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HArD::Core2D
Hybrid Arbitrary Degree::Core 2D - Library to implement 2D schemes with edge and cell polynomials as unknowns
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Class for Navier-Stokes model. More...
#include <hho-nsa.hpp>
Public Types | |
| typedef Eigen::SparseMatrix< double > | systemMatrixType |
| typedef std::function< VectorRd(const VectorRd &)> | MomentumForcingTermType |
| typedef std::function< double(const VectorRd &)> | CompressibilityForcingTermType |
| typedef std::function< double(const VectorRd &)> | DensityForcingTermType |
| typedef std::function< VectorRd(const VectorRd &)> | VelocityType |
| typedef std::function< MatrixRd(const VectorRd &)> | VelocityGradientType |
| typedef std::function< double(const VectorRd &)> | PressureType |
| typedef std::function< VectorRd(const VectorRd &)> | PressureGradientType |
| typedef std::function< double(const VectorRd &)> | VolumicFractionType |
| typedef IntegralWeight | ViscosityType |
Public Member Functions | |
| VarDensityNavierStokes (const VHHOSpace &vhho_space, const GlobalDOFSpace &p_space, const GlobalDOFSpace &phi_space, const BoundaryConditions &BC, bool use_threads, bool stokes=false, std::ostream &output=std::cout) | |
| Constructor. | |
| void | assembleLinearHHOSystem (const MomentumForcingTermType &f, const CompressibilityForcingTermType &g, const VolumicFractionType &rhog, const ViscosityType &mu, const Eigen::VectorXd &u0, const Eigen::VectorXd &uold, const double &time_step) |
| Assemble the global system | |
| void | assembleLinearDGSystem (const CompressibilityForcingTermType &h, const Eigen::VectorXd &uprho, const VolumicFractionType &rho, const double &time_step) |
| DG ADVECTION SYSTEM. | |
| size_t | nloc_sc_u () const |
| Returns the local number of velocity statically condensed DOFs. | |
| size_t | nloc_sc_p () const |
| Returns the local number of pressure statically condensed DOFs. | |
| size_t | numSCDOFs_u () const |
| Returns the number of velocity statically condensed DOFs. | |
| size_t | numSCDOFs_p () const |
| Returns the number of pressure statically condensed DOFs. | |
| size_t | numSCDOFs () const |
| Returns the number of statically condensed DOFs. | |
| size_t | numDirDOFs () const |
| Returns the number of Dirichlet DOFs. | |
| size_t | dimVelocity () const |
| Returns the dimension of velocity space. | |
| size_t | dimPressure () const |
| Returns the dimension of pressure space. | |
| size_t | dimVolumicFraction () const |
| Returns the dimension of pressure space. | |
| size_t | numNonSCDOFs () const |
| Returns the number of DOFs after SC and with Lagrange multiplier, but before eliminating Dirichlet DOFs. | |
| size_t | sizeSystemHHO () const |
| Returns the size of the final system with Lagrange multiplier, after application of SC and removal of Dirichlet BCs. | |
| size_t | sizeSystemDG () const |
| const VHHOSpace & | vhhospace () const |
| Returns the velocity space. | |
| const GlobalDOFSpace & | pspace () const |
| Returns the pressure space. | |
| const GlobalDOFSpace & | phispace () const |
| Returns the pressure space. | |
| const Mesh & | mesh () const |
| Returns the mesh. | |
| const systemMatrixType & | systemMatrixHHO () const |
| Returns the linear system matrix. | |
| systemMatrixType & | systemMatrixHHO () |
| Returns the linear system matrix. | |
| const Eigen::VectorXd & | systemVector () const |
| Returns the linear system right-hand side vector. | |
| Eigen::VectorXd & | systemVector () |
| Returns the linear system right-hand side vector. | |
| const double & | stabilizationParameter () const |
| Returns the stabilization parameter (scaling) | |
| double & | stabilizationParameter () |
