Abstract: In some embodiments, a metal-organic framework material includes tricarboxylate metal-organic frameworks. The tricarboxylate metal-organic frameworks include unmodified tricarboxylate ligands and modified tricarboxylate ligands. The modified tricarboxylate ligands are unmodified tricarboxylate ligand modified with aliphatic carbon chains. Methods of forming metal-organic framework materials and textiles containing modified metal-organic framework materials are also provided.

Abstract: A substrate having an antibacterial surface includes a chitosan matrix and water-stable metal-organic frameworks dispersed throughout the chitosan matrix. The water-stable metal-organic frameworks are present in an amount of 5% wt/wt to 20% wt/wt based on total solids of the substrate.

Abstract: A substrate having an antibacterial surface includes a chitosan matrix and water-stable metal-organic frameworks dispersed throughout the chitosan matrix.

Abstract: In some embodiments, a metal-organic framework material includes tricarboxylate metal-organic frameworks. The tricarboxylate metal-organic frameworks include unmodified tricarboxylate ligands and modified tricarboxylate ligands. The modified tricarboxylate ligands are unmodified tricarboxylate ligand modified with aliphatic carbon chains. Methods of forming metal-organic framework materials and textiles containing modified metal-organic framework materials are also provided.

Abstract: A polymeric composition includes an organic polymeric substrate and metal-organic frameworks on the surface of the polymeric substrate. The metal-organic frameworks cover at least 90% of the surface area of the polymeric substrate.

Abstract: A polymeric composition includes an organic polymeric substrate and metal-organic frameworks on the surface of the polymeric substrate. The metal-organic frameworks cover at least 90% of the surface area of the polymeric substrate.

Abstract: A metal-organic compound containing polymer matrix includes a polymer and a three-dimensional metal-organic framework includes a polydentate organic linker. The metal-organic compound containing polymer matrix is configured to continuously produce nitric oxide when exposed to a physiological fluid including a nitric oxide-releasing compound via a catalytic reaction catalyzed by the three-dimensional metal-organic framework.

Abstract: A polymeric composition includes an organic polymeric substrate and metal-organic frameworks on the surface of the polymeric substrate. The metal-organic frameworks cover at least 90% of the surface area of the polymeric substrate.

Abstract: The present disclosure is directed to a method of producing nitric oxide comprising (i) providing a composition comprising a metal-organic framework, and (ii) exposing the composition to a nitric oxide-releasing compound. The disclosure also is directed to compositions, coatings, and medical devices comprising a metal-organic framework.

Abstract: A polymeric composition capable of releasing nitric oxide and modulating biological responses comprises a biocompatible polymer and S-nitrosated thiol bonded to the biocompatible polymer. The polymeric composition can have a thiol conversion of at least 40%. The polymeric composition can also have a nitric oxide recovery of at least 40% when under thermal decomposition conditions.

Abstract: A polymeric composition capable of releasing nitric oxide and modulating biological responses comprises a biocompatible polymer and S-nitrosated thiol bonded to the biocompatible polymer. The polymeric composition can have a thiol conversion of at least 40%. The polymeric composition can also have a nitric oxide recovery of at least 40% when under thermal decomposition conditions.

Abstract: A metal-organic compound containing polymer matrix includes a polymer and a three-dimensional metal-organic framework includes a polydentate organic linker. The metal-organic compound containing polymer matrix is configured to continuously produce nitric oxide when exposed to a physiological fluid including a nitric oxide-releasing compound via a catalytic reaction catalyzed by the three-dimensional metal-organic framework.

Abstract: A polymeric composition capable of releasing nitric oxide and modulating biological responses comprises a biocompatible polymer and S-nitrosated thiol bonded to the biocompatible polymer. The polymeric composition can have a thiol conversion of at least 40%. The polymeric composition can also have a nitric oxide recovery of at least 40% when under thermal decomposition conditions.

Abstract: The present disclosure is directed to a method of producing nitric oxide comprising (i) providing a composition comprising a metal-organic framework, and (ii) exposing the composition to a nitric oxide-releasing compound. The disclosure also is directed to compositions, coatings, and medical devices comprising a metal-organic framework.

Abstract: The present disclosure is directed to a method of producing nitric oxide comprising (i) providing a composition comprising a metal-organic framework, and (ii) exposing the composition to a nitric oxide-releasing compound. The disclosure also is directed to compositions, coatings, and medical devices comprising a metal-organic framework.

Abstract: A polymeric coating is adapted to substantially eliminate thrombus formation when in contact with blood. The polymeric coating includes a first polymeric layer and a second polymeric layer. Interposed between the first and second polymeric layers is a polymeric matrix layer doped with at least one of a nitric oxide donor and a nitric oxide generator. The nitric oxide donor and/or the nitric oxide generator are capable of releasing or generating NO. A bioactive agent is either immobilized to the surface of the second polymeric layer or is incorporated into the polymeric matrix layer.

Abstract: A material includes a surface and a reactive agent that is located at the surface of the material, covalently attached to a backbone of the material, and/or located within the material. The reactive agent has nitrite reductase activity, nitrate reductase activity, and/or nitrosothiol reductase activity. The reactive agent also converts at least one of nitrites, nitrates and nitrosothiols to nitric oxide when in contact with blood. A reproducible nitrosothiol sensor is also disclosed.

Abstract: The present disclosure is directed to a method of producing nitric oxide comprising (i) providing a composition comprising a metal-organic framework, and (ii) exposing the composition to a nitric oxide-releasing compound. The disclosure also is directed to compositions, coatings, and medical devices comprising a metal-organic framework.

Abstract: A method for increasing, prolonging, and/or controlling the release rates of nitric oxide (NO) from polymeric materials containing NO adducts. Such NO-containing polymeric materials may find use in devices such as blood contacting devices, and biocompatible devices utilizing the same. The method and device utilizes anionic site additives, acidic site additives and/or acidic producing site additives in a polymer that contains NO-adducts to generate higher fluxes of NO to exceed NO threshold levels desirable to substantially prevent and/or minimize reactions such as platelet activation or adhesion.

Abstract: The disclosure provides for a biocompatible, thromboresistant coating including a chalcogenide compound that induces nitric oxide formation; and a biocompatible matrix incorporating the chalcogenide compound. Devices incorporating such coatings, and methods of making and using such coatings are also disclosed herein.