| Nbprinter | |
| Cendl | |
| CTablePrinter | |
| NICoCo | |
| CInit_Params | |
| CProblemTrio | Class ProblemTrio |
| C_sig_ucontext | |
| CAbstractIO | Base class for all input/output streams |
| CAcceleration_QC_VDF_Face | |
| CAcceleration_QC_VEF_P1NC | |
| CAdhoc_JFNK | Classe Adhoc_JFNK |
| CAire_interfaciale | Transport equation for the interfacial area |
| CAjouterInterneData | |
| CALE_BeamCoupling | |
| CALE_CheckpointManager | |
| CALE_MetricsUpdater | |
| CALE_Neumann_BC_for_grid_problem | |
| CALE_ProjectionManager | |
| CAlgorithmes_Transport_FT_Disc | : classe Algorithmes_Transport_FT_Disc |
| CAnalyse_Angle_32_64 | |
| CAretes | |
| CArray_base | Empty class used as a base for all the arrays |
| CArrOfBit_32_64 | |
| CAssembleur_base | |
| CAssembleur_P_DG | Assembles the pressure Laplacian matrix for the DG incompressible Navier-Stokes solver |
| CAssembleur_P_EF | |
| CAssembleur_P_PolyMAC_CDO | |
| CAssembleur_P_PolyMAC_HFV | |
| CAssembleur_P_PolyMAC_MPFA | |
| CAssembleur_P_VDF | |
| CAssembleur_P_VDF_Q4 | |
| CAssembleur_P_VEF | |
| CAssembleur_P_VEFPreP1B | |
| CAssembleurPVDF_PF | |
| CAssocier | Associer class, Interprete that associates two objects obj1 and obj2: |
| CAxi | Class Axi This class is an interpreter that serves to read the axi attribute |
| CBasisFunction | Manages the local polynomial basis functions for Discontinuous Galerkin elements |
| CBeam_model | |
| CBidim_Axi | Class Axi_2D This class is an interpreter that serves to read the 2D_axi attribute |
| CBilanQdmVEF | |
| CBlocData | |
| CBlock_Iter | |
| CBord_32_64 | Class Bord This class represents a boundary of a domain, it is a type of frontier |
| CBord_Interne_32_64 | Class Bord_Interne The class serves to represent a set of faces that are internal |
| CBords_32_64 | Class Bords This class represents a list of objects of type Bord |
| CBords_Internes_32_64 | Class Bords_Internes This class represents a list of objects of type Bords_Interne |
| CBoundary_Conditions | |
| CBoundary_Conditions_Thermique | : class Boundary_Conditions_Thermique |
| CBoundary_field_inward | Class Boundary_field_inward |
| CBoundary_field_keps_from_ud | |
| CBoundary_field_uniform_keps_from_ud | Classe Boundary_field_uniform_keps_from_ud Classe derivee de Champ_front_uniforme which is for uniform fields |
| CBuild_Map_to_Structured | Class Build_Map_to_Structured This class is an interpreter used to read the Build_Map_to_Structured flag |
| CCahn_Hilliard | Classe Cahn_Hilliard |
| CCahn_Hilliard_Convection | Classe Cahn_Hilliard_Convection |
| CCalcul_integrale_locale | Helper class used internally by calculer_convolution() |
| CCalcul_Production_K_VDF | |
| CCalcul_Production_K_VEF | |
| CCalculer_Moments | |
| CCandidate | |
| CCandidate_with_direct_value | |
| CCatch_SIGINIT | |
| CCGNS_2_Lata | Class CGNS_2_Lata |
| CCh_front_input | Class Ch_front_input |
| CCh_front_input_ALE | Class Ch_front_input_ALE |
| CCh_front_input_P1 | Class Ch_front_input |
| CCh_front_input_uniforme | Class Ch_front_input_uniforme |
| CCh_front_var_instationnaire_dep | Class Ch_front_var_instationnaire_dep This abstract class represents a field on a boundary, |
| CCh_front_var_instationnaire_indep | Class Ch_front_var_instationnaire_indep This abstract class represents a field on a boundary, |
| CCh_front_var_stationnaire | Class Ch_front_var_stationnaire This abstract class represents a field on a boundary, |
| CCh_front_Vortex | Class Ch_fr_Vortex Derived class of Champ_front_var that represents |
| CCh_input_uniforme | Class Ch_input_uniforme |
| CChamp_base | Class Champ_base This class is the base of the fields hierarchy |
| CChamp_Composite | |
| CChamp_Critere_Q | Class Champ_Critere_Q Allows visualization of vortices without being polluted by gradients |
| CChamp_Don_base | Class Champ_Don_base base class of Given Fields (not calculated) |
| CChamp_Don_Face_lu | Class Champ_Don_Face_lu This class represents a data field that is read |
| CChamp_Don_Fonc_txyz | Class Champ_Don_Fonc_txyz This class represents a data field that is a function |
| CChamp_Don_Fonc_xyz | Class Champ_Don_Fonc_xyz This class represents a data field that is a function |
| CChamp_Don_lu | : class Champ_Don_lu This class represents a data field read from a file with the following conventions: |
| CChamp_Elem_Coloc | |
| CChamp_Elem_DG | |
| CChamp_Elem_PolyMAC_CDO | |
| CChamp_Elem_PolyMAC_HFV | : class Champ_Elem_PolyMAC_HFV |
| CChamp_Elem_PolyMAC_MPFA | : class Champ_Elem_PolyMAC_MPFA |
| CChamp_Face_base | |
| CChamp_Face_PolyMAC_CDO | |
| CChamp_Face_PolyMAC_HFV | : class Champ_Face_PolyMAC_HFV |
| CChamp_Face_PolyMAC_MPFA | : class Champ_Face_PolyMAC_MPFA |
| CChamp_Face_VDF | Class Champ_Face_VDF |
| CChamp_Face_VDF_implementation | |
| CChamp_Fonc_base | Class Champ_Fonc_base Base class of fields that are functions of a calculated quantity |
| CChamp_Fonc_Elem_Coloc | |
| CChamp_Fonc_Elem_DG | |
| CChamp_Fonc_Elem_PolyMAC_CDO | |
| CChamp_Fonc_Elem_PolyMAC_MPFA_rot | Class Champ_Fonc_Elem_PolyMAC_MPFA_rot for the calculation of the vorticity |
| CChamp_Fonc_Elem_PolyMAC_MPFA_TC | Class Champ_Fonc_Elem_PolyMAC_MPFA_TC for the calculation of the shear rate |
| CChamp_Fonc_Face_PolyMAC_CDO | |
| CChamp_Fonc_Face_VDF | Class Champ_Fonc_Face_VDF |
| CChamp_Fonc_Fonction | Class Champ_Fonc_Fonction Derived class of Champ_Fonc_Tabule representing |
| CChamp_Fonc_Fonction_txyz | Class Champ_Fonc_Fonction_txyz derived class of Champ_Fonc_Fonction |
| CChamp_Fonc_Fonction_txyz_Morceaux | Champ_Fonc_Fonction_txyz_Morceaux This class represents a field taking piecewise values as functions |
| CChamp_Fonc_Interp | |
| CChamp_Fonc_MED | Class Champ_Fonc_MED Load a field from a MED file for a given time |
| CChamp_Fonc_MED_Table_Temps | : class Champ_Fonc_MED_Table_Temps |
| CChamp_Fonc_MED_Tabule | : class Champ_Fonc_MED_Tabule |
| CChamp_Fonc_Morceaux | Champ_Fonc_Morceaux This class represents a field taking piecewise values as functions |
| CChamp_Fonc_P0_base | |
| CChamp_Fonc_P0_EF | Class Champ_Fonc_P0_EF |
| CChamp_Fonc_P0_MED | Class Champ_Fonc_P0_MED Provides a P0 field for MED post-processing |
| CChamp_Fonc_P0_VDF | Class Champ_Fonc_P0_VDF |
| CChamp_Fonc_P0_VEF | Class Champ_Fonc_P0_VEF |
| CChamp_Fonc_P1_base | : class Champ_Fonc_P1_base |
| CChamp_Fonc_P1_EF | |
| CChamp_Fonc_P1_isoP1Bulle | Class Champ_Fonc_P1_isoP1Bulle |
| CChamp_Fonc_P1_MED | Class Champ_Fonc_P1_MED Provides a P1 field for MED post-processing |
| CChamp_Fonc_P1_VDF | Class Champ_Fonc_P1_VDF |
| CChamp_Fonc_P1_VEF | Class Champ_Fonc_P1_VEF |
| CChamp_Fonc_P1NC | Class Champ_Fonc_P1NC |
| CChamp_Fonc_Q1_base | : class Champ_Fonc_Q1_base |
| CChamp_Fonc_Q1_EF | |
| CChamp_Fonc_Q1_MED | Class Champ_Fonc_Q1_MED Provides a Q1 field for MED post-processing |
| CChamp_Fonc_Q1_VDF | |
| CChamp_Fonc_Q1_VEF | |
| CChamp_Fonc_Q1NC | Class Champ_Fonc_Q1NC |
| CChamp_Fonc_Quad_DG | |
| CChamp_Fonc_reprise | Champ_Fonc_reprise This class allows reading back a field saved in an xyz file |
| CChamp_Fonc_reprise_IJK | Classe Champ_Fonc_reprise_IJK Cette classe permet de relire un champ de vitesse SEULEMENT sauvegarde par IJK |
| CChamp_Fonc_Som_PolyMAC_CDO | |
| CChamp_Fonc_t | Classe Champ_Fonc_t Derived class of Champ_Uniforme_inst that represents |
| CChamp_Fonc_Tabule | Class Champ_Fonc_Tabule Derived class of Champ_Fonc_base representing |
| CChamp_Fonc_Tabule_Elem_PolyMAC_CDO | |
| CChamp_Fonc_Tabule_Morceaux | Class Champ_Fonc_Tabule_Morceaux |
| CCHTAB | |
| CChamp_Fonc_Tabule_Morceaux_Interp | Champ_Fonc_Tabule_Morceaux_Interp This class represents a field taking piecewise values as functions |
| CChamp_Fonc_Tabule_P0_EF | |
| CChamp_Fonc_Tabule_P0_VDF | |
| CChamp_Fonc_Tabule_P0_VEF | |
| CChamp_Fonc_Vect_Coloc | |
| CChamp_front_ALE | |
| CChamp_front_ALE_Beam | |
| CChamp_front_ALE_lag | |
| CChamp_front_ALE_projection | |
| CChamp_front_base | Class Champ_front_base Base class for the hierarchy of boundary fields |
| CChamp_front_bruite | Class Champ_front_bruite Derived class of Champ_front_base representing noisy boundary fields: |
| CChamp_front_calc | Class Champ_front_calc Derived class of Champ_front_var representing |
| CChamp_front_calc_interne | Class Champ_front_calc_interne Derived class of Champ_front_calc representing |
| CChamp_Front_Composite | |
| CChamp_front_contact_fictif_VEF | Class Champ_front_contact_fictif_VEF Derived class from Champ_front_contact_VEF, which itself derives from |
| CChamp_front_contact_rayo_semi_transp_VEF | |
| CChamp_front_contact_rayo_transp_VEF | |
| CChamp_front_contact_VEF | Class Champ_front_contact_VEF Enables scalar coupling (temperature or concentration) between problems by computing |
| CChamp_front_debit | Class Champ_front_debit |
| CChamp_front_debit_massique | Class Champ_front_debit_massique |
| CChamp_front_debit_QC | Class Champ_front_debit_QC |
| CChamp_front_debit_QC_fonc_t | Class Champ_front_debit_QC_fonc_t |
| CChamp_front_fonc | Class Champ_front_fonc Derived class of Champ_front_var |
| CChamp_front_fonc_gradient | Class Champ_front_fonc_gradient |
| CChamp_front_fonc_gradient_VDF | Class Champ_front_fonc_gradient_VDF |
| CChamp_front_fonc_gradient_VEF | Class Champ_front_fonc_gradient_VEF |
| CChamp_front_fonc_pois_ipsn | Class Champ_front_fonc_pois_ipsn Derived class of Champ_front_fonc |
| CChamp_front_fonc_pois_tube | Class Champ_front_fonc_pois_tube Derived class of Champ_front_fonc |
| CChamp_Front_Fonction | Class Champ_Front_Fonction Derived class of Champ_front_var_instationnaire_dep representing |
| CChamp_front_instationnaire_base | Class Champ_front_base Base class for unsteady boundary Fields, |
| CChamp_front_lu | Class Champ_front_lu Derived class of Champ_front_var representing |
| CChamp_front_MED | |
| CChamp_Front_MUSIG | |
| CChamp_front_normal | Class Champ_front_normal |
| CChamp_front_normal_VEF | |
| CChamp_front_Parametrique | : class Champ_front_Parametrique |
| CChamp_front_pression_from_u | Class Champ_front_pression_from_u |
| CChamp_front_recyclage | Champ_front_recyclage |
| CChamp_front_softanalytique | Champ_front_softanalytique Class derived from Champ_front_var representing boundary |
| CChamp_front_synt | Champ_front_synt Derived from Champ_front_base |
| CChamp_front_t | Class Champ_front_t Derived class of Champ_front_var representing |
| CChamp_front_Tabule | Class Champ_front_Tabule Derived class of Champ_front_instationnaire_base |
| CChamp_front_Tabule_lu | : class Champ_front_Tabule_lu Derived class of Champ_front_Tabule building a Champ_front_Tabule from a probe file |
| CChamp_front_tangentiel | Class Champ_front_tangentiel |
| CChamp_front_tangentiel_VEF | Class Champ_front_tangentiel_VEF |
| CChamp_front_txyz | Class Champ_front_txyz Derived class of Champ_front_var representing |
| CChamp_front_uniforme | Class Champ_front_uniforme Derived class of Champ_front_base representing |
| CChamp_front_var | Class Champ_front_var Derived class from Champ_front_base that represents a field on |
| CChamp_front_var_instationnaire | Class Champ_front_var_instationnaire Derived class from Champ_front_var that represents fields on |
| CChamp_front_vide | Class Champ_front_vide Class derived from Champ_front_base which allows having a defined champ_front object so that the calculation runs because there are many calls to cond_lim_base |
| CChamp_front_xyz_debit | Class Champ_front_xyz_debit |
| CChamp_Front_xyz_Tabule | : class Champ_Front_xyz_Tabule |
| CChamp_Gen_de_Champs_Gen | Base class of generic fields having other generic fields as source. The use of the class methods relies on a recursion principle |
| CChamp_Generique_base | Class Champ_Generique_base |
| CChamp_Generique_Champ | : class Champ_Generique_Champ |
| CChamp_Generique_Correlation | Class Champ_Generique_Correlation |
| CChamp_Generique_Divergence | Class Champ_Generique_Divergence |
| CChamp_Generique_Ecart_Type | Class Champ_Generique_Ecart_Type OWN_PTR(Champ_base) intended to post-process a standard deviation (Ecart_Type) of a generic field |
| CChamp_Generique_erreur | |
| CChamp_Generique_Extraction | A generic field that performs the extraction of a field on a boundary |
| CChamp_Generique_Gradient | Class Champ_Generique_Gradient OWN_PTR(Champ_base) intended to post-process the gradient of a generic field |
| CChamp_Generique_Interpolation | A generic field constructed as an interpolation of another generic field (interpolation at vertices or elements) |
| CChamp_Generique_modifier_pour_QC | Class Champ_Generique_modifier_pour_QC OWN_PTR(Champ_base) intended to post-process a field of a quasi-compressible problem |
| CChamp_Generique_Morceau_Equation | Class Champ_Generique_Morceau_Equation OWN_PTR(Champ_base) intended to post-process a quantity related to an equation piece |
| CChamp_Generique_Moyenne | Class Champ_Generique_Moyenne OWN_PTR(Champ_base) intended to post-process an average of a generic field |
| CChamp_Generique_Operateur_base | Classe Champ_Generique_Operateur_base Base class for generic field classes dedicated to applying an operator |
| CChamp_Generique_Predefini | Class Champ_Generique_Predefini |
| CChamp_Generique_Reduction_0D | Class Champ_Generique_Reduction_0D |
| CChamp_Generique_refChamp | Special field class that encapsulates a reference to a volume field of TRUST of type Champ_base |
| CChamp_Generique_refChamp_special | : class Champ_Generique_refChamp_special |
| CChamp_Generique_Statistiques_base | Classe Champ_Generique_Statistiques_base Base class for generic field classes dedicated to statistics |
| CChamp_Generique_Tparoi_VEF | Class Champ_Generique_Tparoi_VEF |
| CChamp_Generique_Transformation | Class Champ_Generique_Transformation |
| CChamp_grad_T | Class Champ_grad_T Allows visualization of the temperature gradient |
| CChamp_h_conv | Class Champ_h_conv Allows visualization of the temperature gradient |
| CChamp_implementation | |
| CChamp_implementation_divers | |
| CChamp_implementation_P0 | |
| CChamp_implementation_P1 | |
| CChamp_implementation_Q1 | : class Champ_implementation_Q1 |
| CChamp_implementation_sommet | : class Champ_implementation_sommet |
| CChamp_Inc_base | Class Champ_Inc_base |
| CChamp_Inc_P0_base | : class Champ_Inc_P0_base |
| CChamp_Inc_P1_base | |
| CChamp_Inc_Q1_base | |
| Cchamp_init_canal_sinal | |
| CChamp_input_P0 | Class Champ_input_P0 |
| CChamp_Input_P0_Composite | |
| CChamp_Input_Proto | This is the base class for all the Fields which can be written by a call to Problem::setInputField |
| CChamp_lu_proto | |
| CChamp_Morceaux | |
| CChamp_MUSIG | |
| CChamp_Ostwald | Champ_Ostwald Represents a field that varies as a function of consistency and |
| CChamp_Ostwald_VDF | Class Champ_Ostwald_VDF |
| CChamp_Ostwald_VEF | Class Champ_Ostwald_VEF |
| CChamp_P0_EF | Class Champ_P0_EF Represents a P0-per-element discrete field associated with a domain discretized as Domaine_EF |
| CChamp_P0_VDF | Class Champ_P0_VDF Class representing a P0 discrete field per element associated with a discretized domain of type Domaine_VDF |
| CChamp_P0_VEF | Class Champ_P0_VEF |
| CChamp_P1_EF | |
| CChamp_P1_isoP1Bulle | |
| CChamp_P1_VEF | Class representing a P1 field on a VEF mesh |
| CChamp_P1iP1B_implementation | |
| CChamp_P1NC | |
| CChamp_P1NC_implementation | |
| CChamp_Parametrique | : class Champ_Parametrique |
| CChamp_Post_Operateur_Eqn | Class Champ_Post_Operateur_Eqn OWN_PTR(Champ_base) intended to post-process the gradient of a generic field |
| CChamp_Proto | Class Champ_Proto Class representing a Field prototype |
| CChamp_Q1_EF | |
| CChamp_Q1NC | |
| CChamp_Q1NC_implementation | |
| CChamp_Q4_implementation | |
| CChamp_Rotationnel | Class Champ_Rotationnel |
| CChamp_som_lu | |
| CChamp_som_lu_VDF | |
| CChamp_som_lu_VEF | |
| CChamp_Som_PolyMAC_CDO | |
| CChamp_Tabule_lu | : class Champ_Tabule_lu Derived class of Champ_Tabule_Temps, builds a Champ_Tabule_Temps from a probe file |
| CChamp_Tabule_Temps | Classe Champ_Tabule_Temps Derived class of Champ_Uniforme_inst that represents |
| CChamp_Uniforme | Champ_Uniforme Represents a field that is constant in space and time |
| CChamp_Uniforme_inst | Champ_Uniforme_inst A field that is constant in space but time-dependent |
| CChamp_Uniforme_Morceaux | Champ_Uniforme_Morceaux This class represents a piecewise constant-in-space field |
| CChamp_Uniforme_Morceaux_inst | Classe Champ_Uniforme_Morceaux_inst Represents a piecewise constant-in-space field that is time-dependent |
| CChamp_Uniforme_Morceaux_Tabule_Temps | Champ_Uniforme_Morceaux_Tabule_Temps Derived class of Champ_Uniforme_Morceaux_inst that represents |
| CChamp_val_tot_sur_vol_base | Champ_val_tot_sur_vol_base Base class derived from Champ_Uniforme_Morceaux representing fields |
| CChamp_val_tot_sur_vol_VDF | Class Champ_val_tot_sur_vol_VDF |
| CChamp_val_tot_sur_vol_VEF | Class Champ_val_tot_sur_vol_VEF derived from Champ_val_tot_sur_vol_base. Evaluation Somme_vol_poro_loc: |
| CChamp_Vect_Elem_Coloc | |
| CChamp_y_plus | Class Champ_y_plus Allows visualization of the size of the first wall cell in wall units |
| CChamps_compris_IJK | Same as Champs_compris, but specialised for IJK fields and also supports quering for vectorial fields (aka IJK_Field_vector3_double) |
| CChamps_compris_IJK_interface | Similar to Champs_compris_interface but for IJK scalar and vector fields |
| CChamps_compris_interface | Class Champs_compris_interface This class contains an interface of methods intended to manage |
| CChamps_compris_T | Class Champs_compris Represents a field understood by an object of type Equation, Medium, |
| CChamps_Fonc | Class Champs_Fonc List of OWN_PTR(Champ_Fonc_base) declared through the LIST(X) macro |
| CChamps_front_ALE_projection | |
| CChangement_phase_base | Base class for phase change correlations |
| CChangement_phase_Silver_Simpson | Correlation de changement de phase de Silver et Simpson (1949) G_{kl} = lambda A_i alpha_k alpha_l sqrt(M / 2 pi R) (psat(T_k) / sqrt(T_k) - p / sqrt(T_l)) |
| CChar_ptr | Class Char_ptr A character string to name TRUST objects |
| CChimie | |
| Ccible_donnee | : class cible_donnee |
| CCL_Contrainte_Imposee | Imposed traction boundary condition for the Navier-Cauchy equation |
| CCL_Deplacement_Impose | Imposed displacement boundary condition for the Navier-Cauchy equation |
| CCoalescence_bulles_1groupe_base | |
| CCoalescence_bulles_1groupe_PolyMAC_MPFA | Classe Coalescence_bulles_1groupe_PolyMAC_MPFA |
| CCoalescence_bulles_1groupe_Yao_Morel | Model for bubble coalescence from Yao and Morel (2003) |
| CCoalescence_bulles_2groupes_base | |
| CCoalescence_bulles_2groupes_PolyMAC_MPFA | Classe Coalescence_bulles_2groupes_PolyMAC_MPFA |
| CCoalescence_bulles_2groupes_Smith | Two-group bubble coalescence source terms using the Smith model |
| CCoarsen_Operator_base | |
| CCoarsen_Operator_K | |
| CCoarsen_Operator_Uniform | |
| CCollision_Model_FT_arbitrary | |
| CCollision_Model_FT_base | : class Collision_Model_FT |
| CCollision_Model_FT_sphere | : class Collision_Model_FT |
| CCollision_Model_FT_spheroid | : class Collision_Model_FT |
| CColoc_discretisation | |
| CComm_Group | : This class describes a group of processors on which |
| CComm_Group_MPI | : Class Comm_Group_MPI, derived from the abstract class Comm_Group |
| CComm_Group_Noparallel | |
| CComputeValParCompoInCell | |
| CConcatAnsys | Class ConcatAnsys Realise un maillage en decoupant chaque pave en 40 tetraedres |
| CCond_lim | Class Cond_lim Generic class used to represent any class |
| CCond_lim_base | Class Cond_lim_base Base class for the hierarchy of classes that represent the different boundary conditions (Dirichlet, Neumann ...) |
| CCond_lim_k_complique_transition_flux_nul_demi | Classe Cond_lim_k_complique_transition_flux_nul_demi: |
| CCond_lim_k_simple_flux_nul | Classe Cond_lim_k_simple_flux_nul: |
| CCond_lim_omega_demi | Classe Cond_lim_omega_demi |
| CCond_lim_omega_dix | Classe Cond_lim_tau_omega_simple_demi |
| CCond_lim_rayo_milieu_transp | |
| CCond_lim_rayo_semi_transp | Base class for semi-transparent radiation boundary conditions |
| CCond_lim_utilisateur_base | Class Cond_lim_utilisateur_base: Classes inheriting from this class are user classes |
| CConds_lim | Class Conds_lim This class represents a vector of boundary conditions |
| CConduction | Class Conduction: represents the temperature evolution equation |
| CConduction_IBM | |
| CConnectivite_frontieres | |
| CConservation_Euler_base | |
| Cconsigne_initiale | : class consigne_initiale |
| CConstante | Defines a constant in the data set |
| CConstIJK_ptr | This class implements a accessor to IJK_Field values |
| CConstInnerType | |
| CConstInnerType< T, 1 > | |
| CConstInnerType< T, 2 > | |
| CConstInnerType< T, 3 > | |
| CConstInnerType< T, 4 > | |
| CConstituant | Represents the constituent(s) of a fluid |
| CConstTRUSTTab_parts | This class allows to access the individual sub-parts of 'const DoubleTab' objects that have a MD_Vector_composite descriptor |
| CConvection_Diffusion_Chaleur_Fluide_Dilatable_base | Particular case of Convection_Diffusion_std for a quasi-dilatable fluid when the transported scalar is temperature (ideal gases) or enthalpy (real gases) |
| CConvection_Diffusion_Chaleur_QC | Particular case of Convection_Diffusion_Chaleur_Fluide_Dilatable_base for a quasi-compressible fluid, where the transported scalar is temperature (ideal gases) or enthalpy (real gases) |
| CConvection_Diffusion_Chaleur_Turbulent_QC | Turbulent convection-diffusion of heat for a quasi-compressible fluid |
| CConvection_Diffusion_Chaleur_WC | Particular case of Convection_Diffusion_Chaleur_Fluide_Dilatable_base for a weakly compressible fluid |
| CConvection_Diffusion_Concentration | Convection_Diffusion_Concentration Special case of Convection_Diffusion_std |
