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.

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 tension adjusting and stabilization system and method can include an elastic compression bandage including long-stretch elastomeric yarns and an approximate 1:1 stretch characteristic. A change in length-wise stretch of the bandage results in an approximately proportional change in compressive pressure provided by the bandage. The system and method can further include a means for indicating a qualitative degree of tension of the bandage and a means for indicating a quantitative amount of pressure being applied by that degree of tension.

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.

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.

A compression knit fabric, in particular a flat-knit fabric, composed of at least one knitted yarn and an incorporated elastic weft yarn, with a first knit fabric section having a compressive first base weave, to which is attached a second knit fabric section having a second weave different from the base weave which imparts to the second knit fabric section greater elasticity in the longitudinal and/or transverse direction of the knit fabric section than in the first knit fabric section, to which is attached a third knit fabric section having a third weave different from the first base weave and second base weave which imparts to the third knit fabric section greater elasticity in the longitudinal and/or transverse direction of the knit fabric section than in the second knit fabric section.

A therapeutic sock is formed from a knit sock body formed in a tubular shape and terminating in a closed toe portion, the toe portion being divided into a first compartment configured accommodating a big toe and at least one additional compartment for other toes. At least one of the compartments has a area of increased compression as compared to a compression in other areas of the sock. The area of increased compression can be disposed on the first compartment and extend longitudinally along a medial edge of the first compartment and/or can be disposed on the at least one additional compartment and extend laterally around a circumference of the at least one additional compartment.

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 provides a decorative compression sock made from resilient elastic material for the prevention and treatment. The material is composed of a plurality of fibers. An aesthetically pleasing image is stored onto a sublimation transferable medium. The image is transferred from the sublimation transfer medium onto the compression sock wherein the image is permanently incorporated into the plurality of fibers of the material. The compression sock configured as a knee length tubular member having a closed end and an opened lower end. Compression is graduated from the toe, ankle and leg portion.

A compression stocking having shape memory, heat-shrinkable thermoplastic material, wherein the stocking is configured to establish, in use, a compression contact with at least one of a leg and a foot of a user upon the application of an amount of heat to the shape memory, heat-shrinkable thermoplastic material, wherein the thermoplastic material is a polymer that has a glass transition temperature below ?10? C., has crystallinity with a melting temperature (Tm) between 30-50? C. and a heat of fusion of at least 10 J/g, as determined using differential scanning calorimetry (DSC) (?40? C./10.0 (K/min)/100? C.) as set out by the ASTM D3418:2003.