| 1 |
#include "ctrparam.h" |
| 2 |
SUBROUTINE RADIA 5001. |
| 3 |
C**** 5002. |
| 4 |
C**** THIS SUBROUTINES ADDS THE RADIATION HEATING TO THE TEMPERATURES 5003. |
| 5 |
C**** 5004. |
| 6 |
|
| 7 |
#include "BD2G04.COM" |
| 8 |
#include "chem_para" |
| 9 |
#include "chem_com" |
| 10 |
|
| 11 |
COMMON U,V,T,P,Q 5006. |
| 12 |
COMMON/ADDALB/BVSURFA,XVSURFA,BNSURFA,XNSURFA |
| 13 |
COMMON/WORK1/CONV(IM0,JM0,LM0),PK(IM0,JM0,LM0),PREC(IM0,JM0), |
| 14 |
& TPREC(IM0,JM0), 5007. |
| 15 |
* COSZ1(IO0,JM0),COSZ2(IO0,JM0),COSZA(IO0,JM0), 5008. |
| 16 |
* TRINCG(IO0,JM0),BTMPW(IO0,JM0),SNFS(IO0,JM0,4),TNFS(IO0,JM0,4), 5009. |
| 17 |
* TRHRS(IO0,JM0,3),SRHRS(IO0,JM0,3),ALB(IO0,JM0,9) 5010. |
| 18 |
COMMON/WORK2/CLDSS(IM0,JM0,LM0),CLDMC(IM0,JM0,LM0), 5011. |
| 19 |
* TOTCLD(36) 5012. |
| 20 |
DIMENSION TRNFP0(JM0),TRNFP1(JM0),ALBJ(JM0,9) |
| 21 |
real ODATA2(JM0,2),GDATA2(JM0,14),BDATA2(JM0,2),FDATA2(JM0,2), |
| 22 |
* RQT2(JM0,3) |
| 23 |
common/SURRAD/TRSURF(JM0,4),SRSURF(JM0,4) |
| 24 |
common/FORAERSOL/FORSULF,FORBC |
| 25 |
logical FORSULF,FORBC |
| 26 |
C COMMON/WORK4/ IS BEING USED BY THE RADIATION ROUTINES 5013. |
| 27 |
C 5014. |
| 28 |
C RADCOM: CONTROL/INPUT PARAMETERS 5015. |
| 29 |
C 5016. |
| 30 |
COMMON/RADCOM/VADATA(11,4,3),DGLAT(46),DGLON(72),TMINSR,FULGAS(18)5017. |
| 31 |
A ,FRACSL,RATQSL,FOGTSL,PTLISO,TLGRAD,TKCICE,FGOLDU(18)5018. |
| 32 |
B ,FLONO3,FRAYLE,FCLDTR,FCLDSR,FALGAE,FMARCL,FEMTRA(6) 5019. |
| 33 |
C ,WETTRA,WETSRA,DMOICE,DMLICE,LICETK,NTRCE,FZASRA(6) 5020. |
| 34 |
D ,ID5(5),ITR(4),IMG(2),ILG(2),LAPGAS,KWVCON,NORMS0,NV 5021. |
| 35 |
E ,KEEPRH,KEEPAL,ISOSCT,IHGSCT,KFRACC,KGASSR,KAERSR 5022. |
| 36 |
F ,MARCLD,LAYTOP,LMR,LMRP,JMLAT,IMLON,KFORCE,LASTVC 5023. |
| 37 |
C 5024. |
| 38 |
C BASIC RADCOM INPUT DATA 5025. |
| 39 |
C 5026. |
| 40 |
G ,PLE(40),HLB(40),TLB(40),TLT(40),TL(40),U0GAS(40,9) 5027. |
| 41 |
H ,ULGAS(40,9),TRACER(40,4),RTAU(40),QL(40),RHL(40) 5028. |
| 42 |
I ,POCEAN,PEARTH,POICE,PLICE,AGESN,SNOWE,SNOWOI,SNOWLI 5029. |
| 43 |
J ,TGO,TGE,TGOI,TGLI,TS,WS,WEARTH,ZOICE,FSPARE(200) 5030. |
| 44 |
K ,S0,COSZ,PVT(11),BXA(153),SRBXAL(15,2),FRC(5),LUXGAS 5031. |
| 45 |
L ,JYEARR,JDAYR,JLAT,ILON,MEANAL,KALVIS,ISPARE(25),SGPS5032. |
| 46 |
C 5033. |
| 47 |
C BASIC RADCOM OUTPUT DATA 5034. |
| 48 |
C 5035. |
| 49 |
M ,TRDFLB(40),TRUFLB(40),TRNFLB(40),TRFCRL(40),TRSLCR 5036. |
