Abstract: The present invention is directed to a variable length applicator system for delivery of at least one medically useful liquid, comprising an elongated, telescopically extendable, variable length cannula having a liquid pump containing said liquid connected to said cannula at a proximal end, and a spray nozzle mounted on said cannula at a distal end; a coiled and extendable tubular conduit connected to and in fluid communication with, both said liquid pump and said spray nozzle; wherein an axial extension of said cannula is configured to cause a matching axial extension of said coiled tubular conduit.

Abstract: A delivery sleeve for assisting delivery of a tissue implant may include an enclosure an orifice, and a throat. A cinching mechanism, which may include a fastener, may be disposed about the throat. The fastener may be used to fasten the cinching mechanism in a cinched configuration to maintain the throat in a closed configuration. The cinching mechanism may include implant-size indicators thereon. A lubricant or lubricious material may be included upon an inner surface of the enclosure. The cinching mechanism may be used to change the configuration of the throat from an open configuration to a closed configuration. The fastener helps maintain the throat in a closed configuration.

Abstract: A wound closure system includes a porous mesh, a first pressure sensitive adhesive (PSA) applied to a top surface of the porous mesh, a removable first liner covering the first PSA, a second PSA applied to a bottom surface of the porous mesh, and a removable second liner covering the second PSA. The second PSA is stronger or denser than the first PSA. A method of using the wound closure system includes removing the second liner to expose the second PSA, pressing the second PSA against skin to approximate wound edges, removing the first liner to expose the first PSA, and pressing a therapeutic device against the first PSA to secure the therapeutic device to the porous mesh. A liquid adhesive is applied over the porous mesh and the therapeutic device, and then cured for binding the porous mesh to skin and binding the therapeutic device to the porous mesh.

Abstract: The present invention is directed to a variable length applicator system for delivery of at least one medically useful liquid, comprising an elongated, telescopically extendable, variable length cannula having a liquid pump containing said liquid connected to said cannula at a proximal end, and a spray nozzle mounted on said cannula at a distal end; a coiled and extendable tubular conduit connected to and in fluid communication with, both said liquid pump and said spray nozzle; wherein an axial extension of said cannula is configured to cause a matching axial extension of said coiled tubular conduit.

Abstract: The present invention relates to a suturing system, comprising: an elongated flexible suture having a connecting end attached to a needle and an opposing free end, said suture co-packaged with a pierceable container containing a medicant solution. The invention further relates to a suturing system, comprising: an elongated flexible suture having a connecting end attached to a needle and an opposing free end, said suture co-packaged with a wicking medicant transfer sponge and a frangible container containing a liquid. In some embodiments, the invention relates to a suturing system, comprising: an elongated flexible suture having a connecting end attached to a needle and an opposing free end, said suture co-packaged with a medicant transfer sponge, said system further comprising a medicant dispenser container with a liquid.

Abstract: A method of joining together two tissue layers includes positioning a tissue anchor over a first tissue layer. The tissue anchor includes a plate having top and bottom surfaces, an array of first pins projecting from the bottom surface of the plate that oppose the first tissue layer, and an array of second pins projecting from the top surface of the plate that face away from the first tissue layer. A second tissue layer is placed over the first tissue layer and the tissue anchor so that the second pins oppose the second tissue layer. The second tissue layer is pressed onto the tissue anchor and toward the first tissue layer so that the first pins advance into the first tissue layer and the second pins advance into the second tissue layer for joining together the first and second tissue layers. The plate has second pin apertures and the second pins are free to slide and move independently of one another within the second pin apertures.

Abstract: The present invention is directed to suturing systems having a needle, an elongated flexible suture having a connecting end attached to a said needle and an opposing free end and at least one elongated external beneficial filament that is attached to said needle or attached to said suture at the connecting end. The beneficial filament has a smaller cross-sectional area and lower mechanical strength than the suture and contains a medicant.

Abstract: An implant-delivery sleeve may comprise an enclosure having at least one opening and at least one vent conduit. The vent conduit may extend along a surface of the enclosure to assist in removing fluids (e.g., blood and air) from the tissue pocket to facilitate implantation of the implant.

Abstract: An implant-delivery sleeve may comprise an enclosure having at least one opening and at least one vent conduit. The vent conduit may extend along a surface of the enclosure to assist in removing fluids (e.g., blood and air) from the tissue pocket to facilitate implantation of the implant.

Abstract: Novel compositions and systems for closure of wounds with antimicrobial effectiveness are disclosed. The compositions provide devices of improved flexibility and elasticity and are readily applied to wound sites or over wound closure devices. The present invention is also directed to a novel platinum catalyst for use in such compositions. The catalyst provides for rapid curing on topical surfaces such as skin and bonds to such surfaces in about 2-5 minutes.

