Study of Flow Characteristics of ASP Solution Based on Numerical Simulation in Jet Nozzle Channel


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Аннотация

With increasing depth of oilfield development, sublayers are becoming the main object of 0o9alkali-surfactant-polymer (ASP) flooding. Compared with major layers, sublayers differ in permeability, which may cause clogging of low-permeability layers when ASP solution containing polymer of the same molecular weight is injected into these layers. To solve this problem, injection allocators are widely used in oilfields. In this work, the jet nozzle channel was modeled using FLUENT 6.3 software. The ASP solution flowing through the jet nozzle channel in the injection allocator was simulated using a mathematical model based on the Navier-Stokes equation and renormalization group (RNG) turbulence and power-law fluid models. The effect of nozzle diameter on the distribution of differential pressure, velocity, average strain rate, turbulence power, and apparent viscosity of the flow were analyzed. It was found that with an increase in the nozzle diameter the differential pressure and velocity of the flow decrease before and after passing through the nozzle, whereas the average strain rate increases gradually. The simulation results can provide theoretical guidance for optimal design of the nozzle.

Об авторах

Bin Huang

Key Laboratory of Enhanced Oil & Gas Recovery under Ministry of Education, Northeast Petroleum University

Email: fu_cheng111@163.com
Китай, Daqing

Wei Zhang

Research center of Sulige gas field, Changqing Oilfield Company Limited

Email: fu_cheng111@163.com
Китай, Xi’an

Cheng Fu

Key Laboratory of Enhanced Oil & Gas Recovery under Ministry of Education, Northeast Petroleum University

Автор, ответственный за переписку.
Email: fu_cheng111@163.com
Китай, Daqing

Pengxin Feng

Research center of Sulige gas field, Changqing Oilfield Company Limited

Email: fu_cheng111@163.com
Китай, Xi’an

Ying Wang

Chemical Engineering Department, Rice University

Email: fu_cheng111@163.com
США, Houston


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