The model is applicable to both complete and incomplete dissolution in two and three spatial dimensions, and handles topological changes in a natural fashion.
This study investigated the benefits of partial removal of dense nonaqueous phase liquid (DNAPL) source zones using enhanced dissolution in eight laboratory scale experiments.
The experiment is designed to achieve total carbonate dissolution in ten steps, aiming for approximately 10% of the total carbonate to be dissolved in each step using acetic acid.
By comparing dissolution in the two systems directly, we hoped to arrive at an optimum PSS for future dissolution studies.
The cyclic voltammetry (CV) analysis has been performed on electrocrystallized Ni to understand the deposition and dissolution processes in four types of baths i.e. sulphate, chloride, Watts and sulphamate baths.
The waiver of this in vivo bioequivalence study is granted based on the comparability of the dissolution profile in three media: 0.1 N HCl and phosphate buffers pH 4.5 and 6.8.
Silicon dissolution can occur in two ways.
One such example of statistical tools is ASAPprime®, which was presented (Li et al. 2016) for predicting the stability of active pharmaceutical ingredients (APIs) in solid-dosage forms as well as the slow-down in dissolution of two APIs in an immediate release tablet.
In this study, we have demonstrated that the ASAPprime® program can also be used to predict the slow-down in dissolution of two APIs in an immediate release tablet.
Another report on a 1 1 exemestane/maleic acid cocrystal and a 1 1 megestrol acetate/saccharin cocrystal looked at powder dissolution in FaSIF with three particle size fractions (150−300 μm, 106−150 μm, and fines).
