Filament Manufacture TRIZ Cases

See how conductive-core fibers with thermochromic coating enable on-demand fabric color control

See how offset heated deflection bars spread and overlap reinforcing and matrix fibers to preve

See how a core-and-layer filament structure applies functional materials only where needed to e

See how thermal stretching orders molecular chains in cut membrane filaments, reducing breaking

See how a grooved elastic fiber with silane-based stress transfer substance and 3D bonding enab

See how controlled viscosity and concentration ranges in diluted fiber treatment agents prevent

See how pre-humidifying acrylic fiber bundles at controlled temperature and moisture prevents b

A ductile sizing lets glass filaments move inward in molten resin, forming a round yarn for stable flow and uniform thin extrusion coating.

Longitudinal grooves protect a conductive coating, giving polymer fabrics metal-like static dissipation without losing durability or physical properties.

Longitudinal groove coatings improve static dissipation and EMI shielding while preserving monofilament strength and durability.

A rotary blade with release sections and a spacer stabilizes fiber bundle splitting, reducing breakage and improving resin molding uniformity.

Adjustable wire guide ceramic positions keep the filament bundle vertical in polyester FDY, reducing lousiness and loose loop yarns.

A wire-core thermoplastic shell enables FDM heatsinks with better heat dissipation while cutting metal part cost and delivery delays.

Combines FDM thermoplastic shells with flexible-mantled conductive wires to improve heat dissipation without costly metal printing.

A P(VDF-TrFE) formulation with surfactant and adhesion promoter creates uniform 5–100 μm coatings without high-voltage electrowetting.

Aldehyde treatment adds reactive groups to PAEK surfaces, enabling covalent coatings that support cell adhesion and osseointegration.

A cylindrical roller cover minimizes air disturbance around a yarn guide roller, reducing power consumption by stabilizing airflow.

A fiber width adjustment device uses a conical guiding path to constrain tape material width during feeding.

A fiber guide uses anisotropic surface roughness to enable smooth sliding and reduce contact area.

Detecting splice positions allows a fiber splitting means to stop thrusting, preventing breakage during continuous conveyance.

Internal Joule heating eliminates external heat losses and prevents localized fiber damage during sizing removal.

An electrolyte bath and PTFE blades split high filament count carbon fiber tows, preventing tangling and tearing while maintaining uniform mass distribution.

An annular wall fiber with embedded conductive wire switches colors via electro-phoresis, resolving pigment settling and cutting limitations in smart textiles.

Mechanical vibration and pneumatic blowing improve spread uniformity and width of carbon fiber bundles.

Convex spreading elements distribute continuous fibers uniformly in a thermoplastic matrix, minimizing voids below five percent.

Extrude multiple metal filaments together with rubber from one mouthpiece to eliminate closed spaces and prevent peeling during cord formation.

A movable filament guide deflects filaments transversely to resolve nonisotropic strength issues in continuous spunbond manufacturing.

Curved guide contours redistribute fiber spacing within a tolerance band, resolving twist and ensuring uniform weight per unit area.

A rotating separating jig with a concave-convex profile intermittently contacts reinforcing fiber strands to separate them.

A fiber splitting means with protruding parts pierces a moving bundle to create split sections and entangled zones.

A textile machine calculates yarn tension by measuring rotational torque differences on a godet roller.

A thermoplastic resin composition with controlled carbon fiber twist and void fraction enables injection molding of complex shapes.

Alternating speed pulses separate fibers without lane formation, achieving 16 g/m2 basis weights.

Superheated gas removes solvent from extruded meta-aramid fibers, enabling continuous spinning and drawing without batch processing delays.

Supercritical carbon dioxide extracts solvent from meta-aramid fibers, resolving the contradiction between reliable fiber formation and efficient manufacturing.

A spinning apparatus ejects organic material to form a uniform fiber sheet on an electrode surface using electrohydrodynamics.

Porous nanofiber webs in microchannels boost particle separation efficiency by expanding capturing surface area beyond solid spoiler pillars.

Roller spreading prevents fiber adhesion during stabilization, yielding high tensile strength carbon bundles with lower equipment costs.

Segmented fluid spreading regions prevent tangling in high-fineness bundles to ensure uniform thickness.

Segmented suction devices remove oligomer vapors before deposition on apparatus walls, preventing oily coating formation that disrupts production.

A yarn winder rotates fulcrum guides during threading to prevent local wear.

Pneumatic tension control replaces mechanical rolls to prevent yarn slipping and breakage during high-speed acrylic fiber bundle drawing.