#include "cs_base.h"
#include "cs_equation.h"
#include "cs_gwf_soil.h"
#include "cs_gwf_tracer.h"

Include dependency graph for cs_gwf.h:

Macros
Flags specifying the kind of post-processing to perform in
the groundwater flow module
#define	CS_GWF_POST_SOIL_CAPACITY (1 << 0)
	Activate the post-processing of the soil capacity (property in front of the unsteady term in Richards equation) More...

#define	CS_GWF_POST_LIQUID_SATURATION (1 << 1)
	Activate the post-processing of the liquid saturation (also nammed "moisture content" in case of single phase flow) More...

#define	CS_GWF_POST_PERMEABILITY (1 << 2)
	Activate the post-processing of the permeability field. More...

#define	CS_GWF_POST_DARCY_FLUX_BALANCE (1 << 3)
	Compute the overall balance at the different boundaries of the Darcy flux. More...

#define	CS_GWF_POST_DARCY_FLUX_DIVERGENCE (1 << 4)
	Compute in each control volume (vertices or cells w.r.t the space scheme) the divergence of the Darcy flux. More...

#define	CS_GWF_POST_DARCY_FLUX_AT_BOUNDARY (1 << 5)
	Define a field at boundary faces for the Darcy flux and activate the post-processing. More...

Typedefs
typedef cs_flag_t	cs_gwf_option_flag_t

Enumerations
enum	cs_gwf_model_type_t { CS_GWF_MODEL_SATURATED_SINGLE_PHASE, CS_GWF_MODEL_UNSATURATED_SINGLE_PHASE, CS_GWF_MODEL_TWO_PHASE, CS_GWF_N_MODEL_TYPES }
	Type of system of equation(s) to consider for the physical modelling. More...

enum	cs_gwf_model_bit_t { CS_GWF_GRAVITATION = 1<< 0, CS_GWF_FORCE_RICHARDS_ITERATIONS = 1<< 6, CS_GWF_RESCALE_HEAD_TO_ZERO_MEAN_VALUE = 1<< 7, CS_GWF_ENFORCE_DIVERGENCE_FREE = 1<< 8 }
	Elemental modelling choice either from the physical viewpoint or the numerical viewpoint. More...

Functions
bool	cs_gwf_is_activated (void)
	Check if the groundwater flow module has been activated. More...

cs_gwf_t *	cs_gwf_activate (cs_property_type_t pty_type, cs_gwf_model_type_t model, cs_gwf_option_flag_t option_flag)
	Initialize the module dedicated to groundwater flows. More...

cs_gwf_t *	cs_gwf_destroy_all (void)
	Free all structures related to groundwater flows. More...

void	cs_gwf_set_two_phase_model (cs_real_t l_mass_density, cs_real_t l_viscosity, cs_real_t g_viscosity, cs_real_t l_diffusivity_h, cs_real_t w_molar_mass, cs_real_t h_molar_mass, cs_real_t ref_temperature, cs_real_t henry_constant)
	Set the parameters defining the two-phase flow model. Use SI unit if not prescribed otherwise. More...

void	cs_gwf_log_setup (void)
	Summary of the main cs_gwf_t structure. More...

void	cs_gwf_set_post_options (cs_flag_t post_flag, bool reset)
	Set the flag dedicated to the post-processing of the GWF module. More...

cs_adv_field_t *	cs_gwf_get_adv_field (void)
	Retrieve the advection field related to the Darcy flux in the liquid phase. More...

cs_real_t *	cs_gwf_get_uspf_head_in_law (void)
	Retrieve the head used in soil updates when an unsaturated single-phase flow is considered. These values are located at cells. More...

cs_gwf_soil_t *	cs_gwf_add_soil (const char *z_name, double bulk_density, double sat_moisture, cs_gwf_soil_hydraulic_model_t soil_model)
	Create and add a new cs_gwf_soil_t structure. An initialization by default of all members is performed. More...

