Collaboration diagram for pointe:

Data Types
type	pmapper_double_r1
	container for rank 1 double precision array pointer. More...

type	pmapper_double_r2
	container for rank 2 double precision array pointer. More...

type	pmapper_double_r3
	container for rank 3 double precision array pointer. More...

Public Member Functions
subroutine	init_aux_arrays

subroutine	resize_aux_arrays

subroutine	finalize_aux_arrays

subroutine	init_kpdc

subroutine	finalize_kpdc

subroutine	init_tsma (nvar)

subroutine	finalize_tsma

subroutine	init_pcond (nvar)

subroutine	finalize_pcond

subroutine	init_vcond (nvar, ncelet)

subroutine	finalize_vcond

subroutine	init_pt1d

subroutine	finalize_pt1d

Data Fields
integer, dimension(1), target	ivoid1

integer, dimension(1, 1), target	ivoid2

double precision, dimension(1), target	rvoid1

double precision, dimension(1, 1), target	rvoid2

double precision, dimension(1, 1, 1), target	rvoid3

double precision, dimension(:), allocatable	dispar
	distance between the center of a given volume and the closest wall, when it is necessary ( $R_{ij}-\varepsilon$ with wall echo, LES with van Driest-wall damping, or $k-\omega$ (SST) turbulence model) and when `icdpar=1`. The distance between the center of the cell `iel` and the closest wall is `dispar(iel)` More...

double precision, dimension(:), allocatable	yplpar
	non-dimensional distance between a given volume and the closest wall, when it is necessary (LES with van Driest-wall damping) and when `icdpar=1`. The adimensional distance between the center of the cell `iel` and the closest wall is therefore `yplpar(iel1)` More...

double precision, dimension(:), allocatable	uetbor
	friction velocity at the wall, in the case of a LES calculation with van Driest-wall damping More...

integer, dimension(:), allocatable	itypfb

integer, dimension(:), allocatable	itrifb
	indirection array allowing to sort the boundary faces according to their boundary condition type `itypfb` More...

integer, dimension(:), allocatable	izfppp
	to identify boundary zones associated with boundary faces (particular physics) More...

integer, dimension(:), allocatable	izfrad
	to identify boundary zones associated with boundary faces (radiative transfer) More...

integer, dimension(:), allocatable	ifapat
	number of the wall face (type `itypfb=iparoi` or `iparug`) which is closest to the center of a given volume when necessary ( $R_{ij}-\varepsilon$ with wall echo, LES with van Driest-wall damping, or $k-\omega$ (SST) turbulence model) and when `icdpar=2`. The number of the wall face which is the closest to the center of the cell `iel` is `ifapat(iel1)`. This calculation method is not compatible with parallelism and periodicity More...

integer, dimension(:), allocatable	idfstr
	the index of the structure, (`idfstr(ifac)` where `ifac` is the index of the face), 0 if the face is not coupled to any structure. More...

double precision, dimension(:), allocatable	s2kw
	square of the norm of the deviatoric part of the deformation rate tensor ( $S^2=2S_{ij}^D S_{ij}^D$ ). This array is defined only with the $k-\omega$ (SST) turbulence model More...

double precision, dimension(:), allocatable	divukw
	divergence of the velocity. More precisely it is the trace of the velocity gradient (and not a finite volume divergence term). In the cell `iel`, $div(\vect{u})$ is given by `divukw(iel1)`. This array is defined only with the $k-\omega$ SST turbulence model (because in this case it may be calculated at the same time as ) More...

double precision, dimension(:,:), allocatable	straio
	strain rate tensor at the previous time step More...

integer, save	nfpt1d
	number of boundary faces which are coupled with a wall 1D thermal module. See the user subroutine uspt1d More...

integer, save	nmxt1d

integer, dimension(:), allocatable	izft1d
	zones of t1d, dimensioned with nfabor (TODO) More...

integer, dimension(:), allocatable	nppt1d
	number of discretisation cells in the 1D wall for the `nfpt1d` boundary faces which are coupled with a wall 1D thermal module. The number of cells for these boundary faces is given by `nppt1d(ii)`, with 1 <= ii <= nfpt1d. See the user subroutine uspt1d More...

integer, dimension(:), allocatable	ifpt1d
	array allowing to mark out the numbers of the `nfpt1d` boundary faces which are coupled with a wall 1D thermal module. The numbers of these boundary faces are given by `ifpt1d(ii)`, with 1 <= ii <= `nfpt1d`. See the user subroutine uspt1d More...

integer, dimension(:), allocatable	iclt1d
	typical boundary condition at the external (pseudo) wall: Dirichlet condition (`iclt1d=1`) or flux condition (`iclt1d=3`) More...

double precision, dimension(:), allocatable	eppt1d
	thickness of the 1D wall for the `nfpt1d` boundary faces which are coupled with a wall 1D thermal module. The wall thickness for these boundary faces is therefore given by `eppt1d(ii)`, with 1 <= ii <= `nfpt1d`. See the user subroutine uspt1d More...

double precision, dimension(:), allocatable	rgpt1d
	geometry of the pseudo wall mesh (refined as a fluid if `rgt1d` is smaller than 1 More...

double precision, dimension(:), allocatable	tppt1d
	initialisation temperature of the wall (uniform in thickness). In the course of the calculation, the array stores the temperature of the solid at the fluid/solid interface. More...

double precision, dimension(:), allocatable	tept1d
	external temperature of the pseudo wall in the Dirichlet case. More...

double precision, dimension(:), allocatable	hept1d
	external coefficient of transfer in the pseudo wall under Dirichlet conditions (in $W.m^{-2}.K^.$ ). More...

