Simulate transient three-phase flow inside the 3 phase Separator CFD Analysis/2 phase Separator CFD Analysis to observe phase separation inside the separator. By simulating the transient three-phase flow within the system, experts gain invaluable insights into the intricate process of phase separation occurring inside the separator. This analysis not only enhances our understanding of fluid behaviour but also plays a pivotal role in optimizing separator designs for various industrial applications.
The Population Balance Model (PBM) simulations for the 3 phase separator CFD Analysis /2 phase Separator CFD Analysis have been meticulously crafted. Employing a refined flow derived from initial Eulerian-Eulerian simulations ensures swift convergence. Inlets are calibrated with precise fluid flow rates and phase properties, enhancing the model’s precision. To assess phase inversion risk, a 6m upstream pipe length is simulated, providing a thorough analysis. The cyclonic device inlet accurately replicates real-world conditions, boosting overall accuracy. Utilizing a porous media formulation, the cyclonic outlet device is intricately simulated based on specific flow rates, ensuring a detailed representation. The pressure drop across perforated baffle plates and foam breakers is accurately captured through porous formulations, ensuring a comprehensive 3 phase separator CFD analysis / 2 phase Separator CFD Analysis. This meticulous approach guarantees a robust and reliable assessment of the separator’s performance.
It can be concluded from the 3 Phase Separator CFD Analysis / 2 phase Seperator CFD Analysis that a clear separation of liquid and gaseous phases is observed throughout the inlet pipe. Maximum Water in Oil (WIO) is calculated to be 2.3% v/v, and most water droplets in Liquid HC are greater than 100 microns. Additionally, the maximum Oil in Water (OIW) is calculated to be 243 ppmw. The time-averaged liquid carryover at the gas outlet is calculated to be less than 0.132 USG/MMSCF.