| CConvection_Diffusion_Concentration_FT_Disc | Cette equation corrige le champ de concentration pour tenir compte de la presence d'une interface |
| CConvection_Diffusion_Concentration_Turbulent | Turbulent convection-diffusion equation when the unknown is a concentration or a vector of concentrations |
| CConvection_Diffusion_Concentration_Turbulent_FT_Disc | Cette equation corrige le champ de concentration pour tenir compte de la presence d'une interface |
| CConvection_Diffusion_Espece_Binaire_base | Particular case of Convection_Diffusion_Espece_Fluide_Dilatable_base for an isothermal and isobaric dilatable fluid |
| CConvection_Diffusion_Espece_Binaire_QC | Convection_Diffusion_Espece_Binaire_QC class Special case of Convection_Diffusion_Espece_Binaire_base |
| CConvection_Diffusion_Espece_Binaire_Turbulent_QC | Turbulent convection-diffusion of a binary species for a quasi-compressible fluid |
| CConvection_Diffusion_Espece_Binaire_WC | Convection_Diffusion_Espece_Binaire_WC class Special case of Convection_Diffusion_Espece_Binaire_base |
| CConvection_Diffusion_Espece_Fluide_Dilatable_base | Particular case of Convection_Diffusion_std for a dilatable fluid when the transported scalar is the mass fraction |
| CConvection_Diffusion_Espece_Multi_base | Particular case of Convection_Diffusion_Espece_Fluide_Dilatable_base for a quasi-compressible fluid when the transported scalar is the mass fraction |
| CConvection_Diffusion_Espece_Multi_QC | Particular case of Convection_Diffusion_Espece_Multi_base for a quasi-compressible fluid when the transported scalar is the mass fraction |
| CConvection_Diffusion_Espece_Multi_Turbulent_QC | Turbulent convection-diffusion of multiple species for a quasi-compressible fluid |
| CConvection_Diffusion_Espece_Multi_WC | Convection_Diffusion_Espece_Multi_WC class Special case of Convection_Diffusion_Espece_Multi_base |
| CConvection_Diffusion_Fluide_Dilatable_base | Base class for convection-diffusion equations for a dilatable fluid |
| CConvection_Diffusion_Fluide_Dilatable_Proto | |
| CConvection_Diffusion_Phase_field | Classe Convection_Diffusion_Phase_field Cas particulier de Convection_Diffusion_Concentration |
| CConvection_Diffusion_std | Convection_Diffusion_std This class is the base for equations modelling the transport |
| CConvection_Diffusion_Temperature | Convection_Diffusion_Temperature Special case of Convection_Diffusion_std |
| CConvection_Diffusion_Temperature_base | |
| CConvection_Diffusion_Temperature_FT_Disc | |
| CConvection_Diffusion_Temperature_IBM | |
| CConvection_Diffusion_Temperature_IBM_Turbulent | Turbulent IBM convection-diffusion equation for temperature |
| CConvection_Diffusion_Temperature_sensibility | : class Convection_Diffusion_Temperature_sensibility |
| CConvection_Diffusion_Temperature_Turbulent | Turbulent convection-diffusion equation when the unknown is temperature |
| CConvection_diffusion_turbulence_multiphase | Classe Convection_diffusion_turbulence_multiphase Equation de transport des quantites turbulentes (k, omega, epsilon, tau) |
| CConvection_Diffusion_Turbulent | Mixin class for turbulent convection-diffusion of one or more scalar quantities |
| CCoolProp_to_TRUST | Common interface for TRUST and its baltiks to call CoolProp library methods |
| CCoolProp_to_TRUST_generique | CoolProp interface for fluid properties as functions of temperature and enthalpy |
| CCoolProp_to_TRUST_Sat_generique | CoolProp interface for saturation properties as functions of temperature |
| CCorrection_Antal_PolyMAC_MPFA | Class Correction_Antal_PolyMAC_MPFA |
| CCorrection_Antal_VDF | Correction_Antal_PolyMAC_MPFA class: Wall repulsion correction of Antal in a multiphase flow |
| CCorrection_Lubchenko_PolyMAC_MPFA | Classe Correction_Lubchenko_PolyMAC_MPFA Correction de répulsion en paroi de Lubchenko dans un ecoulement multiphase |
| Ccorrection_one_direction | : class correction_one_direction |
| CCorrection_Tomiyama_PolyMAC_MPFA | Class Correction_Tomiyama_PolyMAC_MPFA |
| Ccorrections_qdm | : class corrections_qdm |
| CCorrelation_base | |
| CCorrelation_Vec_Sca_VDF | Correlation_Vec_Sca_VDF class |
| CCorrelation_Vec_Sca_VEF | Class Correlation_Vec_Sca_VEF |
| CCorrige_flux_FT_base | : class Corrige_flux_FT API pour modifier un champ de flux à partir de donnees à l'interface. Cette classe est abstraite, elle est vouée à être héritée pour être adaptée aux différents cas / conditions aux limites. Par ex sur la température pour imposer la continuité de lda grad T à l'interface. Mais ça pourrait être pareil pour la vitesse pour imposer la continuité tangentielle et normale dans le cas sans changement de phase, ou pour imposer la bonne différence de vitesse normale dans le cas du changement de phase |
| CCorrige_flux_FT_temperature_conv | |
| CCorrige_flux_FT_temperature_subresolution | |
| CCounter | |
| CCouplage_Parietal_PolyMAC_MPFA_helper | |
| CCouplage_Tubes_IBC | |
| CCouplage_U | Class Couplage_U |
| CCourant_impose | Classe Courant_impose Cette condition limite correspond a un courant imposé. Utile uniquement dans le cas des batteries Lithium-ion. Milieu associé obligatoiremenet : Espece_intercalee |
| CCourant_maille_Champ_Face | |
| CCPUInfo | |
| CCreate_domain_from_sub_domain | Class Create_domain_from_sub_domain File reading |
| CCritere_Q_Champ_Face | Class Critere_Q_Champ_Face |
| CCritere_Q_Champ_P1NC | Class Critere_Q_Champ_P1NC |
| CCSR_Builder | This class is a helper to build CSR stored matrices |
| CCut_cell_conv_scheme | |
| CCut_cell_convection_auxiliaire | |
| CCut_cell_correction_petites_cellules | |
| CCut_cell_data | : class Cut_cell_data |
| CCut_cell_diffusion_auxiliaire | |
| CCut_cell_double | : class Cut_cell_double |
| CCut_cell_FT_Disc | |
| CCut_cell_schema_auxiliaire | |
| CCut_cell_surface_efficace | |
| CCut_field_template | : class Cut_field_template |
| CCut_field_vector | : class Cut_field_vector |
| CCutCell_GlobalInfo | |
| CCutCell_Properties | |
| CCutFace_Properties | |
| CDarcy_QC_VDF_Face | |
| CDarcy_QC_VEF_P1NC | |
| CDeactivate_SIGINT_Catch | Class Deactivate_SIGINT_Catch This class is an interpreter used to read the DEACTIVATE_SIGINT_CATCH flag |
| CDebog | |
| CDebog_Pb | |
| CDebog_Pb_Wrapper | |
| CDebogFT | : class DebogIJK |
| CDebogIJK | : class DebogIJK |
| CDeclarer_bord_perio_32_64 | This interpreter must be used in sequential (before mesh splitting) if the opposite vertices of a periodic boundary are not perfectly aligned |
| CDecoupeBord_32_64 | Class DecoupeBord Generates a mesh by splitting each block into 40 tetrahedra |
| CDecouper_32_64 | Interprete Decouper |
| CDecouper_Bord_coincident | Class Decouper_Bord_coincident Generates a mesh by splitting each triangle into 4 new triangles, |
| CDecouper_multi | Interprete Decouper_multi |
| CDensity_Euler | |
| CDesc_Structure_FT | : class Desc_Structure_FT |
| CDescripteur | |
| CDescripteur_FT | : class Descripteur_FT Descripteur_FT stocke pour chaque PE une liste de numeros d'elements |
| CDescStructure | Used to re-read the old parallel structure |
| CDeviceMemory | |
| CDG_discretisation | |
| CDiametre_bulles_champ | Bubble diameter defined as a user-provided field |
| CDiametre_bulles_constant | Constant bubble diameter field |
| CDiametre_bulles_musig | Diametre_bulles_musig class: Contains the Sauter diameters of the bubble/droplet field (dispersed phase) for the MUSIG-style algorithm |
| CDiametre_hyd_champ | |
| CDiffu_k | Classe Diffu_k Calsse derivant de la classe Diffu_totale_hyd__base et specifiant la valeur |
| CDiffu_laminaire | Classe Diffu_laminaire Calsse derivant de la classe Diffu_totale_hyd__base et specifiant la valeur |
| CDiffu_lm | Classe Diffu_lm Calsse derivant de la classe Diffu_totale_hyd__base et specifiant la valeur |
| CDiffu_scal_lm | Classe Diffu_scal_lm Calsse derivant de la classe Diffu_totale_base et specifiant la valeur |
| CDiffu_totale_base | Classe Diffu_totale_base Classe abstraite calculant la diffusivite totale (somme diffusivite |
| CDiffu_totale_hyd_base | Classe Diffu_totale_hyd_base Classe abstraite calculant la diffusivite totale (somme diffusivite |
| CDiffu_totale_scal_base | Classe Diffu_totale_scal_base Classe abstraite calculant la diffusivite totale (somme diffusivite |
| CDiffusion_croisee_echelle_temp_taux_diss_turb_PolyMAC_MPFA | Class Diffusion_croisee_echelle_temp_taux_diss_turb_PolyMAC_MPFA |
| CDiffusion_croisee_echelle_temp_taux_diss_turb_VDF | Class Diffusion_croisee_echelle_temp_taux_diss_turb_VDF |
| CDiffusion_supplementaire_echelle_temp_turb_PolyMAC_MPFA | Classe Diffusion_supplementaire_echelle_temp_turb_PolyMAC_MPFA Cette classe implemente dans PolyMAC_MPFA la diffusion supplementaire venant de l'introduction du temps tau |
| CDiffusion_supplementaire_echelle_temp_turb_VDF | Classe Diffusion_supplementaire_echelle_temp_turb_VDF |
| CDilate | Class Dilate x->alpha x |
| CDimension | Class Dimension This class is an interpreter that reads the spatial dimension |
| CDirichlet | Dirichlet This class is the base class of the hierarchy of Dirichlet-type boundary conditions |
| CDirichlet_entree_fluide | Dirichlet_entree_fluide This class represents a boundary condition imposing a quantity |
| CDirichlet_homogene | Classe Dirichlet_homogene This class is the base class of the hierarchy of homogeneous Dirichlet-type boundary conditions |
| CDirichlet_loi_paroi | Classe Dirichlet_loi_paroi Base class for imposed values in a boundary condition of the turbulence equations |
| CDirichlet_paroi_defilante | Dirichlet_paroi_defilante Imposes the wall velocity in an equation of type Navier_Stokes |
| CDirichlet_paroi_fixe | Dirichlet_paroi_fixe Represents a fixed wall in a Navier-Stokes type equation |
| CDirichlet_paroi_fixe_iso_Genepi2 | |
| CDisable_TU | Class Disable_TU This class is an interpreter used to read the disable_TU flag |
| CDiscr_inst | Class Discr_inst This class does nothing; it is needed for Pb_MED, |
| CDiscret_Thermique | Class Discret_Thermique: base class representing a spatial discretisation applied to thermal problems |
| CDiscret_Thyd | Class Discret_Thyd This class is the base class representing a discretization |
| CDiscretisation_base | Class Discretisation_base This class represents a spatial discretization scheme, which |
| CDiscretisation_tools | : class Discretisation_tools |
| CDiscretiser | Class Discretiser Discretizes a problem: |
| CDiscretiser_domaine | Class Discretiser_domaine discretises the domain |
| CDispersion_bulles_base | Base class for turbulent bubble dispersion operators, where the force |
| Cinput_t | |
| Coutput_t | |
| CDispersion_bulles_constante | Constant turbulent bubble dispersion coefficient (Lance and Lopez de Bertodano 1994 model) |
| CDispersion_bulles_PolyMAC_MPFA | |
| CDispersion_bulles_turbulente_Bazin | Turbulent bubble dispersion model based on the Bazin model |
| CDispersion_bulles_turbulente_Bertodano | Class Dispersion_bulles_turbulente_Bertodano bubbles turbulent dispersion coefficients |
| CDispersion_bulles_turbulente_Burns | Class Dispersion_bulles_turbulente_Burns from Burns et al. (2004)
- Bubble turbulent dispersion coefficients from Burns et al. (2004) The Favre Averaged Drag Model for Turbulent Dispersion in Eulerian Multi-Phase Flows 5th International Conference on Multiphase Flow, paper no. 392
|
| CDispersion_bulles_turbulente_constante | Class Dispersion_bulles_turbulente_constante bubble turbulent dispersion coefficients |
| CDispersion_bulles_turbulente_Lavieville | Turbulent bubble dispersion model based on the Lavieville model |
| CDispersion_bulles_VDF | |
| CDissipation_echelle_temp_taux_diss_turb_PolyMAC_MPFA | Class Dissipation_echelle_temp_taux_diss_turb_PolyMAC_MPFA |
| CDissipation_echelle_temp_taux_diss_turb_VDF | Class Dissipation_echelle_temp_taux_diss_turb_VDF |
| CDissipation_energie_cin_turb_PolyMAC_MPFA | Class Dissipation_energie_cin_turb_PolyMAC_MPFA |
| CDissipation_energie_cin_turb_VDF | Class Dissipation_energie_cin_turb_VDF |
| CDissipation_WIT_PolyMAC_MPFA | Classe Dissipation_WIT_PolyMAC_MPFA Cette classe implemente dans PolyMAC_MPFA la dissipation de l'equation de WIT |
| CDistanceparoi | Class Distanceparoi Computes the distance to the wall |
| CDNS_QC_double | |
| CDomain_Graph | Build the graph of the domain that the METIS/PARMETIS/PTSCOTCH libraries need |
| CDomaine_32_64 | Class Domaine_32_64 A Domain is a mesh composed of a set of geometric elements of the same type |
| CDomaine_ALE | |
| CDomaine_base | Base class for domains description. This class holds all the data shared by all domains and not sensitive to the 32/64 bits configuration |
| CDomaine_bord_32_64 | This class is a domain whose vertices and elements are extracted from a boundary of a source domain |
| CDomaine_Cl_Coloc | |
| CDomaine_Cl_DG | |
| CDomaine_Cl_dis_base | Class Domaine_Cl_dis_base Domaine_Cl_dis_base objects represent discretized boundary conditions |
| CDomaine_Cl_EF | |
| CDomaine_Cl_PolyMAC_family | |
| CDomaine_Cl_VDF | Class Domaine_Cl_VDF |
| CDomaine_Cl_VEF | |
| CDomaine_Coloc | |
| CDomaine_DG | |
| CBasisFunction_Key | |
| CDomaine_dis_base | Class Domaine_dis_base This class is the base of the hierarchy of discretized domains |
| CDomaine_dis_cache | Cache of discretized domains. Avoid repeating the discretize operation when not necessary |
| CDomaine_EF | Class Domaine_EF |
| CDomaine_EF_axi | : class Domaine_EF_axi |
| CDomaine_IJK | This class encapsulates all the information related to the eulerian mesh for TrioIJK |
| CDomaine_Poly_base | Class Domaine_Poly_base |
| CDomaine_PolyMAC_CDO | |
| CDomaine_PolyMAC_HFV | |
| CDomaine_PolyMAC_MPFA | |
| CDomaine_VDF | Class Domaine_VDF |
| CDomaine_VEF | Class Domaine_VEF |
| CDomaine_VF | Class Domaine_VF |
| CDomaine_VF_inst | Class Domaine_VF_inst |
| CDomaineAxi1d_32_64 | : class DomaineAxi1d |
| CDomaineCutter_32_64 | Tool class to generate sub-domains for a parallel computation from a starting domain (domaine_global) and an element partitioning array (elem_part) |
| CDomaineCutter_Correspondance_32_64 | Helper structure holding the correspondence between vertex and element indices of the global domain and a sub-domain |
| CDP_Impose | Classe DP_Impose This class derived from Perte_Charge_Singuliere is used when one wants |
| CDP_Impose_PolyMAC_CDO_Face | Class DP_Impose_PolyMAC_CDO_Face |
| CDP_Impose_VEF_Face | Class DP_Impose_VEF_Face |
| CEChaine | An input stream whose source is a character string |
| CEChaineJDD | Same as EChaine except here the input string comes from a datafile. Keeps a track of the lines that have been read in the datafile so far, so in case of a TRUST crash, we can get the line in the datafile where the error occured |
| CEchange_contact_Colburn_VDF | Class: Echange_contact_VDF_Colburn |
| CEchange_contact_Correlation_VDF | |
| CEchange_contact_Correlation_VEF | |
| CEchange_contact_ODVM_VDF | |
| CEchange_contact_PolyMAC_CDO | |
| CEchange_contact_PolyMAC_HFV | Class : Echange_contact_PolyMAC_HFV |
| CEchange_contact_PolyMAC_MPFA | Class : Echange_contact_PolyMAC_MPFA |
| CEchange_contact_rayo_semi_transp_VDF | Class Echange_contact_rayo_semi_transp_VDF |
| CEchange_contact_Rayo_transp_sans_relax_VDF | |
| CEchange_contact_rayo_transp_VDF | |
| CEchange_contact_VDF | |
| CEchange_contact_VDF_FT_Disc | : class Echange_contact_VDF_FT_Disc |
| CEchange_contact_VDF_FT_Disc_solid | : class Echange_contact_VDF_FT_Disc_solid |
| CEchange_contact_VDF_Plaque_Flux_Cte | Class: Echange_contact_VDF_Plaque_Flux_Cte |
| CEchange_couplage_thermique | : class Echange_couplage_thermique |
| CEchange_EV_Options | |
| CEchange_externe_impose | Classe Echange_externe_impose: This class represents the special case of the class |
| CEchange_externe_impose_H | Particular case of the Echange_externe_impose class for an enthalpy equation |
| CEchange_externe_impose_rayo_semi_transp | Class Echange_externe_impose_rayo_semi_transp |
| CEchange_externe_impose_rayo_transp | |
| CEchange_externe_radiatif | Echange_externe_radiatif: Combines radiative (sigma * eps * (T^4 - T_ext^4)) and convective (h * (T - T_ext)) heat transfer boundary conditions, where sigma is the Stefan-Boltzmann constant, eps is the emissivity, h is the convective heat transfer coefficient, T is the surface temperature, and T_ext is the external temperature |
| CEchange_global_impose | Classe Echange_global_impose This class represents the special case of the class |
| CEchange_global_impose_rayo_semi_transp | Class Echange_global_impose_rayo_semi_transp |
| CEchange_global_impose_turbulent | Base class for turbulent boundary conditions of type Echange_global_impose |
| CEchange_impose_base | Echange_impose_base: This boundary condition is used only for the energy equation |
| CEchange_interne_global_impose | Class Echange_interne_global_impose: This class represents the special case of |
| CEchange_interne_global_parfait | Class Echange_interne_global_parfait: Special case of a perfect internal exchange (h=+inf) |
| CEchange_interne_impose | Class Echange_interne_impose |
| CEchange_interne_parfait | Class Echange_interne_parfait |
| CEchange_Thermique_Volumique_Elem | |
| CEchelle_temporelle_turbulente | Classe Echelle_temporelle_turbulente Equation de transport de l'echelle temporelle turbulente (modele k-tau) |
| CEcr_fic_Ansys | |
| CEcrFicCollecte | Writing to a file. This class implements the operators and virtual methods of the SFichier class as follows: |
| CEcrFicCollecteBin | Writing to a file in binary format. This class implements the operators and virtual methods of the SFichier class as follows: |
| CEcrFicPartage | |
| CEcrFicPartageBin | Writing to a shared file. This class derives from Ecr_Fic_Par, using binary output |
| CEcrFicPartageMPIIO | Class to use MPI-IO to write in a single file |
| CEcrire | Writes an object: Ecrire ob1 |
| CEcrire_CGNS | Writer TRUST -> CGNS for post-processing outputs |
| CEcrire_Champ_MED | Ecrire_Champ_MED |
| CEcrire_Fichier | Writing a file |
| CEcrire_Fichier_Formatte | Writing a file in binary format |
| CEcrire_fichier_xyz_valeur | Class Ecrire_fichier_xyz_valeur This class allows to dump fields values on some boundaries into a dedicated text file |
| CEcrire_MED_32_64 | Class Ecrire_MED. Writes a MED file |
| CEcrire_YAML | Class Ecrire_YAML Use this to generate a yaml file that will then be read by the PDI library (for checkpoint/restart or for domain partitioning) |
| CEcritureLectureSpecial | |
| CEDO_Pression_th_base | Base class of the ODE hierarchy for thermodynamic pressure associated with the scheme resolution for dilatable fluids |
| CEDO_Pression_th_VDF | Class EDO_Pression_th_VDF This class represents the ODE for pressure associated with the |
| CEDO_Pression_th_VDF_Gaz_Parfait | Class EDO_Pression_th_VDF_Gaz_Parfait |
| CEDO_Pression_th_VDF_Gaz_Reel | Class EDO_Pression_th_VDF_Gaz_Reel |
| CEDO_Pression_th_VEF | Class EDO_Pression_th_VEF This class represents the ODE on the pressure associated with the computation scheme for |
| CEDO_Pression_th_VEF_Gaz_Parfait | Class EDO_Pression_th_VEF_Gaz_Parfait |
| CEDO_Pression_th_VEF_Gaz_Reel | Class EDO_Pression_th_VEF_Gaz_Reel |
| CEF_axi_discretisation | |
| CEF_discretisation | |
| CEFichier | File for reading. This class is to the C++ ifstream class what the Entree class is to the |
| CEFichierBin | Reading from a file of objects written in binary format |
| CElem_EF_base | |
| CElem_geom_base_32_64 | Class Elem_geom_base This class is the base class for the definition of elements |
| CElem_poly_base | |
| CElem_VEF_base | |
| CEnergie_cinetique_turbulente | Classe Energie_cinetique_turbulente Equation de transport d'une energie cinetique turbulente (modeles k-{eps,omega,tau}) |
| CEnergie_cinetique_turbulente_WIT | Classe Energie_cinetique_turbulente_WIT Equation de transport d'une energie cinetique turbulente WIT pour la turbulence avec bulles |
| CEnergie_Multiphase | Specialisation of Convection_Diffusion_std for multiphase flows where the transported scalar is temperature (for ideal gases) or enthalpy (for real gases). (Generalisation of Convection_Diffusion_Temperature to real gases.) |
| CEnergie_Multiphase_Enthalpie | |
| CEnergy_Euler | |
| CEnsemble_faces_rayo_transp | |
| CEnsemble_Lagrange_base | Class Ensemble_Lagrange_base Base class for classes representing a geometric structure made up |
| CEntree | Class defining operators and methods for all reading operation in an input flow (file, keyboard communication buffer, etc.) |
| CEntree_Brute | An Entree whose main source of data is an arbitrary binary buffer set using the set_data() method |
| CEntree_complete | This class behaves like EChaine until the end of the string is reached |
| CEntree_Fichier_base | File for reading. This class is to the C++ ifstream class what the Entree class is to the |
| CEntree_fluide_alpha_impose | |
| CEntree_fluide_concentration_imposee | |
| CEntree_fluide_Fluctu_Temperature_imposee | Entree_fluide_concentration_imposee Special case of the class Dirichlet_entree_fluide |
| CEntree_fluide_Flux_Chaleur_Turbulente_imposee | |
| CEntree_fluide_fraction_massique_imposee | |
| CEntree_fluide_K_Eps_impose | Classe Entree_fluide_K_Eps_impose Cas particulier de la classe Dirichlet_entree_fluide |
| CEntree_fluide_K_Omega_impose | Classe Entree_fluide_K_Omega_impose Cas particulier de la classe Dirichlet_entree_fluide |
| CEntree_fluide_T_h_imposee | Entree_fluide_temperature_imposee Special case of the Dirichlet_entree_fluide class |
| CEntree_fluide_temperature_imposee | Entree_fluide_temperature_imposee Special case of the class Dirichlet_entree_fluide for imposed temperature |
| CEntree_fluide_temperature_imposee_H | Particular case of the Dirichlet_entree_fluide class for an equation with enthalpy as unknown |
