two-stage sizing and controlled bundle shape improve chopped carbon fiber fluidity while limiting fibrillation, clogging, and dispersion loss.

Controlled strand shape and polyamide sizing improve extruder feeding, reduce fiber breakage, and preserve CFRTP mechanical properties.

A dual-epoxy sizing layer and conductive particle interlayer improve carbon fiber prepreg adhesion, impact resistance, and thickness-direction conductivity.

Functionalized diene polymer sizing improves fiber-resin adhesion, boosting FRP strength while reducing strand fuzzing during extrusion.

A straight-chain polysiloxane film protects interphase-coated ceramic or carbon yarn during weaving while preserving flexibility and clean removal.

Partially polymerized prepreg enables drape forming without intermediate compaction, cutting cycle time and reducing autoclave dependence.

A carbon nanotube surface film replaces metal mesh to protect composite aircraft parts from lightning while cutting weight and thermal-stress microcracking.

An epoxy novolac and sulfonated polyester sizing keeps aqueous carbon fiber coatings stable in storage while improving composite shear strength.

A heat- or UV-responsive polymer coating opens gaps between carbon filaments, easing tow separation and improving resin wet-out in SMC parts.

A PACVD polymer film with chain transfer groups boosts carbon fiber adhesion in radiation-cured resins and improves interfacial shear strength.

Conductive-coated thermoplastic core particles help CFRP prepregs gain impact resistance without sacrificing through-thickness conductivity.

A boron-silicon-boron coating limits polymer reactions, prevents delamination, and preserves interfacial bonding in composite articles.

A boron-silicon-boron coating uses a sacrificial outer layer to block polymer reaction, prevent delamination, and protect CMC fiber bonding.

Thermoplastic resin and conductive particles are balanced in carbon fiber prepreg to preserve impact resistance and through-thickness conductivity.

Thermoplastic and conductive particles in prepreg layers preserve through-thickness conductivity while improving CFRP impact resistance.

A carbon nanotube surface film replaces metal mesh to dissipate lightning energy with lower weight and less thermal-stress microcracking.