Interface interactions between biological vesicles and inorganic surfaces of biomaterials using atomic force microscopy
Keywords:
Interface, biological vesicles, biomaterials, atomic, force microscopy, liposomeAbstract
Interface interactions between biological vesicles and inorganic surfaces of biomaterialsusing atomic force microscopy.
Abstract
Interface incompatibilities in the interaction between biological microparticles that normally circulate in theblood and the surface of biomaterials implants are normally associated with subsequent rejection reactionsby the immune system. This requires an explanatory model for the behavior observed at the interface ofliposomes and platelets in contact with biomaterials and inorganic surfaces. Thus, allowing the analysis ofthe relationship between the ionic balance of surface forces of attraction between liposome-surface/degreeof deformation and change in the surface properties of liposomal nanoparticles absorbed by the surfacemodification of liposomes with biopolymers such as chitosan. Progress has been made in understanding thedynamics of interfaces for consistency of different lipids vesicles as a model and found that the biopolymercoating of lipid vesicles with chitosan provides better physical stability and an increase in the interface betweenbiomaterials and biomimetic inorganic nanoparticles.
Key words:
Interface, biological vesicles, biomaterials, atomic force microscopy, liposome.
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