| CEntree_fluide_V2_impose | Entree_fluide_V2_impose Special case of the class Dirichlet_entree_fluide for the imposed velocity fluctuations of the K_Eps_V2 model |
| CEntree_fluide_vitesse_imposee | Entree_fluide_vitesse_imposee Special case of the class Dirichlet_entree_fluide |
| CEntree_fluide_vitesse_imposee_ALE | Class for velocity boundary condition on a mobile boundary (ALE framework) |
| CEntree_fluide_vitesse_imposee_libre | Entree_fluide_vitesse_imposee_libre Special case of the class Entree_fluide_vitesse_imposee for imposed velocity: |
| CEntree_Sortie_Error | |
| CEntree_supersonique | |
| CEOS_to_TRUST | Common interface for TRUST and its baltiks to call EOS library methods |
| CEOS_to_TRUST_generique | EOS interface for fluid properties as functions of temperature and enthalpy |
| CEOS_to_TRUST_Sat_generique | EOS interface for saturation properties as functions of temperature and enthalpy |
| CEOS_Tools_base | Abstract base class for EOS tools used with dilatable fluids |
| CEOS_Tools_VDF | Class EOS_Tools_VDF This class is specific to VDF-type discretization |
| CEOS_Tools_VEF | Class EOS_Tools_VEF |
| CEq_couch_lim | |
| CEq_ODVM | Classe Eq_ODVM Classe resolvant l'equation de temperature moyenne, l'equation de |
| CEq_rayo_semi_transp | |
| CEquation_base | Class Equation_base The role of an equation is the calculation of one or more fields. This class is the base of the equations hierarchy |
| CEquation_IBM_proto | |
| CEquation_Navier_Cauchy | Navier–Cauchy equation for small-strain linear elasticity |
| CEsp_Dist | Distant space used for managing distributed arrays. This class describes a distant space of a data vector |
| CEsp_Virt | Virtual space used for managing distributed arrays |
| CEspece | Espece |
| CEspece_intercalee | |
| CEstimateur_Aposteriori_P0_VEF | |
| CEval_Amont_PolyMAC_CDO_Elem | Class Eval_Amont_PolyMAC_CDO_Elem |
| CEval_Amont_VDF_Elem | Class Eval_Amont_VDF_Elem Evaluateur VDF pour la convection Le champ convecte est scalaire (Champ_P0_VDF) |
| CEval_Amont_VDF_Face | Class Eval_Amont_VDF_Face Evaluateur VDF pour la convection Le champ convecte est un Champ_Face_VDF |
| CEval_Centre4_VDF_Elem | Class Eval_Centre4_VDF_Elem Evaluateur VDF pour la convection Le champ convecte est scalaire (Champ_P0_VDF) |
| CEval_Centre4_VDF_Face | Class Eval_Centre4_VDF_Face Evaluateur VDF pour la convection Le champ convecte est un Champ_Face_VDF |
| CEval_centre_PolyMAC_CDO_Elem | Class Eval_centre_PolyMAC_CDO_Elem |
| CEval_Centre_VDF_Elem | Class Eval_Centre_VDF_Elem Evaluateur VDF pour la convection Le champ convecte est scalaire (Champ_P0_VDF) |
| CEval_Centre_VDF_Face | Class Eval_Centre_VDF_Face Evaluateur VDF pour la convection Le champ convecte est un Champ_Face_VDF |
| CEval_Conv_PolyMAC_CDO | |
| CEval_Conv_VDF | Class Eval_Conv_VDF Base class for VDF convection evaluators |
| CEval_Conv_VDF_Elem | |
| CEval_Conv_VDF_Face | |
| CEval_Conv_VDF_tools | |
| CEval_Darcy_VDF_Face | |
| CEval_Darcy_VEF_Face | |
| CEval_Darcy_VEF_Face_View | |
| CEval_Diff_Eps_VDF_Elem | |
| CEval_Diff_K_Eps_Bas_Re_VDF_const | |
| CEval_Diff_K_Eps_Bas_Re_VDF_const_Elem | |
| CEval_Diff_K_Eps_Bas_Re_VDF_const_Elem_Axi | |
| CEval_Diff_K_Eps_Bas_Re_VDF_var | |
| CEval_Diff_K_Eps_Bas_Re_VDF_var_Elem | |
| CEval_Diff_K_Eps_QC_var_VDF_Elem | |
| CEval_Diff_K_Eps_QC_VDF_Elem | |
| CEval_Diff_K_Eps_var_VDF_Elem | |
| CEval_Diff_K_Eps_VDF | |
| CEval_Diff_K_Eps_VDF_const | |
| CEval_Diff_K_Eps_VDF_Elem | |
| CEval_Diff_K_Eps_VDF_Elem_Axi | |
| CEval_Diff_K_Eps_VDF_var | |
| CEval_Diff_K_Omega_var_VDF_Elem | |
| CEval_Diff_K_Omega_VDF | |
| CEval_Diff_K_Omega_VDF_const | |
| CEval_Diff_K_Omega_VDF_Elem | |
| CEval_Diff_K_Omega_VDF_var | |
| CEval_Diff_K_ou_Eps_VDF_const | |
| CEval_Diff_K_VDF_Elem | |
| CEval_Diff_VDF | |
| CEval_Diff_VDF_Elem | Class Eval_Diff_VDF_Elem Evaluateur VDF pour la diffusion |
| CEval_Diff_VDF_Elem_aniso | Class Eval_Diff_VDF_Elem_aniso Evaluateur VDF pour la diffusion |
| CEval_Diff_VDF_Elem_Axi | Class Eval_Diff_VDF_Elem_Axi Evaluateur VDF pour la diffusion en coordonnees cylindriques |
| CEval_Diff_VDF_Elem_Gen | Class Eval_Diff_VDF_Elem_Gen Evaluateur VDF pour la diffusion : Le champ diffuse est un Champ_P0_VDF |
| CEval_Diff_VDF_Face | Class Eval_Diff_VDF_Face Evaluateur VDF pour la diffusion |
| CEval_Diff_VDF_Face_Gen | Class Eval_Diff_VDF_Face_Gen Evaluateur VDF pour la diffusion |
| CEval_Diff_VDF_Multi_inco_Elem | Class Eval_Diff_VDF_Multi_inco_Elem Evaluateur VDF pour la diffusion |
| CEval_Diff_VDF_Multi_inco_Elem_Axi | Class Eval_Diff_VDF_Multi_inco_Elem_Axi Evaluateur VDF pour la diffusion en coordonnees cylindriques |
| CEval_Diff_VDF_Multi_inco_Multi_scalar_Elem | Class Eval_Diff_VDF_Multi_inco_Multi_scalar_Elem Evaluateur VDF pour la diffusion matricielle // TODO FIXME Le champ diffuse est scalaire (Champ_P0_VDF) avec plusieurs inconnues. Il y a une diffusivite par inconnue |
| CEval_Dift_Multiphase_VDF | |
| CEval_Dift_Multiphase_VDF_Elem | |
| CEval_Dift_Multiphase_VDF_Face | |
| CEval_Dift_VDF | |
| CEval_Dift_VDF_Elem | Class Eval_Dift_VDF_Elem Evaluateur VDF pour la diffusion totale (laminaire et turbulente) |
| CEval_Dift_VDF_Elem_Axi | Class Eval_Dift_VDF_Elem_Axi Evaluateur VDF pour la diffusion totale (laminaire et turbulente) en coordonnees cylindriques |
| CEval_Dift_VDF_Face | Class Eval_Dift_VDF_Face Evaluateur VDF pour la diffusion totale (laminaire et turbulente) |
| CEval_Dift_VDF_Multi_inco_Elem | Class Eval_Dift_VDF_Multi_inco_Elem Evaluateur VDF pour la diffusion totale (laminaire et turbulente) |
| CEval_Dift_VDF_Multi_inco_Elem_Axi | |
| CEval_Dirac_VDF_Elem | |
| CEval_Dirac_VEF_Face | |
| CEval_Dirac_VEF_Face_View | |
| CEval_Div_VDF | Class Eval_Div_VDF Base class for VDF divergence evaluators |
| CEval_Div_VDF_Elem | Class Eval_Div_VDF_Elem Evaluateur VDF pour la divergence |
| CEval_Echange_Himp_VDF_Elem | |
| CEval_Forchheimer_VDF_Face | |
| CEval_Forchheimer_VEF_Face | |
| CEval_Forchheimer_VEF_Face_View | |
| CEval_Gravite_VDF_Face | |
| CEval_PolyMAC_CDO_Elem | |
| CEval_Puiss_Neutr_VDF_Elem | |
| CEval_Puiss_Th_DG_Elem | Evaluator computing the volumetric heat source contribution for DG element unknowns |
| CEval_Puiss_Th_EF | |
| CEval_Puiss_Th_PolyMAC_CDO_Elem | |
| CEval_Puiss_Th_QC_EF | |
| CEval_Puiss_Th_QC_VDF_Elem | |
| CEval_Puiss_Th_QC_VEF_Face | |
| CEval_Puiss_Th_QC_VEF_Face_View | |
| CEval_Puiss_Th_VDF_Elem | |
| CEval_Puiss_Th_VEF_Face | |
| CEval_Puiss_Th_VEF_Face_View | |
| CEval_Quick_VDF_Elem | Class Eval_Quick_VDF_Elem Evaluateur VDF pour la convection Le champ convecte est scalaire (Champ_P0_VDF) |
| CEval_Quick_VDF_Face | Class Eval_Quick_VDF_Face Evaluateur VDF pour la convection Le champ convecte est un Champ_Face_VDF |
| CEval_Quick_VDF_Face_Axi | Class Eval_Quick_VDF_Face_Axi Evaluateur VDF pour la convection en coordonnees cylindriques : Le champ convecte est un Champ_Face_VDF |
| CEval_Source_C_PolyMAC_CDO_Elem | |
| CEval_Source_C_VDF_Elem | |
| CEval_Source_C_VEF_Face | |
| CEval_Source_C_VEF_Face_View | |
| CEval_VDF_Elem | Class Eval_VDF_Elem This class represents the functional prototype |
| CEval_VDF_Face | Class Eval_VDF_Face This class represents the functional prototype for flux evaluators |
| CEvaluateur_PolyMAC_CDO | Class Evaluateur_PolyMAC_CDO |
| CEvaluateur_Source | |
| CEvaluateur_Source_EF_Som | |
| CEvaluateur_Source_Elem | |
| CEvaluateur_Source_Face | |
| CEvaluateur_Source_Force_Boussinesq_VDF_Face | : class Evaluateur_Source_Force_Boussinesq_VDF_Face |
| CEvaluateur_Source_Force_Capillaire_VDF_Face | : class Evaluateur_Source_Force_Capillaire_VDF_Face |
| CEvaluateur_Source_VEF_Face | |
| CEvaluateur_VDF | Class Evaluateur_VDF Base class for VDF evaluators |
| CExecute_parallel | Interpreter allowing the simultaneous execution of several data files |
| CExpert_mode_K_Omega | |
| CExtraire_domaine | Class Extraire_domaine Reading a file |
| CExtraire_plan | Class Extraire_plan Reading a file |
| CExtraire_surface | Class Extraire_surface Reading a file |
| CExtraire_surface_ALE | |
| CExtrudeBord | Class ExtrudeBord |
| CExtrudeParoi | Class ExtrudeParoi This class is an interpreter used to read and execute |
| CExtruder_32_64 | Class Extruder This class is an interpreter used to read and execute |
| CExtruder_en20 | Extruder_en20 class — interpreter that reads and executes the Extruder_en20 directive: |
| CExtruder_en3 | Class Extruder_en3 This class is an interpreter that serves to read and execute |
| CFace_rayo_transp | |
| CFaces_32_64 | Class Faces Faces describes a set of faces by their type (point, segment, triangle or quadrangle), their vertices and their adjacent elements |
| CFaces_builder_32_64 | Helper class for building the faces of a domain. (used only to create the arrays of real faces) |
| CFaces_VDF | |
| CFacettes_Interp_FT | |
| CFaisceau_Tubes | |
| CFermeture_Phase_field_base | |
| CFermeture_Systeme_Binaire | |
| CFermeture_Systeme_Naire | |
| CFermeture_Thermo_base | Classe Fermeture_Thermo_base |
| CFermeture_Thermo_Systeme_Naire | Classe Fermeture_Thermo_Systeme_Naire |
| CFichier_Lata | |
| CFichier_Lata_maitre | : Specialization of Fichier_Lata for the master file: always in ASCII |
| CFichierHDF | This abstract class provides all the functionalities to open and manipulate HDF files and related concepts (datasets, groups, etc |
| CFichierHDFPar | Parallel collective version of FichierHDF, to be used for all concurrent reading/writing on HDF files |
| CField_base | |
| CField_uniform_keps_from_ud | Classe Field_uniform_keps_from_ud Classe derivee de Champ_uniforme which is for uniform fields |
| CFilter_kernel_base | |
| CFilter_kernel_box | |
| CFilter_kernel_laplacian | |
| CFilter_kernel_weight_12_14_base | |
| CFilter_kernel_weight_12_14_conservatif | |
| CFilter_kernel_weight_12_14_pondere | |
| CFilter_kernel_weight_12_14_sansponderation | |
| CFilter_kernel_weight_13_13_base | |
| CFilter_kernel_weight_13_13_conservatif | |
| CFilter_kernel_weight_13_13_pondere | |
| CFilter_kernel_weight_13_13_sansponderation | |
| CFilter_kernel_weight_14_14_18_base | |
| CFilter_kernel_weight_14_14_18_conservatif | |
| CFilter_kernel_weight_14_14_18_pondere | |
| CFilter_kernel_weight_14_14_18_sansponderation | |
| CFilter_kernel_weight_14_38_base | |
| CFilter_kernel_weight_14_38_conservatif | |
| CFilter_kernel_weight_14_38_pondere | |
| CFilter_kernel_weight_14_38_sansponderation | |
| CFilter_kernel_weight_15_15_15_base | |
| CFilter_kernel_weight_15_15_15_conservatif | |
| CFilter_kernel_weight_15_15_15_pondere | |
| CFilter_kernel_weight_15_15_15_sansponderation | |
| CFilter_kernel_weight_16_16_16_112_base | |
| CFilter_kernel_weight_16_16_16_112_conservatif | |
| CFilter_kernel_weight_16_16_16_112_pondere | |
| CFilter_kernel_weight_16_16_16_112_sansponderation | |
| CFilter_kernel_weight_23_16_base | |
| CFilter_kernel_weight_23_16_conservatif | |
| CFilter_kernel_weight_23_16_pondere | |
| CFilter_kernel_weight_23_16_sansponderation | |
| CFixedVector | |
| CFluide_base | Base class for an incompressible fluid and its properties: |
| CFluide_Dilatable_base | Base class for a dilatable fluid, inheriting from Fluide_base |
| CFluide_Diphasique | |
| CFluide_Diphasique_IJK | |
| CFluide_eau_c3_gaz | |
| CFluide_eau_c3_liquide | |
| CFluide_generique_CoolProp | |
| CFluide_generique_EOS | |
| CFluide_generique_TPPI_base | |
| CFluide_Incompressible | Represents an incompressible fluid and its properties: |
| CFluide_MUSIG | Instantiates several MUSIG sub-phases at once |
| CFluide_Ostwald | Class Fluide_Ostwald |
| CFluide_Quasi_Compressible | Fluide_Quasi_Compressible class This class represents a quasi-compressible fluid, |
| CFluide_R12_c1_gaz | |
| CFluide_R12_c1_liquide | |
| CFluide_reel_base | Represents a real fluid and its physical properties: |
| CH_to_T | |
| CT_to_H | |
| CFluide_sodium_gaz | Class Fluide_sodium_gaz representing a real fluid medium |
| CFluide_sodium_liquide | Class Fluide_sodium_liquide representing a real fluid medium |
| CFluide_stiffened_gas | Class Fluide_stiffened_gas representing a real fluid medium |
| CFluide_Weakly_Compressible | Fluide_Weakly_Compressible class This class represents a weakly compressible fluid, |
| CFlux_2groupes_base | Classe Flux_2groupes_base correlations de flux entre 2 groupes |
| Cinput_coeffs | |
| Coutput_coeffs | |
| Cinput_therms | |
| Coutput_therms | |
| CFlux_2groupes_PolyMAC_MPFA | Classe Source_Flux_2groupes_PolyMAC_MPFA |
| CFlux_2groupes_Smith | Two-group interfacial area transport source terms using the Smith et al. model |
| CFlux_interfacial_base | Base class for interfacial heat flux correlations of the form: |
| Cinput_t | |
| Coutput_t | |
| CFlux_interfacial_Chen_Mayinger | Chen-Mayinger interfacial heat flux correlation |
| CFlux_interfacial_Coef_Constant | Interfacial heat flux with constant coefficient per phase |
| CFlux_interfacial_constant_Nu | Flux interfacial a coefficient constant par phase |
| CFlux_interfacial_Kim_Park | Kim-Park interfacial heat flux correlation |
| CFlux_interfacial_PolyMAC_HFV | |
| CFlux_interfacial_Ranz_Marshall | Ranz-Marshall interfacial heat flux correlation |
| CFlux_interfacial_VDF | |
| CFlux_interfacial_Wolfert | Wolfert interfacial heat flux correlation |
| CFlux_interfacial_Wolfert_composant | Wolfert interfacial heat flux correlation (component variant) |
| CFlux_interfacial_Zeitoun | Zeitoun interfacial heat flux correlation |
| CFlux_parietal_adaptatif | Classe Flux_parietal_adaptatif classe qui implemente une correlation de flux parietal monophasique |
| CFlux_parietal_base | Base class for wall heat flux correlations of the form: |
| Cinput_t | |
| Coutput_t | |
| CFlux_parietal_bilineaire | : class Flux_parietal_bilineaire |
| CFlux_parietal_diphasique_simple_lineaire | |
| CFlux_parietal_Hibiki | Wall heat flux correlation for subcooled boiling using the Hibiki model |
| CFlux_parietal_Kommajosyula | Wall heat flux correlation for subcooled boiling using the Kommajosyula model |
| CFlux_parietal_Kurul_Podowski | Classe Flux_parietal_Kurul_Podowski classe qui implemente une correlation de flux parietal diphasique |
| CFlux_parietal_Nusselt | Class Flux_parietal_Nusselt Correlation of parietal heat flux using the Nusselt number (with Nusselt provided by the user as a function of Re and Pr): lambda / D_ch * Nu * (Tp - Tl) |
| CFlux_radiatif_base | |
| CFlux_radiatif_VDF | |
| CFlux_radiatif_VEF | |
| CFluxTetraKernelData | |
| Cforcage_spectral | |
| CForce_Centrifuge_VDF_Face_Axi | Class Force_Centrifuge_VDF_Face_Axi |
| CForce_ph | |
| CForce_sp | |
| CForce_Tchen_PolyMAC_MPFA | |
| CForce_Tchen_VDF | |
| CForchheimer_QC_VDF_Face | |
| CForchheimer_QC_VEF_P1NC | |
| CFormat_Post_base | Base class for post-processing output formats for fields (lata, med, cgns, lml, single_lata) |
| CFormat_Post_CGNS | Class Format_Post_CGNS |
| CFormat_Post_Lata | : Post-processing class for Eulerian fields in LATA format |
| CFormat_Post_Lml | : Post-processing class for Eulerian fields in LML format |
| CFormat_Post_Med | : Post-processing class for Eulerian fields in MED format |
| CFourier_trans | |
| CFraction_Euler | |
| CFront_VF | Class Front_VF |
| CFrontiere_32_64 | Class Frontiere |
| CFrontiere_dis_base | Class Frontiere_dis_base Class representing a discretized boundary |
| CFrontiere_ouverte_rayo_semi_transp | |
| CFrontiere_ouverte_rayo_transp | |
| CFrontiere_ouverte_rho_u_impose | Open boundary on which the mass flux rho.U is imposed instead of the velocity U |
| CFrontiere_ouverte_temperature_imposee_rayo_semi_transp | |
| CFrontiere_ouverte_temperature_imposee_rayo_transp | |
| CFrontiere_ouverte_vitesse_vortex | |
| CFrottement_externe_impose | Classe Frottement_externe_impose Base class for Navier-type boundary conditions (v |
| CFrottement_global_impose | Classe Frottement_global_impose Base class for Navier-type boundary conditions (v |
| CFrottement_impose_base | Classe Frottement_impose_base Base class for Navier-type boundary conditions (v |
| CFrottement_interfacial_base | Frottement_interfacial_base class: utility for interfacial friction operators taking the form |
| CFrottement_interfacial_bulles_composant | Interfacial friction coefficients for a bubbly flow (component-based) |
| CFrottement_interfacial_bulles_constant | Constant interfacial friction coefficient for bubbly flows |
| CFrottement_interfacial_Garnier | Garnier interfacial friction correlation for bubbly flows, accounting for density |
| CFrottement_interfacial_Ishii_Zuber | Ishii-Zuber interfacial friction coefficients for bubbly flows |
| CFrottement_interfacial_Ishii_Zuber_Deformable | Ishii-Zuber interfacial drag for deformable (cap/slug) bubbles |
| CFrottement_interfacial_Kumar_Brooks | Kumar-Brooks interfacial drag for two-group two-fluid model |
| CFrottement_interfacial_PolyMAC_MPFA | |
| CFrottement_interfacial_Rusche | Rusche interfacial friction coefficients for bubbly flows, accounting for density |
| CFrottement_interfacial_Simonnet | Interfacial friction coefficients for a bubbly flow, accounting for density effects |
| CFrottement_interfacial_Sonnenburg | Interfacial friction coefficients corresponding to the Sonnenburg drift-flux correlation, modified by Bissen, Alpy and Medale to exhibit correct limits as alpha -> 0 and alpha -> 1. Parameters: none |
| CFrottement_interfacial_Tomiyama | Interfacial friction coefficients for a bubbly flow using the Tomiyama correlation |
| CFrottement_interfacial_Tomiyama_complet | Interfacial friction coefficients for bubbly flows using the Tomiyama correlation |
| CFrottement_interfacial_VDF | |
| CFrottement_interfacial_Wallis | Interfacial friction coefficients for annular flow using the Wallis correlation. Parameters: none |
| CFrottement_interfacial_Weber | Interfacial friction coefficients for annular flow using the Wallis correlation, where the interfacial area density is given as a function of the critical Weber number (dataset parameter). Parameters: none |
| CFrottement_interfacial_Zenit | Interfacial friction coefficients for bubbly flow, accounting for density effects (Zenit correlation) |
| CFT_Field | |
| CGPUInfo | |
| Cgrad_Champ_Face_PolyMAC_MPFA | Class grad_Champ_Face_PolyMAC_MPFA for the calculation of the gradient |
| Cgrad_T_Champ_P1NC | Class grad_T_Champ_P1NC |
| Cgrad_U_Champ_Face | Class grad_U_Champ_Face |
| Cgrad_U_Champ_Face_PolyMAC_CDO | |
| Cgrad_U_Champ_P1NC | Class grad_U_Champ_P1NC |
| CGravite_Multiphase | Holds a gravity field defined by the user |
| CGrid_Level_Data_template | |
| CGroupe_Faces_32_64 | Groupe_Face class — represents a selection of faces read from a med file |
| CGroupes_Faces_32_64 | Groupes_Faces class — represents a list of Groupe_Faces objects |
| Ch_conv_Champ_P1NC | Class h_conv_Champ_P1NC |
| CHexa_EF | |
| CHexa_poly | |
| CHexa_VEF | |
| CHexaedre_32_64 | Class Hexaedre: represents a geometric element with 6 faces, 8 vertices, and |
| CHexaedre_axi_32_64 | Class Hexaedre_axi: represents the deformed hexahedron in |
| CHexaedre_VEF_32_64 | Class Hexaedre_VEF: represents the geometric element Hexaedre_VEF |
| CICE | ICE scheme (semi-implicit ICE, CATHARE 3D style) |
| CIJ_layout | : This class describes an IJ plane of an IJK_Field_local |
| CIJK_Composantes_Connex | |
| CIJK_discretisation | Class IJK_discretisation handles the IJK discretisation of the problem |
| CIJK_Field_local_template | : This class describes a scalar field in an ijk box without any parallel information |
| CIJK_Field_template | : This class is an IJK_Field_local with parallel informations |
| CIJK_Field_tools | |
| CIJK_Field_vector | The class IJK_Field_vector is a fixed array of polymorphic IJK fields |
| CIJK_Finite_Difference_One_Dimensional_Matrix_Assembler | |
| CIJK_Ghost_Fluid_Fields | |
| CIJK_Interfaces | : class IJK_Interfaces |
| CIJK_Lata_Swap_JK | : class IJK_Lata_Swap_JK |
| CIJK_MonofluidVar | : class IJK_MonofluidVar |
| CIJK_One_Dimensional_Subproblem | |
| CIJK_One_Dimensional_Subproblem_Geometry | |
| CIJK_One_Dimensional_Subproblem_Velocity | |
| CIJK_One_Dimensional_Subproblems | |
| CIJK_One_Dimensional_Subproblems_Geometry | |
| CIJK_One_Dimensional_Subproblems_Interfaces_Fields | |
| CIJK_One_Dimensional_Subproblems_Tools | |
| CIJK_One_Dimensional_Subproblems_Velocity | |
| CIJK_ptr | |
| CIJK_Shear_Periodic_helpler | |
| CIJK_SolveSys_FD_thermal | |
| CIJK_Striped_Writer | : class IJK_Striped_Writer |
| CIJK_Test_Multigrille | |
| CIJK_Thermal_base | |
| CIJK_Thermal_cut_cell | |
| CIJK_Thermal_Multiple_Subresolutions | |
| CIJK_Thermal_Onefluid | |
| CIJK_Thermal_Outputs | |
| CIJK_Thermal_Subresolution | |
| CIJK_Thermals | |
| CIJK_VDF_converter | |
| CIJK_Vector | Class IJK_Vector |
| CIJKArray_with_ghost | This is an array with [] operator |
| CImpl_32_64 | |
| CImplicit_steady | |
| CImplicite | |
| CImposer_vit_bords_ALE | Classe Imposer_vit_bords_ALE Discretise un probleme: |
| CImposer_vitesse_lagrangienne | Interprete permettant d'associer une vitesse purement lagrangienne a un domaine ALE |
| CImprimer_Fichiers_RANS_VDF | |
| CImprimer_Fichiers_RANS_VEF | |
| CImprimer_flux | |
| CImprimer_flux_sum | |
| CIndexCoefficient | |
| Cinit_forcage_THI | |
| CInit_par_partie | |
| CInit_spectral | |
| CInjection_masse_PolyMAC_MPFA | |
| CInjection_QDM_nulle_PolyMAC_MPFA | Classe Injection_QDM_nulle_PolyMAC_MPFA Correction de la QDM d'un fluide de l'écoulement quand on en injecte |
| CInjection_QDM_nulle_VDF | Classe Injection_QDM_nulle_VDF Correction de la QDM d'un fluide de l'écoulement quand on en injecte |
| CInnerType | |
| CInnerType< T, 1 > | |
| CInnerType< T, 2 > | |
| CInnerType< T, 3 > | |
| CInnerType< T, 4 > | |
| CInOutCommBuffers | |
| CInputCommBuffer | : Helper class used exclusively by Schema_Comm |
