The process of diverting an acid stimulation is accompanied by some complex processes, such as a reactive mass transfer, porous media heat transfer, reaction heat release, and changes in the chemical characteristics.
Through multi-loop control, the power loop uses active and reactive power transfer adapted expressions to obtain the magnitude of the voltage and power transfer angle to control the power flow between the distributed generation and the utility grid.
The model application illustrates that multi-species reactive transport models are needed to adequately transfer reactive processes from one hydraulic situation to another, while single species models are not suited for this predictive task.
Furthermore, the MPPT operation does not affect the reactive power transfer of the system as shown in the figures.
The method is then applied to study non-reactive and reactive mass transfer in a falling liquid film.
For the reactive mass transfer, first and second order irreversible chemical reactions in the liquid phase are considered.
The phase distribution thus obtained was used to define the computational domain to model the reactive mass transfer.
The proposed Volume of Fluid method is shown to be well adapted to deal with interfacial reactive mass transfer problems.
A volume of fluid method is developed in order to simulate reactive mass transfer in two-phase flows and is applied to study reactive laminar liquid film.
From mathematical modeling of reactive mass transfer under low residual saturation conditions (0.44% and 1.9%), experimental data were simulated and important controlling mechanisms were identified.
