| 1 |
! |
|
| 2 |
! $Header: /home/cvsroot/LMDZ4/libf/dyn3d/advzp.F,v 1.1.1.1 2004/05/19 12:53:06 lmdzadmin Exp $ |
! $Header: /home/cvsroot/LMDZ4/libf/dyn3d/advzp.F,v 1.1.1.1 2004/05/19 |
| 3 |
! |
! 12:53:06 lmdzadmin Exp $ |
| 4 |
SUBROUTINE ADVZP(LIMIT,DTZ,W,SM,S0,SSX,SY,SZ |
|
| 5 |
. ,SSXX,SSXY,SSXZ,SYY,SYZ,SZZ,ntra ) |
SUBROUTINE advzp(limit, dtz, w, sm, s0, ssx, sy, sz, ssxx, ssxy, ssxz, syy, & |
| 6 |
|
syz, szz, ntra) |
| 7 |
use dimens_m |
|
| 8 |
use paramet_m |
USE dimens_m |
| 9 |
use comconst |
USE paramet_m |
| 10 |
use comvert |
USE comconst |
| 11 |
use comgeom |
USE disvert_m |
| 12 |
IMPLICIT NONE |
USE comgeom |
| 13 |
|
IMPLICIT NONE |
| 14 |
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
|
| 15 |
C C |
! CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
| 16 |
C second-order moments (SOM) advection of tracer in Z direction C |
! C |
| 17 |
C C |
! second-order moments (SOM) advection of tracer in Z direction C |
| 18 |
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
! C |
| 19 |
C C |
! CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
| 20 |
C Source : Pascal Simon ( Meteo, CNRM ) C |
! C |
| 21 |
C Adaptation : A.A. (LGGE) C |
! Source : Pascal Simon ( Meteo, CNRM ) C |
| 22 |
C Derniere Modif : 19/11/95 LAST C |
! Adaptation : A.A. (LGGE) C |
| 23 |
C C |
! Derniere Modif : 19/11/95 LAST C |
| 24 |
C sont les arguments d'entree pour le s-pg C |
! C |
| 25 |
C C |
! sont les arguments d'entree pour le s-pg C |
| 26 |
C argument de sortie du s-pg C |
! C |
| 27 |
C C |
! argument de sortie du s-pg C |
| 28 |
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
! C |
| 29 |
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
! CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
| 30 |
C |
! CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
| 31 |
C Rem : Probleme aux poles il faut reecrire ce cas specifique |
|
| 32 |
C Attention au sens de l'indexation |
! Rem : Probleme aux poles il faut reecrire ce cas specifique |
| 33 |
C |
! Attention au sens de l'indexation |
| 34 |
|
|
| 35 |
C |
|
| 36 |
C parametres principaux du modele |
|
| 37 |
C |
! parametres principaux du modele |
| 38 |
C |
|
| 39 |
C Arguments : |
|
| 40 |
C ---------- |
! Arguments : |
| 41 |
C dty : frequence fictive d'appel du transport |
! ---------- |
| 42 |
C parbu,pbarv : flux de masse en x et y en Pa.m2.s-1 |
! dty : frequence fictive d'appel du transport |
| 43 |
c |
! parbu,pbarv : flux de masse en x et y en Pa.m2.s-1 |
| 44 |
INTEGER lon,lat,niv |
|
| 45 |
INTEGER i,j,jv,k,kp,l,lp |
INTEGER lon, lat, niv |
| 46 |
INTEGER ntra |
INTEGER i, j, jv, k, l, lp |
| 47 |
c PARAMETER (ntra = 1) |
INTEGER ntra |
| 48 |
c |
! PARAMETER (ntra = 1) |
| 49 |
REAL dtz |
|
| 50 |
REAL w ( iip1,jjp1,llm ) |
REAL dtz |
| 51 |
c |
REAL w(iip1, jjp1, llm) |
| 52 |
C moments: SM total mass in each grid box |
|
| 53 |
C S0 mass of tracer in each grid box |
! moments: SM total mass in each grid box |
| 54 |
C Si 1rst order moment in i direction |
