Streamline method for simulation of compositional nonisothermal flow of viscoplastic oils
Matematičeskoe modelirovanie, Tome 32 (2020) no. 4, pp. 75-93.

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The purpose of this work is to develop a numerical method that allows to carry out calculations of nonisothermal compositional flow faster than traditional finite-volume methods. A plane problem of oil, water and gas flow is considered. Oil phase is represented by two components — light and heavy fractions, which like water, can gasify. The work takes into account not only the nonlinearity of the oil flow law, but also the temperature dependence of parameters of this law. This statement of the problem is relevant for modeling of high-viscosity oilfields development. To reduce the computational complexity of the problem, the streamline method with splitting by physical processes is used, which consists in separating convective transport directed along the flow propagation from processes associated with heat conduction and gravity, the direction of which does not coincide with the convective flow. A distinctive feature of the proposed method is the joint solution of pressure equations, energy and components mass balance both on streamlines and on the initial grid. This feature allows to perform correct calculations for oil flow with complex temperature-dependent rheology. Numerical solution of system of flow equations on two-dimensional grid and on streamlines is performed by IMPEC method. For the presented streamline method, an algorithm for taking into account thermal conductivity, as well as transition criteria between calculations on streamlines and on a two-dimensional grid is proposed. The developed program was verified by comparison with analytical solutions, as well as with the results of calculations by finite-volume methods on five-point and nine-point difference stencils.
Keywords: viscoplastic oils, nonlinear flow, streamline method.
Mots-clés : compositional simulation
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Y. V. Nevmerzhitskiy; A. V. Konyukhov. Streamline method for simulation of compositional nonisothermal flow of viscoplastic oils. Matematičeskoe modelirovanie, Tome 32 (2020) no. 4, pp. 75-93. http://geodesic.mathdoc.fr/item/MM_2020_32_4_a5/

[1] W. Xiong, Q. Lei, S. Gao, Z. Hu, H. Xue, “Pseudo threshold pressure gradient to flow for low permeability reservoirs”, Petroleum Exploration and Development, 36 (2009), 232–236 | DOI

[2] V. T. Beraldo, M. J. Blunt, D. J. Schiozer, “Compressible streamline-based simulation with changes in oil composition”, SPE Reservoir Evaluation and Engineering, 12 (2009), 963–973 | DOI

[3] B. T. Mallison, Streamline-Based Simulation of Two-phase, Multicomponent Flow in Porous Media, PhD dissertation, Stanford University, 2004, 104 pp.

[4] M. R. Thiele, Modeling Multiphase Flow in Heterogeneous Media Using Streamtubes, PhD dissertation, Stanford University, 1994, 203 pp.

[5] P. Usman, Development of Streamline-Based Simulators for Evaluation of Heavy Oil Recovery, PhD dissertation, Waseda University, Tokyo, 2007, 161 pp.

[6] Z. Zhu, Efficient simulation of thermal enhances oil recovery processes, PhD dissertation, Stanford University, 2011, 215 pp.

[7] H. Cheng, I. Osako, A. Datta-Gupta, M. King, “A rigorous compressible streamline formulation for two- and three-phase black-oil simulation”, SPE Reservoir Evaluation and Engineering, 11 (2006), 407–417

[8] Z. X. Pang, H. Q. Liu, “The transient method and experimental study on threshold pressure gradient of heavy oil in porous media”, Petroleum Engineering Journal, 5 (2012), 7–13

[9] A. Kh. Mirzadzhanzade, Voprosy gidrodinamiki viazkoplastichnyh i viazkikh zhidkostei v primenenii k neftedobyche, Azerneftnashr, Baku, 1959, 409 pp.

[10] Advanced Process and Thermal Reservoir Simulator, CMG STARS, Version 2009, Computer Modelling Group Ltd., Calgary, AB, Canada, 2009, 1120 pp.

[11] Eclipse. 2009, Eclipse Version 2009 Software Manual, Schlumberger Ltd, 2003, 1068 pp.

[12] D. F. Sikovskiy, Metody vychislitelnoi teploperedachi, Uchebnoe posobie, Novosibirsk state University, Novosibirsk, 2011, 121 pp.

[13] A. I. Brusilovsky, Phase transformations in the development of oil and gas, The Grail, M., 2002, 572 pp.

[14] P. K. W. Vinsome, J. Westerveld, “A simple method for predicting cap and base rock heat losses in thermal reservoir simulators”, Journal of Canadian Petroleum Technology, 19 (1980), 87–90

[15] D. W. Pollock, “Semianalytical computation of path lines for finite-difference models”, Ground Water, 26 (1988), 743–750 | DOI

[16] A. Bordbar, S. Faroughi, S. A. Faroughi, “A Pseudo-TOF Based Streamline Tracing For Streamline Simulation Method in Heterogeneous Hydrocarbon Reservoirs”, American Journal of Engineering Research, 7 (2018), 23–31

[17] Ya. V. Nevmerzhitskiy, “Primenenie metoda linii toka dlia uskoreniia raschetov neizotermicheskoi nelineinoi filtratsii”, Kompiuternye issledovaniia i modelirovanie, 10:5 (2018), 709–728