cs_gwf_tracer_t *	cs_gwf_add_tracer (cs_gwf_tracer_model_t tr_model, const char eq_name, const char var_name)
	Add a new equation related to the groundwater flow module This equation is a particular type of unsteady advection-diffusion reaction eq. Tracer is advected thanks to the darcian velocity and diffusion/reaction parameters result from a physical modelling. Terms solved in the equation are activated according to the settings. The advection field corresponds to that of the liquid phase. More...

cs_gwf_tracer_t *	cs_gwf_add_user_tracer (const char eq_name, const char var_name, cs_gwf_tracer_setup_t setup, cs_gwf_tracer_add_terms_t add_terms)
	Add a new equation related to the groundwater flow module This equation is a particular type of unsteady advection-diffusion reaction eq. Tracer is advected thanks to the darcian velocity and diffusion/reaction parameters result from a physical modelling. Terms are activated according to the settings. Modelling of the tracer parameters are left to the user. More...

cs_gwf_tracer_t *	cs_gwf_tracer_by_name (const char *eq_name)
	Retrieve the pointer to the cs_gwf_tracer_t structure associated to the name given as parameter. More...

void	cs_gwf_add_tracer_terms (void)
	Add new terms if needed (such as diffusion or reaction) to tracer equations according to the settings. More...

void	cs_gwf_init_setup (void)
	Predefined settings for the Richards equation and the related equations defining the groundwater flow module. At this stage, all soils have been defined and equatino parameters are set. Create new cs_field_t structures according to the setting. More...

void	cs_gwf_finalize_setup (const cs_cdo_connect_t connect, const cs_cdo_quantities_t quant)
	Last initialization step of the groundwater flow module. At this stage, the mesh quantities are defined. More...

void	cs_gwf_update (const cs_mesh_t mesh, const cs_cdo_connect_t connect, const cs_cdo_quantities_t quant, const cs_time_step_t ts, bool cur2prev)
	Update the groundwater system (pressure head, head in law, moisture content, darcian velocity, soil capacity or permeability if needed) More...

void	cs_gwf_compute_steady_state (const cs_mesh_t mesh, const cs_time_step_t time_step, const cs_cdo_connect_t connect, const cs_cdo_quantities_t cdoq)
	Compute the steady-state of the groundwater flows module. Nothing is done if all equations are unsteady. More...

void	cs_gwf_compute (const cs_mesh_t mesh, const cs_time_step_t time_step, const cs_cdo_connect_t connect, const cs_cdo_quantities_t cdoq)
	Compute the system related to groundwater flows module. More...

cs_real_t	cs_gwf_integrate_tracer (const cs_cdo_connect_t connect, const cs_cdo_quantities_t cdoq, const cs_gwf_tracer_t tracer, const char z_name)
	Compute the integral over a given set of cells of the field related to a tracer equation. This integral turns out to be exact for linear functions. More...

void	cs_gwf_extra_op (const cs_cdo_connect_t connect, const cs_cdo_quantities_t cdoq)
	Predefined extra-operations for the groundwater flow module. More...

void	cs_gwf_extra_post_sspf (void input, int mesh_id, int cat_id, int ent_flag[5], cs_lnum_t n_cells, cs_lnum_t n_i_faces, cs_lnum_t n_b_faces, const cs_lnum_t cell_ids[], const cs_lnum_t i_face_ids[], const cs_lnum_t b_face_ids[], const cs_time_step_t time_step)
	Predefined post-processing output for the groundwater flow module in case of saturated single-phase flows (sspf) in porous media. Prototype of this function is given since it is a function pointer defined in cs_post.h (cs_post_time_mesh_dep_output_t) More...

void	cs_gwf_extra_post_uspf (void input, int mesh_id, int cat_id, int ent_flag[5], cs_lnum_t n_cells, cs_lnum_t n_i_faces, cs_lnum_t n_b_faces, const cs_lnum_t cell_ids[], const cs_lnum_t i_face_ids[], const cs_lnum_t b_face_ids[], const cs_time_step_t time_step)
	Predefined post-processing output for the groundwater flow module in case of unsaturated single-phase flows (uspf) in porous media. Prototype of this function is given since it is a function pointer defined in cs_post.h (cs_post_time_mesh_dep_output_t) More...

