The present invention could be used in medicine and relates to a method of producing ion-exchange polymeric hydrogels for eye treatment, which includes monomer copolymerization under ionizing radiation in presence of linking agent and ionites, when copolymerization is carried out gradually to obtain a prepolymer of desired viscosity for filling lens forms, and ionites introduction in the form of finely dispersed powder, filing the hydrogel into lens forms and subsequent copolymerization till an adequate ionizing dosage is performed providing a gel suitable for lenses formation, characterized in that the gel is also filled with pharmaceutically active agent in the form of finely dispersed powder prior to ionite introduction, and the size of particles of PAA is lower that the size of ionite particles. The present invention also relates to therapeutic hydrogel lenses produced in accordance with the above-mentioned method.

Methods and compositions are described for use in encouraging angiogenesis and skin healing as may be utilized in wound treatment as well as in encouragement of angiogenesis in disease. Compositions include an effective amount of at least one of a flavonoid and a chlorogenic acid that are natural extracts of Parrotia persica, or their derivatives, analogues, or homologs. Compounds based upon these natural extracts have been found to be highly effective in vascular formation and skin closure while exhibiting low toxicity.

An antimicrobial catheter includes an elongated body adapted to be inserted into a body cavity of a patient that is not vascular or the urethra. An antimicrobial surface is positioned along an exterior circumferential surface of the elongated body, wherein the antimicrobial surface is configured to inhibit pathogens. The elongated body has at least one interior lumen defined by a sidewall forming the elongated body. The exterior circumferential surface extends between a first end of the elongated body and a second end of the elongated body.

The invention concerns an implantable medical device which is coated with a substance. The invention provides for rapid release of the substance.

The present disclosure relates to polymer-based biomaterials for the systemic or localized delivery of osteoanabolic molecules, and their use in methods for treating and/or preventing bone degeneration and for promoting bone regeneration. In one aspect, the present invention provides a biomaterial comprising a polymer and a bioactive molecule binding moiety. In certain embodiments of the first aspect of the invention, the bioactive molecule binding moiety is an osteoanabolic molecule binding moiety.

A hydrogel retinal tamponade agent is disclosed herein. The disclosed hydrogel tamponade agent acts as a temporary barrier to fluid flow into the subretinal space and obviates the need to use intraocular gases or silicone oil as a retinal tamponade agent in a retinal detachment repair procedure. The hydrogel tamponade agent remains in place after a permanent seal is achieved and is slowly resorbed. The hydrogel tamponade agent is preferably biocompatible.

A wound dressing including a hydropolymer matrix crosslinked with genipin and a plurality of thymol nanoparticles loaded into the hydropolymer matrix. The plurality of thymol nanoparticles has a concentration between 0.01 wt. % and 1 wt. % of dry weight of the wound dressing. The hydropolymer matrix includes gelatin, chitosan, polyvinylpyrrolidone (PVP), and carboxymethyl cellulose (CMC).

A surgical system including an implantable medical device having a size and shape. The surgical device having a substrate and a coating that covers at least a portion of the substrate. The coating includes a polymer, collagen, glycerin and a hemostatic agent. The polymer is selected from the group of polyhydroxybutyrate, polyglycerol sebacate and adducts of polyglycerol sebacate. The substrate including a first piece and a second piece that is joined with the first piece. The first piece and the second piece forming a pocket having a cavity and an opening that is in communication with the cavity. The device being pre-formed such that a size and shape of the cavity conforms to the size and shape of the implantable medical device.

A surgical system including an implantable medical device having a size and shape. The surgical device having a substrate and a coating that covers at least a portion of the substrate. The coating including collagen, glycerin and a hemostatic agent. The substrate including a first piece and a second piece that is joined with the first piece. The first piece and the second piece forming a pocket having a cavity and an opening that is in communication with the cavity. The device being pre-formed such that a size and shape of the cavity conforms to the size and shape of the implantable medical device.

A surgical kit for providing a cryoprotective composition configured to be applied during cryotreatment of a patient includes: a first container containing a predetermined amount or volume of a biodegradable and/or bioerodible fluid agent; and a second container containing a predetermined amount or volume of a non-toxic cryoprotectant agent. The predetermined amount or volume of the of biodegradable and/or bioerodible fluid agent and the predetermined amount or volume of a non-toxic cryoprotectant agent are configured to be mixed together to form the cryoprotective composition in which a therapeutically effective amount of the cryoprotective composition deposited in a body space of the patient in proximity to the cryotreatment remains within at least a portion of the body space for a duration of the cryotreatment and at least a portion of a body tissue proximate to the body space is viable after the cryotreatment.