! S0 mass of tracer in each grid box |
| 55 |
C |
! Si 1rst order moment in i direction |
| 56 |
REAL SM(iip1,jjp1,llm) |
|
| 57 |
+ ,S0(iip1,jjp1,llm,ntra) |
REAL sm(iip1, jjp1, llm), s0(iip1, jjp1, llm, ntra) |
| 58 |
REAL SSX(iip1,jjp1,llm,ntra) |
REAL ssx(iip1, jjp1, llm, ntra), sy(iip1, jjp1, llm, ntra), & |
| 59 |
+ ,SY(iip1,jjp1,llm,ntra) |
sz(iip1, jjp1, llm, ntra), ssxx(iip1, jjp1, llm, ntra), & |
| 60 |
+ ,SZ(iip1,jjp1,llm,ntra) |
ssxy(iip1, jjp1, llm, ntra), ssxz(iip1, jjp1, llm, ntra), & |
| 61 |
+ ,SSXX(iip1,jjp1,llm,ntra) |
syy(iip1, jjp1, llm, ntra), syz(iip1, jjp1, llm, ntra), & |
| 62 |
+ ,SSXY(iip1,jjp1,llm,ntra) |
szz(iip1, jjp1, llm, ntra) |
| 63 |
+ ,SSXZ(iip1,jjp1,llm,ntra) |
|
| 64 |
+ ,SYY(iip1,jjp1,llm,ntra) |
! Local : |
| 65 |
+ ,SYZ(iip1,jjp1,llm,ntra) |
! ------- |
| 66 |
+ ,SZZ(iip1,jjp1,llm,ntra) |
|
| 67 |
C |
! mass fluxes across the boundaries (UGRI,VGRI,WGRI) |
| 68 |
C Local : |
! mass fluxes in kg |
| 69 |
C ------- |
! declaration : |
| 70 |
C |
|
| 71 |
C mass fluxes across the boundaries (UGRI,VGRI,WGRI) |
REAL wgri(iip1, jjp1, 0:llm) |
| 72 |
C mass fluxes in kg |
|
| 73 |
C declaration : |
! Rem : UGRI et VGRI ne sont pas utilises dans |
| 74 |
C |
! cette subroutine ( advection en z uniquement ) |
| 75 |
REAL WGRI(iip1,jjp1,0:llm) |
! Rem 2 :le dimensionnement de VGRI depend de celui de pbarv |
| 76 |
|
! attention a celui de WGRI |
| 77 |
C Rem : UGRI et VGRI ne sont pas utilises dans |
|
| 78 |
C cette subroutine ( advection en z uniquement ) |
! the moments F are similarly defined and used as temporary |
| 79 |
C Rem 2 :le dimensionnement de VGRI depend de celui de pbarv |
! storage for portions of the grid boxes in transit |
| 80 |
C attention a celui de WGRI |
|
| 81 |
C |
! the moments Fij are used as temporary storage for |
| 82 |
C the moments F are similarly defined and used as temporary |
! portions of the grid boxes in transit at the current level |
| 83 |
C storage for portions of the grid boxes in transit |
|
| 84 |
C |
! work arrays |
| 85 |
C the moments Fij are used as temporary storage for |
|
| 86 |
C portions of the grid boxes in transit at the current level |
|
| 87 |
C |
REAL f0(iim, llm, ntra), fm(iim, llm) |
| 88 |
C work arrays |
REAL fx(iim, llm, ntra), fy(iim, llm, ntra) |
| 89 |
C |
REAL fz(iim, llm, ntra) |
| 90 |
C |
REAL fxx(iim, llm, ntra), fxy(iim, llm, ntra) |
| 91 |
REAL F0(iim,llm,ntra),FM(iim,llm) |
REAL fxz(iim, llm, ntra), fyy(iim, llm, ntra) |
| 92 |
REAL FX(iim,llm,ntra),FY(iim,llm,ntra) |
REAL fyz(iim, llm, ntra), fzz(iim, llm, ntra) |
| 93 |
REAL FZ(iim,llm,ntra) |
|
| 94 |
REAL FXX(iim,llm,ntra),FXY(iim,llm,ntra) |
! work arrays |
| 95 |
REAL FXZ(iim,llm,ntra),FYY(iim,llm,ntra) |
|
| 96 |
REAL FYZ(iim,llm,ntra),FZZ(iim,llm,ntra) |
REAL alf(iim), alf1(iim) |
| 97 |
REAL S00(ntra) |
REAL alfq(iim), alf1q(iim) |
| 98 |
REAL SM0 ! Just temporal variable |
REAL alf2(iim), alf3(iim) |
| 99 |
C |
REAL alf4(iim) |
| 100 |
C work arrays |
REAL temptm ! Just temporal variable |
| 101 |
C |
