Described herein are compositions composed of micronized placental components, extracts of micronized placental components, and pharmaceutical compositions thereof. The compositions have numerous medical applications. Methods for making and using the micronized compositions and the extracts thereof are also described herein.

The invention relates to a method for obtaining a bacterial extract produced by the bacteria Kocuria marina sp., which prevents biofilm formation, to said extract, and to the use thereof for incorporation into natural or synthetic polymers intended to form structures with active surfaces for preventing microbial biofilm formation, whether for biomedical uses, including clinical uses, industrial uses, or even domestic uses.

The present disclosure concerns drug coating layers for medical devices that cover an exterior surface or portion thereof. The drug coating layers include a bioabsorbable material with a therapeutic or a polymer microparticle loaded with a therapeutic embedded therein. As the material is bioabsorbed the therapeutic is released and available to provide localized activity in a subject. In some aspects, the drug coating layer is of a material that due to the body temperature of the subject becomes tacky and allows for adhesion to the vessel wall.

Catheters and a method of preparation thereof comprising a catheter body and at least one connector. The catheter body has an exterior surface and at least one lumen having an aspect ratio of at least 3:1 and an intraluminal surface comprising a hydrophilic polymer layer thereon, the hydrophilic polymer layer has an average dry thickness of at least about 50 nanometers, wherein the catheter body comprises one or more permeabilization agents and one or more antimicrobial agents.

The invention relates to methods of differentiation, isolation, propagation, and storage of small colony variants (SCVs) of E. coli, preferably E. coli 83972 or E. coli HU2117, or modified or variant forms thereof, and methods for using the pre-pared SCV bacteria to establish probiotic biofilms in treated subjects and/or on treated medical devices.

Devices and methods for securing a catheter with the body of a patient are generally disclosed. In particular, selectively positionable cuffs and methods for attaching selectively positionable cuffs to long-term tunneled catheters are disclosed. In one embodiment, a slidable, selectively-positionable cuff comprises an adhesive on a foldable tab. In another embodiment, a slidable, selectively positionable cuff comprises an activatable adhesive that is convertible from a nonadherent state to an adherent state beneath the skin of the patient. Additionally, the present disclosure teaches a wrappable sheet comprising a harvested extracellular matrix with an adhesive positioned on a side thereon and arranged to be adhered to the surface of a catheter so as to form a cuff. Methods of securing and/or positioning a cuff on a catheter, kits, and other embodiments are disclosed.

Disclosed are anticoagulant and decoagulant methods, compositions and devices comprising calcium carbonate, particularly, comprising aragonite.

This invention relates generally to a dehydration device and methods for drying biological materials to produce dried biological materials having enhanced structural properties. More specifically, the invention relates to a dehydration device and related methods for drying biological tissue to produce enhanced tissue grafts.

Lubricious hydrophilic coatings and methods of making the same.

A delivery device suitable for delivering a chemical substance, e.g. a medical device such as a catheter, a microcapsule, an implantable capsule or a P-ring, or a delivery device for use in the construction industries e.g. in the form of microcapsules comprising antifouling agent for marine paint. The delivery device includes a closed cavity, the cavity is defined by an innermost wall surface, wherein at least a section of the inner wall surface constitutes an inner surface of a delivery membrane wherein the delivery membrane includes an interpenetrating polymer network substrate comprising a host polymer and a guest polymer, where the guest polymer is interpenetrating the host polymer to form substantially continuous pathways within said host polymer.