Study of biocompatibility of nanostructured materials on in vitro and in vivo models

Identificador:  TDX:4235

Handle: https://hdl.handle.net/20.500.11797/TDX4235

Autores:  Orlowska, Anna Barbara

Resumen:
Biomaterials play a substantial role in the health care industry. Each year, the number of medical devices used in humans is estimated to be around 1.5 million individual devices, according to the World Health Organization, with about 10 000 types of generic device groups available worldwide. As new devices emerge, the topic of the biocompatibility of these materials becomes more relevant. This thesis studies biocompatibility of biomaterials and their interaction with tissues and cells combining in vitro and in vivo models. The studied biomaterials are classified in synthetic (polymers, silicon, titanium and alloys) and nature-derived biomaterials, which in turn, classify in xenogenic, derived from natural materials but foreign for the organism and autologous biomaterials, derived from the tissues of the same organism. In the case of synthetic materials, it was shown how different functionalization strategies of surfaces (in particular, the effect of protein coating and surface topography) affect mammalian cell response. Autologous biomaterials were represented by platelet rich fibrin (PRF), derived from the blood of the patient. Their potential as implantable system was studied in vitro and in vivo.