Disclosed herein is an anti-adhesion kit comprised of: (i) a fibrinogen solution component comprising: fibrinogen at a concentration of about 5 to 25 mg/ml; and free calcium ions at a concentration ranging from 0.1 μM to 1 mM; and (ii) a thrombin component containing thrombin. Further disclosed is an anti-adhesion kit comprised of: (i) a fibrinogen solution component containing fibrinogen at a concentration of 8% to 25% of total protein by weight, and optionally free calcium ions at a concentration ranging from 0.1 μM to 1 mM; wherein a total protein concentration ranges from about 80 to 120 mg/ml; and (ii) a thrombin component containing thrombin. Methods of using the kits e.g., to provide anti-adhesion curable compositions are also disclosed.

Methods are described for treating a heart disease, comprising suspending c) mesenchymal stem cells in either a) a fibrinogen solution or b) a thrombin solution, thereby obtaining a cell suspension, and directly spraying the cell suspension on a disease site substantially at the same time with the other of a) the fibrinogen solution or b) the thrombin solution that is not used in the suspending.

Methods are described for treating a heart disease, comprising suspending c) mesenchymal stem cells in either a) a fibrinogen solution or b) a thrombin solution, thereby obtaining a cell suspension, and directly spraying the cell suspension on a disease site substantially at the same time with the other of a) the fibrinogen solution or b) the thrombin solution that is not used in the suspending.

The present invention provides a pharmaceutical composition for subcutaneous administration comprising a blood factor and a colloidal particle comprising about 0.5 to 20 mole percent of an amphipathic lipid derivatized with a biocompatible hydrophilic polymer, wherein the blood factor is not encapsulated in said colloidal particle.

The present invention relates to a hemostatic composition and a method for preparing thereof, and more specifically, relates to a hemostatic composition comprising a cross-linked hyaluronic acid derivative matrix which is suitable to be used for hemostasis and a method of preparation of such a composition.

The present invention relates to compositions comprising: a) a thrombin derived peptide and, b) a non-ionic polymer capable of forming a hydrogel and c) an aqueous solution. The invention also provides compositions comprising: a) a thrombin derived peptide and, b) EDTA and c) an aqueous buffer. The invention also provides compositions comprising: a) a thrombin derived peptide in high concentration. A product comprising the compositions, as well as the compositions or the products for use in a method of treatment are also disclosed.

The present invention provides a composition for kidney treatment using the omentum, a medical kit for kidney treatment including the composition for kidney treatment using the omentum, and a film for kidney treatment including a cured product of the composition for kidney treatment using the omentum.

A method of production of a tissue sealing patch is disclosed. The method comprises applying a vacuum to a heated work surface; applying a solution of a biocompatible polyurethane polymer to the work surface and spreading it over the work surface with a polymer blade; evaporating the solvent; heating the work surface above the softening temperature of the polymer; spreading powdered tissue sealant material over the polymer film; incorporating the tissue sealant material to a depth of 20-60 μm in the film by pressing on a release sheet placed over the powder and polymer film; removing the release sheet from the adhesive patch material; releasing the vacuum; cooling said work surface; and removing the adhesive patch material from said work surface. The biocompatible polymer preferably comprises PEG-caprolactone-lactic acid units connected by urethane linkages, the PEG having a molecular weight of 3000-3500 amu, and a CL:LA:PEG ratio of 34:2:1.

A method of production of a tissue sealing patch is disclosed. The method comprises applying a vacuum to a heated work surface; applying a solution of a biocompatible polyurethane polymer to the work surface and spreading it over the work surface with a polymer blade; evaporating the solvent; heating the work surface above the softening temperature of the polymer; spreading powdered tissue sealant material over the polymer film; incorporating the tissue sealant material to a depth of 20-60 μm in the film by pressing on a release sheet placed over the powder and polymer film; removing the release sheet from the adhesive patch material; releasing the vacuum; cooling said work surface; and removing the adhesive patch material from said work surface. The biocompatible polymer preferably comprises PEG-caprolactone-lactic acid units connected by urethane linkages, the PEG having a molecular weight of 3000-3500 amu, and a CL:LA:PEG ratio of 34:2:1.

Disclosed herein is an anti-adhesion kit comprised of: (i) a fibrinogen solution component comprising: fibrinogen at a concentration of about 5 to 25 mg/ml; and free calcium ions at a concentration ranging from 0.1 μM to 1 mM; and (ii) a thrombin component containing thrombin. Further disclosed is an anti-adhesion kit comprised of: (i) a fibrinogen solution component containing fibrinogen at a concentration of 8% to 25% of total protein by weight, and optionally free calcium ions at a concentration ranging from 0.1 μM to 1 mM; wherein a total protein concentration ranges from about 80 to 120 mg/ml; and (ii) a thrombin component containing thrombin. Methods of using the kits e.g., to provide anti-adhesion curable compositions are also disclosed.