REAL slpmax, s1max, s1new, s2new |
| 102 |
REAL ALF(iim),ALF1(iim) |
|
| 103 |
REAL ALFQ(iim),ALF1Q(iim) |
REAL sqi, sqf |
| 104 |
REAL ALF2(iim),ALF3(iim) |
LOGICAL limit |
| 105 |
REAL ALF4(iim) |
|
| 106 |
REAL TEMPTM ! Just temporal variable |
lon = iim ! rem : Il est possible qu'un pbl. arrive ici |
| 107 |
REAL SLPMAX,S1MAX,S1NEW,S2NEW |
lat = jjp1 ! a cause des dim. differentes entre les |
| 108 |
c |
niv = llm ! tab. S et VGRI |
| 109 |
REAL sqi,sqf |
|
| 110 |
LOGICAL LIMIT |
! ----------------------------------------------------------------- |
| 111 |
|
! *** Test : diag de la qtite totale de traceur dans |
| 112 |
lon = iim ! rem : Il est possible qu'un pbl. arrive ici |
! l'atmosphere avant l'advection en Y |
| 113 |
lat = jjp1 ! a cause des dim. differentes entre les |
|
| 114 |
niv = llm ! tab. S et VGRI |
sqi = 0. |
| 115 |
|
sqf = 0. |
| 116 |
c----------------------------------------------------------------- |
|
| 117 |
C *** Test : diag de la qtite totale de traceur dans |
DO l = 1, llm |
| 118 |
C l'atmosphere avant l'advection en Y |
DO j = 1, jjp1 |
| 119 |
c |
DO i = 1, iim |
| 120 |
sqi = 0. |
sqi = sqi + s0(i, j, l, ntra) |
| 121 |
sqf = 0. |
END DO |
| 122 |
c |
END DO |
| 123 |
DO l = 1,llm |
END DO |
| 124 |
DO j = 1,jjp1 |
PRINT *, '---------- DIAG DANS ADVZP - ENTREE --------' |
| 125 |
DO i = 1,iim |
PRINT *, 'sqi=', sqi |
| 126 |
sqi = sqi + S0(i,j,l,ntra) |
|
| 127 |
END DO |
! ----------------------------------------------------------------- |
| 128 |
END DO |
! Interface : adaptation nouveau modele |
| 129 |
|
! ------------------------------------- |
| 130 |
|
|
| 131 |
|
! Conversion des flux de masses en kg |
| 132 |
|
|
| 133 |
|
DO l = 1, llm |
| 134 |
|
DO j = 1, jjp1 |
| 135 |
|
DO i = 1, iip1 |
| 136 |
|
wgri(i, j, llm+1-l) = w(i, j, l) |
| 137 |
END DO |
END DO |
| 138 |
PRINT*,'---------- DIAG DANS ADVZP - ENTREE --------' |
END DO |
| 139 |
PRINT*,'sqi=',sqi |
END DO |
| 140 |
|
DO j = 1, jjp1 |
| 141 |
|
DO i = 1, iip1 |
| 142 |
|
wgri(i, j, 0) = 0. |
| 143 |
|
END DO |
| 144 |
|
END DO |
| 145 |
|
|
| 146 |
|
! AA rem : Je ne suis pas sur du signe |
| 147 |
|
! AA Je ne suis pas sur pour le 0:llm |
| 148 |
|
|
| 149 |
|
! ----------------------------------------------------------------- |
| 150 |
|
! ---------------------- START HERE ------------------------------- |
| 151 |
|
|
| 152 |
c----------------------------------------------------------------- |
! boucle sur les latitudes |
| 153 |
C Interface : adaptation nouveau modele |
|
| 154 |
C ------------------------------------- |
DO k = 1, lat |
| 155 |
C |
|
| 156 |
C Conversion des flux de masses en kg |
! place limits on appropriate moments before transport |
| 157 |
|
! (if flux-limiting is to be applied) |
| 158 |
DO 500 l = 1,llm |
|
| 159 |
DO 500 j = 1,jjp1 |
IF (.NOT. limit) GO TO 101 |
| 160 |
DO 500 i = 1,iip1 |
|
| 161 |
wgri (i,j,llm+1-l) = w (i,j,l) |
DO jv = 1, ntra |
| 162 |
500 CONTINUE |
DO l = 1, niv |
| 163 |
do j=1,jjp1 |
DO i = 1, lon |
| 164 |
do i=1,iip1 |
