Discharge flow predication is based on capacity discharge designation by designer.
(2016) developed a new mathematical model for determining the discharge flow rate in the Marsh funnel.
The variable cut plane changes the pressure in inner region of rotor and enhances the discharge flow rate.
Simulations include investigations for the effects of FMHA discharge flow rate differences, turbulence models, and steam generator conditions.
The results obtained highlighted the influence of friction properties on the characteristics of the discharge flow.
Therefore the following dimensionless groups, the discharge flow number and the circulation flow number, were calculated.
Also, wind turbine with variable cut plane has a 12% decrease in power coefficient and 5% increase in discharge flow rate compared to simple Savonius wind turbine.
When using available simplified methods for the estimation of critical discharge flow rates, a suitable friction factor has to be chosen.
A theoretical model is employed to predict discharge flow rate and it is comparable with the experimental results in slug-flow regime.
We calculated the TAZ using hourly discharge flow and temperature data, then recalculated the TAZ using average daily, monthly, and seasonal energetic equivalents.
In order to minimize the environmental effects and maximize the effectiveness of filtered venting, it is critical to initiate venting in timely manners with sufficient discharge flow rate.
