Abstract: Tellurium nanowires synthesized using green chemistry methods and having unique morphologies and functional properties are provided. The nanowires have a core of hexagonal crystal phase tellurium and a polymer coating, and can be used for treating cancer without apparent cytotoxicity toward normal human cells.

Abstract: A material includes a metallic, nanoporous structure having a plurality of nanopores having a porosity that allows passage of insulin but not IgG. The metallic nanoporous structure includes titanium, 316L stainless steel and may have a textured nano-sericeous surface. A nanoporous bicontinuous structure can be integrated with nanopores.

Abstract: The invention relates to a metallic, nanoporous canister used to encapsulate cellular and/or biotherapeutic agents. The device is biocompatible and functions to wholly isolate a therapeutically active agent and/or cells therein. Their implantation, and survival in vivo, permits the local or systemic diffusion of their encapsulated cellular and/or biomolecular and therapeutics factors with the potential to promote repair of damaged or degenerated tissues in mammalian hosts, primarily humans.

Abstract: The invention relates to a metallic, nanoporous canister used to encapsulate cellular and/or biotherapeutic agents. The device is biocompatible and functions to wholly isolate a therapeutically active agent and/or cells therein. Their implantation, and survival in vivo, permits the local or systemic diffusion of their encapsulated cellular and/or biomolecular and therapeutics factors with the potential to promote repair of damaged or degenerated tissues in mammalian hosts, primarily humans.

Abstract: A material includes a metallic, nanoporous structure having a plurality of nanopores having a porosity that allows passage of insulin but not IgG. The metallic nanoporous structure includes titanium, 316L stainless steel and may have a textured nano-sericeous surface. A nanoporous bicontinuous structure can be integrated with nanopores.

Abstract: The present invention is directed to methods for inhibiting growth of bacteria and to nanometer scale surfaces having antibacterial properties.

Abstract: A material includes a metallic, nanoporous structure having a plurality of nanopores having a porosity that allows passage of insulin but not IgG. The metallic nanoporous structure includes titanium, 316L stainless steel and may have a textured nano-sericeous surface. A nanoporous bicontinuous structure can be integrated with nanopores.

Abstract: Methods disclosed herein provide for an environmentally-friendly approach that employ citric extracts from fruits as unique reducing and stabilizing agents for making a tellurium nanomaterial. A particular method of making a tellurium nanomaterial includes combining citrus fruit extract with a tellurium salt to form a mixture of citrus fruit extract and dissolved tellurium salt; and heating the mixture of citrus fruit extract and dissolved tellurium salt, thereby making the tellurium nanomaterial. The resulting nanoparticles exhibit enhanced and desirable biomedical properties toward treatment of both infectious diseases and cancer.

Abstract: The present invention is directed to methods for inhibiting growth of bacteria and to nanometer scale surfaces having antibacterial properties.

Abstract: Green-synthesized tellurium nanowires (GREEN-TeNWs) are generated using a biopolymer as a unique reducing agent, purified, and used as a template for the growth of coated palladium nanoparticles (PdNPs) and platinum nanoparticles (PtNPs) on top of the GREEN-TeNWs, in a reaction that can take place in seconds, with no need for high temperature, stirring, or for additional reducing agent. The heterogeneous structure can contain palladium oxide or platinum oxide. The green-synthesized PdNPs-TeNWs (palladium nanoparticles with tellurium nanowires) and PtNPs-TeNWs (platinum nanoparticles with tellurium nanowires) show potential biomedical applications as antibacterial, anticancer, and antioxidant agents, and show low cytotoxicity for healthy human cells.

Abstract: Aspects of the invention relate to a metal material and product made from the metal material having biological properties, such as antibiotic properties.

Abstract: Disclosed are peptides comprising an amphiphilic backbone and a cationic heparin-binding motif peptide. The peptides can be used in methods of antimicrobial treatment.

Abstract: Human dermal fibroblasts (HDF) and melanoma (MEL) cells are used herein for synthesis of metal nanoparticles. For example, synthesis of nanoparticles of gold (Au), palladium (Pd), platinum (Pt), and bimetallic formulations of gold-palladium (AuPd) and gold-platinum (AuPt) is demonstrated with HDF and MEL using a straightforward, eco-friendly and cost-effective approach. The nanostructures are purified and used in biomedical tests, which show selective behavior. The production of nanoparticles allows for stopping of the growth of cancer cells and the ability of new healthy cells to grow on top. The production of nanoparticles with the cells allows for an environmental-resistance behavior within the cells, showing the ability to stand for extreme environmental conditions.

Abstract: Selenium (Se) nanostructures are synthesized using bacteria, and the synthetic method provides options for specific functionalization of the nanostructures, targeting, as well as options for crystal form of and for additives to the composition. In addition to drug delivery and imaging options, the synthesized Se nanostructures provide methods of inhibiting drug resistant bacterial cells and cancer cells without cytotoxicity towards normal human cells and dermal fibroblasts. The green chemistry methods for synthesizing Se nanostructures do not produce toxic byproducts and do not require toxic reagents in comparison to traditional chemical synthetic methods for making Se nanostructures, while simultaneously producing new therapeutic benefits and treatments.

Abstract: The invention relates to a metallic, nanoporous canister used to encapsulate cellular and/or biotherapeutic agents. The device is biocompatible and functions to wholly isolate a therapeutically active agent and/or cells therein. Their implantation, and survival in vivo, permits the local or systemic diffusion of their encapsulated cellular and/or biomolecular and therapeutics factors with the potential to promote repair of damaged or degenerated tissues in mammalian hosts, primarily humans.

Abstract: Tellurium (Te) nanostructures are synthesized using green aloe vera chemistry methods, and the synthesized Te tructures provide methods of inhibiting bacterial cells and cancer cells without cytotoxicity towards normal cells. The aloe vera chemistry methods for synthesizing Te nanostructures do not produce toxic byproducts and do not require toxic reagents in comparison to traditional chemical synthetic methods for making Te nanostructures.

Abstract: One embodiment of the present invention is directed to compositions and methods for enhancing attachment of soft tissues to a metal prosthetic device. In one embodiment a construct is provided comprising a metal implant having a porous metal region, wherein said porous region exhibits a nano-textured surface.

Abstract: Aspects of the invention relate to a metal material and article made from the metal material having biological properties, such as antibiotic properties.

Abstract: A device such as a medical device and a method for making same provides a device surfaces modified by beam irradiation, such as a gas cluster ion beams or a neutral beam, to inhibit or delay attachment or activation or clotting of platelets or to match surface energy of the device to that of a protein with the property of inhibition of bacterial colonization that can coat the all or part of the device surface to effect such inhibition.

Abstract: Methods for creating nanostructured surface features on polymers and polymer composites involve application of low pressure during curing of solid polymer material from a solvent solution. The resulting nanoscale surface features significantly decrease bacterial growth on the surface. Polymer materials having the nanoscale structuring can be used in implantable medical devices to inhibit bacterial growth and infection.