#include <Scatter.h>

Inheritance diagram for Scatter:

Collaboration diagram for Scatter:

Public Member Functions
Entree &	interpreter (Entree &) override
	Reads and completes a parallel domain according to the keywords read in the data set.
virtual void	lire_domaine (Nom &fil)
	Reads the domain from the file named "nomentree", of type LecFicDistribueBin or LecFicDistribue.
Domaine &	domaine ()
	Returns the associated domain.
Public Member Functions inherited from Objet_U
	~Objet_U () override
	Destructor. Removes the object from the list of objects registered in "memory".
int	numero () const
	Returns the index of the object in Memoire::data.
virtual int	duplique () const =0
virtual Sortie &	printOn (Sortie &) const
	Writes the object to an output stream. Virtual method to override.
virtual Entree &	readOn (Entree &)
	Reads an Objet_U from an input stream. Virtual method to override.
virtual unsigned	taille_memoire () const =0
virtual int	est_egal_a (const Objet_U &) const
	Returns 1 if x and *this are the same instance (same memory address).
virtual const Nom &	le_nom () const
	Returns the name of the Objet_U. Virtual method to override: returns "neant" in this implementation.
virtual void	nommer (const Nom &)
	Assigns a name to the Objet_U. Virtual method to override.
virtual int	reprendre (Entree &)
	Restores an Objet_U from an input stream. Virtual method to override.
virtual int	sauvegarder (Sortie &) const
	Saves an Objet_U to an output stream. Virtual method to override.
int	get_object_id () const
	Returns the unique identifier of the object (object_id_).
virtual const Type_info *	get_info () const
	Returns type information for the Objet_U.
const Nom &	que_suis_je () const
	Returns the string identifying the class.
const char *	le_type () const
	Returns the type name of the Objet_U.
virtual int	change_num (const int *const)
	Changes the internal number of the Objet_U.
virtual int	lire_motcle_non_standard (const Motcle &motlu, Entree &is)
	Reads non-simple-type parameters of an Objet_U from an input stream.
virtual int	associer_ (Objet_U &)
	Associates the Objet_U with another Objet_U. Virtual method to override.
const Interprete &	interprete () const
Interprete &	interprete ()
Public Member Functions inherited from Process
virtual	~Process ()