IF (s0(i,k,l,jv)>0.) THEN |
| 165 |
wgri(i,j,0)=0. |
slpmax = s0(i, k, l, jv) |
| 166 |
enddo |
s1max = 1.5*slpmax |
| 167 |
enddo |
s1new = amin1(s1max, amax1(-s1max,sz(i,k,l,jv))) |
| 168 |
c |
s2new = amin1(2.*slpmax-abs(s1new)/3., amax1(abs( & |
| 169 |
cAA rem : Je ne suis pas sur du signe |
s1new)-slpmax,szz(i,k,l,jv))) |
| 170 |
cAA Je ne suis pas sur pour le 0:llm |
sz(i, k, l, jv) = s1new |
| 171 |
c |
szz(i, k, l, jv) = s2new |
| 172 |
c----------------------------------------------------------------- |
ssxz(i, k, l, jv) = amin1(slpmax, amax1(-slpmax,ssxz(i,k,l,jv))) |
| 173 |
C---------------------- START HERE ------------------------------- |
syz(i, k, l, jv) = amin1(slpmax, amax1(-slpmax,syz(i,k,l,jv))) |
| 174 |
C |
ELSE |
| 175 |
C boucle sur les latitudes |
sz(i, k, l, jv) = 0. |
| 176 |
C |
szz(i, k, l, jv) = 0. |
| 177 |
DO 1 K=1,LAT |
ssxz(i, k, l, jv) = 0. |
| 178 |
C |
syz(i, k, l, jv) = 0. |
| 179 |
C place limits on appropriate moments before transport |
END IF |
| 180 |
C (if flux-limiting is to be applied) |
END DO |
| 181 |
C |
END DO |
| 182 |
IF(.NOT.LIMIT) GO TO 101 |
END DO |
| 183 |
C |
|
| 184 |
DO 10 JV=1,NTRA |
101 CONTINUE |
| 185 |
DO 10 L=1,NIV |
|
| 186 |
DO 100 I=1,LON |
! boucle sur les niveaux intercouches de 1 a NIV-1 |
| 187 |
IF(S0(I,K,L,JV).GT.0.) THEN |
! (flux nul au sommet L=0 et a la base L=NIV) |
| 188 |
SLPMAX=S0(I,K,L,JV) |
|
| 189 |
S1MAX =1.5*SLPMAX |
! calculate flux and moments between adjacent boxes |
| 190 |
S1NEW =AMIN1(S1MAX,AMAX1(-S1MAX,SZ(I,K,L,JV))) |
! (flux from LP to L if WGRI(L).lt.0, from L to LP if WGRI(L).gt.0) |
| 191 |
S2NEW =AMIN1( 2.*SLPMAX-ABS(S1NEW)/3. , |
! 1- create temporary moments/masses for partial boxes in transit |
| 192 |
+ AMAX1(ABS(S1NEW)-SLPMAX,SZZ(I,K,L,JV)) ) |
! 2- reajusts moments remaining in the box |
| 193 |
SZ (I,K,L,JV)=S1NEW |
|
| 194 |
SZZ(I,K,L,JV)=S2NEW |
DO l = 1, niv - 1 |
| 195 |
SSXZ(I,K,L,JV)=AMIN1(SLPMAX,AMAX1(-SLPMAX,SSXZ(I,K,L,JV))) |
lp = l + 1 |
| 196 |
SYZ(I,K,L,JV)=AMIN1(SLPMAX,AMAX1(-SLPMAX,SYZ(I,K,L,JV))) |
|
| 197 |
ELSE |
DO i = 1, lon |
| 198 |
SZ (I,K,L,JV)=0. |
|
| 199 |
SZZ(I,K,L,JV)=0. |
IF (wgri(i,k,l)<0.) THEN |
| 200 |
SSXZ(I,K,L,JV)=0. |
fm(i, l) = -wgri(i, k, l)*dtz |
| 201 |
SYZ(I,K,L,JV)=0. |
alf(i) = fm(i, l)/sm(i, k, lp) |
| 202 |
ENDIF |
sm(i, k, lp) = sm(i, k, lp) - fm(i, l) |
| 203 |
100 CONTINUE |
ELSE |
| 204 |
10 CONTINUE |
fm(i, l) = wgri(i, k, l)*dtz |
| 205 |
C |
alf(i) = fm(i, l)/sm(i, k, l) |
| 206 |
101 CONTINUE |
sm(i, k, l) = sm(i, k, l) - fm(i, l) |
| 207 |
C |
END IF |
| 208 |
C boucle sur les niveaux intercouches de 1 a NIV-1 |
|
| 209 |
C (flux nul au sommet L=0 et a la base L=NIV) |
alfq(i) = alf(i)*alf(i) |
| 210 |
C |
alf1(i) = 1. - alf(i) |
| 211 |
C calculate flux and moments between adjacent boxes |
alf1q(i) = alf1(i)*alf1(i) |
| 212 |
C (flux from LP to L if WGRI(L).lt.0, from L to LP if WGRI(L).gt.0) |
alf2(i) = alf1(i) - alf(i) |
| 213 |
C 1- create temporary moments/masses for partial boxes in transit |