Abstract: A method of joining together two tissue layers includes positioning a tissue anchor over a first tissue layer. The tissue anchor includes a plate having top and bottom surfaces, an array of first pins projecting from the bottom surface of the plate that oppose the first tissue layer, and an array of second pins projecting from the top surface of the plate that face away from the first tissue layer. A second tissue layer is placed over the first tissue layer and the tissue anchor so that the second pins oppose the second tissue layer. The second tissue layer is pressed onto the tissue anchor and toward the first tissue layer so that the first pins advance into the first tissue layer and the second pins advance into the second tissue layer for joining together the first and second tissue layers. The plate has second pin apertures and the second pins are free to slide and move independently of one another within the second pin apertures.

Abstract: A tissue anchor includes a plate having a top surface and a bottom surface, and an array of first pins coupled with the plate, whereby each first pin includes an elongated shaft having a lower end with a first barb facing away from the bottom surface of the plate. The plate has an array of second pin apertures that are offset from the first pins, whereby each second pin aperture has a diameter that extends from the top surface to the bottom surface of the plate. The tissue anchor includes an array of second pins extending through the second pin apertures, whereby each second pin has an elongated shaft having an upper end including a second barb facing away from the top surface of the plate and a lower end including a stop that is located below the bottom surface of the plate. The elongated shafts of the second pins have outer diameters that are smaller than the diameters of the second pin apertures for allowing the elongated shafts of the second pins to slide within the second pin apertures.

Abstract: An implant delivery sleeve is disclosed. The sleeve may comprise a first tube including a first segment, a second segment, and a third segment. The first segment may have a first stiffness, the second segment may have a second stiffness, and the third segment may have a third stiffness. The third stiffness may be greater than the second stiffness and the second stiffness may be greater than the first stiffness. The implant-delivery sleeve may be used to deliver a breast implant to a subject. The implant may be deformed within the sleeve, to advance it within the sleeve and extrude it from the distal end of the sleeve.

Abstract: An implant-delivery sleeve may comprise an enclosure having at least one opening and at least one vent conduit. The vent conduit may extend along a surface of the enclosure to assist in removing fluids (e.g., blood and air) from the tissue pocket to facilitate implantation of the implant.

Abstract: A delivery sleeve for assisting delivery of a tissue implant may include an enclosure an orifice, and a throat. A cinching mechanism, which may include a fastener, may be disposed about the throat. The fastener may be used to fasten the cinching mechanism in a cinched configuration to maintain the throat in a closed configuration. The cinching mechanism may include implant-size indicators thereon. A lubricant or lubricious material may be included upon an inner surface of the enclosure. The cinching mechanism may be used to change the configuration of the throat from an open configuration to a closed configuration. The fastener helps maintain the throat in a closed configuration.

Abstract: A tissue anchor includes a plate having a top surface and a bottom surface, and an array of first pins coupled with the plate, whereby each first pin includes an elongated shaft having a lower end with a first barb facing away from the bottom surface of the plate. The plate has an array of second pin apertures that are offset from the first pins, whereby each second pin aperture has a diameter that extends from the top surface to the bottom surface of the plate. The tissue anchor includes an array of second pins extending through the second pin apertures, whereby each second pin has an elongated shaft having an upper end including a second barb facing away from the top surface of the plate and a lower end including a stop that is located below the bottom surface of the plate. The elongated shafts of the second pins have outer diameters that are smaller than the diameters of the second pin apertures for allowing the elongated shafts of the second pins to slide within the second pin apertures.

Abstract: An implantable structure, method for making the structure and method for using the structure, where the structure includes a combination of non-absorbable and absorbable components, and the implantable structure has a randomly uniform array of materials. The resulting implantable structure provides improved tissue ingrowth and flexibility after implantation and after absorption of the absorbable materials.

Abstract: A conductive, corrosion-resistant coating includes a mixture of corrosion-resistant binder and highly conductive corrosion-resistant particles. The size of the particles is equal to or greater than the final thickness of the coating. After the coating is applied and cured, the surface of the coating is machined to remove the top surface layer of the binder as well as the top parts of the particles embedded in the binder, thus opening multiple direct conductive paths to the underlying substrate through the conductive particles.

Abstract: The present invention applies the fundamental electrochemical NEMCA effect (Non-Faradaic Electrochemical Modification of Catalytic Activity), to the treatment of the automotive exhaust. A solid electrolyte layer is sandwiched between a conductive catalyst layer and the underlying metal honeycomb multichannel supporting structure forming the exhaust treatment device. Electric current is applied between the catalyst layer and the metallic structure resulting in an increase of catalytic activity of the catalyst. The exhaust stream is passing through the multichannel honeycomb structure and is catalytically treated with increased efficiency.

Abstract: A method for assaying a biological sample includes forming sensitized microcapsules filled with unique oligomarkers, capturing sensitized microcapsules in the presence of analytes, releasing oligomarkers from microcapsules and detecting and measuring oligomarkers to detect and quantify presence of analyte in biological sample. Using encapsulated oligomarkers provides for an amplified high sensitivity assay and using plurality of oligomarker types provides for a multiplexed assay.