| CIntBoxData | |
| CIntegrale_tps_Champ | |
| CIntegrale_tps_produit_champs | Class Integrale_tps_produit_champs |
| CIntegrer_champ_med | Class Integrer_champ_med Reads a file |
| CInterface_Baer_Nunziato | |
| CInterface_base | |
| Cinterface_CALCULBIJ | |
| Cinterface_CALCULSI | |
| Cinterface_INITGAUSS | |
| CInterface_sigma_constant | |
| CInterpolation_IBM_aucune | |
| CInterpolation_IBM_base | |
| CInterpolation_IBM_elem_fluid | |
| CInterpolation_IBM_hybrid | |
| CInterpolation_IBM_mean_gradient | |
| CInterpolation_IBM_mean_gradient_proto | : class Interpolation_IBM_mean_gradient_proto |
| CInterpolation_IBM_power_law_tbl | |
| CInterpolation_IBM_power_law_tbl_proto | : class Interpolation_IBM_power_law_tbl_proto |
| CInterpolation_IBM_power_law_tbl_u_star | |
| CInterpolation_IBM_thermal_wall_law | |
| CInterprete | Base class for "interpreter" objects |
| CInterprete_bloc | Interprets a block of instructions in the data set |
| CInterprete_geometrique_base_32_64 | Class Interprete_geometrique_base |
| CIntersection_Interface_ijk | |
| CIntersection_Interface_ijk_cell | |
| CIntersection_Interface_ijk_face | |
| CIntersections_Elem_Facettes | : class Intersections_Elem_Facettes |
| CIntersections_Elem_Facettes_Data | |
| CIntListsListe | |
| CIterateur_PolyMAC_CDO_base | |
| CIterateur_PolyMAC_CDO_Elem | |
| CIterateur_Source_base | |
| CIterateur_Source_EF_Som | |
| CIterateur_Source_Elem | |
| CIterateur_Source_Face | |
| CIterateur_Source_VEF_Face | |
| CIterateur_VDF_base | |
| CIterateur_VDF_Elem | |
| CIterateur_VDF_Face | |
| CJoint_32_64 | The Joint class is a Frontiere that contains the joint faces and vertices with the neighboring domain PEvoisin() (for meshes distributed in parallel) |
| CJoint_Items_32_64 | Joint_Items holds the parallel distribution information for a particular geometric item type with a particular neighboring domain (item = vertex, element, face, etc.) |
| CJoints_32_64 | Joints class — represents a list of Joint objects |
| CKerasLayer | |
| CKerasLayerActivation | |
| CKerasLayerConvolution2d | |
| CKerasLayerDense | |
| CKerasLayerElu | |
| CKerasLayerEmbedding | |
| CKerasLayerFlatten | |
| CKerasLayerLSTM | |
| CKerasLayerMaxPooling2d | |
| CKerasModel | |
| CKerasTimer | |
| CLata_2_CGNS | Class Lata_2_CGNS |
| CLata_2_MED | Class Lata_2_MED |
| CLata_2_Other | Class Lata_2_Other |
| CLeap_frog | Leap_frog This class represents a Leap_Frog time scheme |
| CLec_Diffuse_base | Base class for diffused inputs: the master processor reads data from get_entree_master() and broadcasts it |
| CLecFicDiffuse | This class implements the operators and virtual methods of the EFichier class as follows: The file to read is physically located on the disk of the machine hosting the master task of the Trio-U application (the process of rank 0 in the "tous" group), |
| CLecFicDiffuse_JDD | This class implements the operators and virtual methods of the EFichier class as follows: The file to read is physically located on the disk of the machine hosting the master task of the Trio-U application (the process of rank 0 in the "tous" group), |
| CLecFicDiffuseBin | Read a file in binary format |
| CLecFicDistribue | This class implements the operators and virtual methods of the EFichier class as follows: there are as many files as there are processes, physically located on the disk of the machine hosting the master task of the Trio-U application (the process of rank 0 in the "all" group) |
| CLecFicDistribue_sansnum | This class implements the operators and virtual methods of the EFichier class as follows: there are as many files as there are processes, physically located on the disk of the machine hosting the master task of the Trio-U application (the process of rank 0 in the "all" group) |
| CLecFicDistribueBin | Reading from a file in binary format |
| CLecture_Champ | : class Lecture_Champ |
| CLecture_Table | : class Lecture_Table |
| CLire | Keyword to read an object, typically from a data file |
| CLire_Fichier | Class Lire_Fichier: reads a file |
| CLire_Fichier_Bin | Reads a file in binary format |
| CLire_Ideas | |
| CLire_Tgrid | Class Lire_Fichier Reads a file |
| CLireMED_32_64 | |
| CList_Equations_Scalaires_Passifs_Especes | List_Equations_Scalaires_Passifs_Especes Represents a list of passive scalar or species equations |
| CListe_bloc | The Liste_bloc and Liste_bloc_curseur classes represent a list of Deriv<Objet_U> elements and an associated cursor |
| CListe_bloc_curseur | |
| CListe_Champ_Generique | List_Champ_Generique Represents a list of Champ_Generique_base objects |
| CLml_2_Lata | Class Lml_2_Lata |
| CLoi_2couches_base | Classe Loi_2couches_base Cette classe de base represente les modeles 1 equation pour le modele a deux couches |
| CLoi_convforcee | Classe Loi_convforcee Cette classe represente les modeles 1 equation pour le modele a deux couches cale sur les resultats de convection forcee |
| CLoi_convnat | Classe Loi_convnat Cette classe represente les modeles 1 equation pour le modele a deux couches cale sur les ersultats de convection naturelle |
| CLoi_Etat_base | Base class for the state law hierarchy defining a dilatable fluid |
| CLoi_Etat_Binaire_GP_base | Base state law class for binary ideal-gas mixtures, defining a dilatable binary fluid with the equation of state: Pth = rho*R*T*(Y1/M1 + Y2/M2) |
| CLoi_Etat_Binaire_GP_QC | State law class for binary ideal-gas mixtures in the quasi-compressible (QC) framework |
| CLoi_Etat_Binaire_GP_WC | State law class for binary ideal-gas mixtures in the weakly compressible (WC) framework |
| CLoi_Etat_CoolProp_QC | |
| CLoi_Etat_CoolProp_WC | |
| CLoi_Etat_EOS_QC | |
| CLoi_Etat_EOS_WC | |
| CLoi_Etat_GP_base | Base state law class for ideal gases, defining a dilatable fluid with the equation of state: Pth = rho*R*T |
| CLoi_Etat_GP_QC | State law class for ideal gases in the quasi-compressible (QC) framework |
| CLoi_Etat_GP_WC | State law class for ideal gases in the weakly compressible (WC) framework |
| CLoi_Etat_GR_base | Base state law class for real gases, defining a dilatable fluid with the equations of state: rho = rho(Pth, H) T = T(Pth, H) |
| CLoi_Etat_Melange_GP_base | State law class for a mixture of ideal gases |
| CLoi_Etat_Mono_GP_base | Base state law class for mono-species ideal gases |
| CLoi_Etat_Multi_GP_base | Base state law class for a mixture of ideal gases |
| CLoi_Etat_Multi_GP_QC | State law class for a mixture of ideal gases in the quasi-compressible (QC) framework |
| CLoi_Etat_Multi_GP_WC | State law class for a mixture of ideal gases in the weakly compressible (WC) framework |
| CLoi_Etat_rhoT_GP_QC | : class Loi_Etat_rhoT_GP_QC |
| CLoi_Etat_rhoT_GR_QC | State law class for real gases in the quasi-compressible (QC) framework |
| CLoi_Etat_TPPI_base | |
| CLoi_Etat_TPPI_QC_base | |
| CLoi_Etat_TPPI_WC_base | |
| CLoi_expert_hydr_EF | Cette classe permet de specifier des options a la loi de paroi standard |
| CLoi_expert_hydr_VDF | Cette classe permet de specifier des options a la loi de paroi standard |
| CLoi_expert_hydr_VEF | Cette classe permet de specifier des options a la loi de paroi standard |
| CLoi_expert_scalaire_EF | Cette classe permet de specifier des options a la loi de paroi standard |
| CLoi_expert_scalaire_VDF | Cette classe permet de specifier des options a la loi de paroi standard |
| CLoi_expert_scalaire_VEF | Cette classe permet de specifier des options a la loi de paroi standard |
| CLoi_Fermeture_base | : Base class of closure laws |
| CLoi_Fermeture_Test | : class Loi_Fermeture_Test |
| CLoi_horaire | |
| CLoi_paroi_adaptative | Classe Loi_paroi_adaptative correlation pour une loi de paroi adaptative qui calcule u_tau et du y_plus |
| CLoi_paroi_base | Base class for wall laws in Pb_Multiphase |
| CLoi_paroi_log | Adaptive wall-law correlation computing u_tau and y_plus (blended Reichardt model) |
| CLoi_Paroi_Nu_Impose_VDF | Classe Loi_Paroi_Nu_Impose_VDF |
| CLoi_Paroi_Nu_Impose_VEF | Classe Loi_Paroi_Nu_Impose_VEF |
| CLoi_paroi_Ramstorfer | Classe Loi_paroi_Ramstorfer correlation pour une loi de paroi adaptative qui calcule u_tau et du y_plus |
| CLoi_perso | Classe Loi_perso Cette classe represente les modeles 1 equation pour le modele a deux couches cale sur les resultats de convection forcee |
| CLoiParoiHybride | LoiParoiHybride Classe Turbulence_paroi_base |
| CLoiParoiHybride_VDF | CLASS: LoiParoiHybride_VDF |
| CLoiParoiHybride_VEF | CLASS: LoiParoiHybride_VEF |
| CMaillage_FT_Disc | : class Maillage_FT_Disc Cette classe decrit un maillage: |
| CMaillage_FT_Disc_Data_Cache | |
| CMaillage_FT_IJK | : class Maillage_FT_IJK |
| CMailler_32_64 | Class Mailler A mesher by agglomeration of domains (paves in 2D and blocks in 3D) |
| CMaillerParallel | |
| CMarching_Cubes | |
| CMarqueur_FT | Classe Marqueur_FT La classe Marqueur_FT est une classe instanciable permettant de suivre des particules |
| CMarqueur_Lagrange_base | Marqueur_Lagrange_base The Marqueur_Lagrange_base class is the base class for Lagrangian marker classes |
| CMasse_ajoutee_base | Added-mass correlation of the form: alpha_k rho_k Dv_k / Dt -> alpha_k rho_k Dv_k / Dt + sum_l ma(k, l) Dv_l / Dt This class defines a compute function with: inputs: alpha[n] -> volume fraction of phase n rho[n] -> density of phase n |
| CMasse_ajoutee_Cai | Cai-Wallis added mass for bubbly two-phase flow |
| CMasse_ajoutee_Coef_Constant | Added mass of the form ma(k, l) = +/- beta * alpha_k * alpha_l * rho_m |
| CMasse_ajoutee_Wijngaarden | Added mass of the form ma(k, l) = +/- beta * alpha_k * alpha_l * rho_m |
| CMasse_ajoutee_Zuber | Added mass of the form ma(k, l) = +/- beta * alpha_k * alpha_l * rho_m |
| CMasse_Coloc_Elem | |
| CMasse_Coloc_Vect | |
| CMasse_DG_base | Abstract base class for the DG mass matrix operator |
| CMasse_DG_Elem | Concrete DG mass operator for element-based unknowns |
| CMasse_Multiphase | Specialisation of Convection_Diffusion_std for multiphase flows where the transported scalar is the volume fraction |
| CMasse_PolyMAC_CDO_base | |
| CMasse_PolyMAC_CDO_Elem | |
| CMasse_PolyMAC_CDO_Face | |
| CMasse_PolyMAC_HFV_base | |
| CMasse_PolyMAC_HFV_Elem | |
| CMasse_PolyMAC_HFV_Face | |
| CMasse_PolyMAC_MPFA_Face | |
| CMasse_VDF_base | |
| CMasse_VDF_Elem | |
| CMasse_VDF_Face | |
| CMasse_VEF_P1NC | |
| CMatrice | Matrice class - Generic class in the matrix hierarchy |
| CMatrice33 | A 3x3 matrix |
| CMatrice_Base | Matrice_Base class - Base class of the matrix hierarchy |
| CMatrice_Bloc | |
| CMatrice_Bloc_Sym | |
| CMatrice_Dense | |
| CMatrice_Diagonale | Matrice_Diagonale class - Represents a diagonal matrix |
| CMatrice_Grossiere | |
| CMatrice_Morse | Matrice_Morse class - Represents a (sparse) matrix M, not necessarily square, |
| CMatrice_Morse_Diag | Matrice_Morse_Diag class - Represents a sparse symmetric matrix M stored in Morse format |
| CMatrice_Morse_Sym | Matrice_Morse_Sym class - Represents a sparse symmetric matrix M stored in Morse format |
| CMatrice_Nulle | |
| CMatrice_Petsc | |
| CMatrice_SuperMorse | : Matrix with an even sparser storage than Matrice_Morse: only non-empty rows are stored (saving on the size of tab1_, |
| CMatrice_Sym | Matrice_Sym class - Base class for the representation of symmetric matrices |
| CMatrix_tools | |
| CMD_Vector | : This class is an OWN_PTR but the pointed object is shared among multiple |
| CMD_Vector_base | Base class for distributed vectors parallel descriptors |
| CMD_Vector_composite | Metadata for a distributed composite vector |
| CMD_Vector_mono | Generic class for all mono-block MD_Vectors (i.e. non compoosite) |
| CMD_Vector_renumber | |
| CMD_Vector_seq | Dummy parallel descriptor used for sequential computations |
| CMD_Vector_std | This is the simplest descriptor, used for arrays of values at vertices, elements, faces, edges, boundary faces, etc |
| CMD_Vector_tools | |
| CMemoire | La memoire de Trio-U |
| CMemoire_ptr | Pointer within the TRUST memory for an Objet_U |
| CMerge_MED | Class Merge_MED Merge several MED files written by several procs into a single field object with a proper underlying mesh (no duplicate nodes) |
| CMetis_String_Option | |
| CMilieu_base | Milieu_base This class is the base of the (physical) medium hierarchy |
| CMilieu_composite | Composite medium representing a multiphase fluid and its properties: |
| CMilieu_composite_Euler | |
| CMilieu_Elasticite | Isotropic small-strain linear elastic medium |
| CMilieu_Incompressible_Phase_Field | |
| CMilieu_MUSIG | |
| CMilieu_Phase_field | |
| CMkdir | Keyword to create a directory, typically from a data file |
| CMod_echelle_cv_forcee | Classe Mod_echelle_cv_forcee |
| CMod_echelle_cv_naturelle | Classe Mod_echelle_cv_naturelle |
| CMod_echelle_LRM_base | Classe Mod_echelle_LRM_base |
| CModele_EASM_Baglietto_VEF | |
| CModele_F1F2FMU_unitaire_VDF | |
| CModele_Fonc_Bas_Reynolds_Base | |
| CModele_Fonc_Bas_Reynolds_Thermique_Base | |
| CModele_Fonc_Realisable_base | |
| CModele_Jones_Launder_Thermique_VDF | |
| CModele_Jones_Launder_VDF | |
| CModele_Jones_Launder_VEF | |
| CModele_Lam_Bremhorst_VEF | |
| CModele_Launder_Sharma_VDF | |
| CModele_Launder_Sharma_VEF | |
| CModele_Permeabilite_base | Modele_Permeabilite_base Base class representing a permeability model |
| CModele_rayo_transp | |
| CModele_Shih_Zhu_Lumley_VDF | |
| CModele_Shih_Zhu_Lumley_VEF | |
| CModele_standard_KEps_VEF | |
| CModele_turbulence_hyd_0_eq_base | Base class for zero-equation (algebraic) hydraulic turbulence models |
| CModele_turbulence_hyd_2_eq_base | Classe Modele_turbulence_hyd_2_eq_base Classe de base des modeles de type RANS a deux equations |
| CModele_turbulence_hyd_7_eq_base | Classe Modele_turbulence_hyd_7_eq_base Classe de base des modeles de type RANS a sept equations |
| CModele_turbulence_hyd_base | Base class for the turbulence model hierarchy for Navier-Stokes equations |
| CModele_turbulence_hyd_combinaison | Classe Modele_turbulence_hyd_combinaison Classe representant un modele de turbulence exprime a partir d'une combinaison de champs |
| CModele_turbulence_hyd_K_Eps | Classe Modele_turbulence_hyd_K_Eps Cette classe represente le modele de turbulence (k,eps) pour les |
| CModele_turbulence_hyd_K_Eps_2_Couches | Classe Modele_turbulence_hyd_K_Eps_2_Couches Cette classe represente le modele de turbulence (k,eps) pour les |
| CModele_turbulence_hyd_K_Eps_Bas_Reynolds | Class Modele_turbulence_hyd_K_Eps_Bas_Reynolds |
| CModele_turbulence_hyd_K_Eps_Bicephale | Classe Modele_turbulence_hyd_K_Eps_Bicephale Cette classe represente le modele de turbulence (k,eps) pour les |
| CModele_turbulence_hyd_K_Eps_Realisable | Class Modele_turbulence_hyd_K_Eps_Realisable |
| CModele_turbulence_hyd_K_Eps_Realisable_Bicephale | Class Modele_turbulence_hyd_K_Eps_Realisable_Bicephale |
| CModele_turbulence_hyd_K_Omega | Classe Modele_turbulence_hyd_K_Omega Cette classe represente le modele de turbulence (k, omega) pour les |
| CModele_turbulence_hyd_LES_1elt_selectif_mod_VEF | Classe Modele_turbulence_hyd_LES_1elt_selectif_mod_VEF Cette classe correspond a la mise en oeuvre du modele sous |
| CModele_turbulence_hyd_LES_1elt_VEF | |
| CModele_turbulence_hyd_LES_axi_VDF | Classe Modele_turbulence_hyd_LES_axi_VDF Cette classe correspond a la mise en oeuvre du modele sous |
| CModele_turbulence_hyd_LES_base | Classe Modele_turbulence_hyd_LES_base Class representing the subgrid-scale turbulence model for the |
| CModele_turbulence_hyd_LES_DSGS_VDF | Classe Modele_turbulence_hyd_LES_DSGS_VDF Cette classe derivee de Modele_turbulence_hyd_LES_Smago_VDF |
| CModele_turbulence_hyd_LES_Fst_sel_VEF | Classe Modele_turbulence_hyd_LES_Fst_sel_VEF Cette classe correspond a la mise en oeuvre du modele sous |
| CModele_turbulence_hyd_LES_Fst_VEF | Classe Modele_turbulence_hyd_LES_Fst_VEF Cette classe correspond a la mise en oeuvre du modele sous |
| CModele_turbulence_hyd_LES_selectif_mod_VDF | Classe Modele_turbulence_hyd_LES_selectif_VDF Cette classe correspond a la mise en oeuvre du modele sous |
| CModele_turbulence_hyd_LES_selectif_VDF | Classe Modele_turbulence_hyd_LES_selectif_VDF Cette classe correspond a la mise en oeuvre du modele sous |
| CModele_turbulence_hyd_LES_SMAGO_DYN_VDF | |
| CModele_turbulence_hyd_LES_Smago_filtre_VEF | |
| CModele_turbulence_hyd_LES_Smago_VDF | Modele_turbulence_hyd_LES_Smago_VDF class |
| CModele_turbulence_hyd_LES_Smago_VEF | Class Modele_turbulence_hyd_LES_Smago_VEF |
| CModele_turbulence_hyd_LES_VDF | Classe Modele_turbulence_hyd_LES_VDF Cette classe correspond a la mise en oeuvre du modele sous |
| CModele_turbulence_hyd_LES_VDF_base | Modele_turbulence_hyd_LES_VDF_base class |
| CModele_turbulence_hyd_LES_VEF | Classe Modele_turbulence_hyd_LES_VEF Cette classe correspond a la mise en oeuvre du modele sous |
| CModele_turbulence_hyd_LES_VEF_base | Class Modele_turbulence_hyd_LES_VEF_base |
| CModele_turbulence_hyd_LES_Wale_VDF | Modele_turbulence_hyd_LES_Wale_VDF class |
| CModele_turbulence_hyd_LES_Wale_VEF | Class Modele_turbulence_hyd_LES_Wale_VEF This class implements the WALE subgrid model |
| CModele_turbulence_hyd_Longueur_Melange_base | Mixing-length turbulence model for the Navier-Stokes equations |
| CModele_turbulence_hyd_Longueur_Melange_VDF | Classe Modele_turbulence_hyd_Longueur_Melange_VDF |
| CModele_turbulence_hyd_Longueur_Melange_VEF | Class Turbulence_hyd_Longueur_Melange_VEF |
| CModele_turbulence_hyd_null | |
| CModele_turbulence_hyd_RANS_Bicephale_base | Classe Modele_turbulence_hyd_RANS_Bicephale_base Classe de base des modeles de type RANS en formulation bicephale : les equations de k et epsilon sont gerees separement |
| CModele_turbulence_hyd_RANS_Gen | |
| CModele_turbulence_hyd_RANS_K_Eps_base | Classe Modele_turbulence_hyd_RANS_K_Eps_base Classe de base des modeles de type RANS_keps |
| CModele_turbulence_hyd_RANS_K_Omega_base | Classe Modele_turbulence_hyd_RANS_K_Omega_base Classe de base des modeles de type RANS_komega |
| CModele_turbulence_scal_base | Base class for scalar turbulence models coupled to a Navier-Stokes convection-diffusion equation |
| CModele_turbulence_scal_diffturb_base | Base class for scalar turbulence models that compute turbulent diffusivity as: |
| CModele_turbulence_scal_Fluctuation_Temperature | |
| CModele_turbulence_scal_Fluctuation_Temperature_W | |
| CModele_turbulence_scal_Fluctuation_Temperature_W_Bas_Re | |
| CModele_turbulence_scal_LES_dyn_VDF | |
| CModele_turbulence_scal_null | |
| CModele_turbulence_scal_Prandtl | Scalar turbulence model using the turbulent Prandtl number to compute turbulent diffusivity: |
| CModele_turbulence_scal_Schmidt | Scalar turbulence model using the turbulent Schmidt number to compute turbulent diffusion: |
| CModif_bord_to_raccord_32_64 | Class Modif_bord_to_raccord transforms a boundary into a local homogeneous connector |
| CModifyDomaineAxi1D | |
| CModPerm_Carman_Kozeny | This class represents the Carman Kozeny correlation for the permeability of a particle bed of given diameter |
| CModPerm_Cte | Class ModPerm_Cte This class represents a constant permeability |
| CModPerm_ErgunPourDarcy | This class represents the Ergun correlation for the permeability of a particle bed of given diameter |
| CModPerm_ErgunPourForch | This class represents the Ergun correlation associated with the Forchheimer term, for the permeability of a particle bed of given diameter |
| CMomentum_Euler | |
| Cmon_main | Class created and run by main() and during a TRUST execution through Python |
| CMorEqn | Class MorEqn Class that groups the functionalities of linking with an |
| CMotcle | A character string (Nom) in uppercase |
| CMotcles | An array of Motcle objects |
| Cmoyenne_glissante | : class moyenne_glissante |
| Cmoyenne_par_morceaux | : class moyenne_par_morceaux |
| CMoyenne_volumique | This interpreter computes and stores in a lata file the convolution product |
| CMuLambda_TBLE_base | Classe MuLambda_TBLE_base Classe abstraite calculant Mu et Lambda sur le maillage TBLE |
| CMuLambda_TBLE_Cte | Classe MuLambda_TBLE_Cte Classe abstraite calculant Mu et Lambda constant sur le maillage TBLE |
| CMuLambda_TBLE_Fcts_T | Classe MuLambda_TBLE_Fcts_T Classe abstraite calculant Mu et Lambda suivant une fonction de T |
| CMulti_Sch_ThHyd | Time scheme that splits the time step between a Navier-Stokes sub-scheme and a scalar sub-scheme |
| CMultigrille_Adrien | |
| CMultigrille_base | |
| CMultipleFiles | Class MultipleFiles. This class sets the usage limit of a file written per process |
| CMultiplicateur_diphasique_base | Two-phase multiplier correlations of the form: |
| CMultiplicateur_diphasique_Friedel | Two-phase multiplier using the Friedel correlation: |
| CMultiplicateur_diphasique_homogene | Homogeneous two-phase multiplier: Phi^2 = 1 + x (rho_l / rho_g - 1) |
| CMultiplicateur_diphasique_Lottes_Flinn | Lottes-Flinn two-phase multiplier correlation |
| CMultiplicateur_diphasique_Muhler_Steinhagen | Two-phase multiplier using the Muhler-Steinhagen correlation: |
| CMy_Comm_Group | |
| CNavier | Navier Velocity boundary condition of type "Navier": |
| CNavier_Stokes_Aposteriori | |
| CNavier_Stokes_Fluide_Dilatable_base | Base class carrying the terms of the momentum equation for a fluid without turbulence modelling under the dilatable fluid assumption |
| CNavier_Stokes_Fluide_Dilatable_Proto | Navier_Stokes_Fluide_Dilatable_Proto |
| CNavier_Stokes_FT_Disc | |
| CNavier_Stokes_FT_Disc_interne | |
| CNavier_Stokes_FTD_IJK | |
| CNavier_Stokes_IBM | |
| CNavier_Stokes_IBM_Turbulent | Turbulent IBM Navier-Stokes equation |
| CNavier_Stokes_phase_field | Classe Navier_Stokes_phase_field Cette classe porte les termes de l'equation de la dynamique |