void	cs_gwf_extra_post_mtpf (void input, int mesh_id, int cat_id, int ent_flag[5], cs_lnum_t n_cells, cs_lnum_t n_i_faces, cs_lnum_t n_b_faces, const cs_lnum_t cell_ids[], const cs_lnum_t i_face_ids[], const cs_lnum_t b_face_ids[], const cs_time_step_t time_step)
	Predefined post-processing output for the groundwater flow module in case of miscible two-phase flows (mtpf) in porous media. Prototype of this function is given since it is a function pointer defined in cs_post.h (cs_post_time_mesh_dep_output_t) More...

Macro Definition Documentation

◆ CS_GWF_POST_DARCY_FLUX_AT_BOUNDARY

#define CS_GWF_POST_DARCY_FLUX_AT_BOUNDARY (1 << 5)

Define a field at boundary faces for the Darcy flux and activate the post-processing.

◆ CS_GWF_POST_DARCY_FLUX_BALANCE

#define CS_GWF_POST_DARCY_FLUX_BALANCE (1 << 3)

Compute the overall balance at the different boundaries of the Darcy flux.

◆ CS_GWF_POST_DARCY_FLUX_DIVERGENCE

#define CS_GWF_POST_DARCY_FLUX_DIVERGENCE (1 << 4)

Compute in each control volume (vertices or cells w.r.t the space scheme) the divergence of the Darcy flux.

◆ CS_GWF_POST_LIQUID_SATURATION

#define CS_GWF_POST_LIQUID_SATURATION (1 << 1)

Activate the post-processing of the liquid saturation (also nammed "moisture content" in case of single phase flow)

◆ CS_GWF_POST_PERMEABILITY

#define CS_GWF_POST_PERMEABILITY (1 << 2)

Activate the post-processing of the permeability field.

◆ CS_GWF_POST_SOIL_CAPACITY

#define CS_GWF_POST_SOIL_CAPACITY (1 << 0)

Activate the post-processing of the soil capacity (property in front of the unsteady term in Richards equation)

Typedef Documentation

◆ cs_gwf_option_flag_t

typedef cs_flag_t cs_gwf_option_flag_t

Enumeration Type Documentation

◆ cs_gwf_model_bit_t

enum cs_gwf_model_bit_t

Elemental modelling choice either from the physical viewpoint or the numerical viewpoint.

Enumerator
CS_GWF_GRAVITATION	Gravitation effects are taken into account in the Richards equation.
CS_GWF_FORCE_RICHARDS_ITERATIONS	Even if the Richards equation is steady-state, this equation is solved at each iteration.
CS_GWF_RESCALE_HEAD_TO_ZERO_MEAN_VALUE	Compute the mean-value of the hydraulic head field and subtract this mean-value to get a field with zero mean-value. It's important to set this flag if no boundary condition is given.
CS_GWF_ENFORCE_DIVERGENCE_FREE	Activate a treatment to enforce a Darcy flux to be divergence-free.

◆ cs_gwf_model_type_t

enum cs_gwf_model_type_t

Type of system of equation(s) to consider for the physical modelling.

Enumerator
CS_GWF_MODEL_SATURATED_SINGLE_PHASE	Single phase (liquid phase) modelling in a porous media. All soils are assumed to be saturated. This yields several simplifications in the Richards equation governing the water conservation. The Richards equation is steady. The saturation is constant and there is no relative permeability.
CS_GWF_MODEL_UNSATURATED_SINGLE_PHASE	Single phase (liquid phase) modelling in a porous media. Some soils are not saturated and are described by a more complex model such as the Van Genuchten-Mualen model. Simplifications made in the case of CS_GWF_MODEL_SATURATED_SINGLE_PHASE do not hold anymore. Richards equation is unsteady and there may be a non-linearity to handle according to the type of soil model. Soil properties such as permeability, soil capacity and liquid saturation (also called moisture content) are neither uniform nor steady.
CS_GWF_MODEL_TWO_PHASE	Two phase flow modelling (gaz and liquid phases) in porous media. A Richards-like equation is considered in each phase to take into account the mass conservation of water and one other component. The component can be disolved in the liquid phase. No water vapour is taken into account. Please refer to cs_gwf_miscible_two_phase_t for more details.
CS_GWF_N_MODEL_TYPES	Number of predefined models (not a model)

