Datei im Netzwerk der BAM verfügbar ("Closed Access")
Filtern
Dokumenttyp
- Posterpräsentation (2) (entfernen)
Sprache
- Englisch (2)
Referierte Publikation
- nein (2)
Schlagworte
- Graphene (1)
- Graphene 2D nanomaterial (1)
- Inhibition of HSV virus (1)
- NEXAFS (1)
- Nano graphene (1)
- Raman spectroscopy (1)
- X-ray Photoelectron Spectroscopy (XPS) (1)
- XPS (1)
Organisationseinheit der BAM
We report a new method for top-down one-pot, gram-scale production of high-quality nanographene from graphite under mild conditions. The nanographene sheets had a very low oxygen content, comparable to that of nanographene grown by chemical vapor deposition. This method is easily scalable and comparatively mild, opening the door to an environmentally friendly process to produce high-quality nanographenes.
Nanographene sheets were further covalently functionalized using a non-destructive [2+1] cycloaddition reaction that left the π-conjugated system intact.
Inhibition of Herpes Virus by Specific and Non-specific Interactions With Graphene Conjugates
(2017)
Herpes viruses (HSV) are global, host-adapted pathogens that cause a widespread diversity of diseases. The frequency of HSV infections all over the world has amplified over the last years, making it a major concern in the area of public health. Therefore, synthesis of systems that can inhibit development of these viruses is required. Various compounds already have shown inhibition of HSV, but concentration of these inhibitors is relatively high and resistance against those drugs is challenging.
Combination of biological knowledge, about structure of the active site on the surface of HSV that is responsible for inhibition of the pathogen, with the chemistry of graphene results in 2D systems with the ability of specific and nonspecific interactions with HSV. In this work, 2D nanomaterials with picomolar IC50 against HSV are synthesized by conjugation of peptides to the surface of graphene.
2D nanomaterials are characterized by various methods, including XPS, AFM and IR. Biological evaluation showed high potency of synthesized nanomaterials to inhibit HSV and therefore underlined possibility to use such materials in future biomedical applications.