Abstract: The present disclosure relates to the design, fabrication, and applications of a three-dimensional (3D) bioreactor for cell expansion and cell secreted substance production. The bioreactor is composed of non-random interconnected voids providing a continuous three-dimensional surface area for cell adherence and growth.

Abstract: The present disclosure relates to the design, fabrication, and applications of a three-dimensional (3D) bioreactor for cell expansion and cell secreted substance production. The bioreactor is composed of non-random interconnected voids providing a continuous three-dimensional surface area for cell adherence and growth.

Abstract: Methods for removing residual solvent from Nalmefene Hydrochloride (HCl) and producing crystalline Nalmefene HCl monohydrate, monosolvate or crystalline Nalmefene HCl dihydrate are described. In embodiments, the methods include recrystallizing Nalmefene HCl from a solvate that includes Nalmefene HCl, water, and a first solvent, wherein the first solvent has a molar volume of at least 98 cm3. Crystalline Nalmefene HCl with a desirably low amount of residual solvent is also described.

Abstract: The present disclosure relates to the design, fabrication, and applications of a three-dimensional (3D) bioreactor for cell expansion and cell secreted substance production. The bioreactor is composed of non-random interconnected voids providing a continuous three-dimensional surface area for cell adherence and growth.

Abstract: The present invention is directed to a method of exchanging nanostructures from within aqueous liquid media into organic liquid media. The steps comprise first supplying solid nanostructures in an aqueous liquid media, adjusting the pH, incorporating an ionic surfactant sufficient to reduce nanostructure aggregation, followed by concentrating the nanostructures in the aqueous liquid media. The nanostructures may them be placed in organic liquid media followed by introduction of a coupling agent capable of covalent attachment to the nanostructure surface while providing a functional group capable of polymerization to covalently bond the nanostructures to a selected monomer and/or polymer resin.

Abstract: A pressure-sensitive adhesive bandage with a magnetically-released triggering mechanism is provided. The pressure-sensitive bandage may include a backing for providing support for the pressure-sensitive adhesive bandage. Additionally, the pressure-sensitive bandage may include a pressure-sensitive adhesive applied to the backing, which may include microcapsules. The microcapsules may include a silica-based shell, a core confined within the silica-based shell that includes oil, and a plurality of magnetic particles that may be positioned in at least one of the silica-based shell and the core. The plurality of magnetic particles may be configured to cause the silica-based shell to release the oil from the core when a magnetic force is exerted on the plurality of magnetic particles.

Abstract: The present invention is directed to a method of exchanging nanostructures from within aqueous liquid media into organic liquid media. The steps comprise first supplying solid nanostructures in an aqueous liquid media, adjusting the pH, incorporating an ionic surfactant sufficient to reduce nanostructure aggregation, followed by concentrating the nanostructures in the aqueous liquid media. The nanostructures may them be placed in organic liquid media followed by introduction of a coupling agent capable of covalent attachment to the nanostructure surface while providing a functional group capable of polymerization to covalently bond the nanostructures to a selected monomer and/or polymer resin.