• Title of article

    Isogeometric Resolution of the Brinkman-Forchheimer-Darcy

  • Author/Authors

    Koubaiti ، Ouadie Department of Mathematics, Laboratory - Faculty of Sciences and Techniques of Errachidia - Moulay Ismail University of Meknes , El Ouadefli ، Lahcen Mechanical Engineering Laboratory - Faculty of Sciences and Techniques - Sidi Mohamed Ben Abdellah University , Elkhalfi ، Ahmed Mechanical Engineering Laboratory - Faculty of Sciences and Techniques - Sidi Mohamed Ben Abdellah University , El Akkad ، Abdeslam Mechanical Engineering Laboratory - Faculty of Sciences and Techniques - Sidi Mohamed Ben Abdellah University , Vlase ، Sorin Department of Mechanical Engineering - Faculty of Mechanical Engineering - Transylvania University of Brasov , Marin ، Marin Department of Mathematics and Computer Science - Transilvania University of Brasov

  • From page
    629
  • To page
    642
  • Abstract
    In this paper, we employ the finite element method based on non-uniform rational B-splines function approximation to solve the nonlinear Brinkman-Forcheimer-Darcy equation in a simply connected and bounded Lipschitz domain Ω. We provide both theoretical and numerical studies of the Dirichlet boundary problem. Utilizing a stream function formulation, we demonstrate the well-posedness of the weak form. Furthermore, we approximate the velocity and pressure fields by linearizing the nonlinear terms, resulting in an algebraic system. This Non-uniform rational B-splines method is more effective in terms of the exact representation of the geometry and the good approximation of the solution compared to the virtual element method. To validate the effectiveness of the non-uniform rational B-splines Finite Element Method, we conduct numerical simulations of fluid flow in porous media.
  • Keywords
    Brinkman , Forchheimer , Darcy , NURBS , FEM , porous , MATLAB , stream formulation , Isogeometric Analysis
  • Journal title
    Journal of Applied and Computational Mechanics
  • Journal title
    Journal of Applied and Computational Mechanics
  • Record number

    2766945