| CNavier_Stokes_QC | Carries the terms of the momentum equation for a quasi-compressible fluid without turbulence modelling |
| CNavier_Stokes_std | Navier_Stokes_std This class carries the terms of the momentum equation |
| CNavier_Stokes_std_sensibility | : class Navier_Stokes_std_sensibility |
| CNavier_Stokes_Turbulent | Navier-Stokes equation for a viscous incompressible fluid (div U = 0) with turbulence modelling |
| CNavier_Stokes_Turbulent_QC | Navier-Stokes equation for a quasi-compressible fluid with turbulence modelling |
| CNavier_Stokes_Variable_Density | : class Navier_Stokes_Variable_Density |
| CInterface_Milieu | |
| CNavier_Stokes_WC | Carries the terms of the momentum equation for a weakly compressible fluid without turbulence modelling |
| CNettoieNoeuds_32_64 | Class NettoieNoeuds x->alpha x |
| CNeumann | Classe Neumann This class is the base class of the hierarchy of Neumann-type boundary conditions |
| CNeumann_homogene | Classe Neumann_homogene This class is the base class of the hierarchy of homogeneous Neumann-type boundary conditions |
| CNeumann_paroi | Classe Neumann_paroi This boundary condition corresponds to an imposed flux for the |
| CNeumann_paroi_adiabatique | Classe Neumann_paroi_adiabatique This boundary condition corresponds to an adiabatic wall in a |
| CNeumann_paroi_flux_nul | Classe Neumann_paroi_flux_nul This boundary condition imposes a zero flux at the boundary |
| CNeumann_paroi_rayo_semi_transp_VDF | |
| CNeumann_paroi_rayo_semi_transp_VEF | |
| CNeumann_sortie_libre | Neumann_sortie_libre This class represents an open boundary without imposed velocity |
| CNeumann_sortie_libre_Temp_H | Open boundary with imposed temperature for a heat equation with enthalpy as unknown |
| CNeumann_val_ext | Classe Neumann_val_ext This class is the base class of the hierarchy of |
| CNom | Class Nom: a character string for naming TRUST objects |
| CNoms | An array of character strings (VECT(Nom)) |
| CNucleation_paroi_PolyMAC_MPFA | Classe Nucleation_paroi_PolyMAC_MPFA forme pi * d_nuc**2 * N_nuc Terme source d'aire interfaciale |
| CObjet_a_lire | |
| CObjet_U | Base class for TRUST objects (Objet_U) |
| CObjet_U_ptr | Pointer to an Objet_U |
| CObjet_U_With_Params | Inherits from Objet_U, adds the very common method set_param for the Objet_U hierarchy |
| COBuffer | |
| COctree_32_64 | Class Octree |
| COctree_Double_32_64 | : An octree allowing to search in space for elements or points described by real-valued coordinates |
| COctree_Int_32_64 | : An octree allowing retrieval of point-like or parallelepiped-shaped objects in 1D, 2D or 3D space with integer coordinates |
| COctreeFloor_32_64 | Class OctreeFloor |
| COctreeLoc | Struct OctreeLoc |
| COctreeRoot_32_64 | Class OctreeRoot |
| COp_Conv_ALE_PolyMAC_HFV_Elem | |
| COp_Conv_ALE_VEF | |
| COp_Conv_Amont_DG_Elem | |
| COp_Conv_Amont_old_VEF_Face | Class Op_Conv_Amont_old_VEF_Face |
| COp_Conv_Amont_PolyMAC_CDO_Elem | Class Op_Conv_Amont_PolyMAC_CDO_Elem |
| COp_Conv_Amont_PolyMAC_CDO_Face | |
| COp_Conv_Amont_PolyMAC_HFV_Elem | |
| COp_Conv_Amont_PolyMAC_HFV_Face | |
| COp_Conv_Amont_PolyMAC_MPFA_Face | |
| COp_Conv_Amont_VDF_Elem | Class Op_Conv_Amont_VDF_Elem This class represents the convection operator associated with a scalar transport equation |
| COp_Conv_Amont_VDF_Face | Class Op_Conv_Amont_VDF_Face This class represents the convection operator associated with a momentum equation |
| COp_Conv_Amont_VEF_Face | Class Op_Conv_Amont_VEF_Face |
| COp_Conv_Amont_VPoly_VDF_Face | |
| COp_Conv_AmontNew_VEF_Face | Class Op_Conv_AmontNew_VEF_Face |
| COp_Conv_BTD_EF | |
| COp_Conv_Centre4_VDF_Elem | Class Op_Conv_Centre4_VDF_Elem This class represents the convection operator associated with a scalar transport equation |
| COp_Conv_Centre4_VDF_Face | Class Op_Conv_Centre4_VDF_Face This class represents the convection operator associated with a momentum equation |
| COp_Conv_Centre_DG_Elem | |
| COp_Conv_Centre_EF_VEF_Face | Class Op_Conv_Centre_EF_VEF_Face |
| COp_Conv_Centre_old_VEF_Face | Class Op_Conv_Centre_old_VEF_Face |
| COp_Conv_Centre_PolyMAC_CDO_Elem | Class Op_Conv_Centre_PolyMAC_CDO_Elem |
| COp_Conv_Centre_PolyMAC_CDO_Face | |
| COp_Conv_Centre_PolyMAC_HFV_Elem | |
| COp_Conv_Centre_PolyMAC_HFV_Face | |
| COp_Conv_Centre_PolyMAC_MPFA_Face | |
| COp_Conv_Centre_VDF_Elem | Class Op_Conv_Centre_VDF_Elem This class represents the convection operator associated with a scalar transport equation |
| COp_Conv_Centre_VDF_Face | Class Op_Conv_Centre_VDF_Face This class represents the convection operator associated with a momentum equation |
| COp_Conv_Centre_VEF_Face | Class Op_Conv_Centre_VEF_Face |
| COp_Conv_Coloc_base | |
| COp_Conv_Coloc_Elem_base | |
| COp_Conv_Coloc_Vect_base | |
| COp_Conv_DG_base | |
| COp_Conv_DI_L2_VEF_Face | Class Op_Conv_DI_L2_VEF_Face |
| COp_Conv_EF | Class Op_Conv_EF Represents the convection operator associated with a scalar transport equation |
| COp_Conv_EF_base | Class Op_Conv_EF_base |
| COp_Conv_EF_Stab_DG_Elem | |
| COp_Conv_EF_Stab_PolyMAC_CDO_Face | |
| COp_Conv_EF_Stab_PolyMAC_HFV_Elem | : class Op_Conv_EF_Stab_PolyMAC_HFV_Elem |
| COp_Conv_EF_Stab_PolyMAC_HFV_Face | |
| COp_Conv_EF_Stab_PolyMAC_MPFA_Face | |
| COp_Conv_EF_VEF_P1NC | Class Op_Conv_EF_VEF_P1NC |
| COp_Conv_EF_VEF_P1NC_Stab | Class Op_Conv_EF_VEF_P1NC_Stab |
| COp_Conv_HLL_Coloc_Elem | |
| COp_Conv_HLL_Coloc_Vect | |
| COp_Conv_kschemas_centre_VEF | Class Op_Conv_kschemas_centre_VEF |
| COp_Conv_kschemas_VEF | Class Op_Conv_kschemas_VEF |
| COp_Conv_Muscl3_VEF_Face | Class Op_Conv_Muscl3_VEF_Face |
| COp_Conv_Muscl_New_VEF_Face | Class Op_Conv_Muscl_New_VEF_Face |
| COp_Conv_Muscl_old_VEF_Face | Class Op_Conv_Muscl_old_VEF_Face |
| COp_Conv_Muscl_VEF_Face | Class Op_Conv_Muscl_VEF_Face |
| COp_Conv_negligeable | Classe Op_Conv_negligeable This class represents a negligible convection operator |
| COp_Conv_PolyMAC_CDO_base | |
| COp_Conv_PolyMAC_CDO_iterateur_base | |
| COp_Conv_Quick_VDF_Elem | Class Op_Conv_Quick_VDF_Elem This class represents the convection operator associated with a scalar transport equation |
| COp_Conv_Quick_VDF_Face | Class Op_Conv_Quick_VDF_Face This class represents the convection operator associated with a momentum equation |
| COp_Conv_Quick_VDF_Face_Axi | Class Op_Conv_Quick_VDF_Face This class represents the convection operator associated with a momentum equation |
| COp_Conv_RT_VEF_Face | Class Op_Conv_RT_VEF_Face |
| COp_Conv_Rusanov_Coloc_Elem | |
| COp_Conv_Rusanov_Coloc_Vect | |
| COp_Conv_SUPG_EF | : class Op_Conv_SUPG_EF |
| COp_Conv_VDF | |
| COp_Conv_VDF_base | Class Op_Conv_VDF_base Classe de base des operateurs de convection VDF |
| COp_Conv_VEF_base | Class Op_Conv_VEF_base |
| COp_Conv_VEF_Face | Class Op_Conv_VEF_Face |
| COp_Conv_Vort_VEF_Face | Class Op_Conv_Vort_VEF_Face |
| COp_Correlation | |
| COp_Curl_VEFP1B | |
| COp_Diff_DG_base | This class provides the common infrastructure shared by all DG diffusion operators in TRUST. It handles the association with the DG domain and its boundary conditions, the management of an effective diffusivity field (nu_), and the computation of a stable explicit time step |
| COp_Diff_DG_Elem | Concrete DG diffusion operator acting on element-based unknowns |
| COp_Diff_Dift_VDF | |
| COp_Diff_EF | Class Op_Diff_EF Represents the diffusion operator |
| COp_Diff_EF_base | Class Op_Diff_EF_base Base class for EF diffusion operators |
| COp_Diff_Eps_VDF_Elem | |
| COp_Diff_Fluctu_Temp | |
| COp_Diff_Fluctu_Temp_Base | Class Op_Diff_Fluctu_Temp_Base Sert a modeliser le terme diffusif dans l'equation de transport |
| COp_Diff_Fluctu_Temp_negligeable | |
| COp_Diff_Flux_Chaleur_Turb | |
| COp_Diff_Flux_Chaleur_Turb_Base | Class Op_Diff_Flux_Chaleur_Turb_Base Sert a modeliser le terme diffusif dans l'equation de transport |
| COp_Diff_Flux_Chaleur_Turb_negligeable | |
| COp_Diff_K_Eps_Bas_Re_VDF_base | |
| COp_Diff_K_Eps_Bas_Re_VDF_Elem | |
| COp_Diff_K_Eps_Bas_Re_VDF_Elem_Axi | |
| COp_Diff_K_Eps_Bas_Re_VDF_var_Elem | |
| COp_Diff_K_Eps_QC_VDF_Elem | |
| COp_Diff_K_Eps_QC_VEF_Face | Class Op_Diff_K_Eps_QC_VEF_Face Cette classe represente l'operateur de diffusion turbulente |
| COp_Diff_K_Eps_var_QC_VDF_Elem | |
| COp_Diff_K_Eps_var_VDF_Elem | |
| COp_Diff_K_Eps_VDF_base | |
| COp_Diff_K_Eps_VDF_Elem | |
| COp_Diff_K_Eps_VDF_Elem_Axi | |
| COp_Diff_K_Eps_VDF_Generique | |
| COp_Diff_K_Eps_VEF_base | Class Op_Diff_K_Eps_VEF_Face Cette classe represente l'operateur de diffusion turbulente |
| COp_Diff_K_Eps_VEF_Face | Class Op_Diff_K_Eps_VEF_Face Cette classe represente l'operateur de diffusion turbulente |
| COp_Diff_K_Omega_var_VDF_Elem | |
| COp_Diff_K_Omega_VDF_base | |
| COp_Diff_K_Omega_VDF_Elem | |
| COp_Diff_K_Omega_VDF_Generique | |
| COp_Diff_K_Omega_VEF_base | Class Op_Diff_K_Omega_VEF_Face Cette classe represente l'operateur de diffusion turbulente |
| COp_Diff_K_Omega_VEF_Face | |
| COp_Diff_K_VDF_Elem | |
| COp_Diff_negligeable | Classe Op_Diff_negligeable This class represents a negligible diffusion operator |
| COp_Diff_Nonlinear_PolyMAC_CDO_Elem | |
| COp_Diff_option_EF | |
| COp_Diff_P1NC_barprim | |
| COp_Diff_PolyMAC_CDO_base | |
| COp_Diff_PolyMAC_CDO_Elem | |
| COp_Diff_PolyMAC_CDO_Face | |
| COp_Diff_PolyMAC_CDO_Gen_base | Class Op_Diff_PolyMAC_CDO_Gen_base |
| COp_Diff_PolyMAC_HFV_base | Class Op_Diff_PolyMAC_HFV_base |
| COp_Diff_PolyMAC_HFV_Elem | |
| COp_Diff_PolyMAC_HFV_Face | |
| COp_Diff_PolyMAC_MPFA_base | Class Op_Diff_PolyMAC_MPFA_base |
| COp_Diff_PolyMAC_MPFA_Elem | |
| COp_Diff_PolyMAC_MPFA_Face | |
| COp_Diff_RotRot | |
| COp_Diff_Turbulent_base | Base class for diffusion operators in a turbulent flow |
| COp_Diff_Turbulent_PolyMAC_MPFA_Elem | : class Op_Diff_Turbulent_PolyMAC_MPFA_Elem |
| COp_Diff_Turbulent_PolyMAC_MPFA_Face | : class Op_Diff_Turbulent_PolyMAC_MPFA_Face |
| COp_Diff_VDF_base | Class Op_Diff_VDF_base Classe de base des operateurs de diffusion VDF |
| COp_Diff_VDF_Elem | Represents the diffusion operator with VDF discretization for scalar fields |
| COp_Diff_VDF_Elem_aniso | Represents the anisotropic diffusion operator with VDF discretization for scalar fields |
| COp_Diff_VDF_Elem_Axi | Represents the diffusion operator with VDF discretization for scalar fields in axisymmetric coordinates |
| COp_Diff_VDF_Elem_base | Class Op_Diff_VDF_Elem_base This class represents the diffusion operator associated with a transport equation |
| COp_Diff_VDF_Face | Class Op_Diff_VDF_Face This class represents the diffusion operator associated with a momentum equation |
| COp_Diff_VDF_Face_Axi | Class Op_Diff_VDF_Face_Axi This class represents the diffusion operator associated with momentum equations in cylindrical coordinates |
| COp_Diff_VDF_Face_Axi_base | |
| COp_Diff_VDF_Face_base | |
| COp_Diff_VDF_Multi_inco_Elem | Represents the diffusion operator for a multi-component field with VDF discretization |
| COp_Diff_VDF_Multi_inco_Elem_Axi | Represents the diffusion operator for a multi-component field in axisymmetric coordinates with VDF discretization |
| COp_Diff_VDF_Multi_inco_Multi_scalar_Elem | Represents the diffusion operator for a multi-component field with matrix diffusivity using VDF discretization |
| COp_Diff_VEF_Anisotrope_Face | |
| COp_Diff_VEF_base | Class Op_Diff_VEF_base |
| COp_Diff_VEF_Face | Class Op_Diff_VEF_Face |
| COp_Diff_VEF_Face_Penalise | |
| COp_Diff_VEF_Face_Q1 | Class Op_Diff_VEF_Face_Q1_Q1 |
| COp_Diff_VEF_Face_Stab | Class Op_Diff_VEF_Face_Stab |
| COp_Diff_VEFP1NCP1B_Face | Class Op_Diff_VEF_Face |
| COp_Dift_EF_base | |
| COp_Dift_EF_Q1 | Class Op_Dift_EF_Q1 Represents the diffusion operator |
| COp_Dift_EF_Q1_option | |
| COp_Dift_Multiphase_proto | |
| COp_Dift_Multiphase_VDF_Elem | |
| COp_Dift_Multiphase_VDF_Face | |
| COp_Dift_negligeable | |
| COp_Dift_Nonlinear_PolyMAC_CDO_Elem | |
| COp_Dift_PolyMAC_CDO_Elem | |
| COp_Dift_PolyMAC_MPFA_Elem | |
| COp_Dift_Stab_VEF_Face | |
| COp_Dift_standard_VEF_Face | |
| COp_Dift_VDF_base | |
| COp_Dift_VDF_Elem | |
| COp_Dift_VDF_Elem_Axi | |
| COp_Dift_VDF_Elem_base | |
| COp_Dift_VDF_Face | |
| COp_Dift_VDF_Face_Axi | |
| COp_Dift_VDF_Face_Axi_base | |
| COp_Dift_VDF_Face_base | |
| COp_Dift_VDF_Multi_inco_Elem | |
| COp_Dift_VDF_Multi_inco_Elem_Axi | |
| COp_Dift_VEF_base | |
| COp_Dift_VEF_Face | |
| COp_Dift_VEF_Face_Gen | |
| COp_Dift_VEF_Face_Q1 | |
| COp_Dift_VEF_P1NCP1B_Face | Class Op_Dift_VEF_P1NCP1B_Face |
| COp_Div_DG | Class Op_Div_DG |
| COp_Div_EF | Class Op_Div_EF |
| COp_Div_PolyMAC_CDO | Class Op_Div_PolyMAC_CDO |
| COp_Div_PolyMAC_HFV | Class Op_Div_PolyMAC_HFV |
| COp_Div_PolyMAC_MPFA | Class Op_Div_PolyMAC_MPFA |
| COp_Div_VDF_base | Class Op_Div_VDF_base Classe de base des operateurs de divergence VDF |
| COp_Div_VDF_Elem | Class Op_Div_VDF_Elem This class represents the divergence operator |
| COp_Div_VEFP1B_Elem | Class Op_Div_VEFP1B_Elem |
| COp_Ecart_type | |
| COp_EF_base | |
| COp_Evanescence_Homogene_Elem_base | Manages evanescence in an element-based equation (mass, energy, etc.) |
| COp_Evanescence_Homogene_Face_base | Manages evanescence in a face-based equation (-> QDM) |
| COp_Evanescence_Homogene_PolyMAC_HFV_Elem | |
| COp_Evanescence_Homogene_PolyMAC_HFV_Face | |
| COp_Evanescence_Homogene_PolyMAC_MPFA_Face | |
| COp_Evanescence_Homogene_VDF_Elem | |
| COp_Evanescence_Homogene_VDF_Face | |
| COp_Grad_DG | DG gradient operator acting on a DG pressure field to produce a velocity-space residual |
| COp_Grad_EF | Class Op_Grad_EF |
| COp_Grad_P0_to_Face | Class Op_Grad_P0_to_Face This class represents the gradient operator |
| COp_Grad_P1NC_to_P0 | Class Op_Grad_P1NC_to_P0 |
| COp_Grad_PolyMAC_CDO_Face | Class Op_Grad_PolyMAC_CDO_Face |
| COp_Grad_PolyMAC_HFV_Face | Class Op_Grad_PolyMAC_HFV_Face |
| COp_Grad_PolyMAC_MPFA_Face | Class Op_Grad_PolyMAC_MPFA_Face |
| COp_Grad_VDF_Face | Class Op_Grad_VDF_Face This class represents the gradient operator |
| COp_Grad_VDF_Face_base | |
| COp_Grad_VEF_P1B_Face | Class Op_Grad_VEF_P1B_Face |
| COp_Moyenne | |
| COp_NConserv_Coloc_base | |
| COp_NConserv_HLL_Coloc_Elem | |
| COp_NConserv_HLL_Coloc_Vect | |
| COp_NConserv_negligeable | |
| COp_PolyMAC_CDO_Elem | |
| COp_Rot_VEFP1B | |
| COp_VDF_Elem | |
| COp_VDF_Face | |
| COp_VEF_Face | |
| COpConvAmontIJK_double | |
| COpConvCentre2IJK_double | |
| COpConvCentre2IJKScalar_double | |
| COpConvCentre4IJK_double | |
| COpConvDiscQuickIJKScalar_double | |
| COpConvQuickIJKScalar_cut_cell_double | |
| COpConvQuickIJKScalar_double | |
| COpConvQuickInterfaceIJKScalar_double | |
| COpConvQuickInterfaceOnefluidIJKScalar_double | |
| COpConvQuickSharpIJK_double | |
| COpDiffAnisotropicIJK_double | |
| COpDiffAnisotropicIJKScalar_double | |
| COpDiffIJK_double | |
| COpDiffIJKScalar_cut_cell_double | |
| COpDiffIJKScalar_double | |
| COpDiffStdWithLaminarTransposeAndDivergenceAnisotropicIJK_double | |
| COpDiffStdWithLaminarTransposeAndDivergenceIJK_double | |
| COpDiffStdWithLaminarTransposeAndDivergenceTensorialAnisotropicZeroatwallIJK_double | |
| COpDiffStdWithLaminarTransposeAndDivergenceTensorialZeroatwallIJK_double | |
| COpDiffStdWithLaminarTransposeAnisotropicIJK_double | |
| COpDiffStdWithLaminarTransposeIJK_double | |
| COpDiffStdWithLaminarTransposeTensorialAnisotropicZeroatwallIJK_double | |
| COpDiffStdWithLaminarTransposeTensorialZeroatwallIJK_double | |
| COpDiffStructuralOnlyIJKScalar_double | |
| COpDiffStructuralOnlyZeroatwallIJK_double | |
| COpDiffTensorialAnisotropicZeroatwallIJK_double | |
| COpDiffTensorialZeroatwallIJK_double | |
| COpDiffTurbIJK_double | |
| COpDiffUniformIJKScalar_double | |
| COpDiffUniformIJKScalarCorrection_double | |
| COpDiffVectorialAnisotropicIJKScalar_double | |
| COpDiffVectorialIJKScalar_double | |
| COperateur | Class Operateur Generic class of the operator hierarchy |
| COperateur_base | Class Operateur_base This class is the base of the hierarchy of objects representing an |
| COperateur_Conv | Operateur_Conv Generic class of the hierarchy of operators representing a convection term |
| COperateur_Conv_base | Operateur_Conv_base This class is the base of the hierarchy of operators representing |
| COperateur_Conv_sensibility | : class Operateur_Conv_sensibility |
| COperateur_Conv_sensibility_VEF | : class Operateur_Conv_sensibility_VEF |
| COperateur_Diff | Operateur_Diff Generic class of the hierarchy of operators representing a diffusion |
| COperateur_Diff_base | Operateur_Diff_base This class is the base of the hierarchy of operators representing |
| COperateur_Div | Operateur_Div Generic class of the hierarchy of operators computing the divergence |
| COperateur_Div_base | Classe Operateur_Div_base This class is the base of the hierarchy of operators representing |
| COperateur_Evanescence | Operateur_Evanescence class: generic class in the operator hierarchy representing a term |
| COperateur_Evanescence_base | Generic base class in the operator hierarchy for evanescence management terms |
| COperateur_Grad | Classe Operateur_Grad Generic class of the hierarchy of operators computing the gradient |
| COperateur_Grad_base | Classe Operateur_Grad_base This class is the base of the hierarchy of operators representing |
| COperateur_IJK_data_channel | |
| COperateur_IJK_elem_base_double | |
| COperateur_IJK_elem_conv | |
| COperateur_IJK_elem_conv_base_double | |
| COperateur_IJK_elem_diff | |
| COperateur_IJK_elem_diff_base_double | |
| COperateur_IJK_faces_base_double | |
| COperateur_IJK_faces_conv | |
| COperateur_IJK_faces_conv_base_double | |
| COperateur_IJK_faces_diff | |
| COperateur_IJK_faces_diff_base_double | |
| COperateur_NConserv | |
| COperateur_NConserv_base | |
| COperateur_negligeable | Classe Opnegligeable This class defines the interface of a negligible operator |
| COperateur_Statistique_tps_base | Class Operateur_Statistique_tps_base |
| COperateurs_Statistique_tps | Class Operateurs_Statistique_tps |
| COperator_FT_Disc | : class Operator_FT_Disc |
| COpGradCentre2IJKScalar_double | |
| COpGradFluxCentre2IJKScalar_double | |
| COpGradFluxQuickIJKScalar_double | |
| COpGradQuickIJKScalar_double | |
| COpHessCentre2IJKScalar_double | |
| COpHessFluxCentre2IJKScalar_double | |
| Coption | |
| COption_CGNS | Global CGNS post-processing options |
| COption_DG | This class enable to change options for DG computation in a .data file |
| Coption_double | |
| COption_IJK | |
| Coption_int | |
| COption_Interpolation | |
| COption_PolyMAC_family | |
| Coption_string | |
| COption_VDF | |
| COpVEF_Centre | Class OpVEF_Centre |
| COpVEF_Centre4 | Class OpVEF_Centre4 |
| COpVEF_Quick | Class OpVEF_Quick |
| COrienteFacesBord_32_64 | Class OrienteFacesBord |
| COrienter_Simplexes | : class Orienter_Simplexes |
| COutputCommBuffer | Tool class used exclusively by Schema_Comm |
| Cpair | |
| CParallel_io_parameters | |
| CParam | Helper class to factorize the readOn method of Objet_U classes |
| CParametre_diffusion_implicite | Class Parametre_diffusion_implicite A Parametre_diffusion_implicite object groups together the various |
| CParametre_equation_base | Parametre_equation_base A Parametre_equation_base object groups the various |
| CParametre_implicite | Class Parametre_implicite A Parametre_implicite object groups together the various |
| CParcours_interface | |
| CParcoursIJKDir | |
| CParoi_2couches_scal_VDF | Classe Paroi_2couches_scal_VDF |
| CParoi_2couches_VDF | CLASS: Paroi_2couches_VDF |
| CParoi_adiabatique | |
| CParoi_Cisaillement_Imp_VEF | Ne pas utiliser cette classe |
| CParoi_contact | |
| CParoi_contact_fictif | |
| CParoi_contact_fictif_rayo | |
| CParoi_contact_rayo | |
| CParoi_decalee_Robin | |
| CParoi_flux_impose | |
| CParoi_flux_impose_rayo_transp | |
| CParoi_flux_impose_rayo_transp_VDF | |
| CParoi_flux_impose_rayo_transp_VEF | |
| CParoi_frottante_loi | Classe Paroi_frottante_loi Cette condition limite correspond a un flux impose pour une condition aux limites adaptative faible de l'equation de |
| CParoi_frottante_simple | Classe Paroi_frottante_simple Cette condition limite correspond a un flux impose pour une condition aux limites adaptative faible de l'equation de |
| CParoi_FT_disc | Classe Paroi_FT_disc Condition aux limites d'angle de contact pour l'equation |
| CParoi_hyd_base_EF | CLASS: Paroi_hyd_base_EF Base class for hydraulic wall laws in the EF discretization |
| CParoi_hyd_base_VDF | |
| CParoi_hyd_base_VEF | CLASS: Paroi_hyd_base_VEF |
| CParoi_Knudsen_non_negligeable | Paroi_Knudsen_non_negligeable Imposes a wall velocity slip in a Navier_Stokes type equation, |
| CParoi_log_QDM | Classe rassemblant les specificites d une loi logarithmique |
| CParoi_loi_Ciofalo_hyd_VDF | |
| CParoi_loi_WW_hyd_EF | |
| CParoi_loi_WW_hyd_VDF | |
| CParoi_loi_WW_hyd_VEF | |
| CParoi_loi_WW_scal_VDF | Classe Paroi_loi_WW_scal_VDF |
| CParoi_loi_WW_scal_VEF | Classe Paroi_loi_WW_scal_VEF |
| CParoi_negligeable_EF | |
| CParoi_negligeable_scal_EF | |
| CParoi_negligeable_scal_VDF | |
| CParoi_negligeable_scal_VEF | |
| CParoi_negligeable_VDF | |
| CParoi_negligeable_VEF | |
| CParoi_ODVM_scal_VDF | CLASS: Paroi_ODVM_scal_VDF |
| CParoi_rayo_transp | |
| CParoi_rugueuse | |
| CParoi_scal_analytique_VEF | |
| CParoi_scal_hyd_base_EF | |
| CParoi_scal_hyd_base_VDF | |
| CParoi_scal_hyd_base_VEF | |
| CParoi_std_hyd_EF | CLASS: Paroi_std_hyd_EF |
| CParoi_std_hyd_VDF | CLASS: Paroi_std_hyd_VDF |
| CParoi_std_hyd_VDF_diphasique | : class Paroi_std_hyd_VDF_diphasique |
| CParoi_std_hyd_VEF | |
| CParoi_std_hyd_VEF_3couches | CLASS: Paroi_std_hyd_VEF_3couches |
| CParoi_std_hyd_VEF_diphasique | : class Paroi_std_hyd_VEF_diphasique |
| CParoi_std_scal_hyd_EF | |
| CParoi_std_scal_hyd_VDF | Classe Paroi_std_scal_hyd_VDF |
| CParoi_std_scal_hyd_VEF | |
| CParoi_TAU_NUL_VDF | |
| CParoi_TBLE_QDM | CLASS: Paroi_TBLE_Impl |
| CParoi_TBLE_QDM_Scal | CLASS: Paroi_TBLE_QDM_Scal |