Static Public Member Functions
static int	Chercher_Correspondance (const DoubleTab &sommets1, const DoubleTab &sommets2, ArrOfInt &correspondance, const double epsilon)
	Builds the "correspondance" array such that for 0 <= i < sommets2.
static void	construire_correspondance_sommets_par_coordonnees (Domaine &dom, bool allow_resize=false)
	Builds the joint_item(JOINT_ITEM::SOMMET).items_communs arrays for all joints of the domain dom.
static void	construire_correspondance_aretes_par_coordonnees (Domaine_VF &zvf)
	Builds the joint_item(JOINT_ITEM::ARETE).items_communs arrays for all joints of the domain.
static void	construire_correspondance_items_par_coordonnees (Joints &joints, const JOINT_ITEM type_item, const DoubleTab &coord_items, bool allow_resize=false)
	Generic method to build geometrical item correspondance between the local and the remote processor around a joint.
static void	construire_structures_paralleles (Domaine &dom)
	Builds the parallel structures of the domain (determination of distant elements as a function of joint thickness,.
static void	calculer_espace_distant (Domaine &domaine, const int nb_items_reels, const ArrsOfInt &items_to_send, const JOINT_ITEM type_item)
	Determines the distant items from a list of items to send and lists of common items.
static void	calculer_nb_items_virtuels (Joints &joints, const JOINT_ITEM type_item)
	For a geometric item "type_item", fills the nb_items_virtuels_ field of joints based on the number of remote items:
static void	calculer_renum_items_communs (Joints &joints, const JOINT_ITEM type_item)
	Assumes that each joint[i].joint_item(type_item).items_communs() contains the local indices of common joint items in the same order on both processors (local and neighbor). Fills renum_items_communs: column 0 = content of the items_communs array on the neighboring PE column 1 = content of the items_communs array on the local PE.
static void	calculer_espace_distant_faces (Domaine &domaine, const int nb_faces_reelles, const IntTab &elem_faces)
	Same as Scatter::calculer_espace_distant_sommets for faces.
static void	calculer_espace_distant_aretes (Domaine &domaine, const int nb_aretes_reelles, const IntTab &elem_aretes)
	Same as Scatter::calculer_espace_distant_sommets for edges.
static void	calculer_espace_distant_elements (Domaine &dom)
	Fills the "espace_distant()" array of elements in the joints.
static void	corriger_espace_distant_elements_perio (Domaine &dom)
	Current periodic algorithms (P1B assembler, OpDivElem P1B) require that for each virtual periodic face, the opposite face is.
static void	calculer_espace_distant_sommets (Domaine &dom)
	Based on the remote space of elements, computes the remote space of vertices.
static void	construire_espace_virtuel_traduction (const MD_Vector &md_indice, const MD_Vector &md_valeur, IntTab &tableau, const int error_is_fatal=1)
	Builds the items_communs + virtual space structure of an array containing indices of geometric items, indexed by another geometric item type.
static void	reordonner_faces_de_joint (Domaine &dom)
	Reorders joint faces so that they appear in the same order on each pair of neighboring processors.
static void	ajouter_joints (Domaine &domaine, ArrOfInt &pe_voisins)
	Adds joints with all PEs in pe_voisins.
static void	trier_les_joints (Joints &joints)
	Sort joints by increasing neighbor proc number.
static void	construire_md_vector (const Domaine &, int nb_items_reels, const JOINT_ITEM, MD_Vector &)
	Builds an MD_Vector_std from the joint information of the domain for the requested item type.
static void	check_consistancy_remote_items (Domaine &dom, const ArrOfInt &mergedDomaines)
	Merged domains receive joint information from their neighbours to ensure that their common items (vertices) appear in the same order.
template<typename _SIZE_>
static void	init_sequential_domain (Domaine_32_64< _SIZE_ > &dom)
	Create parallel descriptors for the vertex and element arrays of the domain (necessary because Scatter is never invoked in sequential).
template<typename _SIZE_>
static void	uninit_sequential_domain (Domaine_32_64< _SIZE_ > &dom)
	Method used by interpreters that modify the domain (sequential), destroys the descriptors of vertices and elements to allow modification of these arrays.
Static Public Member Functions inherited from Interprete
static Objet_U &	objet (const Nom &)
	See Interprete_bloc::objet_global(). BM: the Interprete class is not the best place for this.
static int	objet_existant (const Nom &)
	Returns 1 if the object exists, 0 otherwise. See Interprete_bloc::objet_global_existant().
Static Public Member Functions inherited from Objet_U
static const Nom &	nom_du_cas ()
	Returns a constant reference to the case name. This method is static.
static Nom &	get_set_nom_du_cas ()
	Returns a non-constant reference to the case name (to allow modification). This method is static.
static const Type_info *	info ()
	Returns type information for the Objet_U (static version).
static const Objet_U &	self_cast (const Objet_U &)
	Method added for casting in Python.
static Objet_U &	self_cast (Objet_U &)
Static Public Member Functions inherited from Process
static int	me ()
	Returns the rank of the local processor in the current communication group. See Comm_Group::rank() and PE_Groups::current_group().
static int	nproc ()
	Returns the number of processors in the current group. See Comm_Group::nproc() and PE_Groups::current_group().
static bool	is_parallel ()
static void	exit (int exit_code=-1)
	Exit routine for TRUST within a Kokkos region.
static double	mp_sum (double)
	Computes the sum of x over all processors in the current group.
static float	mp_sum (float)
static trustIdType	mp_sum (trustIdType)
	Computes the sum of x over all processors in the current group.
static double	mp_max (double)
static double	mp_min (double)
static int	mp_max (int)
	Returns the maximum value of x across all processors in the current group.
static int	mp_min (int)
	Returns the minimum value of x across all processors in the current group.
static double	mp_sum_as_double (int v)
static trustIdType	mppartial_sum (trustIdType i)
	Computes the partial sum of x over processors 0 to me()-1 (returns 0 on processor 0).
template<typename T>
static void	mp_sum_for_each (T &arg1, T &arg2)
	C++14 compatible mp_sum_for_each: combine multiple mp_sum calls into one collective operation Usage: mp_sum_for_each(a, b); mp_sum_for_each(a, b, c); mp_sum_for_each(a, b, c, d); mp_sum_for_each(a, b, c, d, e); All arguments must be of the same type (double or int) and are modified in place. Supports 2-5 parameters.
template<typename T>
static void	mp_sum_for_each (T &arg1, T &arg2, T &arg3)
template<typename T>
static void	mp_sum_for_each (T &arg1, T &arg2, T &arg3, T &arg4)
template<typename T>
static void	mp_sum_for_each (T &arg1, T &arg2, T &arg3, T &arg4, T &arg5)
template<typename T>
static void	mp_max_for_each (T &arg1, T &arg2)
	C++14 compatible mp_max_for_each: combine multiple mp_max calls into one collective operation.
template<typename T>
static void	mp_max_for_each (T &arg1, T &arg2, T &arg3)
template<typename T>
static void	mp_max_for_each (T &arg1, T &arg2, T &arg3, T &arg4)
template<typename T>
static void	mp_max_for_each (T &arg1, T &arg2, T &arg3, T &arg4, T &arg5)
template<typename T>
static void	mp_min_for_each (T &arg1, T &arg2)
	C++14 compatible mp_min_for_each: combine multiple mp_min calls into one collective operation.
template<typename T>
static void	mp_min_for_each (T &arg1, T &arg2, T &arg3)
template<typename T>
static void	mp_min_for_each (T &arg1, T &arg2, T &arg3, T &arg4)
template<typename T>
static void	mp_min_for_each (T &arg1, T &arg2, T &arg3, T &arg4, T &arg5)
template<typename _TYPE_>
static void	mp_sum_for_each_item (TRUSTArray< _TYPE_ > &x, int n=-1)
template<typename _TYPE_>
static void	mp_max_for_each_item (TRUSTArray< _TYPE_ > &x, int n=-1)
template<typename _TYPE_>
static void	mp_min_for_each_item (TRUSTArray< _TYPE_ > &x, int n=-1)
static bool	mp_and (bool)
	Computes the logical AND of b across all processors in the current group.
static bool	mp_or (bool)
static int	check_int_overflow (trustIdType)
static int	je_suis_maitre ()
	Returns 1 if on the master processor of the current group (i.e. me() == 0), 0 otherwise.
static KOKKOS_INLINE_FUNCTION void	Kokkos_exit (const char *)
	Exit routine for TRUST within a Kokkos region.
static int	node_master ()
	Returns 1 if on the NUMA node master processor, 0 otherwise.
static void	exit (const Nom &message, int exit_code=-1)
static bool	is_sequential ()
static void	barrier ()
	Synchronizes all processors in the current group (waits until all processors have reached the barrier).
static void	abort ()
	Abort routine for TRUST on a fatal error.
static Sortie &	Journal (int message_level=0)
	Returns a static Sortie object used as an event journal.
static double	ram_processeur ()
static void	imprimer_ram_totale (int all_process=0)
static bool	force_single_file (const int ranks, const Nom &filename)