alf3(i) = alf(i)*alfq(i) |
| 214 |
C 2- reajusts moments remaining in the box |
alf4(i) = alf1(i)*alf1q(i) |
| 215 |
C |
|
| 216 |
DO 11 L=1,NIV-1 |
END DO |
| 217 |
LP=L+1 |
|
| 218 |
C |
DO jv = 1, ntra |
| 219 |
DO 110 I=1,LON |
DO i = 1, lon |
| 220 |
C |
|
| 221 |
IF(WGRI(I,K,L).LT.0.) THEN |
IF (wgri(i,k,l)<0.) THEN |
| 222 |
FM(I,L)=-WGRI(I,K,L)*DTZ |
|
| 223 |
ALF(I)=FM(I,L)/SM(I,K,LP) |
f0(i, l, jv) = alf(i)*(s0(i,k,lp,jv)-alf1(i)*(sz(i,k,lp, & |
| 224 |
SM(I,K,LP)=SM(I,K,LP)-FM(I,L) |
jv)-alf2(i)*szz(i,k,lp,jv))) |
| 225 |
ELSE |
fz(i, l, jv) = alfq(i)*(sz(i,k,lp,jv)-3.*alf1(i)*szz(i,k,lp,jv)) |
| 226 |
FM(I,L)=WGRI(I,K,L)*DTZ |
fzz(i, l, jv) = alf3(i)*szz(i, k, lp, jv) |
| 227 |
ALF(I)=FM(I,L)/SM(I,K,L) |
fxz(i, l, jv) = alfq(i)*ssxz(i, k, lp, jv) |
| 228 |
SM(I,K,L)=SM(I,K,L)-FM(I,L) |
fyz(i, l, jv) = alfq(i)*syz(i, k, lp, jv) |
| 229 |
ENDIF |
fx(i, l, jv) = alf(i)*(ssx(i,k,lp,jv)-alf1(i)*ssxz(i,k,lp,jv)) |
| 230 |
C |
fy(i, l, jv) = alf(i)*(sy(i,k,lp,jv)-alf1(i)*syz(i,k,lp,jv)) |
| 231 |
ALFQ (I)=ALF(I)*ALF(I) |
fxx(i, l, jv) = alf(i)*ssxx(i, k, lp, jv) |
| 232 |
ALF1 (I)=1.-ALF(I) |
fxy(i, l, jv) = alf(i)*ssxy(i, k, lp, jv) |
| 233 |
ALF1Q(I)=ALF1(I)*ALF1(I) |
fyy(i, l, jv) = alf(i)*syy(i, k, lp, jv) |
| 234 |
ALF2 (I)=ALF1(I)-ALF(I) |
|
| 235 |
ALF3 (I)=ALF(I)*ALFQ(I) |
s0(i, k, lp, jv) = s0(i, k, lp, jv) - f0(i, l, jv) |
| 236 |
ALF4 (I)=ALF1(I)*ALF1Q(I) |
sz(i, k, lp, jv) = alf1q(i)*(sz(i,k,lp,jv)+3.*alf(i)*szz(i,k,lp, & |
| 237 |
C |
jv)) |
| 238 |
110 CONTINUE |
szz(i, k, lp, jv) = alf4(i)*szz(i, k, lp, jv) |
| 239 |
C |
ssxz(i, k, lp, jv) = alf1q(i)*ssxz(i, k, lp, jv) |
| 240 |
DO 111 JV=1,NTRA |
syz(i, k, lp, jv) = alf1q(i)*syz(i, k, lp, jv) |
| 241 |
DO 1110 I=1,LON |
ssx(i, k, lp, jv) = ssx(i, k, lp, jv) - fx(i, l, jv) |
| 242 |
C |
sy(i, k, lp, jv) = sy(i, k, lp, jv) - fy(i, l, jv) |
| 243 |
IF(WGRI(I,K,L).LT.0.) THEN |
ssxx(i, k, lp, jv) = ssxx(i, k, lp, jv) - fxx(i, l, jv) |
| 244 |
C |
ssxy(i, k, lp, jv) = ssxy(i, k, lp, jv) - fxy(i, l, jv) |
| 245 |
F0 (I,L,JV)=ALF (I)* ( S0(I,K,LP,JV)-ALF1(I)* |
syy(i, k, lp, jv) = syy(i, k, lp, jv) - fyy(i, l, jv) |
| 246 |
+ ( SZ(I,K,LP,JV)-ALF2(I)*SZZ(I,K,LP,JV) ) ) |
|
| 247 |
FZ (I,L,JV)=ALFQ(I)*(SZ(I,K,LP,JV)-3.*ALF1(I)*SZZ(I,K,LP,JV)) |
ELSE |
| 248 |
FZZ(I,L,JV)=ALF3(I)*SZZ(I,K,LP,JV) |
|
| 249 |
FXZ(I,L,JV)=ALFQ(I)*SSXZ(I,K,LP,JV) |
f0(i, l, jv) = alf(i)*(s0(i,k,l,jv)+alf1(i)*(sz(i,k,l, & |
| 250 |
FYZ(I,L,JV)=ALFQ(I)*SYZ(I,K,LP,JV) |
jv)+alf2(i)*szz(i,k,l,jv))) |
| 251 |
FX (I,L,JV)=ALF (I)*(SSX(I,K,LP,JV)-ALF1(I)*SSXZ(I,K,LP,JV)) |
fz(i, l, jv) = alfq(i)*(sz(i,k,l,jv)+3.*alf1(i)*szz(i,k,l,jv)) |
| 252 |
FY (I,L,JV)=ALF (I)*(SY(I,K,LP,JV)-ALF1(I)*SYZ(I,K,LP,JV)) |
fzz(i, l, jv) = alf3(i)*szz(i, k, l, jv) |
| 253 |
FXX(I,L,JV)=ALF (I)*SSXX(I,K,LP,JV) |
fxz(i, l, jv) = alfq(i)*ssxz(i, k, l, jv) |
| 254 |
FXY(I,L,JV)=ALF (I)*SSXY(I,K,LP,JV) |
fyz(i, l, jv) = alfq(i)*syz(i, k, l, jv) |
| 255 |
FYY(I,L,JV)=ALF (I)*SYY(I,K,LP,JV) |
fx(i, l, jv) = alf(i)*(ssx(i,k,l,jv)+alf1(i)*ssxz(i,k,l,jv)) |
| 256 |
