A tubular compression item having at least one leg part, one foot tip, one heel, one foot and one ribbed edge in the extension of the leg part delimiting an opening for introducing a foot into the item, is provided. The leg part has a height extending from the foot part up to the ribbed edge, and the leg part, the foot and the ribbed edge of the tubular compression item each comprise at least one knitting yarn. An elastic weft yarn is inserted between the stitches on the outer face and the stitches on the inner face of the leg part. The elastic weft yarn is inserted on at least 90% of the columns of stitches without forming any tuck stitch or loop stitch. The elastic weft yarn is maintained between two consecutive rows of stitches in the leg part. The foot tip and the heel each comprise at least one knitting yarn.

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 compression knit part composed of a compression knit including a first ground thread and a second ground thread, wherein the first ground thread is composed at least at its surface of a manufactured polyamide fiber that accepts a first dye but not a second dye, and the second ground thread is composed at least at its surface of a manufactured polyester fiber which accepts the second dye but not the first, and a weft thread configured as compression thread.

A compression article which is produced from an elastic textile material, in particular a knitted fabric, and which is provided with at least one elastic holding strap which protects against slipping on the body part, characterized in that the holding strap is produced using a friction thread which is located in places on the strap inner side on the surface of the strap.

Advances in actuating fabrics could enable a paradigm shift in the field of smart wearables by dynamically fitting themselves to the unique topography of the human body. Active fabrics and fitting mechanisms are described herein that enable garments to conform around surface concavities without requiring high elasticity or a multiplicity of closure devices. Advanced materials and systems innovations (1) enable novel garment manufacturing and application strategies, (2) facilitate topographical fitting (spatial actuation) through garment architectural design, and (3) provide tunable NiTi-based SMA actuation temperatures to enable actuation on the surface of human skin. Such fabrics and garments are usable in a variety of fields including medical compression, technical sportswear, exosuits, space suits and components thereof, or non-garment applications.

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.

The present invention relates to a garment with elastic inserts produced on circular machines of the type comprising elasticised sectors (3) and elasticised zones obtained by working in a further elastomeric yarnin addition to the ground yarn and the reinforcing yarn normally usedand actually knitting the yarns so as to create machined portions, both horizontally and obliquely, which result in well-defined and demarcated zones which provide greater compression than the knitted stitches on the same row, thereby providingwithin the elasticised sectors (3)a greater compression value than outside the sector on the same row of knitted stitches. The elasticised sectors (3) are designed portions which create ornamental figures or banding with specific compression which can provide support, contribute to the stimulation of blood circulation, reduce fatigue, and render movement safer and more supported, when properly positioned and sized.

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.

The present invention relates to compression garments comprising a knitted fabric, wherein the knitted fabric has three or more knitted gores in a proximal portion of the compression garment, and (i) each knitted gore extends circumferentially around 50% or more of the proximal portion; (ii) each knitted gore comprises from 1 to 10 points at which the number of courses is increased; and (iii) each knitted gore comprises from 1 to 10 points at which the number of courses is decreased.

A method for making a prosthetic liner includes the steps of providing a textile sleeve, applying an uncured silicone material onto an inner surface of the textile sleeve and impregnating interstices of a high-density knit structure of the textile sleeve. The silicone material is a fast-cure silicone material arranged to reach at least 90% cross-linking faster than conventional silicone material. The silicone material is preferably limited to the inner surface of the textile sleeve, whereas the outer surface is devoid of the silicone material. The silicone defines an inner layer forming the interior surface of the liner, and the outer surface of the textile sleeve forms the exterior surface of the liner. A thickness of the liner from the interior surface of the liner to the inner surface of textile layer consists of the silicone of the inner layer.