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!Environment Canada - Atmospheric Science and Technology License/Disclaimer,
! version 3; Last Modified: May 7, 2008.
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***s/r itf_phy_apply - apply tendencies to dynamical variables
*
#include "model_macros_f.h"
*
subroutine itf_phy_apply ( F_tdu,F_tdv,F_tdt,F_trm, 1,12
$ F_tp,F_qp, DIST_DIM,Nk,F_apply_L )
*
implicit none
*
logical F_apply_L
integer DIST_DIM,Nk
real F_tdu (DIST_SHAPE,Nk), F_tdv (DIST_SHAPE,Nk),
$ F_tdt (DIST_SHAPE,Nk), F_trm (DIST_SHAPE,Nk,*),
$ F_tp (DIST_SHAPE,Nk), F_qp (DIST_SHAPE,Nk)
*
*author
* Michel Roch - rpn - april 1994
*
*revision
* v2_00 - Desgagne M. - initial MPI version
* v2_30 - Edouard S. - change call to uv2tdpsd
* v2_31 - Desgagne M. - clean up and introduce h2o tracers
* v3_00 - Laroche S. - adaptation to include simplified physics
* v3_02 - Plante A. - water loading
* v3_03 - Desgagne M. - new switches for secondary tendencies
* v3_12 - Dugas B. - no longer zero out tendencies in the LAM
* blending area, following Lam_0ptend_L
* v3_20 - Laroche S. - slight modification to rpn_comm_xch_halo call
* v3_21 - Tanguay M. - Zero wk5 for hatoprg
* v3_21 - Desgagne M. - Revision OpenMP
* v3_30 - Spacek L. - Eliminate filter for condensation tendencies
* and arguments F_tcond,F_qdifv
*object
* Apply consistency of the tendencies on physics variables
* with related dynamical variables. Interpolate wind
* tendancies toward theirs respective grids.
*
*arguments
* Name I/O Description
*----------------------------------------------------------------
*
*implicits
#include "glb_ld.cdk"
#include "cstv.cdk"
#include "lun.cdk"
#include "hblen.cdk"
#include "dcst.cdk"
#include "schm.cdk"
#include "geomg.cdk"
#include "lam.cdk"
#include "intuv.cdk"
#include "inuvl.cdk"
#include "vt0.cdk"
#include "vt1.cdk"
#include "itf_phy_busind.cdk"
#include "v4dg.cdk"
*
*modules
integer vmmlod,vmmget,vmmuld
external vmmlod,vmmget,vmmuld
*
integer*8 pnt_trp(phyt_ntr),pnt_trm(phyt_ntr)
integer i, j, k, n, err, key1(7), ng,
$ keyp(phyt_ntr), keym(phyt_ntr), keyp_, keym_
real wk1(LDIST_SHAPE,Nk), wk2(LDIST_SHAPE,Nk),
$ wk3(LDIST_SHAPE,Nk), wk4(LDIST_SHAPE,Nk),
$ wk5(LDIST_SHAPE,Nk), wk6(LDIST_SHAPE,Nk), trp, trm
pointer (patrp, trp(LDIST_SHAPE,*)),(patrm, trm(LDIST_SHAPE,*))
*
*notes
* Consistency is applied according to diagnostic relationships
* used at initial time in predat. If changes are
* made to the relations used in that routine, they should
* be made accordingly here.
**
* __________________________________________________________________
*
keyp_ = VMM_KEY (trt1)
keym_ = VMM_KEY (trt0)
if (phyt_ntr.gt.0) then
do n=1,phyt_ntr
keyp(n) = keyp_ + n
keym(n) = keym_ + n
end do
err = vmmlod(keyp,phyt_ntr)
err = vmmlod(keym,phyt_ntr)
do n=1,phyt_ntr
err = vmmget(keyp(n),patrp,trp)
pnt_trp(n) = patrp
err = vmmget(keym(n),patrm,trm)
pnt_trm(n) = patrm
end do
endif
*
if (F_apply_L) then
*
key1(1) = VMM_KEY(st1 )
key1(2) = VMM_KEY(fipt1)
key1(3) = VMM_KEY(fit1 )
key1(4) = VMM_KEY(tplt1)
key1(5) = VMM_KEY(tpt1 )
key1(6) = VMM_KEY(tdt1 )
key1(7) = VMM_KEY(psdt1)
err = vmmlod (key1,7)
err = VMM_GET_VAR(st1 )
err = VMM_GET_VAR(fipt1)
err = VMM_GET_VAR(fit1 )
err = VMM_GET_VAR(tplt1)
err = VMM_GET_VAR(tpt1 )
err = VMM_GET_VAR(tdt1 )
err = VMM_GET_VAR(psdt1)
*
* 4. Interpolation of the wind associated tendencies
*
*
* Zero wk5 for hatoprg
* --------------------
wk5 = 0.
