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!-------------------------------------------------------------------------------
! This file is part of Code_Saturne, a general-purpose CFD tool.
!
! Copyright (C) 1998-2016 EDF S.A.
!
! This program is free software; you can redistribute it and/or modify it under
! the terms of the GNU General Public License as published by the Free Software
! Foundation; either version 2 of the License, or (at your option) any later
! version.
!
! This program is distributed in the hope that it will be useful, but WITHOUT
! ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS
! FOR A PARTICULAR PURPOSE. See the GNU General Public License for more
! details.
!
! You should have received a copy of the GNU General Public License along with
! this program; if not, write to the Free Software Foundation, Inc., 51 Franklin
! Street, Fifth Floor6b1e433ea7e612c18f94b936f94db2eba9e887f2, Boston, MA 02110-1301, USA.
!-------------------------------------------------------------------------------
!> \file ecrhis.f90
!> \brief Write plot data
!>
!------------------------------------------------------------------------------
!------------------------------------------------------------------------------
! Arguments
!------------------------------------------------------------------------------
! mode name role
!------------------------------------------------------------------------------
!> \param[in] modhis 0 or 1: initialize/output; 2: finalize
!______________________________________________________________________________
subroutine ecrhis &
( modhis )
!===============================================================================
! Module files
!===============================================================================
use paramx
use numvar
use entsor
use cstnum
use optcal
use parall
use mesh
use field
!===============================================================================
implicit none
! Arguments
integer modhis
! Local variables
character nompre*300, nomhis*300
integer tplnum, ii, lpre, lnom, lng
integer icap, ncap, ipp, ippf
integer c_id, f_id, f_dim, f_type, n_fields
double precision varcap(ncaptm)
integer, dimension(:), allocatable :: lsttmp
double precision, dimension(:,:), allocatable :: xyztmp
double precision, dimension(:,:), pointer :: val_v
double precision, dimension(:), pointer :: val_s
character(len=3), dimension(3), save :: nomext3 = (/'[X]', '[Y]', '[Z]'/)
character(len=4), dimension(6), save :: nomext6 &
= (/'[XX]', '[YY]', '[ZZ]', '[XY]', '[YZ]', '[XZ]'/)
character(len=4), dimension(9), save :: nomext9 &
= (/'[XX]', '[XY]', '[XZ]', '[YX]', '[YY]', '[YZ]', '[ZX]', '[ZY]', '[ZZ]'/)
integer, save :: keypp = -1
! Time plot number shift (in case multiple routines define plots)
integer nptpl
data nptpl /0/
save nptpl
! Number of passes in this routine
integer ipass
data ipass /0/
save ipass
!===============================================================================
! 0. Local initializations
!===============================================================================
ipass = ipass + 1
!--> If no probe data has been output or there are no probes, return
if ((ipass.eq.1 .and. modhis.eq.2) .or. ncapt.eq.0) return
if (ipass.eq.1) then
call tplnbr(nptpl)
endif
if (keypp.lt.0) then
call field_get_key_id("post_id", keypp)
endif
!===============================================================================
! 1. Search for neighboring nodes -> nodcap
!===============================================================================
if (ipass.eq.1) then
do ii = 1, ncapt
call findpt &
(ncelet, ncel, xyzcen, &
xyzcap(1,ii), xyzcap(2,ii), xyzcap(3,ii), nodcap(ii), ndrcap(ii))
enddo
endif
!===============================================================================
! 2. Initialize output
!===============================================================================
! Create directory if required
if (ipass.eq.1 .and. irangp.le.0) then
call csmkdr(emphis, len(emphis))
endif
if (ipass.eq.1) then
! plot prefix
nompre = trim(adjustl(emphis)) // trim(adjustl(prehis))
lpre = len_trim(nompre)
allocate(lsttmp(ncapt))
allocate(xyztmp(3, ncapt))
! Initialize one output per variable
call field_get_n_fields(n_fields)
