#include <Collision_Model_FT_arbitrary.h>

Inheritance diagram for Collision_Model_FT_arbitrary:

Collaboration diagram for Collision_Model_FT_arbitrary:

Public Member Functions
	Collision_Model_FT_arbitrary ()
void	compute_lagrangian_contact_forces (const Fluide_Diphasique &two_phase_fluid, const DoubleTab &particles_position, const DoubleTab &particles_velocity, const double &deltat_simu) override
void	discretize_contact_forces_eulerian_field (const DoubleTab &volumic_phase_indicator_function, const Domaine_VF &domain_vf, const IntTab &particles_eulerian_id_number, DoubleTab &contact_force_source_term) override
Public Member Functions inherited from Collision_Model_FT_base
	Collision_Model_FT_base ()
int	lire_motcle_non_standard (const Motcle &, Entree &) override
	Lecture des parametres de type non simple d'un objet_U a partir d'un flot d'entree.
int	reprendre (Entree &is) override
	Reprise d'un Objet_U sur un flot d'entree Methode a surcharger.
int	sauvegarder (Sortie &os) const override
	Sauvegarde d'un Objet_U sur un flot de sortie Methode a surcharger.
int	preparer_calcul (const Domaine_VDF &domain_vdf, const int nb_particles_tot, const Navier_Stokes_FT_Disc &ns, const Transport_Interfaces_FT_Disc &eq_transport, const Schema_Comm &schema_comm_FT)
void	set_param (Param &p) const override
void	reset ()
void	resize_geometric_parameters ()
void	resize_lagrangian_contact_force ()
void	resize_particles_collision_number ()
void	associate_transport_equation (const Equation_base &equation)
int	check_for_duplicates (ArrOfInt &vector)
	Check if two particles have the same ID Very important function to stop computation if two particles coalesce.
void	compute_fictive_wall_coordinates (const double &radius)
void	research_collision_pairs_Verlet (const Navier_Stokes_FT_Disc &eq_ns, const Transport_Interfaces_FT_Disc &eq_transport)
void	compute_Verlet_tables (const DoubleTab &particles_position, const DoubleTab &particles_velocity, double &max_vi, const double &radius, const ArrOfInt &list_particles_to_check_LC)
DoubleTab	compute_contact_force (const double &next_dist_int, const DoubleTab &norm, const DoubleTab &dUn, const int &particle_i, const int &particle_j, const int &is_compression_step, const double &is_collision_part_part)
double	compute_ewet_legendre (const double &St)
double	compute_stiffness_breugem (const double &mass_eff, const double &e_dry)
double	compute_damper_breugem (const double &mass_eff, const double &e_dry)
void	add_collision (const int part_i, const int part_j, const bool is_part_part_collision)
bool	is_Verlet_activated ()
bool	is_LC_activated ()
void	set_nb_particles_tot (int nb_particles_tot)
void	set_nb_real_particles (int nb_real_particles)
void	set_activation_distance (const double &diameter)
void	set_spring_properties (const Solid_Particle_base &solid_particle)
void	set_domain_dimensions (DoubleVect &Longueurs)
void	set_origin (DoubleVect &Origin)
void	set_geometric_parameters (const Domaine_VDF &domaine_vdf)
	Recover the geometric parameters of the domain: number of nodes in each direction origin of the domain dimensions of the domain.
void	set_LC_zones (const Domaine_VF &domaine_vf, const Schema_Comm &schema_com)
const int &	get_nb_dt_Verlet () const
const int &	get_nb_dt_compute_Verlet () const
const int &	get_nb_dt_max_Verlet () const
const int &	get_is_force_on_two_phase_elem () const
const int &	get_collision_number () const
const int &	get_nb_real_particles () const
const int &	get_nb_particles_tot () const
int	get_last_id (const ArrOfInt &list_particles_to_check_LC)
int	get_id (const ArrOfInt &list_particle, const int ind_id_particle)
const double &	get_duration_collision () const
const double &	get_delta_n () const
const double &	get_s_Verlet () const
const DoubleVect &	get_wall_coordinates () const
const DoubleVect &	get_origin () const
const DoubleVect &	get_domain_dimensions () const
const DoubleTab &	get_lagrangian_contact_forces () const
const DoubleTab &	get_particles_collision_number () const
const ArrOfInt &	get_list_upper_zone () const
const ArrOfInt &	get_list_lower_zone () const
const IntLists &	get_Verlet_table () const
DoubleVect &	get_set_collisions_detected ()
DoubleTab &	get_set_e_eff ()
DoubleTab &	get_set_F_old ()
DoubleTab &	get_set_F_now ()
DoubleTab &	get_set_lagrangian_contact_forces ()
int &	get_set_nb_dt_Verlet ()
Public Member Functions inherited from Objet_U
	~Objet_U () override
	Destructeur, supprime l'objet de la liste d'objets enregistres dans "memoire".
int	numero () const
	Renvoie l'indice de l'objet dans Memoire::data.
virtual int	duplique () const =0
virtual Sortie &	printOn (Sortie &) const
	Ecriture de l'objet sur un flot de sortie Methode a surcharger.
virtual Entree &	readOn (Entree &)
	Lecture d'un Objet_U sur un flot d'entree Methode a surcharger.
virtual unsigned	taille_memoire () const =0
virtual int	est_egal_a (const Objet_U &) const
	Renvoie 1 si l'objet x et *this sont une seule et meme instance (meme adresse en memoire).
virtual const Nom &	le_nom () const
	Donne le nom de l'Objet_U Methode a surcharger : renvoie "neant" dans cette implementation.
virtual void	nommer (const Nom &)
	Donne un nom a l'Objet_U Methode virtuelle a surcharger.
int	get_object_id () const
	Renvoie l'identifiant unique de l'objet object_id_.
virtual const Type_info *	get_info () const
	Donne des informations sur le type de l'Objet_U.
const Nom &	que_suis_je () const
	renvoie la chaine identifiant la classe.
const char *	le_type () const
	Donne le nom du type de l'Objet_U.
virtual int	change_num (const int *const)
	Change le numero interne de l'Objet_U.
virtual int	associer_ (Objet_U &)
	Associe l'Objet_U a un autre Objet_U Methode virtuelle a surcharger.
const Interprete &	interprete () const
Interprete &	interprete ()
Public Member Functions inherited from Process
virtual	~Process ()

