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Abalakin Ilya Vladimirivich

Publications in Math-Net.Ru

  1. The hinged rotor mechanics

    Keldysh Institute preprints, 2025, 008, 24 pp.
  2. Generalized Brinkman volume penalization method for compressible flows around moving obstacles

    Mat. Model., 34:2 (2022),  41–57
  3. Simulation of flow near rotating propeller on adaptive unstructured meshes using immersed boundary method

    Mat. Model., 33:8 (2021),  59–82
  4. Characteristic based volume penalization method for numerical simulation of compressible flows on unstructured meshes

    Zh. Vychisl. Mat. Mat. Fiz., 61:8 (2021),  1336–1352
  5. Method for prediction of aerodynamic characteristics of helicopter rotors based on edge-based schemes in code NOISEtte

    Computer Research and Modeling, 12:5 (2020),  1097–1122
  6. About solid walls boundary conditions for viscous flow problems

    Mat. Model., 32:11 (2020),  79–98
  7. Parallel algorithm for flow simulation in rotor-stator systems based on edge-bases schemes

    Mat. Model., 32:6 (2020),  127–140
  8. Numerical simulation of acoustic fields induced by flow past oscillating solid

    Mat. Model., 31:10 (2019),  98–116
  9. Immersed boundary method on deformable unstructured meshes for airfoil aeroacoustic simulation

    Zh. Vychisl. Mat. Mat. Fiz., 59:12 (2019),  2046–2059
  10. Multimodel approach for helicopter rotor aeroacoustic and aerodynamic characteristics modeling using numerical simulation

    Keldysh Institute preprints, 2018, 047, 32 pp.
  11. Simulation of unsteady turbulent flow around a cylinder prescribed by immersed boundary method

    Mat. Model., 30:5 (2018),  117–133
  12. Simulation of aerodynamics of a moving body prescribed by immersed boundaries on dynamically adaptative unstructured mesh

    Mat. Model., 30:5 (2018),  57–75
  13. Immersed boundary method for numerical simulation of inviscid compressible flows

    Zh. Vychisl. Mat. Mat. Fiz., 58:9 (2018),  1462–1471
  14. Implementation the low Mach number method for calculation of flows in the software package NOISEtte

    Mat. Model., 29:4 (2017),  101–112
  15. Reconstruction of body geometry on unstructured meshes when using immersed boundary method

    Mat. Model., 28:6 (2016),  77–88
  16. Numerical simulation of aerodynamic and acoustic characteristics of rotor in ring

    Mat. Model., 27:10 (2015),  125–144
  17. The implementation of immersed boundary method for simulation of external flow on unstructured meshes

    Mat. Model., 27:10 (2015),  5–20
  18. Using Brinkman penalization method for numerical simulation viscous compressible flows over obstacles

    Keldysh Institute preprints, 2014, 011, 14 pp.
  19. Higher accuracy scheme based on edge-oriented quasi-1Â reconstruction of variables for solving aerodynamics and aeroacoustics problems on unstructured meshes

    Mat. Model., 25:8 (2013),  109–136
  20. Parallel research code NOISEtte for large-scale CFD and CAA simulations

    Num. Meth. Prog., 13:3 (2012),  110–125
  21. Numerical experiments on acoustic liners

    Mat. Model., 19:8 (2007),  15–21
  22. Study of impact of viscous-terms approximation on accuracy of numerical solution of gas dynamics equations

    Mat. Model., 19:7 (2007),  85–92
  23. High accuracy scheme for solving nonlinear aeroacoustics problems on unstructured meshes

    Mat. Model., 19:7 (2007),  56–66
  24. CFD software project GIMM study of hydrodynamic problems by parallel computing

    Mat. Model., 17:6 (2005),  58–74
  25. Application of kinetically consistent finite difference schemes for turbulent supersonic jet noise prediction

    Mat. Model., 13:10 (2001),  56–76
  26. Kinetically consistent schemes of a higher accuracy order

    Mat. Model., 13:5 (2001),  53–61
  27. Difference schemes based on kinetic splitting of flux vector

    Mat. Model., 12:4 (2000),  73–82
  28. Application of the algebraic turbulent model to the unsteady flow simulation around a cavity

    Mat. Model., 12:1 (2000),  45–56
  29. Numerical simulation of supersonic jets using kinetical-consistent finite difference schemes

    Mat. Model., 12:1 (2000),  25–37
  30. Kinetically consistent difference algorithm for simulation of gasdynamic flows on triangular meshes

    Mat. Model., 10:4 (1998),  51–60
  31. Kinetically consistent difference schemes on irregular grids

    Mat. Model., 9:7 (1997),  44–53
  32. Kinetically consistent finite difference schemes as a model for gasdynamic flow description

    Mat. Model., 8:8 (1996),  17–36
  33. On an improvement of the gas flow description via kinetically-consistent difference schemes

    Mat. Model., 6:7 (1994),  3–14
  34. Kinetically-consistent finite difference schemes as a model for the flows of slightly rarefied gases

    Mat. Model., 5:5 (1993),  61–70
  35. Using kinetically-consistent difference schemes for prediction of slightly rarefied gas flows

    Mat. Model., 4:11 (1992),  19–35
  36. Prediction of slightly rarefied gas flows using transputer-based multiprocessor systems

    Mat. Model., 4:11 (1992),  3–18
  37. Direct numerical modeling of the Blasius problem

    Differ. Uravn., 24:7 (1988),  1107–1113


© Steklov Math. Inst. of RAS, 2025