| 50 |
N ,SRDFLB(40),SRUFLB(40),SRNFLB(40),SRFHRL(40),SRSLHR 5037. |
| 51 |
O ,SRIVIS,SROVIS,PLAVIS,SRINIR,SRONIR,PLANIR,SRXATM(4) 5038. |
| 52 |
P ,SRDVIS,SRUVIS,ALBVIS,SRDNIR,SRUNIR,ALBNIR,FSRNFG(4) 5039. |
| 53 |
Q ,SRTVIS,SRRVIS,SRAVIS,SRTNIR,SRRNIR,SRANIR,FTRUFG(4) 5040. |
| 54 |
R ,TRDFGW,TRUFGW,TRUFTW,BTEMPW,TRDFSL,TRUFSL,DTRUFG(4) 5041. |
| 55 |
S ,TRSLTS,TRSLTG,TRSLWV,TRSLBS,TTRUFG,LBOTCL,LTOPCL 5042. |
| 56 |
DIMENSION COE(39) 5043. |
| 57 |
LOGICAL POLE,DC25,HPRNT,WRCLD,CLDFEED 5044. |
| 58 |
#if ( defined OCEAN_3D ) |
| 59 |
#include "AGRID.COM" |
| 60 |
#endif |
| 61 |
|
| 62 |
#if ( defined CLM ) |
| 63 |
#include "CLM.COM" |
| 64 |
#endif |
| 65 |
c |
| 66 |
|
| 67 |
common /ATCO2/atm_co2(jm0) |
| 68 |
common/conprn/HPRNT |
| 69 |
common/COMCLD/READGHG,PCLOUD,WRCLD,NWRCLD,NWRCL,INYEAR,JNDAY |
| 70 |
&,CFAEROSOL,ALFA,CFBC,cfvolaer |
| 71 |
common/ghstfor/GHSFALB,GHSF,ALBCF,FVOLADD,STRARFOR,S0FOR,CO2FOR, |
| 72 |
& CO2F,ghostfv(LM0+1),ghostf(LM0+1,JM0),ghflux(LM0+1,JM0) |
| 73 |
logical GHSFALB,GHSF,GSOEQ,STRARFOR,S0FOR,CO2FOR |
| 74 |
common/eqgso/GSOEQ |
| 75 |
common/cldfdb/coefcl(3),CLDFEED |
| 76 |
common/aexpc/AEXP,ISTRT1 |
| 77 |
common/ SNOWALB/FRSNALB,III |
| 78 |
common/ S0XR/S0RATE,CFS0X |
| 79 |
common/ BACKGRGHG/GHGBGR(5) |
| 80 |
COMMON/CO2TRND/ALFFOR,CO2TR,YEARGT,CO2IN,INYRAD |
| 81 |
dimension CLDSSF(JM0,LM0),CLDMCF(JM0,LM0) |
| 82 |
&,BSO4LAND(JM0),BSO4OCEAN(JM0),BSO4TOTAL(JM0) |
| 83 |
&,bcodmn(JM0,LM0,12) |
| 84 |
dimension DSWSRF(jm0),DLWSRF(jm0),DSWVIS(jm0),DSWNIR(jm0) |
| 85 |
integer PCLOUD |
| 86 |
common/TSUR/TSURFC(JM0,0:13),TSURFT(JM0),TSURFD(JM0),DTSURF(JM0) |
| 87 |
*,cfcld(JM0,3) |
| 88 |
CHARACTER*4 JMNTHF,JMLAST |
| 89 |
DATA JMLAST /'LAST'/ |
| 90 |
DATA TF/273.16/,TCIR/258.16/,STBO/.567257E-7/,IFIRST/1/,JDLAST/-9/5045. |
| 91 |
DATA IRFIRST /1/ |
| 92 |
C **** CLEAR SKY |
| 93 |
dimension SRHRCL(JM0),TRHRCL(JM0),ALBCL(JM0),SNP1CL(JM0), |
| 94 |
*SNP0CL(JM0),TRINCL(JM0),TRP0CL(JM0),TRP1CL(JM0) |
| 95 |
dimension RTAU0(LM0),TOTCLD0(LM0) |
| 96 |
common/clrsk/CLEAR(JM0),NCLR(JM0),AJCLR(JM0,12),BJCLR(JM0,12), |
| 97 |
* CJCLR(JM0,12) |
| 98 |
integer CLEAR |
| 99 |
C AJCLR |
| 100 |
C 1 SW INC AT P0 RD (AJ(1)) |
| 101 |
C 2 SW ABS BELOW P0 RD (AJ(2)) |
| 102 |
C 3 SW ABS BELOW P1 RD (AJ(3)) |
| 103 |
C 4 SW ABS AT Z0 RD (AJ(6)) |