| CParoi_TBLE_scal_VDF | CLASS: Paroi_ODVM_scal_VDF |
| CParoi_Temperature_imposee | |
| CParoi_UTAU_IMP_Impl | CLASS: Paroi_UTAU_IMP_Impl |
| CParoi_UTAU_IMP_VDF | CLASS: Paroi_UTAU_IMP_VDF |
| CParoiVDF_TBLE | CLASS: ParoiVDF_TBLE |
| CParoiVDF_TBLE_LRM | CLASS: ParoiVDF_TBLE_LRM |
| CParoiVEF_TBLE | CLASS: ParoiVEF_TBLE |
| CParoiVEF_TBLE_scal | CLASS: ParoiVEF_TBLE_scal |
| CParser | Representation of data for the Parser class |
| CParser_Eval | Parser_Eval class - Evaluates the values taken by an analytic function |
| CParser_U | Class Parser_U Version of the Parser class, deriving from Objet_U |
| CParserView | |
| CPartitionneur_base_32_64 | Base class for domain partitioners (for splitting a mesh before a parallel computation) |
| CPartitionneur_Fichier_Decoupage | Partition of a domain from a disk file containing, for each element, the processor number to which that element is assigned |
| CPartitionneur_Fichier_MED | Partition of a domain from a MED file containing a field giving, for each element, the processor number to which that element is assigned |
| CPartitionneur_Metis_32_64 | Partition of a domain into nb_parties balanced parts using the METIS library |
| CPartitionneur_Parmetis | Partition of a domain into nb_parties balanced parts using the PARMETIS library |
| CPartitionneur_Partition | Domain partitioner based on the partitioning of another domain |
| CPartitionneur_Ptscotch | Partition of a domain into nb_parties balanced parts using the Ptscotch library |
| CPartitionneur_Sous_Domaine | Partitioner allowing the splitting of sub-domains (potentially overlapping) created by Create_domain_from_sub_domain in a "conforming" manner: the sub-domain is split in a way |
| CPartitionneur_Sous_Domaines | Domain partitioner based on sub-domains of the domain. See construire_partition() |
| CPartitionneur_Tranche_32_64 | Domain partitioner that splits the domain into slabs parallel to the coordinate directions |
| CPartitionneur_Union | Partitioner allowing a global domain to be split conformally with a set of already-partitioned sub-domains |
| CPave_32_64 | Class Pave A domain that is particularly easy to mesh! |
| CPb_Cahn_Hilliard | Classe Pb_Cahn_Hilliard Cette classe represente un probleme multiphase avec champs conservés (équation de Cahn-Hilliard) |
| CPb_Cahn_Hilliard_Navier_Stokes | : class Pb_Cahn_Hilliard_Navier_Stokes |
| CPb_Conduction | Class Pb_Conduction: represents a heat conduction problem with non-uniform rho and Cp: |
| CPb_Conduction_IBM | |
| CPb_Conduction_Scalaires_Passifs | |
| CPb_Couple_Optimisation_IBM | |
| CPb_Couple_rayo_semi_transp | Coupled problem class for semi-transparent radiation |
| CPb_Dilatable_base | Base class for dilatable fluid problems, factorising what is common to all dilatable problems |
| CPb_Dilatable_Proto | |
| CPb_Euler | |
| CPb_Fluide_base | Pb_Fluide_base This class provides a base class for |
| CPb_Hydraulique | Pb_Hydraulique This class represents a standard hydraulic problem in which |
| CPb_Hydraulique_Aposteriori | |
| CPb_Hydraulique_Cloned_Concentration | Classe Pb_Hydraulique_Cloned_Concentration This class represents a hydraulic problem with transport of one or more constituents: |
| CPb_Hydraulique_Cloned_Concentration_Turbulent | Turbulent hydraulics problem with cloned species-transport equations (one or more constituents) |
| CPb_Hydraulique_Concentration | Classe Pb_Hydraulique_Concentration This class represents a hydraulic problem with transport |
| CPb_Hydraulique_Concentration_Scalaires_Passifs | |
| CPb_Hydraulique_Concentration_Turbulent | Turbulent hydraulics problem with species transport (one or more concentrations) |
| CPb_Hydraulique_Concentration_Turbulent_Scalaires_Passifs | |
| CPb_Hydraulique_IBM | |
| CPb_Hydraulique_IBM_Turbulent | Turbulent hydraulic IBM problem |
| CPb_Hydraulique_List_Concentration | Classe Pb_Hydraulique_List_Concentration This class represents a hydraulic problem with transport of one or more constituents: |
| CPb_Hydraulique_List_Concentration_Turbulent | Turbulent hydraulics problem with a list of species-transport equations (one or more constituents) |
| CPb_Hydraulique_Melange_Binaire_QC | Pb_Hydraulique_Melange_Binaire_QC class This class represents a binary hydraulic problem for a quasi-compressible fluid: |
| CPb_Hydraulique_Melange_Binaire_Turbulent_QC | Turbulent binary-mixture hydraulics problem for a quasi-compressible fluid |
| CPb_Hydraulique_Melange_Binaire_WC | Pb_Hydraulique_Melange_Binaire_WC class This class represents a binary hydraulic problem for a weakly compressible fluid: |
| CPb_Hydraulique_sensibility | Classe Pb_Hydraulique_sensibility Cette classe represente un probleme hydraulique standard dans lequel |
| CPb_Hydraulique_Turbulent | Turbulent hydraulics problem |
| CPb_MED | Class Pb_MED Class for re-reading MED files and post-processing them |
| CPb_Multiphase | Multiphase thermohydraulics problem of type "3*N equations": |
| CPb_Multiphase_Enthalpie | |
| CPb_Multiphase_HEM | |
| CPb_Phase_field | Classe Pb_Phase_field Cette classe represente un probleme d'hydraulique avec transport |
| CPb_QC_base | Base class intended to factorise what is common to all quasi-compressible problems |
| CPb_rayo_semi_transp | Semi-transparent radiation problem. Pb_rayo_semi_transp is a Probleme_base with 4 specific features: |
| CPb_Thermohydraulique | Pb_Thermohydraulique This class represents a standard thermohydraulic problem: |
| CPb_Thermohydraulique_Cloned_Concentration | Pb_Thermohydraulique_Cloned_Concentration This class represents a thermohydraulic problem with concentrations: |
| CPb_Thermohydraulique_Cloned_Concentration_Turbulent | Turbulent thermohydraulics problem with cloned concentration equations |
| CPb_Thermohydraulique_Concentration | Pb_Thermohydraulique_Concentration This class represents a thermohydraulic problem with concentrations: |
| CPb_Thermohydraulique_Concentration_Scalaires_Passifs | |
| CPb_Thermohydraulique_Concentration_Turbulent | Turbulent thermohydraulics problem with species transport (one or more concentrations) |
| CPb_Thermohydraulique_Concentration_Turbulent_Scalaires_Passifs | |
| CPb_Thermohydraulique_Especes_QC | |
| CPb_Thermohydraulique_Especes_Turbulent_QC | |
| CPb_Thermohydraulique_Especes_WC | |
| CPb_Thermohydraulique_IBM | |
| CPb_Thermohydraulique_IBM_Turbulent | Turbulent thermohydraulic IBM problem |
| CPb_Thermohydraulique_List_Concentration | Pb_Thermohydraulique_List_Concentration This class represents a thermohydraulic problem with concentrations: |
| CPb_Thermohydraulique_List_Concentration_Turbulent | Turbulent thermohydraulics problem with a list of concentration equations |
| CPb_Thermohydraulique_QC | Pb_Thermohydraulique_QC class This class represents a thermohydraulic problem for a quasi-compressible fluid: |
| CPb_Thermohydraulique_Scalaires_Passifs | |
| CPb_Thermohydraulique_sensibility | : class Pb_Thermohydraulique_sensibility |
| CPb_Thermohydraulique_Turbulent | Turbulent thermohydraulics problem |
| CPb_Thermohydraulique_Turbulent_QC | Turbulent thermohydraulics problem for a quasi-compressible fluid |
| CPb_Thermohydraulique_Turbulent_Scalaires_Passifs | |
| CPb_Thermohydraulique_WC | Pb_Thermohydraulique_WC class This class represents a thermohydraulic problem for a weakly compressible fluid: |
| CPb_WC_base | Base class intended to factorise what is common to all weakly-compressible problems |
| CPbc_MED | |
| CPCShell_base | |
| CPCShell_Jacobi | |
| CPCstruct | |
| CPDC_Anisotrope_PolyMAC_CDO | |
| CPDC_Circulaire_PolyMAC_CDO | |
| CPDC_Directionnelle_PolyMAC_CDO | |
| CPDC_Isotrope_PolyMAC_CDO | |
| CPDF_model | : class PDF_model |
| CPE_Groups | This class groups functions for creating, destroying and changing the active processor group |
| CPerf_counters | This class stores and manages counters in TRUST. It is a singleton |
| CImpl | |
| CPeriodique | Class Periodique This class represents a periodic boundary condition |
| CPerte_Charge | Classe Perte_Charge This class represents a pressure drop term that is introduced |
| CPerte_Charge_Anisotrope_PolyMAC_CDO_Face | Anisotropic pressure drop (along a unit vector v and in the plane orthogonal to this vector) |
| CPerte_Charge_Anisotrope_PolyMAC_HFV_Face | |
| CPerte_Charge_Anisotrope_QC_VEF_P1NC | |
| CPerte_Charge_Anisotrope_VDF_Face | Anisotropic pressure loss (along a unit vector v and in the plane orthogonal to that vector) |
| CPerte_Charge_Anisotrope_VEF_P1NC | Anisotropic pressure drop (along a unit vector v and in the plane orthogonal to this vector) |
| CPerte_Charge_Circulaire_PolyMAC_CDO_Face | Anisotropic pressure drop (along a unit vector v and in the plane orthogonal to this vector) |
| CPerte_Charge_Circulaire_PolyMAC_HFV_Face | |
| CPerte_Charge_Circulaire_QC_VEF_P1NC | |
| CPerte_Charge_Circulaire_VDF_Face | Anisotropic pressure drop (along a unit vector v and in the plane orthogonal to it) |
| CPerte_Charge_Circulaire_VEF_P1NC | Anisotropic pressure drop (along a unit vector v and in the plane orthogonal to this vector) |
| CPerte_Charge_Directionnelle_PolyMAC_CDO_Face | Directional pressure drop (along a unit vector v) |
| CPerte_Charge_Directionnelle_PolyMAC_HFV_Face | |
| CPerte_Charge_Directionnelle_QC_VEF_P1NC | |
| CPerte_Charge_Directionnelle_VDF_Face | Directional pressure loss (along a unit vector v) |
| CPerte_Charge_Directionnelle_VEF_P1NC | Directional pressure drop (along a unit vector v) |
| CPerte_Charge_Gen | |
| CPerte_Charge_Isotrope_PolyMAC_CDO_Face | Isotropic pressure drop (proportional to -u) |
| CPerte_Charge_Isotrope_PolyMAC_HFV_Face | |
| CPerte_Charge_Isotrope_QC_VEF_P1NC | |
| CPerte_Charge_Isotrope_VDF_Face | Perte de charge isotrope (proportionnelle a -u ) |
| CPerte_Charge_Isotrope_VEF_P1NC | Isotropic pressure drop (proportional to -u) |
| CPerte_Charge_PolyMAC_CDO | Factorises the features of several pressure drop classes in VEF, face velocity |
| CPerte_Charge_PolyMAC_CDO_Face | |
| CPerte_Charge_PolyMAC_HFV | |
| CPerte_Charge_Reguliere | Classe Perte_Charge_Reguliere This class derived from Perte_Charge is used when one wants |
| CPerte_Charge_Reguliere_QC_VDF_Face | |
| CPerte_Charge_Reguliere_QC_VEF_P1NC | |
| CPerte_Charge_Reguliere_VDF_Face | Class Perte_Charge_Reguliere_VDF_Face |
| CPerte_Charge_Reguliere_VEF_P1NC | Class Perte_Charge_Reguliere_VEF_P1NC |
| CPerte_Charge_Singuliere | Classe Perte_Charge_Singuliere This class derived from Perte_Charge is used when one wants |
| CPerte_Charge_Singuliere_PolyMAC_CDO_Face | Class Perte_Charge_Singuliere_PolyMAC_CDO_Face |
| CPerte_Charge_Singuliere_PolyMAC_HFV_Face | Class Perte_Charge_Singuliere_PolyMAC_HFV_Face |
| CPerte_Charge_Singuliere_QC_VDF_Face | |
| CPerte_Charge_Singuliere_QC_VEF_P1NC | |
| CPerte_Charge_Singuliere_VDF_Face | Class Perte_Charge_Singuliere_VDF_Face |
| CPerte_Charge_Singuliere_VEF_Face | Class Perte_Charge_Singuliere_VEF_Face |
| CPerte_Charge_VDF_base | Factorizes the functionalities of several pressure drop terms in VEF, velocity at faces |
| CPerte_Charge_VDF_Face | |
| CPerte_Charge_VEF | Factorizes the common functionality of several pressure drop operators in VEF, velocity at faces |
| CPerte_Charge_VEF_Face | Class Perte_Charge_VEF_Face |
| CPilote_ICoCo | Class Pilote_ICoCo Example of driving TRUST via ICoCo in C++ |
| Cpipe_deleter | |
| CPiso | |
| CPlaqThVDF | Class PlaqThVDF |
| CPNode | |
| CPNodePod | |
| CPoint2D | |
| CPoint3D | |
| CPoint_32_64 | Class Point: represents the geometric element point |
| CPoint_EF | |
| CPoly_geom_base_32_64 | Base class for polyedrons and polygons. Connectivity is stored in descending mode: |
| CPolyedre_32_64 | Class Polyedre: represents the Polyedre geometric element |
| CPolyedre_poly | |
| CPolyedriser_32_64 | Polyedriser Class intended to convert a hexahedron into a polyhedron |
| CPolygon_geom_data | |
| CPolygone_32_64 | Class Polygone represents the geometric element Polygone |
| CPolygone_poly | : class Polygone_poly |
| CPolyMAC_CDO_discretisation | |
| CPolyMAC_HFV_discretisation | |
| CPolyMAC_MPFA_discretisation | |
| CPolynome | Polynomial in n variables, n <= 4. Coefficients are stored using a DoubleTab |
| CPoolImpl_ | The shared pools of memory - visibility: here only |
| CPorosites | |
| CPorosites_champ | Porosites_champ nom_pb champ: assigns the field champ to the volumetric porosity of the domain of problem nom_pb, then computes surface porosities as a harmonic mean |
| CPortance_interfaciale_base | Base class for interfacial lift force operators of the form: |
| Cinput_t | |
| Coutput_t | |
| CPortance_interfaciale_Constante | Constant interfacial lift coefficient for bubbly flows for analytical validation |
| CPortance_interfaciale_PolyMAC_MPFA | |
| CPortance_interfaciale_Sugrue | Interfacial lift coefficients for deformable bubbly flows (Sugrue/Tomiyama model) |
| CPortance_interfaciale_Sugrue_Modifiee | Modified Sugrue lift coefficient for deformable bubbly flow |
| CPortance_interfaciale_Tomiyama | Interfacial lift coefficients for a deformable bubbly flow (Tomiyama model) |
| CPortance_interfaciale_Tomiyama_complet | Tomiyama lift coefficient for deformable bubbly flow |
| CPortance_interfaciale_VDF | |
| CPost_Processing_Hydrodynamic_Forces | |
| CPost_Processing_Hydrodynamic_Forces_Stokes | |
| CPostprocessing_IJK | |
| CPostraitement | Class Postraitement. The class holds -a list of generic fields champs_post_complet_ containing |
| CPostraitement_base | Base class for all post-processing objects |
| CPostraitement_ft_lata | |
| CPostraitement_FTD | |
| CPostraitement_FTD_base | |
| CPostraitements | |
| CPostraiter_domaine | Postraiter_domaine allows to write one or more domains in a file with a specified format (MED,LML,LATA,SINGLE_LATA,CGNS) |
| CPotentiel_Binaire | |
| CPotentiel_Chimique_base | |
| CPotentiel_Expression | |
| CPotentiel_Multicouche | |
| CPotentiel_Quaternaire_Corium | |
| CPotentiel_Ternaire_Corium | |
| CPrecisionGeom | Class PrecisionGeom This class is an interpreter that reads the space dimension |
| CPrecond_base | |
| CPrecond_local | |
| CPrecondA | |
| CPrecondSolv | |
| CPred_Cor | Class Pred_Cor The scheme must be used with an alternating spatial scheme |
| CPrePostNN | |
| CPrepro_IBM_base | |
| CPrepro_IBM_Ponderation | |
| CPrepro_IBM_Uzawa | |
| CPrisme_32_64 | Class Prisme: represents the geometric element Prism |
| CProbleme_base | Class Probleme_base It is a Probleme_U that is not a coupling |
| CProbleme_base_interface_proto | |
| CProbleme_Couple | Probleme_Couple This is the historical coupling class of TRUST |
| CProbleme_Couple_Point_Fixe | |
| CProbleme_Elasticite_Lineaire | Linear elasticity problem |
| CProbleme_FT_Disc_gen | |
| CProbleme_FTD_IJK | |
| CProbleme_FTD_IJK_base | |
| CProbleme_FTD_IJK_cut_cell | |
| CProbleme_U | Probleme_U |
| CProblemTrio | Class ProblemTrio |
| CProcess | Base class of TRUST (in particular Objet_U) |
| CProduction_echelle_temp_taux_diss_turb_PolyMAC_MPFA | Classe Production_echelle_temp_taux_diss_turb_PolyMAC_MPFA Cette classe implemente dans PolyMAC_MPFA un operateur de production de l'échelle de temps turbulente tau ou du taux de dissipation turbulent omega |
| CProduction_echelle_temp_taux_diss_turb_VDF | Classe Production_echelle_temp_taux_diss_turb_VDF |
| CProduction_energie_cin_turb_PolyMAC_MPFA | Classe Production_energie_cin_turb_PolyMAC_MPFA Cette classe implemente dans PolyMAC_MPFA un operateur de production d'énergie cinetique turbulente k |
| CProduction_energie_cin_turb_VDF | Classe Production_energie_cin_turb_VDF |
| CProduction_HZDR_PolyMAC_MPFA | Classe Production_HZDR_PolyMAC_MPFA : Cette classe implemente, dans PolyMAC_MPFA, la production de BIA dans l'equation de k. L'agitation induite par les bulles (BIA) est prise en compte dans l'équation de k grace à un terme de production. Ce modèle est donné par Roland Rzehak et Eckhard Krepper (2013) du HZDR (d'où le nom donné au modèle) |
| CProduction_WIT_PolyMAC_MPFA | Classe Production_WIT_PolyMAC_MPFA Cette classe implemente dans PolyMAC_MPFA la production de l'equation de WIT |
| CProjection_ALE_boundary | |
| CProprietes_part_vol | Classe qui porte les proprietes de particules |
| CptrParam | PtrParam class: contains a name and a reference to an int, double, flag, an Objet_U to read, or an Objet_U on which lire_motcle_non_standard must be called |
| CPuissance_Thermique_EF | Class Puissance_Thermique_EF |
| CPuissance_Thermique_QC_EF | Class Puissance_Thermique_QC_EF |
| CQDM_Multiphase | Carries the terms of the momentum equation for multiphase flow without turbulence modelling |
| CQuadrangle_VEF_32_64 | Quadrangle_VEF class — represents the Quadrangle_VEF geometric element |
| CQuadrature_base | |
| CQuadrature_Ord1_Polygone | |
| CQuadrature_Ord3_Polygone | |
| CQuadrature_Ord5_Polygone | |
| CQuadri_EF | |
| CQuadri_poly | |
| CQuadri_VEF | |
| CRaccord_base_32_64 | Class Raccord_base This class is simply a boundary; it is the base class of the |
| CRaccord_distant_32_64 | Class Raccord_distant This class represents a connector between 2 problems where one is solved by TRUST and the other by an external code |
| CRaccord_distant_homogene_32_64 | |
| CRaccord_local_32_64 | Class Raccord_local This class represents a connector between 2 problems solved by TRUST |
| CRaccord_local_homogene_32_64 | Class Raccord_local_homogene This class represents a Raccord_local where the meshes on both sides coincide |
| CRaccords_32_64 | Class Raccords This represents a list of Raccord type objects |
| CRaffiner_anisotrope_32_64 | Class Raffiner_anisotrope Produces a mesh by splitting each tetrahedron into 4 new tetrahedra |
| CRaffiner_isotrope_parallele | Refine the mesh once it has been partitionned, in a parallel fashion |
| CRaffiner_Simplexes_32_64 | : class Raffiner_Simplexes |
| CRandom_process | |
| CRayo_semi_transp_solver_base | |
| CRayo_semi_transp_solver_VDF | |
| CRayo_semi_transp_solver_VEF | |
| CReaction | |
| CRead_MED_For_Testing_No_Verify_Option | |
| CRead_unsupported_ASCII_file_from_ICEM | |
| CRectangle_2D_axi_32_64 | Class Rectangle_2D_axi: represents the deformed rectangle in |
| CRectangle_32_64 | Rectangle class — represents the rectangular geometric element |
| CRectangle_axi_32_64 | Class Rectangle_axi: represents the deformed rectangle in |
| CRectify_Mesh | : class Rectify_Mesh |
| CRedistribute_Field | |
| CRedresser_hexaedres_vdf | Class Redresser_hexaedres_vdf Produces a mesh by splitting each tetrahedron into 4 new tetrahedra |
| CRefine_Mesh | : class Refine_Mesh |
| CRegroupeBord_32_64 | Class RegroupeBord Regroupe_bord dom titi { bord1 , bord2 } |
| CRemaillage_FT | : class Remaillage_FT Cette classe implemente les procedures de remaillage des interfaces pour le Front-Tracking : |
| CRemaillage_FT_IJK | |
| CRemailleur_Collision_FT_base | Classe Remailleur_Collision_FT_base Classe de base pour la hierarchie des remailleurs d'interfaces entrees en collision |
| CRemailleur_Collision_FT_Juric | Classe Remailleur_Collision_FT_Juric Classe implementant un remailleur d'interfaces entrees en collision et |
| CRemailleur_Collision_FT_Thomas | : class Remailleur_Collision_FT_Thomas Cette classe implemente les procedures de remaillage des interfaces pour le Front-Tracking : |
| CRemove_elem | Class Remove_elem Removes from the mesh the elements specified by the user in the data set |
| CRemove_Invalid_Internal_Boundaries | Allows to remove internal boundary from a domain, ie boundary which faces are actually used in two elements |
| CReorder_Mesh | Reorder_Mesh allows the user to trigger the renumbering of the mesh entities |
| CReordonner_32_64 | Class Reordonner This class is an interpreter used to reorder the nodes of a domain |
| CReordonner_faces_periodiques_32_64 | This interpreter reorders the faces of a periodic boundary according to the convention used in the partitioner |
| CReorienter_tetraedres_32_64 | Class Reorienter_tetra Sweeps through the mesh tetrahedra to ensure they are positively oriented |
| CReorienter_triangles_32_64 | Class Reorienter_triangle Sweeps through the mesh triangles to ensure they are positively oriented |
| CResoudre | Resoudre Interpreter that solves a problem: |
| CReynolds_maille_Champ_Face | |
| CRK2 | : class RK2 This class represents a second-order Runge-Kutta time scheme, case 1 of Williamson, written as: |
| CRK2_Classique | : class RK2_Classique This class represents a classical second-order Runge-Kutta time scheme: |
| CRK3 | : class RK3 This class represents a third-order Runge-Kutta time scheme, case 7 of Williamson, written as: |
| CRK3_Classique | : class RK3_Classique This class represents a classical third-order Runge-Kutta time scheme: |
| CRK3_FT | Classe RK3 Cette classe represente un schema en temps de Runge Kutta d'ordre 3 |
| CRK4 | : class RK4 This class represents a degenerate fourth-order Runge-Kutta time scheme (three-point scheme), case 17 of Williamson, written as: |
| CRK4_Classique | : class RK4_Classique This class represents a classical fourth-order Runge-Kutta time scheme: |
| CRK4_Classique_3_8 | : class RK4_Classique_3_8 This class represents a classical fourth-order Runge-Kutta time scheme with 3/8 rule coefficients: |
| CRobin_VEF | Class Robin_VEF for Robin boundary conditions |
| CRotation | Class Rotation Applies a rotation around an axis aligned with one of the coordinate axes |
| CRotationnel_Champ_Face | Class Rotationnel_Champ_Face |
| CRotationnel_Champ_P1_EF | |
| CRotationnel_Champ_P1NC | |
| CRotationnel_Champ_Q1_EF | |
| CRotationnel_Champ_Q1NC | |
| CRoue | Roue class used in Champ_Inc_Base |
| CRoue_ptr | Pointer to a wheel |
| CRRK2 | : class RRK2 This class represents a second-order rational Runge-Kutta scheme: |
