D02G3/36

Electrically conductive yarn
11577555 · 2023-02-14 · ·

An electrically conductive yarn (200, 300) comprising a first yarn (262, 362) and a second yarn (264, 364), the first yarn (262, 362) comprises or consists out of a plurality of stainless steel fibers, the second yarn (264, 364) comprises organic fibers wherein the first yarn (362) and the second yarn (364) are twisted or cabled together or the second yarn (264) is wrapped around the first yarn (262) such that the first yarn (262) is provided as a core yarn and such that the first yarn (262) provides part of the surface of the electrically conductive yarn (200).

Electrically conductive yarn
11577555 · 2023-02-14 · ·

An electrically conductive yarn (200, 300) comprising a first yarn (262, 362) and a second yarn (264, 364), the first yarn (262, 362) comprises or consists out of a plurality of stainless steel fibers, the second yarn (264, 364) comprises organic fibers wherein the first yarn (362) and the second yarn (364) are twisted or cabled together or the second yarn (264) is wrapped around the first yarn (262) such that the first yarn (262) is provided as a core yarn and such that the first yarn (262) provides part of the surface of the electrically conductive yarn (200).

METHOD FOR THERMALLY DRAWING NANOCOMPOSITE-ENABLED MULTIFUNCTIONAL FIBERS

A method of thermally drawing fibers containing continuous crystalline metal nanowires therein includes forming a preform comprising an inner core and an outer cladding, wherein at least one of the core and cladding has nanoelements dispersed therein. The preform is drawn through a heated zone to form a reduced size fiber. A second preform is then created from a plurality of fibers created from the reduced size fiber. The second preform is then drawn through the heated zone to form an elongated fiber containing continuous crystalline metallic nanowires therein having a maximum cross-sectional dimension of less than 100 nm. Optionally, a third or additional preforms are created from fibers made from the previous thermal drawing operation that are then drawn through the heated zone to form a fiber containing even smaller crystalline metal continuous nanowires therein. In some embodiments, only a single pass through the heated zone may be needed.

Fabric woven by imitating warp knitting
11708650 · 2023-07-25 · ·

A fabric woven by imitating warp knitting, which includes first warps, second warps, first wefts, and second wefts; the first warps and the first wefts are interlaced to form the face of the fabric, and the second warps and the second wefts are interlaced to form the back of the fabric; and 7 to 15 weft interlacing points are arranged between each two adjacent groups of warp interlacing points on the second warps. The fabric woven by imitating warp knitting in the present invention has not only the appearance style of woven fabrics but also the characteristics of good air permeability and good hand feel of warp-knitted fabrics.

Fabric woven by imitating warp knitting
11708650 · 2023-07-25 · ·

A fabric woven by imitating warp knitting, which includes first warps, second warps, first wefts, and second wefts; the first warps and the first wefts are interlaced to form the face of the fabric, and the second warps and the second wefts are interlaced to form the back of the fabric; and 7 to 15 weft interlacing points are arranged between each two adjacent groups of warp interlacing points on the second warps. The fabric woven by imitating warp knitting in the present invention has not only the appearance style of woven fabrics but also the characteristics of good air permeability and good hand feel of warp-knitted fabrics.

TYRE FOR VEHICLE WHEELS
20230234398 · 2023-07-27 · ·

A tyre for vehicle wheels comprises a support structure and a tread band arranged in a radially outer position with respect to the support structure. The support structure comprises at least one reinforcing layer including a plurality of hybrid reinforcing cords (10′) each having a metallic wire (21) twisted together with a multifilament textile yarn (22) comprising a plurality of filaments (23). In any cross section of each of said hybrid reinforcing cords (10′), the metallic wire (21) is at least partially embedded in the filaments (23) of the multifilament textile yarn (22).

BLANKET
20230002939 · 2023-01-05 ·

A blanket formed from a woven or knitted textile material. The textile material is an elongated tubular shell and a filler. The filler is a synthetic microfiber or a mixture of synthetic microfiber and natural microfiber.

BLANKET
20230002939 · 2023-01-05 ·

A blanket formed from a woven or knitted textile material. The textile material is an elongated tubular shell and a filler. The filler is a synthetic microfiber or a mixture of synthetic microfiber and natural microfiber.

SELF-WRAPPING WOVEN SLEEVE WITH WEAR INDICATOR YARNS AND METHOD OF CONSTRUCTION THEREOF
20230235490 · 2023-07-27 ·

A woven sleeve for routing and protecting an elongate member includes a wall having opposite edges extending lengthwise in generally parallel relation with a longitudinal central axis between opposite ends. The wall includes warp yarns extending lengthwise between the opposite ends and weft yarns extending circumferentially about the longitudinal central axis. At least some of the weft yarns are provided as bi-component yarns having a central core of heat-set material that biases the opposite edges into overlapping relation with one another, with an outer sheath encircling the central core. The central core and the outer sheath are different colors from one another, such that upon a portion of the outer sheath being split or worn, the central core becomes discernably visible.

SELF-WRAPPING WOVEN SLEEVE WITH WEAR INDICATOR YARNS AND METHOD OF CONSTRUCTION THEREOF
20230235490 · 2023-07-27 ·

A woven sleeve for routing and protecting an elongate member includes a wall having opposite edges extending lengthwise in generally parallel relation with a longitudinal central axis between opposite ends. The wall includes warp yarns extending lengthwise between the opposite ends and weft yarns extending circumferentially about the longitudinal central axis. At least some of the weft yarns are provided as bi-component yarns having a central core of heat-set material that biases the opposite edges into overlapping relation with one another, with an outer sheath encircling the central core. The central core and the outer sheath are different colors from one another, such that upon a portion of the outer sheath being split or worn, the central core becomes discernably visible.