Function Documentation

◆ cs_gwf_activate()

cs_gwf_t* cs_gwf_activate	(	cs_property_type_t	pty_type,
		cs_gwf_model_type_t	model,
		cs_gwf_option_flag_t	option_flag
	)

Initialize the module dedicated to groundwater flows.

Parameters

[in]	pty_type	type of permeability (iso, ortho...)
[in]	model	type of physical modelling
[in]	option_flag	optional flag to specify this module

Returns: a pointer to a new allocated groundwater flow structure

◆ cs_gwf_add_soil()

cs_gwf_soil_t* cs_gwf_add_soil	(	const char *	z_name,
		double	bulk_density,
		double	sat_moisture,
		cs_gwf_soil_hydraulic_model_t	soil_model
	)

Create and add a new cs_gwf_soil_t structure. An initialization by default of all members is performed.

Parameters

[in]	z_name	name of the volume zone corresponding to the soil
[in]	bulk_density	value of the mass density
[in]	sat_moisture	value of the saturated moisture content
[in]	soil_model	type of modelling for the hydraulic behavior

Returns: a pointer to the new allocated soil structure

◆ cs_gwf_add_tracer()

cs_gwf_tracer_t* cs_gwf_add_tracer	(	cs_gwf_tracer_model_t	tr_model,
		const char *	eq_name,
		const char *	var_name
	)

Add a new equation related to the groundwater flow module This equation is a particular type of unsteady advection-diffusion reaction eq. Tracer is advected thanks to the darcian velocity and diffusion/reaction parameters result from a physical modelling. Terms solved in the equation are activated according to the settings. The advection field corresponds to that of the liquid phase.

Parameters

[in]	tr_model	physical modelling to consider (0 = default settings)
[in]	eq_name	name of the tracer equation
[in]	var_name	name of the related variable

◆ cs_gwf_add_tracer_terms()

void cs_gwf_add_tracer_terms ( void )

Add new terms if needed (such as diffusion or reaction) to tracer equations according to the settings.

◆ cs_gwf_add_user_tracer()

cs_gwf_tracer_t* cs_gwf_add_user_tracer	(	const char *	eq_name,
		const char *	var_name,
		cs_gwf_tracer_setup_t *	setup,
		cs_gwf_tracer_add_terms_t *	add_terms
	)

Add a new equation related to the groundwater flow module This equation is a particular type of unsteady advection-diffusion reaction eq. Tracer is advected thanks to the darcian velocity and diffusion/reaction parameters result from a physical modelling. Terms are activated according to the settings. Modelling of the tracer parameters are left to the user.

Parameters

[in]	eq_name	name of the tracer equation
[in]	var_name	name of the related variable
[in]	setup	function pointer (predefined prototype)
[in]	add_terms	function pointer (predefined prototype)

◆ cs_gwf_compute()

void cs_gwf_compute	(	const cs_mesh_t *	mesh,
		const cs_time_step_t *	time_step,
		const cs_cdo_connect_t *	connect,
		const cs_cdo_quantities_t *	cdoq
	)

Compute the system related to groundwater flows module.

Parameters

[in]	mesh	pointer to a cs_mesh_t structure
[in]	time_step	pointer to a cs_time_step_t structure
[in]	connect	pointer to a cs_cdo_connect_t structure
[in]	cdoq	pointer to a cs_cdo_quantities_t structure

◆ cs_gwf_compute_steady_state()

void cs_gwf_compute_steady_state	(	const cs_mesh_t *	mesh,
		const cs_time_step_t *	time_step,
		const cs_cdo_connect_t *	connect,
		const cs_cdo_quantities_t *	cdoq
	)

Compute the steady-state of the groundwater flows module. Nothing is done if all equations are unsteady.