Protected Member Functions
	OBS_PTR (Domaine) le_domaine
void	read_domain_no_comm (Entree &fic, bool &read_perio)
	Does the exact same thing as the readOn of the class Domaine but without collective communication.
Protected Member Functions inherited from Objet_U
	Objet_U ()
	Default constructor: assigns a unique identifier to the object (object_id_) and registers the object in "memory" by giving it a num_obj number.
	Objet_U (const Objet_U &)
	Copy constructor.
const Objet_U &	operator= (const Objet_U &)
	Assignment operator: does nothing (the number and identifier are preserved).
virtual void	set_param (Param &) const

Additional Inherited Members
Static Public Attributes inherited from Objet_U
static double	precision_geom = 1e-10
static constexpr bool	HAS_POINTER = false
static int	dimension =0
static int	format_precision_geom =11
static int	axi =0
static int	bidim_axi =0
static int	DEACTIVATE_SIGINT_CATCH =0
static Type_info	info_obj
static bool	disable_TU =false
	Flag to disable or not the writing of the .TU files.
static bool	stat_per_proc_perf_log =false
	Flag to enable the writing of the statistics detailed per processor in _csv.TU file.
Static Public Attributes inherited from Process
static int	exception_sur_exit =0
static int	multiple_files =5120

Detailed Description

Definition at line 27 of file Scatter.h.

Member Function Documentation

◆ ajouter_joints()

void Scatter::ajouter_joints	(	Domaine &	domaine,
		ArrOfInt &	pe_voisins )

static

Adds joints with all PEs in pe_voisins.

To make the set of joints symmetric, a joint is also created on the destination processor: If A adds a joint with B, then B adds a joint with A. Joints are sorted in ascending order of PE number. WARNING: joints are therefore reordered! pe_voisins is updated with the list of joints actually created.