C |
fy(i, l, jv) = alf(i)*(sy(i,k,l,jv)+alf1(i)*syz(i,k,l,jv)) |
| 257 |
S0 (I,K,LP,JV)=S0 (I,K,LP,JV)-F0 (I,L,JV) |
fxx(i, l, jv) = alf(i)*ssxx(i, k, l, jv) |
| 258 |
SZ (I,K,LP,JV)=ALF1Q(I) |
fxy(i, l, jv) = alf(i)*ssxy(i, k, l, jv) |
| 259 |
+ *(SZ(I,K,LP,JV)+3.*ALF(I)*SZZ(I,K,LP,JV)) |
fyy(i, l, jv) = alf(i)*syy(i, k, l, jv) |
| 260 |
SZZ(I,K,LP,JV)=ALF4 (I)*SZZ(I,K,LP,JV) |
|
| 261 |
SSXZ(I,K,LP,JV)=ALF1Q(I)*SSXZ(I,K,LP,JV) |
s0(i, k, l, jv) = s0(i, k, l, jv) - f0(i, l, jv) |
| 262 |
SYZ(I,K,LP,JV)=ALF1Q(I)*SYZ(I,K,LP,JV) |
sz(i, k, l, jv) = alf1q(i)*(sz(i,k,l,jv)-3.*alf(i)*szz(i,k,l,jv)) |
| 263 |
SSX (I,K,LP,JV)=SSX (I,K,LP,JV)-FX (I,L,JV) |
szz(i, k, l, jv) = alf4(i)*szz(i, k, l, jv) |
| 264 |
SY (I,K,LP,JV)=SY (I,K,LP,JV)-FY (I,L,JV) |
ssxz(i, k, l, jv) = alf1q(i)*ssxz(i, k, l, jv) |
| 265 |
SSXX(I,K,LP,JV)=SSXX(I,K,LP,JV)-FXX(I,L,JV) |
syz(i, k, l, jv) = alf1q(i)*syz(i, k, l, jv) |
| 266 |
SSXY(I,K,LP,JV)=SSXY(I,K,LP,JV)-FXY(I,L,JV) |
ssx(i, k, l, jv) = ssx(i, k, l, jv) - fx(i, l, jv) |
| 267 |
SYY(I,K,LP,JV)=SYY(I,K,LP,JV)-FYY(I,L,JV) |
sy(i, k, l, jv) = sy(i, k, l, jv) - fy(i, l, jv) |
| 268 |
C |
ssxx(i, k, l, jv) = ssxx(i, k, l, jv) - fxx(i, l, jv) |
| 269 |
ELSE |
ssxy(i, k, l, jv) = ssxy(i, k, l, jv) - fxy(i, l, jv) |
| 270 |
C |
syy(i, k, l, jv) = syy(i, k, l, jv) - fyy(i, l, jv) |
| 271 |
F0 (I,L,JV)=ALF (I)*(S0(I,K,L,JV) |
|
| 272 |
+ +ALF1(I) * (SZ(I,K,L,JV)+ALF2(I)*SZZ(I,K,L,JV)) ) |
END IF |
| 273 |
FZ (I,L,JV)=ALFQ(I)*(SZ(I,K,L,JV)+3.*ALF1(I)*SZZ(I,K,L,JV)) |
|
| 274 |
FZZ(I,L,JV)=ALF3(I)*SZZ(I,K,L,JV) |
END DO |
| 275 |
FXZ(I,L,JV)=ALFQ(I)*SSXZ(I,K,L,JV) |
END DO |
| 276 |
FYZ(I,L,JV)=ALFQ(I)*SYZ(I,K,L,JV) |
|
| 277 |
FX (I,L,JV)=ALF (I)*(SSX(I,K,L,JV)+ALF1(I)*SSXZ(I,K,L,JV)) |
END DO |
| 278 |
FY (I,L,JV)=ALF (I)*(SY(I,K,L,JV)+ALF1(I)*SYZ(I,K,L,JV)) |
|
| 279 |
FXX(I,L,JV)=ALF (I)*SSXX(I,K,L,JV) |
! puts the temporary moments Fi into appropriate neighboring boxes |
| 280 |
FXY(I,L,JV)=ALF (I)*SSXY(I,K,L,JV) |
|
| 281 |
FYY(I,L,JV)=ALF (I)*SYY(I,K,L,JV) |
DO l = 1, niv - 1 |
| 282 |
C |
lp = l + 1 |
| 283 |
S0 (I,K,L,JV)=S0 (I,K,L,JV)-F0(I,L,JV) |
|
| 284 |
SZ (I,K,L,JV)=ALF1Q(I)*(SZ(I,K,L,JV)-3.*ALF(I)*SZZ(I,K,L,JV)) |
DO i = 1, lon |
| 285 |
SZZ(I,K,L,JV)=ALF4 (I)*SZZ(I,K,L,JV) |
|
| 286 |
SSXZ(I,K,L,JV)=ALF1Q(I)*SSXZ(I,K,L,JV) |
IF (wgri(i,k,l)<0.) THEN |
| 287 |
SYZ(I,K,L,JV)=ALF1Q(I)*SYZ(I,K,L,JV) |
sm(i, k, l) = sm(i, k, l) + fm(i, l) |
| 288 |
SSX (I,K,L,JV)=SSX (I,K,L,JV)-FX (I,L,JV) |
alf(i) = fm(i, l)/sm(i, k, l) |
| 289 |
SY (I,K,L,JV)=SY (I,K,L,JV)-FY (I,L,JV) |
ELSE |
| 290 |
SSXX(I,K,L,JV)=SSXX(I,K,L,JV)-FXX(I,L,JV) |
sm(i, k, lp) = sm(i, k, lp) + fm(i, l) |
| 291 |
SSXY(I,K,L,JV)=SSXY(I,K,L,JV)-FXY(I,L,JV) |
alf(i) = fm(i, l)/sm(i, k, lp) |
| 292 |
SYY(I,K,L,JV)=SYY(I,K,L,JV)-FYY(I,L,JV) |
END IF |
| 293 |
C |
|
| 294 |
ENDIF |
alf1(i) = 1. - alf(i) |
| 295 |
C |
alfq(i) = alf(i)*alf(i) |
| 296 |
1110 CONTINUE |
alf1q(i) = alf1(i)*alf1(i) |
| 297 |
111 CONTINUE |
alf2(i) = alf(i)*alf1(i) |
| 298 |
C |
alf3(i) = alf1(i) - alf(i) |
