A medical bandage is provided, capable of being rapidly, adjustably, intuitively and universally fitted on a head, limb, stump, finger or other body part, such as to conceal and protect a wound. The medical bandage is cap-shaped and deformable, is formed of several layers, and comprises at least one port for obtaining quick access to a wound concealed by the medical bandage. When open, a port can stabilize a drainage tube, or provide a passage through which to easily and rapidly apply a medicine. The medical bandage can be directly fit on the head or other body part, providing an all-in-one dressing, wrap and treatment, and eliminating the need for cumbersome and difficult to manage gauze roll and multiple bandages of various sizes, shapes, and uses. The medical bandage can include one or more sensors for measuring or monitoring body parameters or functions.

A bandage comprising a base substrate, a wound covering portion, a first side coupling member and a second side coupling member, and a first side and second side adhesive portion. The base substrate includes a central region, a first side region and a second side region, and comprises an elastic member. The wound covering portion is positioned over the central region. The first side coupling member extends over the first side region. The second side coupling member extending over the second region. The first side adhesive portion is positioned on the first side region. The second side adhesive portion positioned on the second side region. A method of use as well as a protective carrier are likewise disclosed.

The embodiments of the present disclosure disclose an electronic bandage. The electronic bandage includes a fabric layer, an insulating layer and a conductive layer disposed in order from top to bottom; wherein the insulating layer is provided with a power source and a negative high voltage generator connected with each other, and the negative high voltage generator is further connected to the conductive layer; the conductive layer is provided with two or more support strips at intervals in length direction, the support strips protrude downward from the conductive layer, two or more microelectrodes are distributed on a lower surface of the conductive layer, and a height of a downward protruding portion of a support strip is greater than a height of a microelectrode.

An article, including a network of interconnected polymeric strands; wherein each of the interconnected polymeric strands has a first surface adapted to contact a tissue site; wherein at least one of the interconnected polymeric strand has a plurality of features extending from the first surface of the interconnected polymeric strands; wherein only one of any two adjacent polymeric strands has a plurality of features extending from the first surface of the interconnected polymeric strands; and wherein at least one of the interconnected polymeric strands is non-linear; and a plurality of openings between adjacent interconnected polymeric strands.

A tubular body is configured to be disposed around and to apply compression to an extremity. The tubular body includes a treatment area having a first filament and a second filament. Both the first filament and the second filament are disposed to engage the surface of the extremity. The first filament includes AgNP in a concentration effective to promote healing of a wound on the surface of the extremity. The second filament includes a metal having a composition that forms a galvanic couple with silver. The first filament and the second filament are arranged in the tubular body such that the AgNP and metal form galvanic couples across at least a portion of the treatment area when in the presence of a fluid in the wound of the extremity that produce an electric current in an amount effective to further promote healing of the wound.

A wound closing bandage may include a first member and a second member, each with a first end and a second end. The first member and the second member may be positioned adjacent to one another and secured in an optimal initial position with respect to one another by way of a locator tab. The first ends of the first member and the second member may be positioned on and secured to the skin of a user and adjacent to the edges of an open wound or incision, the bandage location may be guided by a locator line. The second ends of the first member and the second member may be pulled apart from one another, severing or detaching the locator tab and pulling the open wound closed. The second ends may then be secured to the skin and/or top of the first ends already secured to the skin.

Provided is a warp-knitted fabric configured by a first yarn, a second yarn, and a third yarn, wherein the first yarn and the second yarn are elastic yarns; the third yarn is a nonelastic yarn; and an amplitude A of the first yarn, an amplitude B of the second yarn, and an amplitude C of the third yarn satisfy relationships of AB and AC. Provided is an elastic article including the warp-knitted fabric above.

The present disclosure provides, inter-alia, an apparatus for wound-dressing. In particular, embodiments of the disclosure provide a wound-dressing apparatus comprising a wrapping element and a pad element, wherein the pad element is foldable and comprises at least one removable portion.

Tubular bandage, in particular a finger or toe bandage which is formed as a tube comprising an outer layer which is connected to an inner layer, and wherein the outer layer has a diameter and an elasticity such that the bandage can be clamped adhesive-free around the body part to be treated, in the particular, said finger or said toe, and wherein the inner layer is made of an elastic wound-protective material, wherein said outer layer is made of an air-permeable and water-repellent material, and wherein, at the open endings, said outer layer extends in the longitudinal direction over the inner layer over a distance of more than 0.5 mm, such that the outer layer touches the body part to be treated, in particular a finger or toe, with its endings when applied.

Non-adhesive articles include an elastomeric layer, where the elastomeric layer has a plurality of cuts arrayed in a pattern. The cuts are gaps, but the gaps are not visible to the naked eye when the article is in an unstressed state, and in a stressed state, at least some of the cuts become gaps that are visible to the naked eye. The gaps are perforations in the elastomeric layer and are apertures through which one can view through the elastomeric layer. The perforations indicate the presence of stress in the article, and the elastomeric layer has a lower effective modulus of elasticity in at least one axis than an identical elastomeric layer without the plurality of cuts.