*
call itf_phy_uvgridscal ( F_tdu, F_tdv, LDIST_DIM, G_nk, .false. )
*
* 1. Add condensation tendencies and other contributions to get
* TOTAL temperature tendency and TOTAL specific humidity tendency
* Compute VIRTUAL temperature tendency from: temperature tendency,
* specific humidity, temperature & specific humidity tendency :
*
* / \ / \
* | + / + \ | + | / \ |
* dT = dT | 1 + delta*q - sum | q | | + T | delta*dq - sum | dq | |
* v | v \ j / | | v \ j / |
* \ / \ /
*
!$omp parallel
!$omp do
do k=1,l_nk
if ( G_lam .and. ((Hblen_x.gt.0).or.(Hblen_y.gt.0)) )
$ wk2(:,:,k) = 0.
wk3(:,:,k) = 0.
wk4(:,:,k) = 0.
end do
!$omp enddo
*
if (Schm_wload_L) then
* Retrieve sp mass of hydrometeors at t+ and sum them in wk3, also
* sum their tendencies in wk4.
*
do n=hucond+1,h2o_ntr
patrp = pnt_trp(n)
!$omp do
do k=1,l_nk
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
wk3(i,j,k) = wk3(i,j,k) + trp(i,j,k)
wk4(i,j,k) = wk4(i,j,k) + F_trm(i,j,k,n)
end do
end do
end do
!$omp enddo
enddo
endif
*
!$omp end parallel
*
* Store TRAJ for the simplified physics
* -------------------------------------
if ( V4dg_conf.ne.0 .and. V4dg_oktr_L) then
call v4d_rwtraj_apply(F_tdu,F_tdv,F_tdt,F_trm,wk4,LDIST_DIM,Nk)
endif
*
* 1.1 Compute VIRTUAL temperature tendency from: temperature tendency,
* specific humidity, virtual temperature & specific humidity tendency
*
!$omp parallel
*
patrp = pnt_trp(1)
!$omp do
do k=1,l_nk
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
F_tdt(i,j,k) = F_tdt(i,j,k)
$ * (1.+Dcst_delta_8*trp (i,j,k) -wk3(i,j,k))
$ + F_tp(i,j,k)*
$ (Dcst_delta_8*F_trm(i,j,k,hucond)-wk4(i,j,k))
wk1(i,j,k) = F_tdt(i,j,k)
end do
end do
end do
!$omp enddo
*
!$omp single
if ( Lam_0ptend_L .and. G_lam .and.
$ ((Hblen_x.gt.0).or.(Hblen_y.gt.0)) )
$ call nesajr (wk1,wk2,LDIST_DIM,G_nk,0,0,Hblen_x,Hblen_y)
!$omp end single
*
*C apply tendencies to associated variables
* ----------------------------------------
*
if (Schm_pcsty_L.or.Schm_pheat_L) then
*
!$omp do
do k= 1,l_nk
wk5(:,:,k) = 0.
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
F_qp(i,j,k) = exp(st1(i,j) - F_qp(i,j,k))*F_tdt(i,j,k)
wk5(i,j,k) = F_qp(i,j,k)*Dcst_rgasd_8
end do
end do
end do
!$omp enddo
*
endif
!$omp end parallel
*
*
if (Schm_pheat_L) then
ng = (l_maxx-l_minx+1)*(l_maxy-l_miny+1)
call hatoprg (wk6,wk5,1.0,geomg_hz_8,ng,G_nk)
if ( Lam_0ptend_L .and. G_lam .and.
$ ((Hblen_x.gt.0).or.(Hblen_y.gt.0)) )
$ call nesajr (wk6,wk2,LDIST_DIM,G_nk,0,0,Hblen_x,Hblen_y)
endif
*
!$omp parallel
!$omp do
do k= 1,l_nk
if (Schm_pheat_L) then
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
fit1 (i,j,k) = fit1 (i,j,k) + Cstv_dt_8*wk6(i,j,k)
fipt1(i,j,k) = fipt1(i,j,k) + Cstv_dt_8*wk6(i,j,k)
end do
end do
endif
if (Schm_pcsty_L) then
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
F_tp(i,j,k) = geomg_z_8(k)*F_qp(i,j,k)
end do
end do
endif
end do
!$omp enddo
*
!$omp end parallel
*
if (Schm_pcsty_L) then
call uv2tdpsd ( F_qp, wk3, F_tdu, F_tdv, st1, LDIST_DIM,G_nk )
if ( Lam_0ptend_L .and. G_lam .and.