| 299 |
11 CONTINUE |
|
| 300 |
C |
END DO |
| 301 |
C puts the temporary moments Fi into appropriate neighboring boxes |
|
| 302 |
C |
DO jv = 1, ntra |
| 303 |
DO 12 L=1,NIV-1 |
DO i = 1, lon |
| 304 |
LP=L+1 |
|
| 305 |
C |
IF (wgri(i,k,l)<0.) THEN |
| 306 |
DO 120 I=1,LON |
|
| 307 |
C |
temptm = -alf(i)*s0(i, k, l, jv) + alf1(i)*f0(i, l, jv) |
| 308 |
IF(WGRI(I,K,L).LT.0.) THEN |
s0(i, k, l, jv) = s0(i, k, l, jv) + f0(i, l, jv) |
| 309 |
SM(I,K,L)=SM(I,K,L)+FM(I,L) |
szz(i, k, l, jv) = alfq(i)*fzz(i, l, jv) + & |
| 310 |
ALF(I)=FM(I,L)/SM(I,K,L) |
alf1q(i)*szz(i, k, l, jv) + 5.*(alf2(i)*(fz(i,l,jv)-sz(i,k,l, & |
| 311 |
ELSE |
jv))+alf3(i)*temptm) |
| 312 |
SM(I,K,LP)=SM(I,K,LP)+FM(I,L) |
sz(i, k, l, jv) = alf(i)*fz(i, l, jv) + alf1(i)*sz(i, k, l, jv) + & |
| 313 |
ALF(I)=FM(I,L)/SM(I,K,LP) |
3.*temptm |
| 314 |
ENDIF |
ssxz(i, k, l, jv) = alf(i)*fxz(i, l, jv) + & |
| 315 |
C |
alf1(i)*ssxz(i, k, l, jv) + 3.*(alf1(i)*fx(i,l,jv)-alf(i)*ssx(i & |
| 316 |
ALF1(I)=1.-ALF(I) |
,k,l,jv)) |
| 317 |
ALFQ(I)=ALF(I)*ALF(I) |
syz(i, k, l, jv) = alf(i)*fyz(i, l, jv) + & |
| 318 |
ALF1Q(I)=ALF1(I)*ALF1(I) |
alf1(i)*syz(i, k, l, jv) + 3.*(alf1(i)*fy(i,l,jv)-alf(i)*sy(i,k & |
| 319 |
ALF2(I)=ALF(I)*ALF1(I) |
,l,jv)) |
| 320 |
ALF3(I)=ALF1(I)-ALF(I) |
ssx(i, k, l, jv) = ssx(i, k, l, jv) + fx(i, l, jv) |
| 321 |
C |
sy(i, k, l, jv) = sy(i, k, l, jv) + fy(i, l, jv) |
| 322 |
120 CONTINUE |
ssxx(i, k, l, jv) = ssxx(i, k, l, jv) + fxx(i, l, jv) |
| 323 |
C |
ssxy(i, k, l, jv) = ssxy(i, k, l, jv) + fxy(i, l, jv) |
| 324 |
DO 121 JV=1,NTRA |
syy(i, k, l, jv) = syy(i, k, l, jv) + fyy(i, l, jv) |
| 325 |
DO 1210 I=1,LON |
|
| 326 |
C |
ELSE |
| 327 |
IF(WGRI(I,K,L).LT.0.) THEN |
|
| 328 |
C |
temptm = alf(i)*s0(i, k, lp, jv) - alf1(i)*f0(i, l, jv) |
| 329 |
TEMPTM=-ALF(I)*S0(I,K,L,JV)+ALF1(I)*F0(I,L,JV) |
s0(i, k, lp, jv) = s0(i, k, lp, jv) + f0(i, l, jv) |
| 330 |
S0 (I,K,L,JV)=S0(I,K,L,JV)+F0(I,L,JV) |
szz(i, k, lp, jv) = alfq(i)*fzz(i, l, jv) + & |
| 331 |
SZZ(I,K,L,JV)=ALFQ(I)*FZZ(I,L,JV)+ALF1Q(I)*SZZ(I,K,L,JV) |
alf1q(i)*szz(i, k, lp, jv) + 5.*(alf2(i)*(sz(i,k,lp,jv)-fz(i,l, & |
| 332 |
+ +5.*( ALF2(I)*(FZ(I,L,JV)-SZ(I,K,L,JV))+ALF3(I)*TEMPTM ) |
jv))-alf3(i)*temptm) |
| 333 |
SZ (I,K,L,JV)=ALF (I)*FZ (I,L,JV)+ALF1 (I)*SZ (I,K,L,JV) |
sz(i, k, lp, jv) = alf(i)*fz(i, l, jv) + & |
| 334 |
+ +3.*TEMPTM |
alf1(i)*sz(i, k, lp, jv) + 3.*temptm |
| 335 |
SSXZ(I,K,L,JV)=ALF (I)*FXZ(I,L,JV)+ALF1 (I)*SSXZ(I,K,L,JV) |
ssxz(i, k, lp, jv) = alf(i)*fxz(i, l, jv) + & |
| 336 |
+ +3.*(ALF1(I)*FX (I,L,JV)-ALF (I)*SSX (I,K,L,JV)) |
alf1(i)*ssxz(i, k, lp, jv) + 3.*(alf(i)*ssx(i,k,lp,jv)-alf1(i)* & |
| 337 |
SYZ(I,K,L,JV)=ALF (I)*FYZ(I,L,JV)+ALF1 (I)*SYZ(I,K,L,JV) |
fx(i,l,jv)) |
| 338 |
+ +3.*(ALF1(I)*FY (I,L,JV)-ALF (I)*SY (I,K,L,JV)) |
syz(i, k, lp, jv) = alf(i)*fyz(i, l, jv) + & |
| 339 |
SSX (I,K,L,JV)=SSX (I,K,L,JV)+FX (I,L,JV) |
alf1(i)*syz(i, k, lp, jv) + 3.*(alf(i)*sy(i,k,lp,jv)-alf1(i)*fy & |
| 340 |
SY (I,K,L,JV)=SY (I,K,L,JV)+FY (I,L,JV) |
(i,l,jv)) |
| 341 |
SSXX(I,K,L,JV)=SSXX(I,K,L,JV)+FXX(I,L,JV) |
