Table 3.
Year | Active Compound | Nanocarrier | Co-Solvent | Solid Dosage Form | Observations | Ref. |
---|---|---|---|---|---|---|
2009 | Lysozyme | N/A | Ethanol | N/A | Spherical microparticles 1.0 µm < PSD < 4.0 µm Lysozyme remained stable with biological activity from 95% to 100%. |
[80] |
2009 | Lysozyme Trypsin |
N/A | N/A | N/A | 80% of trypsin and 65% of lysozyme particles have a diameter smaller than 5 µm | [95] |
2010 | Gentamicin sulfate * | N/A | N/A | BSA | Mean diameter of 2 µm 1.70 µm < D50 > 2.24 µm EE > 95.6% |
[96] |
2011 | BSA | N/A | N/A | N/A | Well-defined, hollow, and spherical BSA microparticles 0.3 µm < PSD < 5.0 µm |
[97] |
2011 | BSA | N/A | N/A | N/A | The solubility of BSA is dependent on processing temperature | [98] |
2011 | Lysozyme | N/A | Ethanol | N/A | SAA-HCM 1 0.2 µm < PS < 5.0 µm Lysozyme kept 85% of its activity |
[99] |
2013 | Insulin | N/A | N/A | N/A | SAA-HCM 0.5 µm < PS < 5.0 µm |
[100] |
2015 | Trypsin | N/A | N/A | Chitosan | SAA-HCM 0.2 µm < PS < 4.0 µm LE 2 up to 91.8% Trypsin retained > 70% of its enzymatic activity |
[101] |
2017 | BSA | N/A | Acetonitrile | PLGA | 1.7 µm < MMAD 3 < 3.5 µm FPF 4 of 43% BSA showed both chemical and structural stability |
[30] |
2018 | Parathyroid hormone | N/A | N/A | Chitosan oligosaccharide | SAA-HCM 1.0 µm < MMAD < 5.0 µm FPF of 63.51% LE up to 92.8% |
[102] |
2020 | SiRNA 5 | Mesoporous silica nanoparticles Poly-L-arginine Hyaluronic acid | Ethanol | Chitosan (CHT) |
3.0 µm < Dv,50 < 4.0 µm FPF of 44.4% EEsiRNA of 11.4% onto LBL nanosystems Entrapment efficiency of the LbL nanoparticles of 28.7% in CHT powder 90% of gene silencing from CHT-LbL siRNA |
[93] |
1 Supercritical fluid assisted atomization introduced by a hydrodynamic cavitation mixer; 2 Loading efficiency; 3 Fine particle fraction; 4 Mass median aerodynamic diameter; 5 Small interfering RNA. * This work was selected since BSA was used as a microcarrier.