| CRTabInt | Class RTabInt - Implements a resizable integer vector |
| CRupture_bulles_1groupe_base | |
| CRupture_bulles_1groupe_PolyMAC_MPFA | Classe Rupture_bulles_1groupe_PolyMAC_MPFA |
| CRupture_bulles_1groupe_Yao_Morel | Model for bubble breakup from Yao and Morel (2003) |
| CRupture_bulles_2groupes_base | |
| CRupture_bulles_2groupes_PolyMAC_MPFA | Classe Rupture_bulles_2groupes_PolyMAC_MPFA |
| CRupture_bulles_2groupes_Smith | Two-group bubble breakup source terms using the Smith model |
| CSaturation_base | |
| CSaturation_constant | |
| CSaturation_eau_c3 | |
| CSaturation_generique_CoolProp | |
| CSaturation_generique_EOS | |
| CSaturation_generique_TPPI_base | |
| CSaturation_R12_c1 | |
| CSaturation_sodium | |
| CSauvegarde_Reprise_Maillage_FT | |
| CSave_Restart | |
| CScalaire_impose_paroi | Scalaire_impose_paroi Imposes a scalar at the wall in a Convection-Diffusion equation for a scalar |
| CScalarRegister | : class ScalarRegister |
| CScatter | |
| CScatterMED | |
| CSch_CN_EX_iteratif | Extended iterative Crank-Nicolson scheme with additional stabilisation tricks |
| CSch_CN_iteratif | Time scheme alternating a half implicit Euler step and a half LeapFrog step |
| CSChaine | This class, derived from Sortie, accumulates what is sent to it into a character string |
| CSchema_Adams_Bashforth_base | Schema_Adams_Bashforth_base |
| CSchema_Adams_Bashforth_order_2 | Class Schema_Adams_Bashforth_order_2 This class represents a variable time-step second-order Adams-Bashforth time scheme: |
| CSchema_Adams_Bashforth_order_3 | Class Schema_Adams_Bashforth_order_3 This class represents a variable time-step third-order Adams-Bashforth time scheme: |
| CSchema_Adams_Moulton_base | |
| CSchema_Adams_Moulton_order_2 | |
| CSchema_Adams_Moulton_order_3 | |
| CSchema_Backward_Differentiation_base | Base class for Backward Differentiation Formula (BDF) time schemes |
| CSchema_Backward_Differentiation_order_2 | Second-order Backward Differentiation Formula (BDF2) time scheme: |
| CSchema_Backward_Differentiation_order_3 | Third-order Backward Differentiation Formula (BDF3) time scheme |
| CSchema_Cahn_Hilliard | Class Schema_Cahn_Hilliard. Il herite de schema Euler semi implicite et ne s'applique qu'à Cahn-Hilliard simple |
| CSchema_Cahn_Hilliard_Navier_Stokes | : class Schema_CH_NS_Partitionne |
| CSchema_Comm | |
| CSchema_Comm_statique | |
| CSchema_Comm_Vecteurs | |
| CSchema_Comm_Vecteurs_Static_Data | Static data shared by all Schema_Comm_Vecteur classes, with destructor to free memory at end of execution |
| CSchema_Euler_explicite | : class Schema_Euler_explicite This class represents an explicit Euler time scheme: U(n+1) = U(n) + dt*(dU/dt)(n) |
| CSchema_Euler_explicite_IJK | Explicit Euler scheme for IJK setups |
| CSchema_Euler_Implicite | |
| CSchema_Euler_Implicite_Stationnaire | |
| CSchema_Euler_Semi_Implicite | Class Schema_Euler_Semi_Implicite Il herite de schema Euler implicite et porte un solveur, linéaire ou non linéaire. Le principe repose sur une interpolation temporelle (schéma theta) des champs entre les pas de temps n et n+1. Pour un champ u(n), on écrit : u(n+theta) = theta * u(n+1) + (1-theta) * u(n) Si theta = 1, on a bien un schéma entièrement implicite, si theta = 0, schema explicite (ATTENTION CEPENDANT à la valeur theta=0). introduit un coefficient theta d'interpolation temporelle |
| CSchema_Explicite_Multi_TimeStep_base | Schema_Explicite_Multi_TimeStep_base |
| CSchema_Implicite_base | Class Schema_Implicite_base Base class for all implicit time schemes |
| CSchema_Implicite_Multi_TimeStep_base | |
| CSchema_Phase_field | Classe Schema_Phase_field |
| CSchema_RK3_IJK | |
| CSchema_Temps_base | Class Schema_Temps_base |
| CSchema_Temps_IJK_base | |
| CSchema_Temps_Inutile | Class Schema_Temps_Inutile |
| CSegment_32_64 | Class Segment: represents the geometric element segment |
| CSegment_axi_32_64 | : class Segment_axi |
| CSegment_EF | |
| CSegment_EF_axi | : class Segment_EF_axi |
| CSegment_poly | |
| CSenseur_Interface | |
| CSeparateur | Separator for output streams |
| CSETS | SETS scheme (semi-implicit + stabilisation steps, TRACE-style) |
| CSFichier | SFichier is to the C++ ofstream class what Sortie is to the C++ ostream class |
| CSFichierBin | Writes objects to a file in binary format |
| CSimd_Array_template | |
| CSimd_MatrixArray_template | |
| CSimd_template | This class provides a generic access to simd operations on x86, x86 AMD and ARM architectures |
| CSimd_VectorArray_template | |
| CSimple | |
| CSimpler | |
| CSimpler_Base | |
| CSNES_JFNK | Classe SNES_JFNK |
| CSolid_Particle_arbitrary | |
| CSolid_Particle_base | : class Solid_Particle |
| CSolid_Particle_sphere | |
| CSolid_Particle_spheroid | |
| CSolide | Class Solide: represents a solid medium and its physical properties |
| CSolv_AMG | AMD solver wrapper to switch to the more robust/performant AMG preconditioner on CPU/GPU Nvidia/GPU AMD and have datafile unicity, as changing solver/preconditioner for different architecture is painful |
| CSolv_AMGX | |
| CSolv_Cholesky | |
| CSolv_cuDSS | |
| CSolv_Externe | Common stuff for several external solvers |
| CSolv_GCP | |
| CSolv_GCP_NS | |
| CSolv_Gmres | |
| Csolv_iteratif | |
| CSolv_Optimal | |
| CSolv_Petsc | |
| CSolv_Petsc_GPU | |
| CSolv_TDMA | |
| CSolv_tools | |
| CSolver_moving_mesh_ALE | Classe Solver_moving_mesh_ALE {Into the |
| CSolveur_Implicite_base | |
| CSolveur_lineaire | Class Solveur_lineaire |
| CSolveur_Lineaire_Std | |
| CSolveur_Masse_base | Solveur_Masse_base Represents the mass matrix of an equation |
| CSolveur_Masse_EF | |
| CSolveur_Masse_Elem_proto | |
| CSolveur_Masse_Face_proto | |
| CSolveur_Newmark | Newmark time integration scheme for linear elasticity |
| CSolveur_non_lineaire | Class Solveur_non_lineaire |
| CSolveur_U_P | |
| CSolveurPP1B | |
| CSolveurSys | Class SolveurSys A SolveurSys represents any class |
| CSolveurSys_base | |
| CSommet | |
| CSonde | Class Sonde. This class allows tracking the evolution of a field over time |
| CSonde_IJK | Class Sonde_IJK |
| CSonde_Int | Class Sonde_Int |
| CSondes | Class Sondes |
| CSondes_Int | Class Sondes_Int |
| CSortie | Base class for output streams |
| CSortie_Brute | This derived class of Sortie stacks whatever it receives in an internal binary buffer |
| CSortie_Fichier_base | |
| CSortie_libre_Gradient_Pression_impose | Class Sortie_libre_Gradient_Pression_impose |
| CSortie_libre_Gradient_Pression_impose_VEF | Sortie_libre_Gradient_Pression_impose_VEF |
| CSortie_libre_Gradient_Pression_impose_VEFPreP1B | Sortie_libre_Gradient_Pression_impose_VEFPreP1B |
| CSortie_libre_Gradient_Pression_libre_VEF | |
| CSortie_libre_Gradient_Pression_libre_VEFPreP1B | |
| CSortie_libre_pression_imposee | Sortie_libre_pression_imposee This class derives from Neumann_sortie_libre |
| CSortie_libre_Pression_imposee_Orlansky | Class Sortie_libre_Pression_imposee_Orlansky |
| CSortie_libre_pression_imposee_QC | Open boundary with imposed pressure condition, derived from Neumann_sortie_libre |
| CSortie_libre_pression_moyenne_imposee | Sortie_libre_pression_moyenne_imposee This class derives from Neumann_sortie_libre |
| CSortie_libre_rho_variable | Condition aux limites derivant de Sortie_libre_pression_imposee |
| CSortie_libre_Text_H_ext | Neumann_sortie_libre This class represents an open boundary without imposed velocity |
| CSortie_Nulle | Derived class of Sortie that sends data nowhere (it is a sink). Used in Journal() when logging is disabled |
| CSortie_supersonique | |
| CSource | Source Generic class of the source term hierarchy. A Source object can |
| CSource_Action_Particules | Classe Source_Action_Particules Classe mere des classes designant une force exercee par le fluide sur une particule |
| CSource_base | Source_base A Source_base object is a term appearing on the right-hand side of an |
| CSource_BIF_PolyMAC_MPFA | Classe Source_BIF_PolyMAC_MPFA Cette classe implemente dans PolyMAC_MPFA un terme source qui ajoute la contribution du BIF au second membre de la QDM |
| CSource_Chaleur_Fluide_Dilatable_base | Additional source term for the heat equation when the fluid is quasi-compressible |
| CSource_Con_Phase_field | |
| CSource_Con_Phase_field_base | Class Source_Con_Phase_field_base |
| CSource_Con_Phase_field_Binaire | |
| CSource_Con_Phase_field_Binaire_Compact | |
| CSource_Con_Phase_field_Naire | |
| CSource_Darcy_VDF_Face | Class Source_Darcy_VDF_Face This class represents the Darcy term for flows in porous media |
| CSource_Darcy_VEF_Face | Class Source_Darcy_VEF_Face |
| CSource_dep_inco_base | Class Source_dep_inco_base Sources inheriting from this class must implement ajouter_ in a way that allows implicit treatment of the diffusion term. The goal is to express the source in the form f(un)*uk. ajouter(resu)=ajouter_(inco,resu), and in ajouter_ we use inco for uk, inconnue.valeurs() for Un, see Perte_Charge_Singuliere_VDF_Face.cpp |
| CSource_Diffusion_croisee_echelle_temp_taux_diss_turb | Class Source_Diffusion_croisee_echelle_temp_taux_diss_turb |
| CSource_Diffusion_supplementaire_echelle_temp_turb | Classe Source_Diffusion_supplementaire_echelle_temp_turb Cette classe implemente la diffusion supplementaire venant de l'introduction du temps tau |
| CSource_Dirac_VDF_Elem | Class Source_Dirac_VDF_Elem This class represents a Dirac source term |
| CSource_Dirac_VEF_Face | Class Terme_Source_Dirac_VEF_Face |
| CSource_Dispersion_bulles_base | Turbulent dispersion operator of the form: |
| CSource_Dissipation_echelle_temp_taux_diss_turb | Class Source_Dissipation_echelle_temp_taux_diss_turb |
| CSource_Dissipation_energie_cin_turb | Class Source_Dissipation_energie_cin_turb |
| CSource_Dissipation_HZDR_PolyMAC_MPFA | Classe Source_Dissipation_HZDR_PolyMAC_MPFA : Cette classe implemente, dans PolyMAC_MPFA, le terme source de BIA dans l'equation de omega. L'agitation induite par les bulles (BIA) est prise en compte dans l'équation de omega grace à un terme source. Ce modèle est donné par Roland Rzehak et Eckhard Krepper (2013) du HZDR (d'où le nom donné au modèle). Attention !! codé uniquement pour k-omega, mais peut adapter facilement avec les changements de variable : tau = 1/omega et epsilon = C_mu*k*omega |
| CSource_Echange_Th_VDF | Class Source_Echange_Th_VDF Source volumique d'echange thermique avec un autre probleme de meme domaine |
| CSource_Flottabilite | Class Source_Flottabilite Calcul de la force de flottabilite (expression vectorielle) : |
| CSource_Fluide_Dilatable_Face | |
| CSource_Fluide_Dilatable_VDF_Proto | |
| CSource_Fluide_Dilatable_VEF_Proto | |
| CSource_Flux_interfacial_base | Interfacial flux source term (implemented in PolyMAC_HFV) of the form: |
| CSource_Force_Tchen_base | Tchen force in a multiphase flow |
| CSource_Forchheimer_VDF_Face | Class Source_Forchheimer_VDF_Face This class represents the Forchheimer term for flows in porous media |
| CSource_Forchheimer_VEF_Face | Class Source_Forchheimer_VEF_Face |
| CSource_Frottement_interfacial_base | Interfacial friction source term of the form: |
| CSource_Generique_base | Source_Generique_base This class is the base of the source term hierarchy carrying |
| CSource_Generique_Face_PolyMAC_CDO | |
| CSource_Generique_Face_PolyMAC_HFV | |
| CSource_Generique_P0_Elem | Class Source_Generique_VDF_Elem |
| CSource_Generique_VDF_Face | Class Source_Generique_VDF_Face |
| CSource_Generique_VEF | Class Source_Generique_VEF |
| CSource_Gravite_Fluide_Dilatable_base | Additional gravity source term for the momentum equation when the fluid is dilatable |
| CSource_Gravite_PF_VDF | Class Source_Gravite_PF_VDF |
| CSource_injection_masse_base | |
| CSource_injection_QDM_base | Classe Injection_QDM_nulle_VDF Correction de la QDM d'un fluide de l'écoulement quand on en injecte |
| CSource_Masse_Ajoutee | Class Source_Masse_Ajoutee Calcul de la force de masse ajoutee (expression vectorielle) : |
| CSource_Masse_Fluide_Dilatable_base | Special mass source term for the mass equation (used only during the projection/correction step) |
| CSource_Masse_Fluide_Dilatable_VDF | |
| CSource_Masse_Fluide_Dilatable_VEF | |
| CSource_Meca_Grad_Pression_Thermique_EF | Source term coupling the pressure gradient and thermal expansion for the thermomechanical formulation |
| CSource_Neutronique | Class Source_Neutronique |
| CSource_Neutronique_VDF | Class Source_Neutronique_VDF This class is the VDF implementation of the source term |
| CSource_PDF_base | Class Source_PDF_base Base class for the source terms for the penalisation of the momentum in the Immersed Boundary Method (IBM) |
| CSource_PDF_EF | |
| CSource_PDF_VDF | |
| CSource_PDF_VEF | |
| CSource_Portance | Class Source_Portance Calcul de la force de portance (expression vectorielle) : |
| CSource_Portance_interfaciale_base | Interfacial lift force source term of the form: |
| CSource_Production_echelle_temp_taux_diss_turb | Classe Source_Production_echelle_temp_taux_diss_turb Classe de base pour un operateur de production de l'échelle de temps turbulente tau ou du taux de dissipation turbulent omega |
| CSource_Production_energie_cin_turb | Classe Source_Production_energie_cin_turb Classe de base pour les operateur de production d'énergie cinetique turbulente k |
| CSource_QC_Chaleur | Class Source_QC_Chaleur |
| CSource_QC_Chaleur_VDF | Class Source_QC_Chaleur_VDF |
| CSource_QC_Chaleur_VEF | Class Source_QC_Chaleur_VEF |
| CSource_QC_Chaleur_Verif | Class Source_QC_Chaleur_Verif |
| CSource_QC_Chaleur_Verif_VEF | |
| CSource_QC_Chaleur_Verif_VEF_P1NC | |
| CSource_QC_Gravite_VDF | Class Source_QC_Gravite_VDF |
| CSource_QC_Gravite_VEF | Class Source_QC_Gravite_VEF |
| CSource_QC_QDM_Gen | Derived classes compute a source term for the QC momentum equation |
| CSource_Qdm_EF | Class Source_Qdm_EF |
| CSource_qdm_QC_VDF_Face | |
| CSource_qdm_QC_VEF_P1NC | |
| CSource_Qdm_VDF_Phase_field | Class Source_Qdm_VDF_Phase_field |
| CSource_rayo_semi_transp_base | Source_rayo_semi_transp_base Base class of the source term hierarchy for the temperature |
| CSource_rayo_semi_transp_VDF | |
| CSource_rayo_semi_transp_VEF | |
| CSource_Reaction_Particules | Classe Source_Reaction_Particules Calcul du terme source a ajouter dans Navier_Stokes pour prendre en compte |
| CSource_Reaction_Particules_VDF | Classe Source_Reaction_Particules_VDF |
| CSource_Reaction_Particules_VEF | Classe Source_Reaction_Particules_VEF |
| CSource_Robin | |
| CSource_Robin_Scalaire | |
| CSource_Scalaire_EF | Class Source_Scalaire_EF |
| CSource_Trainee | Class Source_Trainee |
| CSource_Transport_Bas_Reynolds_VDF_Elem_base | |
| CSource_Transport_Eps_aniso_concen_VEF_Face | |
| CSource_Transport_Eps_aniso_therm_concen_VDF_Elem | |
| CSource_Transport_Eps_aniso_therm_concen_VEF_Face | |
| CSource_Transport_Eps_anisotherme_VDF_Elem | |
| CSource_Transport_Eps_anisotherme_VEF_Face | |
| CSource_Transport_Eps_concen_VDF_Elem | |
| CSource_Transport_Eps_Realisable_aniso_concen_VDF_Elem | |
| CSource_Transport_Eps_Realisable_aniso_concen_VEF_Face | |
| CSource_Transport_Eps_Realisable_aniso_therm_concen_VDF_Elem | |
| CSource_Transport_Eps_Realisable_aniso_therm_concen_VEF_Face | |
| CSource_Transport_Eps_Realisable_anisotherme_VDF_Elem | |
| CSource_Transport_Eps_Realisable_anisotherme_VEF_Face | |
| CSource_Transport_Eps_Realisable_VDF_Elem | |
| CSource_Transport_Eps_Realisable_VEF_Face | |
| CSource_Transport_Eps_VDF_Elem | Class Source_Transport_Eps_VDF_Elem Cette classe represente le terme source qui figure dans l'equation de transport du couple (k,eps) dans le cas ou les equations de Navier-Stokes |
| CSource_Transport_Eps_VEF_Face | Class Source_Transport_Eps_VEF_Face Cette classe represente le terme source qui figure dans l'equation |
| CSource_Transport_Fluctuation_Temperature_VDF_Elem | |
| CSource_Transport_Fluctuation_Temperature_W_Bas_Re_VDF_Elem | |
| CSource_Transport_Fluctuation_Temperature_W_VDF_Elem | |
| CSource_Transport_Flux_Chaleur_Turbulente_VDF_Face | |
| CSource_Transport_K_aniso_concen_VEF_Face | |
| CSource_Transport_K_aniso_therm_concen_VDF_Elem | |
| CSource_Transport_K_aniso_therm_concen_VEF_Face | |
| CSource_Transport_K_anisotherme_VDF_Elem | |
| CSource_Transport_K_anisotherme_VEF_Face | |
| CSource_Transport_K_concen_VDF_Elem | |
| CSource_Transport_K_Eps_aniso_concen_VEF_Face | |
| CSource_Transport_K_Eps_aniso_therm_concen_VDF_Elem | |
| CSource_Transport_K_Eps_aniso_therm_concen_VEF_Face | |
| CSource_Transport_K_Eps_anisotherme_VDF_Elem | |
| CSource_Transport_K_Eps_anisotherme_VEF_Face | |
| CSource_Transport_K_Eps_Bas_Reynolds_aniso_therm_concen_VDF_Elem | |
| CSource_Transport_K_Eps_Bas_Reynolds_anisotherme_QC_VDF_Elem | Class Source_Transport_K_Eps_Bas_Reynolds_anisotherme_QC_VDF_Elem Cette classe represente le terme source qui figure dans l'equation de transport du couple (k,eps) dans le cas ou les equations de Navier_Stokes |
| CSource_Transport_K_Eps_Bas_Reynolds_anisotherme_VDF_Elem | Class Source_Transport_K_Eps_Bas_Reynolds_anisotherme_VDF_Elem Cette classe represente le terme source qui figure dans l'equation de transport du couple (k,eps) dans le cas ou les equations de Navier_Stokes sont couplees |
| CSource_Transport_K_Eps_Bas_Reynolds_anisotherme_VEF_Face | |
| CSource_Transport_K_Eps_Bas_Reynolds_anisotherme_W_VDF_Elem | Class Source_Transport_K_Eps_Bas_Reynolds_anisotherme_W_VDF_Elem Cette classe represente le terme source qui figure dans l'equation de transport du couple (k,eps) dans le cas ou les equations de Navier_Stokes |
| CSource_Transport_K_Eps_Bas_Reynolds_VDF_Elem | |
| CSource_Transport_K_Eps_Bas_Reynolds_VEF_Face | |
| CSource_Transport_K_Eps_Bas_Reynolds_W_VDF_Elem | |
| CSource_Transport_K_Eps_concen_VDF_Elem | |
| CSource_Transport_K_Eps_Realisable_aniso_concen_VDF_Elem | |
| CSource_Transport_K_Eps_Realisable_aniso_concen_VEF_Face | |
| CSource_Transport_K_Eps_Realisable_aniso_therm_concen_VDF_Elem | |
| CSource_Transport_K_Eps_Realisable_aniso_therm_concen_VEF_Face | |
| CSource_Transport_K_Eps_Realisable_anisotherme_VDF_Elem | |
| CSource_Transport_K_Eps_Realisable_anisotherme_VEF_Face | |
| CSource_Transport_K_Eps_Realisable_VDF_Elem | |
| CSource_Transport_K_Eps_Realisable_VEF_Face | |
| CSource_Transport_K_Eps_VDF_Elem | Class Source_Transport_K_Eps_VDF_Elem Cette classe represente le terme source qui figure dans l'equation de transport du couple (k,eps) dans le cas ou les equations |
| CSource_Transport_K_Eps_VEF_Face | Class Source_Transport_K_Eps_VEF_Face Cette classe represente le terme source qui figure dans l'equation |
| CSource_Transport_K_KEps_anisotherme_VDF_Elem | |
| CSource_Transport_K_KEps_VDF_Elem | Class Source_Transport_K_KEps_VDF_Elem Cette classe represente le terme source qui figure dans l'equation de transport du couple (k,eps) avec le modele a deux couches et dans |
| CSource_Transport_K_Omega_VDF_Elem | Class Source_Transport_K_Omega_VDF_Elem Cette classe represente le terme source qui figure dans l'equation de transport du couple (k, omega) dans le cas ou les equations |
| CSource_Transport_K_Omega_VDF_Elem_base | |
| CSource_Transport_K_Omega_VEF_Face | Class Source_Transport_K_Eps_VEF_Face Cette classe represente le terme source qui figure dans l'equation |
| CSource_Transport_K_Omega_VEF_Face_base | |
| CSource_Transport_K_Realisable_aniso_concen_VDF_Elem | |
| CSource_Transport_K_Realisable_aniso_concen_VEF_Face | |
| CSource_Transport_K_Realisable_aniso_therm_concen_VDF_Elem | |
| CSource_Transport_K_Realisable_aniso_therm_concen_VEF_Face | |
| CSource_Transport_K_Realisable_anisotherme_VDF_Elem | |
| CSource_Transport_K_Realisable_anisotherme_VEF_Face | |
| CSource_Transport_K_Realisable_VDF_Elem | |
| CSource_Transport_K_Realisable_VEF_Face | |
| CSource_Transport_K_VDF_Elem | Class Source_Transport_K_VDF_Elem Cette classe represente le terme source qui figure dans l'equation de transport du k dans le cas ou les equations de Navier-Stokes |
| CSource_Transport_K_VEF_Face | Class Source_Transport_K_VEF_Face Cette classe represente le terme source qui figure dans l'equation |
| CSource_Transport_proto | |
| CSource_Transport_Realisable_VDF_Elem_base | |
| CSource_Transport_Realisable_VEF_Face_base | |
| CSource_Transport_VDF_Elem_base | |
| CSource_Transport_VEF_Face_base | |
| CSource_Travail_pression_Elem_base | Implements the pressure work term: |
| CSource_WC_Chaleur | Class Source_WC_Chaleur |
| CSource_WC_Chaleur_VDF | Class Source_WC_Chaleur_VDF |
| CSource_WC_Chaleur_VEF | Class Source_WC_Chaleur_VEF |
| CSource_WC_Gravite_VDF | Class Source_WC_Gravite_VDF |
| CSource_WC_Gravite_VEF | Class Source_WC_Gravite_VEF |
| CSourceFiltree_FT_disc_base | Class SourceFiltree_FT_disc la Classe SourceFiltree permet d'ajouter un terme source dependant de la |
| CSourceFiltree_FT_disc_VEF_P1NC | Class SourceFiltree_FT_disc_VEF_P1NC la Classe SourceFiltree permet d'ajouter un terme source agissant uniquement |
| CSources | Class Sources Sources represents a list of Source objects |
| CSources_Multiphase_base | |
| CSous_Domaine_32_64 | Sous_Domaine represents a volumic sub-domain i.e. a sub set of elements of a Domaine |
| CSous_domaine_dis_base | This class is at the base of the discretized sub-domain hierarchy. At the time of domain discretization, just as a Domaine_dis is created for each domain, a Sous_domaine_dis_base is created for each Sous_Domaine and discretized |
| CSous_domaine_VF | This abstract class contains the geometrical subdomain information common to finite-volume methods (VDF and VEF for example) |
| CSous_Domaines | A vector of Sous_Domaine (VECT(Sous_Domaine)) |
| CSSOR | |
| CStack | |
| CStat_per_proc_perf_log | Class Stat_per_proc_per_log This class is an interprete used to set the Stat_per_proc_perf_log |
| CStatComm | |