Parameters

[in]	mesh	pointer to a cs_mesh_t structure
[in]	time_step	pointer to a cs_time_step_t structure
[in]	connect	pointer to a cs_cdo_connect_t structure
[in]	cdoq	pointer to a cs_cdo_quantities_t structure

◆ cs_gwf_destroy_all()

cs_gwf_t* cs_gwf_destroy_all ( void )

Free all structures related to groundwater flows.

Returns: a NULL pointer

◆ cs_gwf_extra_op()

void cs_gwf_extra_op	(	const cs_cdo_connect_t *	connect,
		const cs_cdo_quantities_t *	cdoq
	)

Predefined extra-operations for the groundwater flow module.

Parameters

[in]	connect	pointer to a cs_cdo_connect_t structure
[in]	cdoq	pointer to a cs_cdo_quantities_t structure

◆ cs_gwf_extra_post_mtpf()

void cs_gwf_extra_post_mtpf	(	void *	input,
		int	mesh_id,
		int	cat_id,
		int	ent_flag[5],
		cs_lnum_t	n_cells,
		cs_lnum_t	n_i_faces,
		cs_lnum_t	n_b_faces,
		const cs_lnum_t	cell_ids[],
		const cs_lnum_t	i_face_ids[],
		const cs_lnum_t	b_face_ids[],
		const cs_time_step_t *	time_step
	)

Predefined post-processing output for the groundwater flow module in case of miscible two-phase flows (mtpf) in porous media. Prototype of this function is given since it is a function pointer defined in cs_post.h (cs_post_time_mesh_dep_output_t)

Parameters

[in,out]	input	pointer to a optional structure (here a cs_gwf_t structure)
[in]	mesh_id	id of the output mesh for the current call
[in]	cat_id	category id of the output mesh for this call
[in]	ent_flag	indicate global presence of cells (ent_flag[0]), interior faces (ent_flag[1]), boundary faces (ent_flag[2]), particles (ent_flag[3]) or probes (ent_flag[4])
[in]	n_cells	local number of cells of post_mesh
[in]	n_i_faces	local number of interior faces of post_mesh
[in]	n_b_faces	local number of boundary faces of post_mesh
[in]	cell_ids	list of cells (0 to n-1)
[in]	i_face_ids	list of interior faces (0 to n-1)
[in]	b_face_ids	list of boundary faces (0 to n-1)
[in]	time_step	pointer to a cs_time_step_t struct.

◆ cs_gwf_extra_post_sspf()

void cs_gwf_extra_post_sspf	(	void *	input,
		int	mesh_id,
		int	cat_id,
		int	ent_flag[5],
		cs_lnum_t	n_cells,
		cs_lnum_t	n_i_faces,
		cs_lnum_t	n_b_faces,
		const cs_lnum_t	cell_ids[],
		const cs_lnum_t	i_face_ids[],
		const cs_lnum_t	b_face_ids[],
		const cs_time_step_t *	time_step
	)

Predefined post-processing output for the groundwater flow module in case of saturated single-phase flows (sspf) in porous media. Prototype of this function is given since it is a function pointer defined in cs_post.h (cs_post_time_mesh_dep_output_t)

Parameters

[in,out]	input	pointer to a optional structure (here a cs_gwf_t structure)
[in]	mesh_id	id of the output mesh for the current call
[in]	cat_id	category id of the output mesh for this call
[in]	ent_flag	indicate global presence of cells (ent_flag[0]), interior faces (ent_flag[1]), boundary faces (ent_flag[2]), particles (ent_flag[3]) or probes (ent_flag[4])
[in]	n_cells	local number of cells of post_mesh
[in]	n_i_faces	local number of interior faces of post_mesh
[in]	n_b_faces	local number of boundary faces of post_mesh
[in]	cell_ids	list of cells (0 to n-1)
[in]	i_face_ids	list of interior faces (0 to n-1)
[in]	b_face_ids	list of boundary faces (0 to n-1)
[in]	time_step	pointer to a cs_time_step_t struct.

