Finally, as a proof of concept, these ruthenium complexes have been successfully encapsulated into MCM-41 and SBA-15 mesoporous silicas using two different incorporation strategies (impregnation and grinding).
Although a wide variety of drugs for the treatment of diseases have been successfully encapsulated into these nanofibers, significant progress has been made in the use of electrospun fibers for drug delivery, and many problems remain to be resolved.
Nanosized ferroelectric powders have been successfully encapsulated in a thin surrounding shell made of a binary oxide.
Various metal nanowires have been successfully encapsulated within CNTs, employing mainly two kinds of methods.
For example, antibiotics as ampicillin [135], tetracycline hydrochloride [136], or gentamycin [137] have been successfully encapsulated in diverse ENFs.
To date, numerous antigens (proteins, peptides, lipopeptides, viruses, or plasmid DNA) have been successfully encapsulated into PLGA particles.
TEM, zeta-potential measurement and selected-area electron diffraction patterns indicated that the dye nanorods were successfully encapsulated within a silica layer using a sol gel process.
NRG was successfully encapsulated reaching encapsulation efficiencies of 92.58 ± 3.84%.
The mixture of the mono- and di-functional norbornene dicarboximide monomers was successfully encapsulated by a method involving urea-formaldehyde and used as healing agents.
Emulsified lycopene (extracted from pink grapefruit freeze-dried pulp matrix) with sugars and hydrocolloids were successfully encapsulated in alginate beads, being a good strategy to obtain high lycopene formulations ready to use or for their incorporation in a subsequent technological process (such as freeze-drying or extrusion).