double precision, dimension(:), allocatable	fept1d
	external heat flux in the pseudo wall under the flux conditions (in $W.m^{-2}$ , negative value for energy entering the wall). More...

double precision, dimension(:), allocatable	xlmbt1
	thermal diffusivity More...

double precision, dimension(:), allocatable	rcpt1d
	volumetric heat capacity $\rho C_p$ of the wall uniform in thickness (in $J.m^{-3}.K^{-1}$ ). More...

double precision, dimension(:), allocatable	dtpt1d
	physical time step associated with the solved 1D equation of the pseudo wall (which can be different from the time step in the calculation). More...

integer, save	ncepdc
	number of cells in which a pressure drop is imposed. See the user subroutine cs_user_head_losses More...

integer, dimension(:), allocatable	icepdc
	number of the `ncepdc` cells in which a pressure drop is imposed. See `{iicepd}` and the user subroutine cs_user_head_losses More...

integer, dimension(:), allocatable	izcpdc
	zone with head losses More...

double precision, dimension(:,:), allocatable	ckupdc
	value of the coefficients of the pressure drop tensor of the `ncepdc` cells in which a pressure drop is imposed. Note the 6 values are sorted as follows: (k11, k22, k33, k12, k23, k33). See `ickpdc` and the user subroutine cs_user_head_losses More...

double precision, dimension(:), allocatable	b_head_loss
	Head loss factor of the fluid outside the domain, between infinity and the entrance (for ifrent boundary type). The default value is 0, dimensionless factor. The user may give a value in cs_user_boundary_conditions in the array `rcodcl`(ifac, ipr, 2). More...

integer, save	ncetsm
	number of the `ncetsm` cells in which a mass source term is imposed. See `iicesm` and the user subroutine Examples of data settings for mass source terms (cs_user_mass_source_terms.f90) More...

integer, dimension(:), allocatable	icetsm
	number of the `ncetsm` cells in which a mass source term is imposed. See `iicesm` and the user subroutine Examples of data settings for mass source terms (cs_user_mass_source_terms.f90)}} More...

integer, dimension(:), allocatable	izctsm
	zone where a mass source term is imposed. More...

integer, dimension(:,:), allocatable	itypsm
	type of mass source term for each variable More...

double precision, dimension(:,:), allocatable	smacel
	value of the mass source term for pressure. For the other variables, eventual imposed injection value. See the user subroutine Examples of data settings for mass source terms (cs_user_mass_source_terms.f90) More...

double precision, dimension(:), allocatable	gamcav
	liquid-vapour mass transfer term for cavitating flows and its derivative with respect to pressure More...

double precision, dimension(:), allocatable	dgdpca

integer, save	nfbpcd
	number of the nfbpcd faces in which a condensation source terms is imposed. See `ifbpcd` and the user subroutine cs_user_boundary_mass_source_terms More...

integer, dimension(:), allocatable	ifbpcd
	list on the nfbpcd faces in which a condensation source terms is imposed. See `ifbpcd` and the user subroutine cs_user_boundary_mass_source_terms More...

integer, dimension(:), allocatable	izftcd
	zone where a condensation source terms is imposed. More...

integer, dimension(:,:), allocatable	itypcd
	type of condensation source terms for each variable More...

double precision, dimension(:,:), allocatable	spcond
	value of the condensation source terms for pressure. For the other variables, eventual imposed specific value. See the user subroutine cs_user_boundary_mass_source_terms More...

double precision, dimension(:), allocatable	thermal_condensation_flux
	value of the thermal flux for the condensation model. See the user subroutine cs_user_boundary_mass_source_terms More...

double precision, dimension(:), allocatable	hpcond
	value of the thermal exchange coefficient associated to the condensation model used. See the user subroutine cs_user_boundary_mass_source_terms More...

double precision, dimension(:), allocatable	flthr
	Specific 1D thermal model with implicit time scheme (only used with condensation modelling to the cold wall) flthr ! external heat flux used as flux conditions ! of the 1d thermal model (in unit $W.m^{-2}$ ). More...

double precision, dimension(:), allocatable	dflthr
	dflthr ! external heat flux derivative used as flux conditions ! of the 1d thermal model (in unit $W.m^{-3}$ ). More...

integer, save	ncmast
	number of the ncmast cells in which a condensation source terms is imposed. See `lstmast` list and the subroutine cs_user_metal_structures_source_terms More...

integer, dimension(:), allocatable	ltmast
	list on the ncmast cells in which a condensation source terms is imposed. See the user subroutine cs_user_metal_structures_source_terms. More...

integer, dimension(:), allocatable	izmast
	zone type where a condensation source terms is imposed to model the metal structures condensation on a volumic zone. More...

integer, dimension(:,:), allocatable	itypst
	type of condensation source terms for each variable More...

double precision, dimension(:,:), allocatable	svcond
	value of the condensation source terms for pressure associated to the metal structures modelling. For the other variables, eventual imposed specific value. See the user subroutine cs_user_metal_structures_source_terms. More...

double precision, dimension(:), allocatable	flxmst
	value of the thermal flux for the condensation model associated to the metal structures modelling. See the user subroutine cs_user_metal_structures_source_terms. More...

integer, dimension(:), allocatable	icocel

integer, dimension(:), allocatable	itycel

integer, dimension(:), allocatable	ifrlag

double precision, dimension(:,:), pointer	statis => null()

double precision, dimension(:,:), pointer	parbor => null()

double precision, dimension(:,:), pointer	tslagr => null()

double precision, dimension(:,:), pointer	stativ

double precision, dimension(:,:), pointer	dlgeo