| CStatic_Int_Lists_32_64 | This class allows storing lists of integers accessible in constant time |
| CStatistiques_dns_ijk | |
| CStatistiques_dns_ijk_FT | |
| CStatistiques_dns_ijk_monophasique | |
| CStatistiques_dns_qc_ijk | |
| CStringTokenizer | |
| CStructural_dynamic_mesh_model | |
| CSupport_Champ_Masse_Volumique | |
| CSupprimeBord_32_64 | Class SupprimeBord Supprimebord dom { bord1 , bord2 } |
| CSurfaceVapeurIJKComputation | |
| CSutherland | |
| CSwitch_double | |
| CSwitch_FT_double | |
| CSymetrie | Symetrie On symmetry faces, the following properties hold: |
| CSynonyme_info | Models synonym information for Objet_U objects |
| CSystem | |
| CT_paroi_Champ_P0_VDF | |
| CT_paroi_Champ_P1NC | Class T_paroi_Champ_P1NC |
| CTable | |
| CTablePrinter | |
| CTaux_cisaillement_P0_VDF | Class Taux_cisaillement_P0_VDF |
| CTaux_cisaillement_P0_VEF | Class Taux_cisaillement_P0_VEF |
| CTaux_dissipation_turbulent | Classe Taux_dissipation_turbulent Equation de transport du taux de dissipation turbulen (modele k-omega) |
| CTayl_Green | Class Tayl_Green by: bucha.nosp@m.l@ch.nosp@m.e41b0.nosp@m..der.nosp@m..edf..nosp@m.fr |
| CTBNN | |
| CTClearable | A small class representing any object with a "clear()" method |
| CTemperature_imposee_paroi | Temperature_imposee_paroi Imposes the wall temperature in a Convection_Diffusion_Temperature type equation |
| CTemperature_imposee_paroi_H | Imposes the wall temperature in a Convection_Diffusion_Enthalpie-type equation |
| CTemperature_imposee_paroi_rayo_semi_transp | Temperature_imposee_paroi_rayo_semi_transp class: used to impose a wall temperature |
| CTemperature_imposee_paroi_rayo_transp | |
| CTemplateIntList | |
| CTenseur_Reynolds_Externe_VDF_Face | Class Tenseur_Reynolds_Externe_VDF_Face |
| CTensor | |
| CTensors_Computation_VDF | |
| CTensors_Computation_VEF | |
| CTerme_Boussinesq_base | Classe Terme_Boussinesq_base This class represents the gravity term appearing in the momentum equation |
| CTerme_Boussinesq_PolyMAC_CDO_Face | Class Terme_Boussinesq_scalaire_PolyMAC_HFV_Face |
| CTerme_Boussinesq_Sensibility_VEFPreP1B_Face | |
| CTerme_Boussinesq_VDF_Face | Class Terme_Boussinesq_scalaire_VDF_Face |
| CTerme_Boussinesq_VEF_Face | Boussinesq source term for a VEF discretization |
| CTerme_Boussinesq_VEFPreP1B_Face | Class Terme_Boussinesq_scalaire_VEFPreP1B_Face Boussinesq source term for a VEFPreP1B discretization |
| CTerme_Derivee_Forme_base | Class Terme_Derivee_Forme_base represents a source term of the projection equation in shape optimization |
| CTerme_Derivee_Forme_EF | Class Terme_Derivee_Forme_EF |
| CTerme_Gravite | Classe Terme_Gravite This represents a gravity term |
| CTerme_Gravite_VDF_Face | Class Terme_Gravite_VDF_Face This class represents the gravity term appearing in the |
| CTerme_Puissance_Thermique | Class Terme_Puissance_Thermique: represents a volumetric thermal power source term in the energy equation |
| CTerme_Puissance_Thermique_DG_base | Abstract base class for volumetric heat source terms in the DG thermal equation |
| CTerme_Puissance_Thermique_DG_Elem | Concrete DG volumetric heat source term for element-based unknowns |
| CTerme_Puissance_Thermique_Echange_Impose_Elem_base | |
| CTerme_Puissance_Thermique_Echange_Impose_Elem_PolyMAC_CDO | |
| CTerme_Puissance_Thermique_Echange_Impose_P0_VDF | |
| CTerme_Puissance_Thermique_Echange_Impose_VEF_Face | Class Terme_Puissance_Thermique_Echange_Impose_VEF_Face |
| CTerme_Puissance_Thermique_PolyMAC_CDO_base | |
| CTerme_Puissance_Thermique_PolyMAC_CDO_Elem | Class Terme_Puissance_Thermique_PolyMAC_CDO_Elem |
| CTerme_Puissance_Thermique_QC_VDF_Elem | Class Terme_Puissance_Thermique_QC_VDF_Elem This class represents a source term of the heat equation |
| CTerme_Puissance_Thermique_QC_VEF_Face | Class Terme_Puissance_Thermique_QC_VEF_Face |
| CTerme_Puissance_Thermique_VDF_base | |
| CTerme_Puissance_Thermique_VDF_Elem | Class Terme_Puissance_Thermique_VDF_Elem This class represents a source term of the heat equation |
| CTerme_Puissance_Thermique_VEF_base | |
| CTerme_Puissance_Thermique_VEF_Face | Class Terme_Puissance_Thermique_VEF_Face |
| CTerme_Source_Acceleration | |
| CTerme_Source_Acceleration_VDF_Face | Terme source d'acceleration specialise pour la discretisation VDF |
| CTerme_Source_Acceleration_VEF_Face | Acceleration source term specialized for the VEF discretization |
| CTerme_Source_Canal_perio | Source term to keep a constant flow rate in a channel with periodic boundary conditions |
| CTerme_Source_Canal_perio_QC_VDF_Face | |
| CTerme_Source_Canal_perio_QC_VEF_P1NC | |
| CTerme_Source_Canal_perio_VDF_Face | |
| CTerme_Source_Canal_perio_VDF_P0 | Class Terme_Source_Canal_perio_VDF_P0 This class conserves the flow rate in a transient |
| CTerme_Source_Canal_perio_VEF_P1NC | |
| CTerme_Source_Canal_RANS_LES_VDF_Elem | Class Terme_Source_Canal_RANS_LES_VDF_Elem This class concerns a source term computed partly using |
| CTerme_Source_Canal_RANS_LES_VDF_Face | Class Terme_Source_Canal_RANS_LES_VDF_Face This class concerns a source term computed partly using |
| CTerme_Source_Canal_RANS_LES_VEF_Face | Class Terme_Source_Canal_RANS_LES_VEF_Face |
| CTerme_Source_Constituant | Classe Terme_Source_Constituant This class represents a source term of the constituent transport equation |
| CTerme_Source_Constituant_PolyMAC_CDO_Elem | Class Terme_Source_Constituant_PolyMAC_CDO_Elem |
| CTerme_Source_Constituant_VDF_Elem | Class Terme_Source_Constituant_VDF_Elem This class represents a source term of the heat equation |
| CTerme_Source_Constituant_VEF_Face | Class Terme_Source_Constituant_VEF_Face |
| CTerme_Source_Constituant_Vortex_VEF_Face | |
| CTerme_Source_Coriolis_base | |
| CTerme_Source_Coriolis_QC_VDF_Face | |
| CTerme_Source_Coriolis_VDF_Face | Class Terme_Source_Coriolis_VDF_Face This class computes the Coriolis force in VDF |
| CTerme_Source_Decroissance_Radioactive_Elem_PolyMAC_CDO | |
| CTerme_Source_Decroissance_Radioactive_VEF_Face | Class Terme_Source_Decroissance_Radioactive_VEF_Face |
| CTerme_Source_DG_base | Abstract base class for all DG source terms |
| CTerme_Source_EF_base | |
| CTerme_Source_Force_Boussinesq_VDF_Face | : class Terme_Source_Force_Boussinesq_VDF_Face |
| CTerme_Source_Force_Capillaire_VDF_Face | : class Terme_Source_Force_Capillaire_VDF_Face |
| CTerme_Source_inc_base | |
| CTerme_Source_inc_th | |
| CTerme_Source_inc_th_VDF_Face | Class Terme_Source_inc_th_VDF_Face This class conserves the flow rate in a transient |
| CTerme_Source_inc_VDF_Face | Class Terme_Source_inc_VDF_Face This class conserves the flow rate in a transient |
| CTerme_Source_PolyMAC_CDO_base | |
| CTerme_Source_Qdm | Classe Terme_Source_Qdm This class represents a source term appearing in the momentum equation |
| CTerme_Source_Qdm_Elem_DG | DG momentum source term for element-based velocity unknowns |
| CTerme_Source_Qdm_Face_PolyMAC_CDO | |
| CTerme_Source_Qdm_Face_PolyMAC_HFV | |
| CTerme_Source_Qdm_lambdaup_VEF_Face | Class Terme_Source_Qdm_lambdaup_VEF_Face |
| CTerme_Source_Qdm_VDF_Face | Class Terme_Source_Qdm_VDF_Face |
| CTerme_Source_Qdm_VEF_Face | Class Terme_Source_Qdm_VEF_Face |
| CTerme_Source_Rappel_T_VEF_Face | |
| CTerme_Source_Solide_SWIFT_VDF | |
| CTerme_Source_Th_TdivU_VEF_Face | Class Terme_Source_Th_TdivU_VEF_Face |
| CTerme_Source_VDF_base | |
| CTerme_Source_VEF_base | |
| CTest_solveur | |
| CTest_SSE_Kernels | |
| CTesteur | |
| CTesteur_MEDCoupling | : class Testeur_MEDCoupling |
| CTetra_EF | |
| CTetra_poly | |
| CTetra_VEF | |
| CTetraedre_32_64 | Tetraedre class — represents the tetrahedral geometric element |
| CTetraedriser | Class Tetraedriser This class is an interpreter used to read and execute |
| CTetraedriser_homogene | Class Tetra_homogene Creates a mesh by splitting each block into 40 tetrahedra |
| CTetraedriser_homogene_compact | Class Tetra_homogene_compact Creates a mesh by splitting each block into 40 tetrahedra |
| CTetraedriser_homogene_fin | Class Tetra_homogene_fin Creates a mesh by splitting each block into 48 tetrahedra |
| CTetraedriser_par_prisme | Class Tetra_par_prisme This class is an interpreter that serves to read and execute |
| CTopologie_Maillage_FT | : class Topologie_Maillage_FT Cette classe implemente les procedures de remaillage des interfaces pour le Front-Tracking : |
| CTPPI | Common interface for TRUST and its baltiks to call EOS/CoolProp library methods |
| CTraduction_Indice_Global_Local | This class provides tools to build the virtual space of an array containing indices of geometric entities |
| CTraitement_particulier_NS_base | Traitement_particulier_NS_base Derives from Support_Champ_Masse_Volumique: use of rho |
| CTraitement_particulier_NS_Brech_VEF | Class Traitement_particulier_Brech_VEF This class performs special post-processing |
| CTraitement_particulier_NS_canal | Traitement_particulier_NS_canal This class performs specific post-processing treatments |
| CTraitement_particulier_NS_canal_VDF | Traitement_particulier_NS_canal_VDF class |
| CTraitement_particulier_NS_canal_VEF | Class Traitement_particulier_NS_canal_VEF This class performs special post-processing |
| CTraitement_particulier_NS_CEG | |
| CTraitement_particulier_NS_CEG_VEF | |
| CTraitement_particulier_NS_chmoy_faceperio | Traitement_particulier_chmoy_faceperio This class performs specific post-processing treatments |
| CTraitement_particulier_NS_chmoy_faceperio_VEF | Class Traitement_particulier_NS_chmoy_faceperio_VEF This class performs special post-processing |
| CTraitement_particulier_NS_EC | Traitement_particulier_EC This class performs specific post-processing treatments |
| CTraitement_particulier_NS_EC_VDF | Traitement_particulier_NS_EC_VDF class This class performs special post-processing operations |
| CTraitement_particulier_NS_EC_VEF | Class Traitement_particulier_NS_EC_VEF This class performs special post-processing |
| CTraitement_particulier_NS_Pression | |
| CTraitement_particulier_NS_Pression_VDF | Traitement_particulier_NS_Pression_VDF class |
| CTraitement_particulier_NS_Pression_VEF | Class Traitement_particulier_NS_Pression_VEF This class performs special post-processing |
| CTraitement_particulier_NS_Profils | Class Trait_part_NS_Profils_VDF |
| CTraitement_particulier_NS_Profils_thermo_VDF | Traitement_particulier_NS_Profils_thermo_VDF class |
| CTraitement_particulier_NS_Profils_VDF | Class Trait_part_NS_Profils_VDF This class enables a particular treatment |
| CTraitement_particulier_NS_temperature | Traitement_particulier_NS_temperature This class performs specific post-processing treatments |
| CTraitement_particulier_NS_temperature_VEF | Class Traitement_particulier_NS_temperature_VEF This class performs special post-processing |
| CTraitement_particulier_NS_THI | Traitement_particulier_THI This class performs specific post-processing treatments |
| CTraitement_particulier_NS_THI_new | Traitement_particulier_THI_new This class performs specific post-processing treatments |
| CTraitement_particulier_NS_THI_thermo_VDF | Classe Traitement_particulier_NS_THI_thermo_VDF Cette classe permet de faire les traitements particuliers |
| CTraitement_particulier_NS_THI_VDF | Classe Traitement_particulier_NS_THI_VDF Cette classe permet de faire les traitements particuliers |
| CTraitement_particulier_NS_THI_VEF | Classe Traitement_particulier_NS_THI_VEF Cette classe permet de faire les traitements particuliers |
| CTraitement_particulier_NS_THI_VEF_new | Classe Traitement_particulier_NS_THI_VEF_new Cette classe permet de faire les traitements particuliers |
| CTraitement_particulier_NS_VEF | Class Traitement_particulier_VEF This class performs no special post-processing |
| CTraitement_particulier_Solide_base | Base class for special post-processing treatments on solid equations |
| CTraitement_particulier_Solide_canal | Special post-processing treatment for solid channel configurations |
| CTraitement_particulier_Solide_canal_VDF | Traitement_particulier_Solide_canal_VDF class This class performs special post-processing operations |
| CTransformer_32_64 | Class Transformer Applies a coordinate transformation |
| CTransport_2eq_base | Classe Transport_2eq_base Classe de base pour les equations |
| CTransport_Fluctuation_Temperature | |
| CTransport_Fluctuation_Temperature_W | |
| CTransport_Fluctuation_Temperature_W_Bas_Re | |
| CTransport_Flux_Chaleur_Turbulente | |
| CTransport_Interfaces_base | Transport_Interfaces_base This class is the base class for interface transport equations |
| CTransport_Interfaces_FT_Disc | |
| CTransport_Interfaces_FT_Disc_interne | |
| CTransport_K_Eps | Classe Transport_K_Eps Cette classe represente l'equation de transport de l'energie cinetique |
| CTransport_K_Eps_Bas_Reynolds | |
| CTransport_K_Eps_base | Classe Transport_K_Eps_base Classe de base pour les equations |
| CTransport_K_Eps_non_std | Classe Transport_K_Eps_non_std Classe de base pour les equations de transport |
| CTransport_K_Eps_Realisable | |
| CTransport_K_KEps | Classe Transport_K_KEps Cette classe represente l'equation de transport de l'energie cinetique |
| CTransport_K_Omega | Classe Transport_K_Omega Cette classe represente l'equation de transport de l'energie cinetique |
| CTransport_K_Omega_base | Classe Transport_K_Omega_base Classe de base pour les equations |
| CTransport_K_ou_Eps | Classe Transport_K_ou_Eps Cette classe represente l'equation de transport de l'energie cinetique |
| CTransport_K_ou_Eps_base | Classe de base pour l'equation de transport des modeles k_Epsilon dans une approche ou K et Epsilon sont traites par deux equations differentes |
| CTransport_K_ou_Eps_non_std | Classe Transport_K_ou_Eps_non_std Classe de base pour les equations de transport |
| CTransport_K_ou_Eps_Realisable | Classe Transport_K_ou_Epss_Realisable Cette classe represente l'equation de transport de l'energie cinetique |
| CTransport_Marqueur_FT | |
| CTransport_turbulent_aire_interfaciale | Turbulent transport of interfacial area, using the closure: |
| CTransport_turbulent_base | Correlations describing the effect of turbulence in another equation (thermal, turbulent quantities, etc.) |
| CTransport_turbulent_GGDH | Generalized Gradient Diffusion Hypothesis (GGDH) turbulent transport model: |
| CTransport_turbulent_GGDH_WIT | Classe Transport_turbulent_GGDH_WIT Transport turbulent de type GGDH pour l'equation sur WIT: |
| CTransport_turbulent_Prandtl | |
| CTransport_turbulent_SGDH | Simple Gradient Diffusion Hypothesis (SGDH) turbulent transport model: |
| CTransport_turbulent_SGDH_WIT | Classe Transport_turbulent_SGDH_WIT Transport turbulent de type SGDH: |
| CTravail_pression_PolyMAC_HFV | |
| CTravail_pression_VDF | |
| CTri_EF | |
| CTri_poly | |
| CTri_VEF | |
| Ctriangle | |
| CTriangle_32_64 | Class Triangle: represents the geometric element Triangle |
| CTriangulation_base | Triangulation_base Base class intended to factor out the triangulation action of interpreters |
| CTrianguler | Class Trianguler This class is an interpreter used to read and execute |
| CTrianguler_fin | Class Trianguler_fin This class is an interpreter that serves to read and execute |
| CTrianguler_H | Class Trianguler_H This class is an interpreter used to read and execute |
| CTriple_Line_Model_FT_Disc | |
| CTroisDto2D_32_64 | Class TroisDto2D x->alpha x |
| CTroisDto2Daxi | Class TroisDto2Daxi x->alpha x |
| CTRUST_2_PDI | TRUST_2_PDI Encapsulation of PDI methods (library used for IO operations). See the website pdi.dev for more info |
| CTRUST_Deriv | |
| CTRUST_Deriv_Objet_U | Class TRUST_Deriv_Objet_U is almost identical to TRUST_Deriv<Objet_U>, except that it does not contain the implicit conversion operators from OWN_PTR(Objet_U) to Objet_U |
| CTRUST_Error | TRUST_Error class |
| CTRUST_List | TRUST_List class |
| CTRUST_Ref | |
| CTRUST_Ref_Objet_U | Class TRUST_Ref_Objet_U |
| CTRUST_Vector | TRUST_Vector class |
| CTRUSTArray | Represents a an array of int/int64/double/... values |
| CTRUSTArrayFT | |
| CTRUSTChamp_Divers_generique | |
| CTRUSTChamp_Don_generique | |
| CTRUSTChamp_Morceaux_generique | |
| CTRUSTList | : Class used to represent a list of int/double precision reals |
| CTRUSTList_Curseur | : List_Curseur de reels int/double precision |
| CTRUSTListElem | : Class used to represent a list of int/double precision reals |
| CTRUSTLists | : An array of lists of type IntList |
| CTRUSTProblem_Cloned_Concentration_Gen | |
| CTRUSTProblem_Concentration_Gen | |
| CTRUSTProblem_List_Concentration_Gen | |
| CTRUSTProblem_sup_eqns | |
| CTRUSTSchema_RK | |
| CTRUSTSingle | Represente un TYPE construit comme un tableau d'elements de type TYPE |
| CTRUSTTab | N-dimensional array for N <= 4 |
| CTRUSTTab_parts | This class allows to access the individual sub-parts of DoubleTab objects that have a MD_Vector_composite descriptor. See const version below |
| CTRUSTTabFT | |
| CTRUSTTabFT_cut_cell | : class TRUSTTabFT_cut_cell |
| CTRUSTTabFT_cut_cell_scalar | : class TRUSTTabFT_cut_cell_scalar |
| CTRUSTTabFT_cut_cell_vector2 | : class TRUSTTabFT_cut_cell_vector2 |
| CTRUSTTabFT_cut_cell_vector3 | : class TRUSTTabFT_cut_cell_vector3 |
| CTRUSTTabFT_cut_cell_vector6 | : class TRUSTTabFT_cut_cell_vector6 |
| CTRUSTTrav | Temporary multidimensional array ('tableau de travail') |
| CTRUSTTravPool | Pool of memory blocks used when requesting temporary storage (Trav arrays) |
| CTRUSTVect | |
| CTube_base | |
| CTube_impose | |
| CTube_libre | |
| CTurbulence_paroi_base | Base class for the hierarchy of wall-law models computing turbulent quantities near walls. Contains a reference to a turbulence model |
| CTurbulence_paroi_scal_base | Base class for the hierarchy of scalar wall-law models computing turbulent quantities near walls. The main method to implement in derived classes is calculer_scal, which must compute and fill the equivalent_distance_ array of equivalent wall distances |
| CTurbulent_viscosity_amd | |
| CTurbulent_viscosity_amd_comp | |
| CTurbulent_viscosity_amdnoclip | |
| CTurbulent_viscosity_amdscalar | |
| CTurbulent_viscosity_amdscalarnoclip | |
| CTurbulent_viscosity_base | |
| CTurbulent_viscosity_constant | |
| CTurbulent_viscosity_kobayashi | |
| CTurbulent_viscosity_rds | |
| CTurbulent_viscosity_sigma | |
| CTurbulent_viscosity_smagorinsky | |
| CTurbulent_viscosity_unsrho | |
| CTurbulent_viscosity_vreman | |
| CTurbulent_viscosity_vss | |
| CTurbulent_viscosity_wale | |
| CTVAlloc | Allocator adaptor that intercepts the 'construct' calls to convert value initialization into default initialization. Written by Casey Carter (@codercasey) Taken from https://hackingcpp.com/cpp/recipe/uninitialized_numeric_array.html |
| Crebind | |
| CType_info | Models type information for Objet_U objects |
| CTyper_Lire | Keyword to read an object, typically from a data file |
| CUnaryFunction | Definit une constante dans le jeu de donnees |
| CUserUnaryFunction | Permet de definir une fonction utilisateur dans le jeu de donnees |
| CValue_Input_Int | : class Value_Input_Int |
| CVariation_rho | Classe Variation_rho |
| CVDF_discretisation | |
| CVDF_to_IJK | |
| CVecteur3 | |
| CVEF_discretisation | |
| CVerifier_Qualite_Raffinements_32_64 | : class Verifier_Qualite_Raffinements |
| CVerifier_Simplexes_32_64 | : class Verifier_Simplexes |
| CVerifierCoin | VerifierCoin class: interpreter that solves a problem |
| CViewCreator | |
| CViewCreator< ViewType, _TYPE_, 1, _SIZE_ > | |
| CViewCreator< ViewType, _TYPE_, 2, _SIZE_ > | |
| CViewCreator< ViewType, _TYPE_, 3, _SIZE_ > | |
| CViewCreator< ViewType, _TYPE_, 4, _SIZE_ > | |
| CViscosite_turbulente_base | Turbulent viscosity correlations describing the Reynolds stress tensor R_{ij} = - <u'_i u'_j> |
| CViscosite_turbulente_k_omega | Classe Viscosite_turbulente_k_omega Turbulent viscosity for a "k-omega" model : nu_t = k / omega |
| CViscosite_turbulente_k_tau | Classe Viscosite_turbulente_k_tau Viscosite turbulente pour un modele "k-tau" : nu_t = k * tau |
| CViscosite_turbulente_l_melange | Mixing-length turbulent diffusivity model with identical mixing length and velocity for both phases |
| CViscosite_turbulente_LES_base | |
| CViscosite_turbulente_multiple | Composite turbulent viscosity class that can hold multiple turbulent viscosity models for single-phase and two-phase turbulence |
| CViscosite_turbulente_sato | Classe Viscosite_turbulente_sato Viscosite turbulente induite par les bulles : nu_b = coef_sato*alpha*d_B*norm(u_R) |
| CViscosite_turbulente_Smagorinsky | Smagorinsky SGS turbulent viscosity model: |
| CViscosite_turbulente_WALE | Wall-Adapting Local Eddy-viscosity (WALE) SGS turbulent viscosity model: |
| CViscosite_turbulente_WIF | Classe Viscosite_turbulente_WIF Renvoie le tenseur de Reynolds pour une turbulence de bulles de type WIF ; ce tenseur est anisotrope |
| CViscosite_turbulente_WIT | Classe Viscosite_turbulente_WIT Renvoie le tenseur de Reynolds pour une turbulence de bulles de type WIT ; ce tenseur est isotrope |
| CVitesse_derive_base | Vitesse_derive_base class |
| CVitesse_derive_constante | Vitesse_derive_constante class |
| CVitesse_derive_Forces | Force-based drift velocity between a gas phase and a liquid phase |
| CVitesse_derive_Ishii | Ishii drift velocity correlation between a gas phase and a liquid phase |
| CVitesse_derive_Spelt_Biesheuvel | Spelt-Biesheuvel drift velocity for gas-liquid bubbly flow |
| CVitesse_relative_base | Relative velocity correlations of the form ur = (v_k - v_l) |
| Cinput_t | |
| Coutput_t | |
| CY_plus_Champ_Face | Class Y_plus_Champ_Face |
| CY_plus_Champ_P1NC | Class Y_plus_Champ_P1NC |
| CY_plus_Champ_Q1 | Class Y_plus_Champ_Q1 |
| CYAML_data | YAML_data class: collection of all needed information for data to save/restore in order to write the YAML file used to initialize PDI |
1.16.1