Establishing dissolution rates can support the interpretation of ecotoxicity test results.
This manuscript details the development of a Multiple Level C IVIVC for the amorphous solid dispersion formulation of suvorexant, a BCS class II compound, and its application to establishing dissolution specifications and in-process controls.
If an appropriate dissolution method has been established and the dissolution results indicate that the dissolution characteristics of the product are not dependent on the pH and product strength, then dissolution profiles in one medium are usually sufficient to support waivers of in vivo testing.
We establish a model of dissolution to explain the morphology of etched grooves.
In order to establish a relationship between dissolution test results and actual results from in vivo studies, different modeling approaches were applied.
However, articles on in vitro acellular dissolution tests are scarcer, although these immersion experiments are often considered a first step in establishing a predictive dissolution test and understanding the resorption mechanisms.
It was established that antimony dissolution at open circuit is coupled to oxygen reduction, which occurs via the hydrogen peroxide route.
It has long been established that the dissolution of pristine C60 fullerene in water is due to the formation of solvation shell around the C60 molecule tightly attached to it [5, 6, 43, 52, 53].
On the other hand, it has been well established that the dissolution of β-TCP promotes the migration of osteoclasts and osteoblasts [31], and calcium ions released from β-TCP may promote differentiation of osteoblasts [32, 33].
Establishing steady state dissolution was essential to provide a more accurate estimate of the fraction contaminated and high resolution data from soil cores in the source zone were needed to estimate the mass present.