| 104 |
C 5 SW INC AT Z0 RD (AJ(5)) |
| 105 |
C 6 LW INC AT Z0 RD (AJ(67)) |
| 106 |
C 7 NET LW AT Z0 SF (AJ(9)) |
| 107 |
C 8 NET LW AT P0 RD (AJ(7)) |
| 108 |
C 9 NET LW AT P1 RD (AJ(8)) |
| 109 |
C 10 NET RAD AT P0 DG (AJ(10)) |
| 110 |
C 11 NET RAD AT P1 DG (AJ(11)) |
| 111 |
C 12 NET RAD AT Z0 DG (AJ(12)) |
| 112 |
C **** CLEAR SKY |
| 113 |
C**** 5046. |
| 114 |
C**** FDATA 2 LAND COVERAGE (1) 5047. |
| 115 |
C**** 3 RATIO OF LAND ICE COVERAGE TO LAND COVERAGE (1) 5048. |
| 116 |
C**** 5049. |
| 117 |
C**** ODATA 1 OCEAN TEMPERATURE (C) 5050. |
| 118 |
C**** 2 RATIO OF OCEAN ICE COVERAGE TO WATER COVERAGE (1) 5051. |
| 119 |
C**** 5052. |
| 120 |
C**** GDATA 1 OCEAN ICE SNOW AMOUNT (KG/M**2) 5053. |
| 121 |
C**** 2 EARTH SNOW AMOUNT (KG/M**2) 5054. |
| 122 |
C**** 3 OCEAN ICE TEMPERATURE OF FIRST LAYER (C) 5055. |
| 123 |
C**** 4 EARTH TEMPERATURE OF FIRST LAYER (C) 5056. |
| 124 |
C**** 5 EARTH WATER OF FIRST LAYER (KG/M**2) 5057. |
| 125 |
C**** 6 EARTH ICE OF FIRST LAYER (KG/M**2) 5058. |
| 126 |
C**** 11 AGE OF SNOW (DAYS) 5059. |
| 127 |
C**** 12 LAND ICE SNOW AMOUNT (KG/M**2) 5060. |
| 128 |
C**** 13 LAND ICE TEMPERATURE OF FIRST LAYER (C) 5061. |
| 129 |
C**** 5062. |
| 130 |
C**** BLDATA 1 COMPOSITE SURFACE WIND MAGNITUDE (M/S) 5063. |
| 131 |
C**** 2 COMPOSITE SURFACE AIR TEMPERATURE (K) 5064. |
| 132 |
C**** 5 FREE 5065. |
| 133 |
C**** 5066. |
| 134 |
C**** VDATA 1-8 EARTH RATIOS FOR THE 8 VEGETATION TYPES (1) 5067. |
| 135 |
C**** 9 WATER FIELD CAPACITY OF FIRST LAYER (KG/M**2) 5068. |
| 136 |
C**** 5069. |
| 137 |
dimension GHGBGR0(5) |
| 138 |
|
| 139 |
IF(MODRD.EQ.0) IDACC(2)=IDACC(2)+1 5070. |
| 140 |
IF (IFIRST.NE.1) GO TO 50 5071. |
| 141 |
if(GHSF)then |
| 142 |
do j=1,jm |
| 143 |
ghflux(1,j)=ghostf(1,j) |
| 144 |
do l=2,lm0+1 |
| 145 |
ghflux(l,j)= ghflux(l-1,j)+ghostf(l,j) |
| 146 |
enddo |
| 147 |
enddo |
| 148 |
do l=1,lm0+1 |
| 149 |
print *,l,ghflux(l,1) |
| 150 |
enddo |
| 151 |
endif |
| 152 |
JDAYR=JNDAY |
| 153 |
JYEARR=INYEAR |
| 154 |
c GHGBGR(1)=GHGBGR0(1) |
| 155 |
c GHGBGR(2)=GHGBGR0(2) |
| 156 |
c GHGBGR(3)=GHGBGR0(3) |
| 157 |
c GHGBGR(4)=GHGBGR0(4)*1000. |
| 158 |
c GHGBGR(5)=GHGBGR0(5)*1000. |
| 159 |
c print *,'Background GHGs' |
| 160 |
print '(5E12.4)',GHGBGR |
| 161 |
nreadcld=0 |
| 162 |
nrbyyr=24*365/5 |
| 163 |
