Artificial Thread Manufacturing Machines TRIZ Cases

An electrospinning system applies a restrictive fiber matrix to arterial vein grafts, reducing intimal hyperplasia occlusions and improving long-term patency.

A take-off godet guides synthetic threads with a maximum 15° deflection angle to minimize friction during winding.

Segmenting the communication infrastructure into dedicated control and analysis channels resolves transmission bottlenecks during process disturbances.

Bundling guides reduce airflow disturbances between filament groups, ensuring uniform cooling and oil distribution.

A yarn production duct exhaust port positioned above the floor surface directs airflow away from the working area.

A yarn heating apparatus uses a connecting space to recirculate warm air from the exit side back to the entrance side of the thermal insulation box.

Discharge devices extract solvent-laden nonwovens during start-up to prevent equipment corrosion and minimize solvent loss.

Segmenting the drawing apparatus into distinct pressure zones prevents fiber breakage and fuzz generation during high-speed processing.

Segmented movable walls provide quick maintenance access to the cooling chamber, reducing downtime and technician requirements.

Periodic compressed air pulses synchronize with thread speed to fix knot spacing irregularities and ensure reproducible patterns.

Stacked processing devices with counter-flow rollers reduce longitudinal footprint and operator travel while enabling independent thermal control.

An electrospinning device uses an optical measurement system to calculate fibrous structure thickness in real time.

Segmented converging channels resolve throughput versus uniformity contradictions by creating controlled turbulence for homogeneous laydown.

Vertical extrusion axis prevents silicone yarn deformation, enabling precise section control and uniform molecular orientation.

An insulating suppressor at the cooler outlet reduces static electricity, preventing filament adhesion and facilitating yarn bring-down.

A pulp fibre yarn extrusion system uses wire sieves to dewater and twist cellulose suspension into continuous strands.

An electrospinning alignment apparatus segments nozzle arrays to deposit aligned and random nanofibers onto a moving carrier.

Opposed rollers bond separate meltblown fiber layers to resolve low tensile strength and fibrous surface defects in heavy-weight mats.

Insulated housing captures radiant heat from thermosetting rollers to preheat yarns via contacting members, reducing thermal energy consumption.

A suction device with progressively decreasing channel speeds controls gas flow to deposit and compact drawn filaments on a movable support.