$ ((Hblen_x.gt.0).or.(Hblen_y.gt.0)) ) then
call nesajr (wk3 ,wk2,LDIST_DIM,G_nk,0,0,Hblen_x,Hblen_y)
call nesajr (F_tp,wk2,LDIST_DIM,G_nk,0,0,Hblen_x,Hblen_y)
call nesajr (F_qp,wk2,LDIST_DIM,G_nk,0,0,Hblen_x,Hblen_y)
endif
endif
*
!$omp parallel
*
if (Schm_pcsty_L) then
!$omp do
do k= 1,l_nk
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
tpt1 (i,j,k) = tpt1 (i,j,k) + Cstv_dt_8*wk1 (i,j,k)
tplt1(i,j,k) = tplt1(i,j,k) + Cstv_dt_8*F_tp(i,j,k)
tdt1 (i,j,k) = tdt1 (i,j,k) + Cstv_dt_8*F_qp(i,j,k)
psdt1(i,j,k) = psdt1(i,j,k) + Cstv_dt_8*wk3 (i,j,k)
end do
end do
end do
!$omp enddo
endif
*
*C apply tendencies to primary variables
* -------------------------------------
!$omp single
if ( Lam_0ptend_L .and. G_lam .and.
$ ((Hblen_x.gt.0).or.(Hblen_y.gt.0)) ) then
call nesajr (F_tdu, wk2, LDIST_DIM,G_nk,1,0,Hblen_x,Hblen_y)
call nesajr (F_tdv, wk2, LDIST_DIM,G_nk,0,1,Hblen_x,Hblen_y)
endif
*
key1(1) = VMM_KEY(ut1)
key1(2) = VMM_KEY(vt1)
key1(3) = VMM_KEY(tt1)
err = vmmlod(key1,3)
err = VMM_GET_VAR(ut1)
err = VMM_GET_VAR(vt1)
err = VMM_GET_VAR(tt1)
!$omp end single
*
c if (Acid_test_L) then
c if (Lun_out.gt.0) write(Lun_out,*)
c % 'Variables on FULL grid before applying tendencies'
c call glbstat (ut1 ,'UU',LDIST_DIM,G_nk,1+acid_i0,G_ni-1-acid_in,
c % 1+acid_j0,G_nj-acid_jn,1,G_nk)
*
!$omp do
do k=1,l_nk
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
tt1 (i,j,k) = tt1(i,j,k) + Cstv_dt_8*wk1(i,j,k)
end do
end do
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_niu-pil_e
ut1 (i,j,k) = ut1(i,j,k) + Cstv_dt_8*F_tdu(i,j,k)
end do
end do
do j= 1+pil_s, l_njv-pil_n
do i= 1+pil_w, l_ni-pil_e
vt1 (i,j,k) = vt1(i,j,k) + Cstv_dt_8*F_tdv(i,j,k)
end do
end do
end do
!$omp enddo
c if (Acid_test_L) then
c if (Lun_out.gt.0) write(Lun_out,*)
c % 'Variables with tendencies added on core grid only'
c call glbstat (ut1 ,'UU',LDIST_DIM,G_nk,8+acid_i0,G_ni-8-acid_in,
c % 8+acid_j0,G_nj-7-acid_jn,1,G_nk)
c call glbstat (vt1 ,'VV',LDIST_DIM,G_nk,8+acid_i0,G_ni-7-acid_in,
c % 8+acid_j0,G_nj-8-acid_jn,1,G_nk)
*
c if (Acid_test_L.and.Lun_out.gt.0)print 'Statfld for tracers'
do n=1,phyt_ntr
if (phyt_ind(3,n).gt.0) then
patrp = pnt_trp(n)
!$omp single
if ( Lam_0ptend_L .and. G_lam .and.
$ ((Hblen_x.gt.0).or.(Hblen_y.gt.0)) ) then
call nesajr (F_trm(minx,miny,1,n), wk2, LDIST_DIM,G_nk,
$ 0,0,Hblen_x,Hblen_y)
endif
!$omp end single
!$omp do
do k=1,l_nk
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
trp(i,j,k) = trp(i,j,k) + Cstv_dt_8*F_trm(i,j,k,n)
end do
end do
end do
c if (Acid_test_L)
c core grid
c % call glbstat (trp,phyt_name_S(n)(1:2)//'T1',LDIST_DIM,G_nk,5+acid_i0,
c % G_ni-4-acid_in,5+acid_j0,G_nj-4-acid_jn,1,G_nk)
c physics grid
c call glbstat (trp,phyt_name_S(n)(1:2)//'T1',LDIST_DIM,G_nk,
c % 8+acid_i0,G_ni-7-acid_in,8+acid_j0,G_nj-7-acid_jn,1,G_nk)
!$omp enddo
endif
end do
*
!$omp end parallel
*
else
*
!$omp parallel
do 10 n=1,h2o_ntr
if (n.eq.hucond) cycle
patrp = pnt_trp(n)
patrm = pnt_trm(n)
!$omp do
do k= 1, l_nk
do j= 1+pil_s, l_nj-pil_n
do i= 1+pil_w, l_ni-pil_e
trp(i,j,k) = trp(i,j,k) + Cstv_dt_8*F_trm(i,j,k,n)
trm(i,j,k) = trp(i,j,k)
end do
end do
end do
!$omp enddo
*
10 continue
*
!$omp end parallel
*
endif
*
* __________________________________________________________________
*
return
end