DiMP-hydro solver for direct numerical simulation of fluid microflows within pore space of core samples. The paper is devoted to the description of the software package DiMP-Hydro, being developed in Keldysh Institute of Applied Mathematics (Russian Academy of Sciences). It is intended to simulate microflows of single- and two-phase viscous compressible fluids with different rheology in spatial voxel domains. Such geometric models are relevant due to development and widespread usage of computer microtomography methods. One of the main areas of application of this software package is the simulation of microflows within pore spaces of core (rock) samples. Simulation results can be used to determine macroscopic properties of core samples (for instance, absolute permeability) and features of displacement processes at the micro level, which is one of main tasks of the “digital rock” technology. The description of the used mathematical models, numerical algorithms and the software package is given. To describe the fluid dynamics, the regularized Navier-Stokes (for single-phase flows) and Navier-Stokes-Cahn-Hillard equations (for two-phase flows) are used. The regularization is based on the quasihydrodynamic approach, which is physically justified and makes it possible to use explicit stable numerical algorithms that are relatively simple to implement. The software package is parallel and focused on the use of high-performance computing systems. The results of the use of DiMP-Hydro for simulation of microflows of fluid (including twophase) and gas (including moderately rarefied) in the pore space of core samples are presented.
Keywords for this software
References in zbMATH (referenced in 2 articles , 1 standard article )
Showing results 1 to 2 of 2.
- Golovchenko, E. N.; Yakobovskiĭ, M. V.; Balashov, V. A.; Savenkov, E. B.: Comparison of domain partitioning algorithms in the problem of direct flow simulation within rock samples at pore scale (2020)
- Balashov, V. A.; Savenkov, E. B.; Chetverushkin, B. N.: DiMP-hydro solver for direct numerical simulation of fluid microflows within pore space of core samples (2019)