◆ cs_gwf_extra_post_uspf()

void cs_gwf_extra_post_uspf	(	void *	input,
		int	mesh_id,
		int	cat_id,
		int	ent_flag[5],
		cs_lnum_t	n_cells,
		cs_lnum_t	n_i_faces,
		cs_lnum_t	n_b_faces,
		const cs_lnum_t	cell_ids[],
		const cs_lnum_t	i_face_ids[],
		const cs_lnum_t	b_face_ids[],
		const cs_time_step_t *	time_step
	)

Predefined post-processing output for the groundwater flow module in case of unsaturated single-phase flows (uspf) in porous media. Prototype of this function is given since it is a function pointer defined in cs_post.h (cs_post_time_mesh_dep_output_t)

Parameters

[in,out]	input	pointer to a optional structure (here a cs_gwf_t structure)
[in]	mesh_id	id of the output mesh for the current call
[in]	cat_id	category id of the output mesh for this call
[in]	ent_flag	indicate global presence of cells (ent_flag[0]), interior faces (ent_flag[1]), boundary faces (ent_flag[2]), particles (ent_flag[3]) or probes (ent_flag[4])
[in]	n_cells	local number of cells of post_mesh
[in]	n_i_faces	local number of interior faces of post_mesh
[in]	n_b_faces	local number of boundary faces of post_mesh
[in]	cell_ids	list of cells (0 to n-1)
[in]	i_face_ids	list of interior faces (0 to n-1)
[in]	b_face_ids	list of boundary faces (0 to n-1)
[in]	time_step	pointer to a cs_time_step_t struct.

◆ cs_gwf_finalize_setup()

void cs_gwf_finalize_setup	(	const cs_cdo_connect_t *	connect,
		const cs_cdo_quantities_t *	quant
	)

Last initialization step of the groundwater flow module. At this stage, the mesh quantities are defined.

Parameters

[in]	connect	pointer to a cs_cdo_connect_t structure
[in]	quant	pointer to a cs_cdo_quantities_t structure

◆ cs_gwf_get_adv_field()

cs_adv_field_t* cs_gwf_get_adv_field ( void )

Retrieve the advection field related to the Darcy flux in the liquid phase.

Returns: a pointer to a cs_adv_field_t structure or NULL

◆ cs_gwf_get_uspf_head_in_law()

cs_real_t* cs_gwf_get_uspf_head_in_law ( void )

Retrieve the head used in soil updates when an unsaturated single-phase flow is considered. These values are located at cells.

Returns: a pointer to the requested array of values or NULL if not defined

◆ cs_gwf_init_setup()

void cs_gwf_init_setup ( void )

Predefined settings for the Richards equation and the related equations defining the groundwater flow module. At this stage, all soils have been defined and equatino parameters are set. Create new cs_field_t structures according to the setting.

◆ cs_gwf_integrate_tracer()

cs_real_t cs_gwf_integrate_tracer	(	const cs_cdo_connect_t *	connect,
		const cs_cdo_quantities_t *	cdoq,
		const cs_gwf_tracer_t *	tracer,
		const char *	z_name
	)

Compute the integral over a given set of cells of the field related to a tracer equation. This integral turns out to be exact for linear functions.

Parameters

[in]	connect	pointer to a cs_cdo_connect_t structure
[in]	cdoq	pointer to a cs_cdo_quantities_t structure
[in]	tracer	pointer to a cs_gwf_tracer_t structure
[in]	z_name	name of the volumic zone where the integral is done (if NULL or "" all cells are considered)

Returns: the value of the integral

◆ cs_gwf_is_activated()

bool cs_gwf_is_activated ( void )

Check if the groundwater flow module has been activated.

Returns: true or false

◆ cs_gwf_log_setup()

void cs_gwf_log_setup ( void )

Summary of the main cs_gwf_t structure.