do f_id = 0, n_fields - 1
call field_get_key_int(f_id, keypp, ippf)
if (ippf.le.1) cycle
call field_get_dim (f_id, f_dim)
do c_id = 1, min(f_dim, 9)
ipp = ippf + c_id - 1
if (ihisvr(ipp,1) .gt. 0) then
ncap = ihisvr(ipp,1)
do ii=1, ncap
lsttmp(ii) = ihisvr(ipp,ii+1)
if (irangp.lt.0 .or. irangp.eq.ndrcap(ihisvr(ipp, ii+1))) then
xyztmp(1, ii) = xyzcen(1, nodcap(ihisvr(ipp, ii+1)))
xyztmp(2, ii) = xyzcen(2, nodcap(ihisvr(ipp, ii+1)))
xyztmp(3, ii) = xyzcen(3, nodcap(ihisvr(ipp, ii+1)))
endif
if (irangp.ge.0) then
lng = 3
call parbcr(ndrcap(ihisvr(ipp,ii+1)), lng , xyztmp(1, ii))
endif
enddo
else if (ihisvr(ipp,1) .lt. 0) then
ncap = ncapt
do ii = 1, ncap
lsttmp(ii) = ii
if (irangp.lt.0 .or. irangp.eq.ndrcap(ii)) then
xyztmp(1, ii) = xyzcen(1, nodcap(ii))
xyztmp(2, ii) = xyzcen(2, nodcap(ii))
xyztmp(3, ii) = xyzcen(3, nodcap(ii))
endif
if (irangp.ge.0) then
lng = 3
call parbcr(ndrcap(ii), lng , xyztmp(1, ii))
endif
enddo
else
ncap = 0
endif
if (ncap .gt. 0) then
if (irangp.le.0) then
call field_get_label(f_id, nomhis)
nomhis = adjustl(nomhis)
if (f_dim .eq. 3) then
nomhis = trim(nomhis) // nomext3(c_id)
else if (f_dim .eq. 6) then
nomhis = trim(nomhis) // nomext6(c_id)
else if (f_dim .eq. 9) then
nomhis = trim(nomhis) // nomext9(c_id)
endif
lnom = len_trim(nomhis)
tplnum = nptpl + ipp
call tppini(tplnum, nomhis, nompre, tplfmt, idtvar, &
ncap, lsttmp(1), xyzcap(1,1), lnom, lpre)
endif ! (irangp.le.0)
endif
enddo
enddo
deallocate(lsttmp)
deallocate(xyztmp)
endif
!===============================================================================
! 3. Output results
!===============================================================================
if (modhis.eq.0 .or. modhis.eq.1) then
call field_get_n_fields(n_fields)
! Loop on fields
do f_id = 0, n_fields - 1
call field_get_key_int(f_id, keypp, ippf)
if (ippf.lt.2) cycle
call field_get_dim (f_id, f_dim)
call field_get_type(f_id, f_type)
do c_id = 1, min(f_dim, 9)
ipp = ippf + c_id - 1
if (ihisvr(ipp,1).ne.0) then
! Case of 1D fields, including moments
if (f_dim .eq. 1) then
call field_get_val_s(f_id, val_s)
if (ihisvr(ipp,1).lt.0) then
do icap = 1, ncapt
if (irangp.lt.0) then
varcap(icap) = val_s(nodcap(icap))
else
call parhis(nodcap(icap), ndrcap(icap), val_s, varcap(icap))
endif
enddo
ncap = ncapt
else
do icap = 1, ihisvr(ipp,1)
if (irangp.lt.0) then
varcap(icap) = val_s(nodcap(ihisvr(ipp,icap+1)))
else
call parhis(nodcap(ihisvr(ipp,icap+1)), &
ndrcap(ihisvr(ipp,icap+1)), &
val_s, varcap(icap))
endif
enddo
ncap = ihisvr(ipp,1)
endif
if (irangp.le.0 .and. ncap.gt.0) then
tplnum = nptpl + ipp
call tplwri(tplnum, tplfmt, ncap, ntcabs, ttcabs, varcap)
endif
else ! For vector field
call field_get_val_v(f_id, val_v)
if (ihisvr(ipp,1).lt.0) then
do icap = 1, ncapt
if (irangp.lt.0 .or. ndrcap(icap).eq.irangp) then
varcap(icap) = val_v(c_id, nodcap(icap))
endif
if (irangp.ge.0) then
lng = 1
call parbcr(ndrcap(icap), lng, varcap(icap))
endif
enddo
ncap = ncapt
else if (ihisvr(ipp,1).gt.0) then
do icap = 1, ihisvr(ipp,1)
if (irangp.lt.0 .or. ndrcap(icap).eq.irangp) then
varcap(icap) = val_v(c_id, nodcap(ihisvr(ipp,icap+1)))
endif
if (irangp.ge.0) then
lng = 1
call parbcr(ndrcap(icap), lng, varcap(icap))
endif
enddo
ncap = ihisvr(ipp,1)
else
ncap = 0
endif
if (irangp.le.0 .and. ncap.gt.0) then
tplnum = nptpl + ipp
call tplwri(tplnum, tplfmt, ncap, ntcabs, ttcabs, varcap)
endif
endif ! Scalar or vector field
endif ! Output for this component
enddo ! loop on components
enddo ! loop on fields
endif
!===============================================================================
! 4. Close output
!===============================================================================
if (modhis.eq.2) then
call field_get_n_fields(n_fields)
do f_id = 0, n_fields - 1
call field_get_key_int(f_id, keypp, ippf)
if (ippf.le.1) cycle
call field_get_dim (f_id, f_dim)
do c_id = 1, min(f_dim, 3)
ipp = ippf + c_id - 1
ncap = ihisvr(ipp,1)
if (ncap.lt.0) ncap = ncapt
if (ncap.gt.0 .and. irangp.le.0) then
tplnum = nptpl + ipp
call tplend(tplnum, tplfmt)
endif
enddo
enddo
endif
!===============================================================================
! 5. End
!===============================================================================
return
end subroutine
|