| Returns the stabilization parameter. | |
| const systemMatrixType & | scMatrix () const |
| Returns the static condensation recovery operator. | |
| Eigen::VectorXd & | scVector () |
| Returns the static condensation rhs. | |
| const systemMatrixType & | systemMatrixDG () const |
| Returns the linear system matrix. | |
| systemMatrixType & | systemMatrixDG () |
| Returns the linear system matrix. | |
| const Eigen::VectorXd & | systemVectorDG () const |
| Returns the linear system right-hand side vector. | |
| Eigen::VectorXd & | systemVectorDG () |
| Returns the linear system right-hand side vector. | |
| bool & | isStokes () |
| Returns the Stokes status. | |
| Eigen::VectorXd | interpolate (const VelocityType &u, const PressureType &p, const VolumicFractionType &phi, const int doe_cell=-1, const int doe_face=-1) const |
| Interpolates velocity and pressure. | |
| std::vector< double > | computeEnergyNorms (const std::vector< Eigen::VectorXd > &list_dofs) const |
| Compute the discrete energy norm of a family of vectors representing the dofs. | |
| std::vector< double > | computePressureL2Norm (const std::vector< Eigen::VectorXd > &list_dofs) const |
| Compute the discrete L2 norm of the pressure. | |
| std::vector< std::tuple< double, double, double > > | computeDGNorms (const std::vector< Eigen::VectorXd > &list_dofs, const VelocityType &u) const |
| Compute the discrete energy norm of a family of vectors representing the dofs. | |
| std::vector< double > | computePhysicalEnergies (const Eigen::VectorXd &uprho, const MomentumForcingTermType &f, const ViscosityType &mu) const |
| UTILS. | |
| Eigen::VectorXd | pressureVertexValues (const Eigen::VectorXd &p) const |
| Create vertex values for the pressure (from the element values), for plotting. | |
| Eigen::VectorXd | volumicFractionVertexValues (const Eigen::VectorXd &phi) const |
| Create vertex values for volumic fraction. | |
| void | writeToVtuFile (const Eigen::VectorXd &upphi, const Eigen::VectorXd &upphiI, const std::unique_ptr< Mesh > &mesh_ptr, const std::string &solution_name, const std::string &mesh_name, const size_t °ree, const int &time_it, const double &reynolds, const std::vector< std::string > &plot_variables, const std::string &output_path) |
| Write solution to vut file. | |
| void | writeTimeStepData (const std::string &filename, const int &time_it, const double &time, const double &dt, const double &L2_u_err, const double &H1_u_err, const double &Energy_err, const double &L2_rho_err, const double &cf_rho_err, const double &upw_rho_err, const double &E_kinetic, const double &E_potential, const double &E_dissipation) const |
| Writing data to txt file. | |
| void | writeFileHeader (const std::string &filename, const std::string &solution_name, const int &solution_number, const std::string &mesh_name, const size_t °ree, const std::unique_ptr< Mesh > &mesh_ptr, const double &viscosity) const |
| Writing file header with simulation metadata. | |
| Eigen::VectorXd | imposingBC (const VelocityType &u, const Eigen::VectorXd &uph) const |
| impose boundary conditions | |
| double | getUpwindDensity (const size_t &iE, const size_t &iT, const Eigen::VectorXd &uprho) const |
| get upwind value of the density at the face E | |
| Eigen::VectorXd | newtonRaphson (LinearSolver< VarDensityNavierStokes::systemMatrixType > &solver, const std::unique_ptr< Mesh > &mesh_ptr, const size_t &newton_maxit, const double &newton_tol, const Eigen::VectorXd &u_newt, const Eigen::VectorXd &un, const MomentumForcingTermType &f, const CompressibilityForcingTermType &g, const VolumicFractionType &rhog, const ViscosityType &mu, const double &time_step) |
| newton method | |
Class for Navier-Stokes model.
The global unknowns are in the following order: