Aspects herein are directed to a knit structure used to form a knit article where the knit structure can be adjusted to provide zoned cushioning, zoned insulation, zoned fit, zoned permeability/breathability features, and/or zoned tactile feedback features. The knit structure has a repeating pattern of a first number of knit courses having a first yarn knit with a first basic knit stitch and a second number of knit courses, where within each knit course of the second number of knit courses, the first yarn is knit in a repeating pattern having a first number of knit stitches knit with a second basic knit stitch and a second number of float stitches knit with a float stitch to form float areas.

A knit sock includes a foot portion having an upper instep area and a lower sole area integrally knit of a body yarn in circumferential courses and axial wales. The lower sole area defines inner and outer arch regions. The inner arch region incorporates a targeted compression zone adapted to reside generally adjacent an inner arch of a wearer's foot. The compression zone includes axially extending compression ridges of variable length spaced apart from a top of the compression zone to a bottom of the compression zone. When the sock is worn, a compression force applied by the foot portion within the targeted compression zone is greater than the compression force in directly adjacent areas of said foot portion.

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.

A method for manufacturing a sock and monitoring health, comprising the steps of manufacturing the sock, comprising determining regions for conductive yarn patches in a sock, wherein the regions comprise of a heel region and a ball region, determining conductive part regions for a plurality of conductive paths connecting the respective heel region and the respective ball region to a top part of the sock, wherein at least two of the plurality of conductive paths are connected to the ball region and at least two of the plurality of conductive paths are connected to the heal region, and stitching the sock comprising stitching utilizing conductive yarn for the conductive yarn patches and the conductive paths, and stitching utilizing cotton yarn for the remaining of the socks. Furthermore, the method may include receiving signals from an end of the conductive part region responsive to receiving electrical signals from the heel region and the ball region, utilizing the received signals for determining health of a user.

A knit sock is integrally formed of a body yarn in circumferential courses and axial wales, and includes a foot portion having a heel and a toe, and an ankle portion joined to the foot portion and defining an open leg end of the sock. A first targeted compression zone is formed with the foot portion between the heel and the toe, and includes spaced-apart axial compression ridges extending axially outward from the heel at a first end of the first compression zone to a second end of the first compression zone. A second targeted compression zone is formed with the ankle portion between the heel and the open leg end of the sock, and includes spaced-apart axial compression ridges extending axially outward from the heel at a first end of the second compression zone to a second end of the second compression zone.

A knit sock includes a foot portion having an upper instep area and a lower sole area integrally knit of a body yarn in circumferential courses and axial wales. The lower sole area defines inner and outer arch regions. The inner arch region incorporates a targeted compression zone adapted to reside generally adjacent an inner arch of a wearer's foot. The compression zone includes axially extending compression ridges of variable length spaced apart from a top of the compression zone to a bottom of the compression zone. When the sock is worn, a compression force applied by the foot portion within the targeted compression zone is greater than the compression force in directly adjacent areas of said foot portion.

A sock comprises a sole portion knitted with successive courses of yarn with a thickness defining an outer layer having a first surface, and which further includes a number of spaced ribs extending in a longitudinal direction between the heel and toe each formed by knitting a selected number of additional courses of yarn which extend from the first surface in a direction toward the instep portion of the sock in a position to contact the plantar surface of the foot. Individual ribs are either continuous in the transverse direction, or discontinuous, in which case transverse spaces are formed therealong in between sections of stitched yarn. The longitudinal space between adjacent ribs, and the transverse spaces within individual ribs, are of sufficient strength to increase pressure upon the foot. thereby optimizing venous return of the blood in the foot back to the heart.

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.

The invention relates to a compressive knitted fabric consisting of at least one stitch-forming basic knitting thread, at least one inserted and/or knitted elastic weft thread and at least one plush thread plaited, at least partially, onto the basic knitting thread and forming plush loops, wherein the at least one plush thread is an adhesive thread in order to give the compressive knitted fabric an anti-slip effect.

A cylindrical bandage is held in place without using binding means such as strings tied to an upper limb. Additionally, the cylindrical bandage for a lower limb or upper limb fits the shapes and dimensions of a body part and stays on the body part and thus allows great increase in venous return. The cylindrical bandage includes a tubular knit being of a length corresponding to a length of an arm or a leg and a gutter-shaped knit extending from a lengthwise first end of the tubular knit. This gutter-shaped knit has smaller circumferential length than the first end of the tubular knit and has a cut-out section with a horseshoe or V shape.