Definition at line 1028 of file Scatter.cpp.

◆ calculer_espace_distant()

void Scatter::calculer_espace_distant	(	Domaine &	domaine,
		const int	nb_items_reels,
		const ArrsOfInt &	items_to_send,
		const JOINT_ITEM	type_item )

static

Determines the distant items from a list of items to send and lists of common items.

Example: calculer_espace_distant_sommets calculer_espace_distant_faces For vertices: the "items_to_send" are the vertices of distant elements. If processor A wants processor B to know vertex i, the processor that owns the vertex must send it to B. The "owning" processor is the smallest among the PEs sharing this vertex (common item) (required to perform echange_item_commun and echange_espace_virtuel in a single pass). Furthermore, if several processors request that the same vertex be sent to the same processor, it must only be inserted once in the distant space.

Parameters

(joints)	the joints in which the distant space is to be computed
(nb_items_reels)	the number of real items (vertices, faces, ...)
(items_to_send)	a vector of "nproc()" arrays, for each processor, the list of items to send (e.g. all vertices of distant elements, or all faces)
(type_item)	the items whose distant space is to be computed

Definition at line 819 of file Scatter.cpp.

◆ calculer_espace_distant_aretes()

void Scatter::calculer_espace_distant_aretes	(	Domaine &	domaine,
		const int	nb_aretes_reelles,
		const IntTab &	elem_aretes )

static

Same as Scatter::calculer_espace_distant_sommets for edges.

Definition at line 1199 of file Scatter.cpp.

◆ calculer_espace_distant_elements()

void Scatter::calculer_espace_distant_elements ( Domaine & dom )

static

Fills the "espace_distant()" array of elements in the joints.

This is where joint elements are determined based on joint thickness. The espace_distant array contains the local indices of remote elements (to be sent to neighboring processors). For a joint of thickness 1, these are all elements neighboring a joint vertex (vertex on a joint face or isolated vertex). For a joint of thickness n>1, these are all elements neighboring a vertex of an element from the joint of thickness n-1. Neighborhood is defined on the global domain (all subdomains combined). History: first version by B.Mathieu on 16/01/2007. A method that determines remote elements at partition time also exists (DomaineCutter::construire_elements_distants_ssdom). The method below has been validated by comparison with the partitioner method. Outputs have been verified for thicknesses up to 5 on tetrahedral meshes. The difficulty of the algorithm is to obtain virtual elements of thickness > 1 that lie on subdomains not in direct contact with the local subdomain. This difficulty is resolved by the algorithm below.

Definition at line 2058 of file Scatter.cpp.

◆ calculer_espace_distant_faces()

void Scatter::calculer_espace_distant_faces	(	Domaine &	domaine,
		const int	nb_faces_reelles,
		const IntTab &	elem_faces )

static

Same as Scatter::calculer_espace_distant_sommets for faces.

Definition at line 1180 of file Scatter.cpp.

◆ calculer_espace_distant_sommets()

void Scatter::calculer_espace_distant_sommets ( Domaine & dom )

static

Based on the remote space of elements, computes the remote space of vertices.

For each joint, the set of vertices of all joint elements is sent to the neighboring processor. It is the processor that owns the vertex (the smallest PE that holds it) that puts it in its remote space. Warning: new joints are created. The following arrays are filled: dom.faces_joint(i).joint_item(JOINT_ITEM::SOMMET).items_distants();

Definition at line 1155 of file Scatter.cpp.

◆ calculer_nb_items_virtuels()

void Scatter::calculer_nb_items_virtuels	(	Joints &	joints,
		const JOINT_ITEM	type_item )

static

For a geometric item "type_item", fills the nb_items_virtuels_ field of joints based on the number of remote items:

The number of virtual items on joint i of processor j is the number of remote items of joint j on processor i.

Definition at line 2695 of file Scatter.cpp.

◆ calculer_renum_items_communs()

void Scatter::calculer_renum_items_communs	(	Joints &	joints,
		const JOINT_ITEM	type_item )

static

Assumes that each joint[i].joint_item(type_item).items_communs() contains the local indices of common joint items in the same order on both processors (local and neighbor). Fills renum_items_communs: column 0 = content of the items_communs array on the neighboring PE column 1 = content of the items_communs array on the local PE.

Definition at line 1220 of file Scatter.cpp.

