TY - GEN
T1 - A compositional two-phase flow model for analyzing and designing complex pipeline network systems
AU - Mucharam, Leksono
AU - Adewumi, Michael A.
PY - 1990/1/1
Y1 - 1990/1/1
N2 - A two-phase flow model has been developed for analyzing and designing gas/condensate distribution pipeline network system. The model is developed based on looped-system approach with some modifications. In this model, a phase behavior model is implemented for predicting die fluid properties required for the governing equations for the network system. By utilizing the Linear Theory Method, the Beggs-Brill's two-phase flow model is implemented in this model to predict the hydrodynamic variables in each leg of the network using the iterative technique which is developed in this study. A generalization of the two-phase network model is provided thereby making it possible for the two-phase flow model used to be replaced with any other that may be more applicable for the particular situation. Using the iterative procedure developed, pressure at all nodes, gas flow rate and liquid holdup at each leg can be predicted. The test results demonstrate that the model can serve as a predictive and design tool for solving a two-phase flow problem in a pipeline network.
AB - A two-phase flow model has been developed for analyzing and designing gas/condensate distribution pipeline network system. The model is developed based on looped-system approach with some modifications. In this model, a phase behavior model is implemented for predicting die fluid properties required for the governing equations for the network system. By utilizing the Linear Theory Method, the Beggs-Brill's two-phase flow model is implemented in this model to predict the hydrodynamic variables in each leg of the network using the iterative technique which is developed in this study. A generalization of the two-phase network model is provided thereby making it possible for the two-phase flow model used to be replaced with any other that may be more applicable for the particular situation. Using the iterative procedure developed, pressure at all nodes, gas flow rate and liquid holdup at each leg can be predicted. The test results demonstrate that the model can serve as a predictive and design tool for solving a two-phase flow problem in a pipeline network.
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M3 - Conference contribution
AN - SCOPUS:85056892625
SN - 9781555634803
T3 - Society of Petroleum Engineers - CIM/SPE International Technical Meeting 1990
BT - Society of Petroleum Engineers - CIM/SPE International Technical Meeting 1990
PB - Society of Petroleum Engineers
T2 - CIM/SPE International Technical Meeting 1990
Y2 - 10 June 1990 through 13 June 1990
ER -