ssx(i, k, lp, jv) = ssx(i, k, lp, jv) + fx(i, l, jv) |
| 342 |
SSXY(I,K,L,JV)=SSXY(I,K,L,JV)+FXY(I,L,JV) |
sy(i, k, lp, jv) = sy(i, k, lp, jv) + fy(i, l, jv) |
| 343 |
SYY(I,K,L,JV)=SYY(I,K,L,JV)+FYY(I,L,JV) |
ssxx(i, k, lp, jv) = ssxx(i, k, lp, jv) + fxx(i, l, jv) |
| 344 |
C |
ssxy(i, k, lp, jv) = ssxy(i, k, lp, jv) + fxy(i, l, jv) |
| 345 |
ELSE |
syy(i, k, lp, jv) = syy(i, k, lp, jv) + fyy(i, l, jv) |
| 346 |
C |
|
| 347 |
TEMPTM=ALF(I)*S0(I,K,LP,JV)-ALF1(I)*F0(I,L,JV) |
END IF |
| 348 |
S0 (I,K,LP,JV)=S0(I,K,LP,JV)+F0(I,L,JV) |
|
| 349 |
SZZ(I,K,LP,JV)=ALFQ(I)*FZZ(I,L,JV)+ALF1Q(I)*SZZ(I,K,LP,JV) |
END DO |
| 350 |
+ +5.*( ALF2(I)*(SZ(I,K,LP,JV)-FZ(I,L,JV))-ALF3(I)*TEMPTM ) |
END DO |
| 351 |
SZ (I,K,LP,JV)=ALF (I)*FZ(I,L,JV)+ALF1(I)*SZ(I,K,LP,JV) |
|
| 352 |
+ +3.*TEMPTM |
END DO |
| 353 |
SSXZ(I,K,LP,JV)=ALF(I)*FXZ(I,L,JV)+ALF1(I)*SSXZ(I,K,LP,JV) |
|
| 354 |
+ +3.*(ALF(I)*SSX(I,K,LP,JV)-ALF1(I)*FX(I,L,JV)) |
! fin de la boucle principale sur les latitudes |
| 355 |
SYZ(I,K,LP,JV)=ALF(I)*FYZ(I,L,JV)+ALF1(I)*SYZ(I,K,LP,JV) |
|
| 356 |
+ +3.*(ALF(I)*SY(I,K,LP,JV)-ALF1(I)*FY(I,L,JV)) |
END DO |
| 357 |
SSX (I,K,LP,JV)=SSX (I,K,LP,JV)+FX (I,L,JV) |
|
| 358 |
SY (I,K,LP,JV)=SY (I,K,LP,JV)+FY (I,L,JV) |
DO l = 1, llm |
| 359 |
SSXX(I,K,LP,JV)=SSXX(I,K,LP,JV)+FXX(I,L,JV) |
DO j = 1, jjp1 |
| 360 |
SSXY(I,K,LP,JV)=SSXY(I,K,LP,JV)+FXY(I,L,JV) |
sm(iip1, j, l) = sm(1, j, l) |
| 361 |
SYY(I,K,LP,JV)=SYY(I,K,LP,JV)+FYY(I,L,JV) |
s0(iip1, j, l, ntra) = s0(1, j, l, ntra) |
| 362 |
C |
ssx(iip1, j, l, ntra) = ssx(1, j, l, ntra) |
| 363 |
ENDIF |
sy(iip1, j, l, ntra) = sy(1, j, l, ntra) |
| 364 |
C |
sz(iip1, j, l, ntra) = sz(1, j, l, ntra) |
| 365 |
1210 CONTINUE |
END DO |
| 366 |
121 CONTINUE |
END DO |
| 367 |
C |
! C------------------------------------------------------------- |
| 368 |
12 CONTINUE |
! *** Test : diag de la qqtite totale de tarceur |
| 369 |
C |
! dans l'atmosphere avant l'advection en z |
| 370 |
C fin de la boucle principale sur les latitudes |
DO l = 1, llm |
| 371 |
C |
DO j = 1, jjp1 |
| 372 |
1 CONTINUE |
DO i = 1, iim |
| 373 |
C |
sqf = sqf + s0(i, j, l, ntra) |
| 374 |
DO l = 1,llm |
END DO |
| 375 |
DO j = 1,jjp1 |
END DO |
| 376 |
SM(iip1,j,l) = SM(1,j,l) |
END DO |
| 377 |
S0(iip1,j,l,ntra) = S0(1,j,l,ntra) |
PRINT *, '-------- DIAG DANS ADVZ - SORTIE ---------' |
| 378 |
SSX(iip1,j,l,ntra) = SSX(1,j,l,ntra) |
PRINT *, 'sqf=', sqf |
|
SY(iip1,j,l,ntra) = SY(1,j,l,ntra) |
|
|
SZ(iip1,j,l,ntra) = SZ(1,j,l,ntra) |
|
|
ENDDO |
|
|
ENDDO |
|
|
c C------------------------------------------------------------- |
|
|
C *** Test : diag de la qqtite totale de tarceur |
|
|
C dans l'atmosphere avant l'advection en z |
|
|
DO l = 1,llm |
|
|
DO j = 1,jjp1 |
|
|
DO i = 1,iim |
|
|
sqf = sqf + S0(i,j,l,ntra) |
|
|
ENDDO |
|
|
ENDDO |
|
|
ENDDO |
|
|
PRINT*,'-------- DIAG DANS ADVZ - SORTIE ---------' |
|
|
PRINT*,'sqf=', sqf |
|
| 379 |
|
|
| 380 |
RETURN |
RETURN |
| 381 |
END |
END SUBROUTINE advzp |
Parent Directory
| 
Revision Log
| 
Patch