Context related to CDO face-based discretization when dealing with the Navier-Stokes equations with an Artificial compressibility algorithm. More...

Inheritance diagram for cs_cdofb_ac_t:

Collaboration diagram for cs_cdofb_ac_t:

Public Attributes
Build stage
Additional members which corresponds to function pointers
cs_cdofb_navsto_source_t *	add_gravity_term

Public Attributes inherited from cdo_navsto_ac_ctx_t
cs_navsto_ac_t *	coupling_context

bool	is_zeta_uniform

cs_iter_algo_t *	nl_algo

Public Attributes inherited from cdo_navsto_ctx_t
cs_field_t *	velocity

cs_field_t *	pressure

cs_field_t *	divergence

cs_adv_field_t *	adv_field

cs_real_t *	mass_flux_array

cs_real_t *	mass_flux_array_pre

const cs_boundary_type_t *	bf_type

cs_cdo_bc_face_t *	pressure_bc

int	pressure_rescaling

cs_cdo_apply_boundary_t *	apply_fixed_wall

cs_cdo_apply_boundary_t *	apply_sliding_wall

cs_cdo_apply_boundary_t *	apply_velocity_inlet

cs_cdo_apply_boundary_t *	apply_symmetry

cs_timer_counter_t	timer

Additional Inherited Members
Public Member Functions inherited from cdo_navsto_ctx_t
cs_real_t *	get_mass_flux (bool previous) const
	Retrieve the mass flux array related to the Navier-Stokes system. More...

Detailed Description

Context related to CDO face-based discretization when dealing with the Navier-Stokes equations with an Artificial compressibility algorithm.

Member Data Documentation

add_gravity_term

Compute and add the source term related to the gravity vector This can be the Boussinesq term or the hydrostatic term (rho*g)

The documentation for this struct was generated from the following file: