In the case of degradable scaffolds, the release of molecules can be tuned by varying the degradation profile of the material or the molecule diffusion.
Fig. 3 Experimental degradation profile for sulfacetamide by LNISO method.
Figure 4b shows the degradation profile of astaxanthin in storage at 4°C.
Further, the degradation profile of porous α/β-TCP was well-described by Avrami equation.
The degradation profile of bioactive glass was shown to slow down with the addition of zinc.
Furthermore, it was shown that by alloying Mg, the degradation profile could be changed.
The present study analyzes short term in vitro degradation profile of PCL films in physiological condition.
The addition of PAL was found to significantly enhance the degradation profile of PCL.
These results correspond to the phenol degradation profile at initial concentration of 100 mg/L shown in Fig. 2.
This highlights a unique biphasic degradation profile that could be beneficial for the delivery of bioactive molecules.
SYN-004 was engineered from P1A, a beta-lactamase isolated from Bacillus licheniformis, to broaden its antibiotic degradation profile.