◆ check_consistancy_remote_items()

void Scatter::check_consistancy_remote_items	(	Domaine &	dom,
		const ArrOfInt &	mergedDomaines )

static

Merged domains receive joint information from their neighbours to ensure that their common items (vertices) appear in the same order.

If it's not the case, the merged domain reorders its common items so that it matches the neighbour's order When 2 neighbouring domains have each been merged, only the processor with the lowest rank proceeds to reordering

Definition at line 271 of file Scatter.cpp.

◆ Chercher_Correspondance()

int Scatter::Chercher_Correspondance	(	const DoubleTab &	sommets1,
		const DoubleTab &	sommets2,
		ArrOfInt &	correspondance,
		const double	epsilon )

static

Builds the "correspondance" array such that for 0 <= i < sommets2.

size_array(), If sommet2(i) exists in sommets1, then sommets2(i, ...) == sommets1(correspondance[i], ...) Otherwise correspondance[i] = -1 Equality is checked to within epsilon in absolute value (i.e. abs(x1-x2) < epsilon) The algorithm is generally O(n1*log(n1) + n2*log(n1)) (search based on quicksort). If the sort fails, an O(n1*n2) algorithm is used. Arrays sommets1 and sommets2 must be 2-dimensional. The correspondance array must have size sommets2.size_array(). Return value: number of vertices of sommets2 not found in sommets1.

Definition at line 2366 of file Scatter.cpp.

◆ construire_correspondance_aretes_par_coordonnees()

void Scatter::construire_correspondance_aretes_par_coordonnees ( Domaine_VF & zvf )

static

Builds the joint_item(JOINT_ITEM::ARETE).items_communs arrays for all joints of the domain.

Parameters

zvf	The VF domain to process.

Definition at line 2683 of file Scatter.cpp.

◆ construire_correspondance_items_par_coordonnees()

void Scatter::construire_correspondance_items_par_coordonnees	(	Joints &	joints,
		const JOINT_ITEM	type_item,
		const DoubleTab &	coord_items,
		bool	allow_resize = false )

static

Generic method to build geometrical item correspondance between the local and the remote processor around a joint.

See also construire_correspondance_sommets_par_coordonnees() for the very specific usage of allow_resize.

Definition at line 2482 of file Scatter.cpp.

◆ construire_correspondance_sommets_par_coordonnees()

void Scatter::construire_correspondance_sommets_par_coordonnees	(	Domaine &	dom,
		bool	allow_resize = false )

static

Builds the joint_item(JOINT_ITEM::SOMMET).items_communs arrays for all joints of the domain dom.

Parameters

dom	The domain to process.
allow_resize	may be set to True in some rare case (see Raffiner_isotrope_parallele) when we know that the current size of 'items_communs' is wrong because part of the domain was resized / changed.

Definition at line 2674 of file Scatter.cpp.

◆ construire_espace_virtuel_traduction()

void Scatter::construire_espace_virtuel_traduction	(	const MD_Vector &	md_indice,
		const MD_Vector &	md_valeur,
		IntTab &	tableau,
		const int	error_is_fatal = 1 )

static

Builds the items_communs + virtual space structure of an array containing indices of geometric items, indexed by another geometric item type.

Example: array indexed by md_indice, containing indices of md_valeur: type_indice type_valeur example array: element vertex domaine.les_elems() face vertex faces_sommets element face elem_faces face element faces_voisins element element ? element edge elem_aretes Nb_valeurs_max is the number of real items of type "type_valeur".

Definition at line 1621 of file Scatter.cpp.

◆ construire_md_vector()

void Scatter::construire_md_vector	(	const Domaine &	dom,
		int	nb_items_reels,
		const JOINT_ITEM	type_item,
		MD_Vector &	md_vector )

static

Builds an MD_Vector_std from the joint information of the domain for the requested item type.

Definition at line 1277 of file Scatter.cpp.

◆ construire_structures_paralleles()

void Scatter::construire_structures_paralleles ( Domaine & dom )

static

Builds the parallel structures of the domain (determination of distant elements as a function of joint thickness,.

determination of distant vertices, creation of virtual vertices and elements)

Definition at line 673 of file Scatter.cpp.

◆ corriger_espace_distant_elements_perio()

void Scatter::corriger_espace_distant_elements_perio ( Domaine & dom )

static

Current periodic algorithms (P1B assembler, OpDivElem P1B) require that for each virtual periodic face, the opposite face is.

also virtual. This is not guaranteed at the output of the calculer_elements_distants method. This method adds the missing elements to the remote spaces to ensure this condition: If a remote element for a given PE is adjacent to a periodic face, the element adjacent to the opposite face is added to the remote space.