Additional Inherited Members
Static Public Member Functions inherited from Objet_U
static const Nom &	nom_du_cas ()
	Renvoie une reference constante vers le nom du cas.
static Nom &	get_set_nom_du_cas ()
	Renvoie une reference non constante vers le nom du cas (pour pouvoir le modifier).
static const Type_info *	info ()
	Donne des informations sur le type de l'Objet_U.
static const Objet_U &	self_cast (const Objet_U &)
	methode ajoutee pour caster en python
static Objet_U &	self_cast (Objet_U &)
Static Public Member Functions inherited from Process
static int	me ()
	renvoie mon rang dans le groupe de communication courant.
static int	nproc ()
	renvoie le nombre de processeurs dans le groupe courant Voir Comm_Group::nproc() et PE_Groups::current_group()
static bool	is_parallel ()
static void	exit (int exit_code=-1)
	Routine de sortie de TRUST dans une region Kokkos.
static double	mp_sum (double)
	Calcule la somme de x sur tous les processeurs du groupe courant.
static float	mp_sum (float)
static trustIdType	mp_sum (trustIdType)
	Calcule la somme de x sur tous les processeurs du groupe courant.
static double	mp_max (double)
static double	mp_min (double)
static int	mp_max (int)
	renvoie le plus grand int i sur l'ensemble des processeurs du groupe courant.
static int	mp_min (int)
	renvoie le plus petit int i sur l'ensemble des processeurs du groupe courant.
static double	mp_sum_as_double (int v)
static trustIdType	mppartial_sum (trustIdType i)
	Calul de la somme partielle de i sur les processeurs 0 a me()-1 (renvoie 0 sur le processeur 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)
	Calcule le 'et' logique de b sur tous les processeurs du groupe courant.
static bool	mp_or (bool)
static int	check_int_overflow (trustIdType)
static int	je_suis_maitre ()
	renvoie 1 si on est sur le processeur maitre du groupe courant (c'est a dire me() == 0), 0 sinon.
static KOKKOS_INLINE_FUNCTION void	Kokkos_exit (const char *)
	Routine de sortie de TRUST dans une region Kokkos.
static int	node_master ()
	renvoie 1 si on est sur le processeur maitre du noeud numa, 0 sinon.
static void	exit (const Nom &message, int exit_code=-1)
static bool	is_sequential ()
static void	barrier ()
	Synchronise tous les processeurs du groupe courant (attend que tous les processeurs soient arrives a la barriere).
static void	abort ()
	Routine de sortie de Trio-U sur une erreur abort().
static Sortie &	Journal (int message_level=0)
	Renvoie un objet statique de type Sortie qui sert de journal d'evenements.
static double	ram_processeur ()
static void	imprimer_ram_totale (int all_process=0)
static bool	force_single_file (const int ranks, const Nom &filename)
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
Protected Types inherited from Collision_Model_FT_base
enum class	Collision_model { HYBRID_ESI , BREUGEM }
enum class	Detection_method { CHECK_ALL , VERLET , LC_VERLET }
Protected Member Functions inherited from Collision_Model_FT_base
	OBS_PTR (Transport_Interfaces_FT_Disc) refequation_transport_
	OBS_PTR (Domaine) ref_domaine
void	compute_dX_dU (DoubleTab &dX, DoubleTab &dU, const int &particle, const int &neighbor, const DoubleTab &particles_position, const DoubleTab &particles_velocity, const bool is_particle_particle_collision)
int	get_nb_particles_j (const int ind_particle_i) const
int	get_ind_start_particles_j (const int ind_particle_i) const
int	get_particle_i (const int ind_particle_i)
int	get_particle_j (const int ind_particle_i, const int ind_particle_j)
Protected Member Functions inherited from Objet_U
	Objet_U ()
	Constructeur par defaut : attribue un numero d'identifiant unique a l'objet (object_id_), et enregistre l'objet en "memoire".
	Objet_U (const Objet_U &)
	Constructeur par copie.
const Objet_U &	operator= (const Objet_U &)
	Operateur= : ne fait rien (on conserve le numero et l'identifiant).
Protected Attributes inherited from Collision_Model_FT_base
int	is_collision_activated_before_impact_ = 1
int	is_force_on_two_phase_elem_ = 0
int	nb_particles_tot_ = 0
int	nb_dt_Verlet_ = 0
int	nb_dt_compute_Verlet_ = 0
int	nb_dt_max_Verlet_ = 0
int	collision_number_ = 0
int	no_collision_model_ =0
double	activation_distance_percentage_diameter_ = 0
double	activation_distance_ = 0
double	collision_duration_ = 0.
double	detection_thickness_Verlet_ = 0.
DoubleTab	particles_collision_number_
DoubleTab	e_eff_
DoubleTab	F_old_
DoubleTab	F_now_
DoubleTab	lagrangian_contact_forces_
DoubleVect	collision_detected_
ArrOfInt	list_upper_zone_
ArrOfInt	list_lower_zone_
IntVect	nb_nodes_
DoubleVect	origin_
DoubleVect	domain_dimensions_
DoubleVect	fictive_wall_coordinates_
IntLists	Verlet_tables_
ArrOfInt	list_real_particles_
int	nb_real_particles_
double	stiffness_breugem_part_part_ = 0
double	stiffness_breugem_wall_part_ = 0
double	damper_breugem_part_part_ = 0
double	damper_breugem_wall_part_ = 0
Collision_model	collision_model_ = Collision_model::HYBRID_ESI
Detection_method	detection_method_ = Detection_method::CHECK_ALL

