Patent classifications
A61L15/425
TISSUE SUBSTITUTE MULTILAYER MATRIX AND USES THEREOF
Compositions-of-matter comprising a matrix made of one or more, preferably two or more elastic layers and one or more viscoelastic layer are disclosed. The compositions-of-matter are characterized by high water-impermeability and optionally by self-recovery. Processes of preparing the compositions-of-matter and uses thereof as tissue substitutes or for repairing damaged tissues are also disclosed.
MEDICAL DEVICE, METHOD OF USING AND MAKING THE SAME
The invention is directed towards a device, method of using and making the same and more particularly to a sterile, biocompatible, fiber free, foam device configured to be used in various different uses, e.g., medical uses, make-up removal uses, and other uses.
HIPE-templated zwitterionic hydrogels, process of preparation and uses thereof
A compositions-of-matter in the form of HIPE-templated hydrogels, comprising a crosslinked polymer of zwitterionic monomers, which exhibit unusual antipolyelectrolyte characteristics, dual pH-, and temperature-responsiveness, as well as processes of obtaining the same and using the same.
Absorbent aliphatic polyurethane foam product
The present invention relates to foam. In particular, the present invention relates to profiled foams and processes for profiling absorbent foam products. More particularly, the present invention relates to processes for producing a profiled absorbent polyurethane foam product, comprising the steps of foaming, curing, profiling and drying, wherein profiling occurs before drying; and absorbent aliphatic polyurethane foam products having at least one profiled surface.
Biocompatible porous materials and methods of manufacture and use
Methods and materials used for production of constructs having a porous open or semi-open celled structure. Constructs may include a porous matrix as a base and a biocompatible conformal coating thereon.
SWELLABLE ANTIMICROBIAL FIBRE
A swellable biocompatible material and method of making the same. The material comprises a water-absorbing swellable polymer infused with povidone-iodine and a water-soluble control compound configured to control a release of iodine form the material. Example swellable polymers includes polysaccharides and hydrocolloid forming compounds.
Dressings With Polymer Delivery
Dressings and kits for use in wound therapy and negative-pressure therapy comprising a manifold layer comprising porous open-cell liquid permeable foam and a polymer composition The polymer composition comprises a polymer and an active agent, such as collagen and oxidized regenerated cellulose. The foam may be felted. Methods of making and using the dressings are also provided.
SINGLE USE, TOPICAL, HYDROPHILIC ARTICLE WITH A HEMOSTATIC FOAM
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.
Foam compositions, foam matrices and methods
Disclosed herein are matrices, compositions and methods of making matrices. The matrix comprises a biomolecule and the matrix is a dried, cross-linked foam. The matrix is not lyophilized. The method comprises foaming the composition, crosslinking the composition and drying the composition. Matrices disclosed herein are useful as wound dressings and treating wounds.
BIOMIMETIC WOUND DRESSING WITH ARTICULATING MICROPATTERN
A surface is covered with microstructures that extend from the surface, and are made of a resilient material that allows the microstructures to bend or articulate. The microstructures are generally columnar and can have fingers on their distal or top end that is opposite the base from which the microstructures extend. In addition to the ordinary roughness presented by the microstructures, the articulation further discourages biofouling and bioadherence. The articulation of the microstructures can be oriented, and the orientations can be mixed or varied among the microstructures so that adjacent ones of the microstructures have different orientations of articulation.