Definition at line 1908 of file Scatter.cpp.

◆ domaine()

Domaine & Scatter::domaine ( )

Returns the associated domain.

Returns: The associated domain.

Definition at line 74 of file Scatter.cpp.

◆ init_sequential_domain()

template<typename _SIZE_>

template void Scatter::init_sequential_domain ( Domaine_32_64< _SIZE_ > & dom )

static

Create parallel descriptors for the vertex and element arrays of the domain (necessary because Scatter is never invoked in sequential).

In 64bit the corresponding number of items might be big. This is here the main justification for the need of the class MD_Vector_seq which unique useful argument is the total number of items (with type trustIdType). Alternative would have been to make all members of MD_Vector_std compatible with trustIdType ...

Definition at line 2739 of file Scatter.cpp.

◆ interpreter()

Entree & Scatter::interpreter ( Entree & is )

overridevirtual

Reads and completes a parallel domain according to the keywords read in the data set.

Format: Scatter [debug] file_name domain_name Reads the vertices, elements and joint vertices and faces, builds the distant and virtual spaces according to the joint layer thickness.

Implements Interprete.

Definition at line 129 of file Scatter.cpp.

◆ lire_domaine()

void Scatter::lire_domaine ( Nom & nomentree )

virtual

Reads the domain from the file named "nomentree", of type LecFicDistribueBin or LecFicDistribue.

Expected format: Domaine::ReadOn

Reimplemented in ScatterMED.

Definition at line 469 of file Scatter.cpp.

◆ OBS_PTR()

Scatter::OBS_PTR ( Domaine )

protected

◆ read_domain_no_comm()

void Scatter::read_domain_no_comm	(	Entree &	fic,
		bool &	read_perio )

protected

Does the exact same thing as the readOn of the class Domaine but without collective communication.

Necessary when the processors don't have the same numbers of file to read

Definition at line 395 of file Scatter.cpp.

◆ reordonner_faces_de_joint()

void Scatter::reordonner_faces_de_joint ( Domaine & dom )

static

Reorders joint faces so that they appear in the same order on each pair of neighboring processors.

In practice, for a pair pe1 < pe2, pe1 sends its joint faces to pe2 and pe2 translates them to local vertex indices. The joint faces of PE2 are therefore not used.

Definition at line 1675 of file Scatter.cpp.

◆ trier_les_joints()

void Scatter::trier_les_joints ( Joints & joints )

static

Sort joints by increasing neighbor proc number.

Definition at line 712 of file Scatter.cpp.

◆ uninit_sequential_domain()

template<typename _SIZE_>

template void Scatter::uninit_sequential_domain ( Domaine_32_64< _SIZE_ > & dom )

static

Method used by interpreters that modify the domain (sequential), destroys the descriptors of vertices and elements to allow modification of these arrays.

Definition at line 2754 of file Scatter.cpp.

The documentation for this class was generated from the following files:

/home/docs/trust-code/src/Kernel/Geometrie/Scatter.h
/home/docs/trust-code/src/Kernel/Geometrie/Scatter.cpp

Public Member Functions

Static Public Member Functions

Protected Member Functions

Additional Inherited Members

Detailed Description

Member Function Documentation

◆ ajouter_joints()

◆ calculer_espace_distant()

◆ calculer_espace_distant_aretes()

◆ calculer_espace_distant_elements()

◆ calculer_espace_distant_faces()

◆ calculer_espace_distant_sommets()

◆ calculer_nb_items_virtuels()

◆ calculer_renum_items_communs()

◆ check_consistancy_remote_items()

◆ Chercher_Correspondance()

◆ construire_correspondance_aretes_par_coordonnees()

◆ construire_correspondance_items_par_coordonnees()

◆ construire_correspondance_sommets_par_coordonnees()

◆ construire_espace_virtuel_traduction()

◆ construire_md_vector()

◆ construire_structures_paralleles()

◆ corriger_espace_distant_elements_perio()

◆ domaine()

◆ init_sequential_domain()

◆ interpreter()

◆ lire_domaine()

◆ OBS_PTR()

◆ read_domain_no_comm()

◆ reordonner_faces_de_joint()

◆ trier_les_joints()

◆ uninit_sequential_domain()