Detailed Description

Definition at line 21 of file Collision_Model_FT_arbitrary.h.

Constructor & Destructor Documentation

◆ Collision_Model_FT_arbitrary()

Collision_Model_FT_arbitrary::Collision_Model_FT_arbitrary ( )

Definition at line 22 of file Collision_Model_FT_arbitrary.cpp.

Member Function Documentation

◆ compute_lagrangian_contact_forces()

void Collision_Model_FT_arbitrary::compute_lagrangian_contact_forces	(	const Fluide_Diphasique &	two_phase_fluid,
		const DoubleTab &	particles_position,
		const DoubleTab &	particles_velocity,
		const double &	deltat_simu )

overridevirtual

Implements Collision_Model_FT_base.

Definition at line 40 of file Collision_Model_FT_arbitrary.cpp.

◆ discretize_contact_forces_eulerian_field()

void Collision_Model_FT_arbitrary::discretize_contact_forces_eulerian_field	(	const DoubleTab &	volumic_phase_indicator_function,
		const Domaine_VF &	domain_vf,
		const IntTab &	particles_eulerian_id_number,
		DoubleTab &	contact_force_source_term )

overridevirtual

Implements Collision_Model_FT_base.

Definition at line 49 of file Collision_Model_FT_arbitrary.cpp.

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

/home/docs/checkouts/readthedocs.org/user_builds/triocfd-documentation/checkouts/next/src/Multiphase/fluid_particle_interaction/Collision_Model_FT_arbitrary.h
/home/docs/checkouts/readthedocs.org/user_builds/triocfd-documentation/checkouts/next/src/Multiphase/fluid_particle_interaction/Collision_Model_FT_arbitrary.cpp