See how warp-steered fabric with stretch-broken and conventional carbon fibers enables continuo
See how dynamically positioned finishing devices enable non-linear edge shaping and interior ap
See how selective heat bonding of yarn sets creates suspension members with distinct tension zo
See how selective thermal bonding of yarns creates suspension zones with varying stiffness and
See how simultaneous insertion of multiple parallel yarns from a composite package increases te
See how an angled support portion adaptively deforms with tube diameter changes to prevent plas
See how parallel-axis SMD components and cylindrical screening reduce optical path length to ac
See how simultaneous insertion of multiple parallel polyester yarns in a single pick event achi
See how simultaneous insertion of multiple parallel synthetic yarns in one pick event increases
See how automated warp-weft interlacing deposits continuous fibers in variable weave patterns t
See how simultaneous insertion of multiple parallel synthetic yarns in a single loom pick event
See how precise warp tension control and displaced feeding roller positioning enable ultra-high
See how automated warp-weft fiber deposition in FDM printing creates interlaced composites with
See how warp-steered fabric with stretch-broken carbon fibers forms upstanding legs and joggles
Simultaneous insertion of adjacent polyester weft yarns raises thread count while preventing fine yarn breakage in cotton-polyester fabrics.
Multiple parallel polyester wefts are inserted in one pick to raise true thread count without loom breakage or twisted-yarn miscounting.
During weaving, movable finishing units create non-linear edges, apertures, pockets, and tunnels without post-processing cuts.
Warp-steered fabric forms window frame legs and joggles without darting, preserving continuous fibers for lighter, stronger composites.
Simultaneous air-jet insertion of parallel polyester weft yarns raises thread count while avoiding fine-yarn breakage in cotton-blend weaving.
Small support rollers replace large rotor bearings to cut inertia, simplify the ring drive structure, and fit narrow spaces.
A split second bearing seat near the coupling element cuts fork-element weight and shear forces while preserving strength and positioning accuracy.
By overlapping the crank hub fixing mechanism with the bearing range, this loom drive layout cuts shaft bending and keeps tension roll motion accurate.
A guided protrusion and restriction surface let a loom support body lock to the sley without rotating into nearby parts during tightening.
A shaped fastener head stays engaged in the support groove during tightening, securing the weaving machine support without manual holding.