nrcldmax=20*nrbyyr |
| 164 |
c print *,' CLOUDS for ',nrcldmax/nrbyyr,' years' |
| 165 |
print *,'RADIA' |
| 166 |
KTREND=-CO2 |
| 167 |
JDAY00=-1 |
| 168 |
if(CLDFEED)then |
| 169 |
c print *,' radia.f coefcl=',coefcl |
| 170 |
print *,' for low and middle clouds',coefcl(1) |
| 171 |
print *,' for top clouds',coefcl(2) |
| 172 |
print *,' for MC clouds',coefcl(3) |
| 173 |
endif |
| 174 |
print *,' READGHG=',READGHG |
| 175 |
print *,' CFAEROSOL=',CFAEROSOL |
| 176 |
#if ( defined PREDICTED_BC) |
| 177 |
print *,'With black carbon forcing' |
| 178 |
print *,' CFBC=',CFBC |
| 179 |
nrdbc=0 |
| 180 |
read(769),bcodmn |
| 181 |
! do nm=1,12 |
| 182 |
! do l=1,lm |
| 183 |
! do j=1,jm |
| 184 |
! bcodmn(j,l,nm)=bcod(1,j,l) |
| 185 |
! enddo |
| 186 |
! enddo |
| 187 |
! enddo |
| 188 |
#endif |
| 189 |
do j=1,jm |
| 190 |
BSO4TOTAL(j)=1.0 |
| 191 |
BSO4LAND(j)=1.0 |
| 192 |
BSO4OCEAN(j)=1.0 |
| 193 |
enddo |
| 194 |
print *,' separate caclulations for land and ocean' |
| 195 |
DC25=.TRUE. |
| 196 |
! DC25=.FALSE. |
| 197 |
if(DC25)then |
| 198 |
print *,' with DC' |
| 199 |
else |
| 200 |
print *,' without DC' |
| 201 |
print *,' subroutine COSZR' |
| 202 |
end if |
| 203 |
if(abs(PCLOUD-3.).gt.1.5.and..NOT.WRCLD)IFIRST=0 5072. |
| 204 |
LMP1=LM+1 5072.1 |
| 205 |
DTCNDS=NCNDS*DT 5073. |
| 206 |
C**** SET THE CONTROL PARAMETERS FOR THE RADIATION 5074. |
| 207 |
JMLAT=JM 5074.1 |
| 208 |
if(JM.ne.24) then |
| 209 |
DO J=1,JMLAT |
| 210 |
DGLAT(J)=acos(COSP(J))*360./TWOPI |
| 211 |
if(J.le.JMLAT/2)DGLAT(J)=-DGLAT(J) |
| 212 |
END DO |
| 213 |
endif |
| 214 |
IMLON=IO 5074.2 |
| 215 |
LMR=LM+3 5075. |
| 216 |
COEX=.01*GRAV*KAPA/RGAS 5076. |
| 217 |
PSFMPT=PSF-PTOP 5077. |
| 218 |
DO 30 L=1,LM 5078. |
| 219 |
COE(L)=DTCNDS*COEX/DSIG(L) 5079. |
| 220 |
30 PLE(L)=SIGE(L)*(PSF-PTOP)+PTOP 5080. |
| 221 |
PLE(LMP1)=PTOP 5081. |
| 222 |
PLE(LM+2)=.5*PTOP 5082. |
| 223 |
PLE(LMR)=.2*PTOP 5083. |
| 224 |
PLE(LMR+1)=1.E-5 5084. |
| 225 |
DO 40 LR=LMP1,LMR 5085. |
| 226 |
COE(LR)=DT*NRAD*COEX/(PLE(LR)-PLE(LR+1)) 5086. |
| 227 |
QL(LR)=.3E-5 5087. |
| 228 |
40 RTAU(LR)=0. 5088. |
| 229 |
DPMICE=10. 5089. |
| 230 |
C S0X=1. 5089.1 |
| 231 |
KSTREND=S0RATE*100. |
| 232 |
print *,'S0RATE=',S0RATE,' KSTREND=',KSTREND |
| 233 |
print *,'From first call of radia CFS0X=',CFS0X |
| 234 |
#if ( defined FIXED_FOR ) |
