A knitted quilt fabric is made of a first layer of a first knit material and a second layer of a second knit material, with a filler material composed of a plurality of plaited lay-in fibers between the two layers. The first layer and second layer are joined at a plurality of locations with knits forming at least one linear quilt line. Each knit of the linear quilt line is formed around a plaited lay-in fiber by knitting a first fiber of the first material to the second material and returning to the first material and knitting a second fiber of the second material to the first material and returning to the second material. Each lay-in fiber is an elastic polyether-polyurea copolymer which is plaited with one or more natural or synthetic yarns.

The present invention relates to a restraining fabric having at least one stretch portion (4) comprising a plurality of stitches of at least one ground yarn (2) and at least one elastic yarn (5), wherein, next to at least part of said stretch portion (4), a restraining portion (8) extends in which first groups (G1) of one or more first stitches (P1) comprising said at least one main yarn (3) alternate with second groups (G2) of one or more second stitches (P2) comprising a restraining yarn (9), such that at each of said first stitches (P1) a floating length (10) of said restraining yarn (9) extends and at each of said second stitches (P2) a floating length (10) of said main yarn (3) extends. The invention also concerns restraining garments containing said fabric and the method of manufacturing the fabric and garments.

A seamless compression article is knitted on a flatbed knitting machine having a front needle bed and a rear needle bed opposite thereto. The compression article includes a base structure of at least one weft thread, at least one elastic warp thread inserted or knitted therein, and at least one tubular or pocket-like receptacle extending along a longitudinal direction for at least one finger or at least one toe of a wearer of the compression article and can be placed on a body extremity of the wearer extending in the longitudinal direction. The receptacle includes a number of rib-like elevations, which run substantially parallel to each other and along the longitudinal direction of the corresponding receptacle. Putting on the compression article can thereby be facilitated.

A method of making a yarn is disclosed. A plurality of fibers is obtained by: preparing a slurry of polymer mixed with water insoluble nanoparticles of electrolytic copper, and extruding the slurry through a spinneret that includes a plurality of holes which impart a generally “X”-shaped cross-section to the plurality of fibers. The plurality of fibers are spun together to form the yarn.

A compression article and method for its production on a flat-bed knitting machine are provided for providing an improved fit to a body part. In the compression article, respectively the number of stitches per stitch row is matched to the radial circumference of the body part to be treated by the compression article. The compression article has a plurality of points which are distributed over its circumference and at which, in a stitch row, at least one of a stitch increase and a stitch reduction is realized. The number of stitches in the wale direction varies over the circumference of the compression article and is matched, in the longitudinal direction of the body part, to the shape of the body part to be treated.

An orthopedic device comprises a main body defining an outer surface and a cuff extending from an end portion of the main body with frictional material disposed on an inner surface of the first cuff. A hinge is connected to the main body and terminates along the main body short of the cuff. The cuff is arranged to fold over the outer surface of the main body in a disengaged configuration, such that the outer surface of the first cuff is adjacently against the outer surface of the main body.

A compression bandage in the form of a knit obtained with warp knit technology, formed of synthetic yarns and composed of two textile surfaces having the same or different textile structure, linked together by spacer threads, each surface has elastic yarns, and the spacer threads of the knit are multifilaments. The knit has longitudinal elongation measured as per standard EN 14704-1 of between 30 and 160% and threshold shear stress equal to or higher than 2800 Pa and/or conformability equal to or lower than 65 mm.

A textile-based computing platform for wearing by a wearer on both sides of a joint of a body of the wearer, the platform comprising: a textile body shaped as a sleeve including a first zone for positioning adjacent to the joint, a second zone opposite the first zone for positioned on another side of the joint, and an intermediate zone for positioning over the joint; a fabric sensor incorporated into a textile layer making up the textile body, a fabric actuator incorporated into the textile layer making up the textile body, an electrical connector mounted on the textile body for connecting to a controller computing device; an electronic circuit coupling the electrical connector to the fabric sensor and the fabric actuator, the circuit electrically conductive threads incorporated into the textile layer.

To achieve high fit corresponding to variation in dimensions and shapes in a section of a human body and high return-promoting-effect. The cylindrical bandage (1) has increase and decrease in the number of stitches of row on one circle of a wale side to reflect a variation in circumference of a section of a human body in human body circumference dates m.sub.1, m.sub.2, m.sub.3, . . . . This bandage includes depression part (exterior convex part (42) where stitch shows convexity on the outside and concavity on the inside) and projection part (interior convex part (41) where stitch show concavity on the outside and convexity on the inside) on the inside being in contact with a wear part. The depression part and projection part are alternatively and continuously arranged in parallel in a circumferential direction. This bandage has continuous unevenness in the cross-section by knitting.

Active fabrics can be created by combining active and passive materials. Active materials with shape memory or other actuation characteristics can generate compression or dynamic fit, and the level of compression and/or change in fit can be determined by setting a knit index, wire diameter, and garment ease, or fit in relation to the body. Maximum compression can be set not only by varying physical properties of the knit structure but by built-in circuit breaking technologies, or by segmentation and control of the garment by a controller. In some embodiments, additive manufacturing can be combined with traditional textile equipment (e.g., circular knitting machine). Uniquely functional or active textiles can be made from additively manufactured, heterogeneous filaments. Yarn-like filament with varying properties (such as elasticity, stiffness, conductivity, activation, or surface properties) can be additively manufactured. This filament can be formed into a textile or garment with functional properties that are a results of emergent interactions between the heterogeneous filament components.