◆ cs_gwf_set_post_options()

void cs_gwf_set_post_options	(	cs_flag_t	post_flag,
		bool	reset
	)

Set the flag dedicated to the post-processing of the GWF module.

Parameters

[in]	post_flag	flag to set
[in]	reset	reset post flag before

◆ cs_gwf_set_two_phase_model()

void cs_gwf_set_two_phase_model	(	cs_real_t	l_mass_density,
		cs_real_t	l_viscosity,
		cs_real_t	g_viscosity,
		cs_real_t	l_diffusivity_h,
		cs_real_t	w_molar_mass,
		cs_real_t	h_molar_mass,
		cs_real_t	ref_temperature,
		cs_real_t	henry_constant
	)

Set the parameters defining the two-phase flow model. Use SI unit if not prescribed otherwise.

Parameters

[in]	l_mass_density	mass density of the main liquid component
[in]	l_viscosity	viscosity in the liquid phase (Pa.s)
[in]	g_viscosity	viscosity in the gas phase (Pa.s)
[in]	l_diffusivity_h	diffusivity of the main gas component in the liquid phase
[in]	w_molar_mass	molar mass of the main liquid component
[in]	h_molar_mass	molar mass of the main gas component
[in]	ref_temperature	reference temperature
[in]	henry_constant	constant in the Henry law

◆ cs_gwf_tracer_by_name()

cs_gwf_tracer_t* cs_gwf_tracer_by_name ( const char * eq_name )

Retrieve the pointer to the cs_gwf_tracer_t structure associated to the name given as parameter.

Parameters

[in] eq_name name of the tracer equation

Returns: the pointer to a cs_gwf_tracer_t structure

◆ cs_gwf_update()

void cs_gwf_update	(	const cs_mesh_t *	mesh,
		const cs_cdo_connect_t *	connect,
		const cs_cdo_quantities_t *	quant,
		const cs_time_step_t *	ts,
		bool	cur2prev
	)

Update the groundwater system (pressure head, head in law, moisture content, darcian velocity, soil capacity or permeability if needed)

Parameters

[in]	mesh	pointer to a cs_mesh_t structure
[in]	connect	pointer to a cs_cdo_connect_t structure
[in]	quant	pointer to a cs_cdo_quantities_t structure
[in]	ts	pointer to a cs_time_step_t structure
[in]	cur2prev	true or false

Macros

Typedefs

Enumerations

Functions

Macro Definition Documentation

◆ CS_GWF_POST_DARCY_FLUX_AT_BOUNDARY

◆ CS_GWF_POST_DARCY_FLUX_BALANCE

◆ CS_GWF_POST_DARCY_FLUX_DIVERGENCE

◆ CS_GWF_POST_LIQUID_SATURATION

◆ CS_GWF_POST_PERMEABILITY

◆ CS_GWF_POST_SOIL_CAPACITY

Typedef Documentation

◆ cs_gwf_option_flag_t

Enumeration Type Documentation

◆ cs_gwf_model_bit_t

◆ cs_gwf_model_type_t

Function Documentation

◆ cs_gwf_activate()

◆ cs_gwf_add_soil()

◆ cs_gwf_add_tracer()

◆ cs_gwf_add_tracer_terms()

◆ cs_gwf_add_user_tracer()

◆ cs_gwf_compute()

◆ cs_gwf_compute_steady_state()

◆ cs_gwf_destroy_all()

◆ cs_gwf_extra_op()

◆ cs_gwf_extra_post_mtpf()

◆ cs_gwf_extra_post_sspf()

◆ cs_gwf_extra_post_uspf()

◆ cs_gwf_finalize_setup()

◆ cs_gwf_get_adv_field()

◆ cs_gwf_get_uspf_head_in_law()

◆ cs_gwf_init_setup()

◆ cs_gwf_integrate_tracer()

◆ cs_gwf_is_activated()

◆ cs_gwf_log_setup()

◆ cs_gwf_set_post_options()

◆ cs_gwf_set_two_phase_model()

◆ cs_gwf_tracer_by_name()

◆ cs_gwf_update()