Monolithic finite element formulation for magnetohydrodynamics Involving a Compressible Fluid

By: Contributor(s): Material type: BookBookLanguage: en Publication details: Bangalore : IISc , 2023 .Description: vii, 46p. col. ill. ; 29.1 cm * 20.5 cm e-Thesis 2.771MbDissertation: MTech (Res); 2023; Mechanical engineeringSubject(s): DDC classification:
  • 621 ADH
Online resources: Dissertation note: MTech (Res); 2023; Mechanical engineering Summary: This work develops a new monolithic finite-element-based strategy for Magnetohydrodynamics (MHD) involving a compressible fluid based on a continuous velocity-pressure formulation. The entire formula- tion is within a nodal finite element framework, and is directly in terms of physical variables. The exact linearization of the variational formulation ensures a quadratic rate of convergence in the vicinity of the solution. Both steady-state and transient formulations are presented for two- and three-dimensional flows. Several benchmark problems are presented, and comparisons are carried out against analytical solutions, experimental data, or against other numerical schemes for MHD. We show a good coarse-mesh accuracy and robustness of the proposed strategy, even at high Hartmann numbers.
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MTech (Res); 2023; Mechanical engineering

This work develops a new monolithic finite-element-based strategy for Magnetohydrodynamics (MHD) involving a compressible fluid based on a continuous velocity-pressure formulation. The entire formula- tion is within a nodal finite element framework, and is directly in terms of physical variables. The exact linearization of the variational formulation ensures a quadratic rate of convergence in the vicinity of the solution. Both steady-state and transient formulations are presented for two- and three-dimensional flows. Several benchmark problems are presented, and comparisons are carried out against analytical solutions, experimental data, or against other numerical schemes for MHD. We show a good coarse-mesh accuracy and robustness of the proposed strategy, even at high Hartmann numbers.

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