The present invention is directed to a hemostatic textile, comprising: a material comprising a combination of glass fibers and one or more secondary fibers selected from the group consisting of silk fibers; ceramic fibers; raw or regenerated bamboo fibers; cotton fibers; rayon fibers; linen fibers; ramie fibers; jute fibers; sisal fibers; flax fibers; soybean fibers; corn fibers; hemp fibers; lyocel fibers; wool; lactide and/or glycolide polymers; lactide/glycolide copolymers; silicate fibers; polyimide fibers; feldspar fibers; zeolite fibers, zeolite-containing fibers, acetate fibers; and combinations thereof; the hemostatic textile capable of activating hemostatic systems in the body when applied to a wound. Additional cofactors such as thrombin and hemostatic agents such as RL platelets, RL blood cells; fibrin, fibrinogen, and combinations thereof may also be incorporated into the textile. The invention is also directed to methods of producing the textile, and methods of using the textile to stop bleeding.

A haemostatic composition comprising a non-acidic meshed network of fibrous material, wherein the network comprises fibres with a mean diameter (Dso) no greater than 1 μm, an aspect ratio (mean fibre length/mean fibre diameter) of at least 100, and wherein said meshed network has a specific surface area of at least 1O m.sup.2/g, and a gel point no greater than 3 g/L.

Provided is a hemostatic dressing. The hemostatic dressing includes: a porous matrix layer including a biocompatible polymer; a hemostatic layer loaded on the porous matrix layer and including a polymer in which polyhydric phenol-containing moieties are introduced; and a binding layer interposed between the porous matrix layer and the hemostatic layer to prevent the porous matrix layer from being separated from the hemostatic layer.

A knit hemostatic bandage provided herein can include a continuous rayon fiber and a continuous glass fiber. The knit hemostatic bandage can have a gauge of between 10 and 30 stitches per inch. The knit hemostatic bandage can have a Young's modulus of elasticity of less than 50 MPa.

The present invention is directed to a hemostatic textile, comprising: a material comprising a combination of glass fibers and one or more secondary fibers selected from the group consisting of silk fibers; ceramic fibers; raw or regenerated bamboo fibers; cotton fibers; rayon fibers; linen fibers; ramie fibers; jute fibers; sisal fibers; flax fibers; soybean fibers; corn fibers; hemp fibers; lyocel fibers; wool; lactide and/or glycolide polymers; lactide/glycolide copolymers; silicate fibers; polyimide fibers; feldspar fibers; zeolite fibers, zeolite-containing fibers, acetate fibers; and combinations thereof; the hemostatic textile capable of activating hemostatic systems in the body when applied to a wound. Additional cofactors such as thrombin and hemostatic agents such as RL platelets, RL blood cells; fibrin, fibrinogen, and combinations thereof may also be incorporated into the textile. The invention is also directed to methods of producing the textile, and methods of using the textile to stop bleeding.

The invention pertains platelet endothelial aggregation receptor 1 (PEAR1) agonist for use in the treatment of bleeding in a patient wherein the patient is under antiplatelet medication. Provided is also a topical haemostat, a sealant, or an adhesive, to be used locally during surgery.

According to some aspects of the invention a method for creation of a wound covering with haemostatic action includes: applying to an open wound a cell structure (grid)-forming water-soluble haemostatic composition designated as a Hemoblok consisting of a polyacrylic matrix as an active ingredient, where the matrix includes one or more polymeric carboxylic acid of a predetermined average molecular weight range, and a bactericidal agent; creating by Hemoblok on a wound surface a structure clot formation with blood plasma proteins, including albumin; creating by Hemoblok on the wound, a covering containing albumin molecules in cells of a polyacrylic structure matrix (grid), which is a primary organizer of sustainable grid structure clot film; further supplying of Hemoblok on an open wound surface to form a multilayered solid grid structure film; terminating of Hemoblok supply on a wound surface with following gradual replacement of a surface structure hemoblok-protein by fibrin.

A hemostatic surface application device having a region of hemostatic foam for contact with a patient's skin where a wound exists or is created, the device includes: a release layer, the release layer in contact with a hemostatic flexible foam section, and a structural foam layer having a front side and a back side surrounding the hemostatic flexible foam layer, forming a generally central hemostatic surface exposed through the front side of the surrounding structural foam layer, and a support layer adhered to the backside of the structural foam layer.

An intelligent medical gauze pad is disclosed. The intelligent medical gauze pad is used with a sensing device. The intelligent medical gauze pad includes a main body and an identification module. The identification module is disposed on the main body. The identification module is used to sense a sensing signal emitted by the sensing device and return an identification signal such that the sensing device can locate the intelligent medical gauze pad according to the identification signal.

A hemostatic compound is provided. The hemostatic compound comprises molecular sieves and a fiber. The molecular sieves are independently dispersed on a fiber surface of the fiber without agglomeration and directly contact the fiber surface. A first surface of the molecular sieve contacted with the fiber is defined as an inner surface, and a second surface of the molecular sieve uncontacted with the fiber is defined as an outer surface. The molecular sieve forms a growth-matched coupling with the fiber on the inner surface, and the growth-matched coupling refers to that a plurality of molecular sieve microparticles grow to match the fiber surface to form a tightly-coupled coupling interface that matches the fiber surface.