| 235 |
print *,'Run with fixed forcing' |
| 236 |
#endif |
| 237 |
C |
| 238 |
if(GSOEQ)then |
| 239 |
if(KSTREND.ne.0)then |
| 240 |
print *,'Wrong setting of GSOEQ and KSTREND' |
| 241 |
print *,' GSOEQ=',GSOEQ,' KSTREND=',KSTREND |
| 242 |
c stop |
| 243 |
endif |
| 244 |
if(YEARGT.ne.1860)then |
| 245 |
print *,'Wrong setting of GSOEQ and YEARGT' |
| 246 |
print *,' GSOEQ=',GSOEQ,' YEARGT=',YEARGT |
| 247 |
stop |
| 248 |
endif |
| 249 |
C For an equilibrium run for 1860 conditions for GSO runs |
| 250 |
print *, |
| 251 |
& 'An equilibrium run for 1860 conditions for GSO runs' |
| 252 |
S0X=1365.3596/1367. |
| 253 |
print *,'Sconstant=',S0X*1367. |
| 254 |
RVOL=0.012 |
| 255 |
FVOL=0.0045 |
| 256 |
FGOLDU(1)=(RVOL+FVOL)/RVOL |
| 257 |
print *,'Additional STAER=',FVOL, |
| 258 |
& ' FGOLDU(1)=',FGOLDU(1) |
| 259 |
C |
| 260 |
endif |
| 261 |
if(CO2FOR)then |
| 262 |
print *,' Forcing due to ',CO2F,'xCO2 is calculated', |
| 263 |
* 'in stead of cloud forcing' |
| 264 |
endif |
| 265 |
if(S0FOR)then |
| 266 |
print *,' Forcing due to change in solar constant ', |
| 267 |
* 'is calculated in stead of cloud forcing' |
| 268 |
endif |
| 269 |
if(FORBC)then |
| 270 |
print *,' Forcing due to black carbon ', |
| 271 |
* 'is calculated in stead of cloud forcing' |
| 272 |
endif |
| 273 |
if(STRARFOR)then |
| 274 |
RVOL=0.012 |
| 275 |
FVOL=FVOLADD |
| 276 |
FGOLDU1=(RVOL+FVOL)/RVOL |
| 277 |
print *,'Additional STAER=',FVOL, |
| 278 |
& ' FGOLDU1=',FGOLDU1 |
| 279 |
endif |
| 280 |
if(GHSFALB)then |
| 281 |
Print *,' Run with ghost albedo forcing' |
| 282 |
print *,'ALBCF=',ALBCF |
| 283 |
endif |
| 284 |
if(GHSF)then |
| 285 |
Print *,' Run with ghost forcing' |
| 286 |
do l=1,lm+1 |
| 287 |
ghostfv(l)=0.0 |
| 288 |
do j=1,jm |
| 289 |
ghostfv(l)=ghostfv(l)+ghostf(l,j) |
| 290 |
enddo |
| 291 |
ghostfv(l)=ghostfv(l)/float(jm) |
| 292 |
enddo |
| 293 |
print *,' Ghost forcing DFS=',ghostfv(1) |
| 294 |
do l=LM+1,2,-1 |
| 295 |
print *,' Forsing at laeyr',l-1,'=',ghostfv(l) |
| 296 |
enddo |
| 297 |
c print *,' 2D ghost forcing' |
| 298 |
endif |
| 299 |
S0X=CFS0X*S0X |
| 300 |
S0X0=S0X |
| 301 |
print *,'Before CALL RADIA0' |
| 302 |
CALL RADIA0 (IO,JM,CO2,READGHG) 5090. |
| 303 |
print *,'After CALL RADIA0' |
| 304 |
INCHM=NRAD/NDYN 5091. |
| 305 |
C**** CLOUD LAYER INDICES USED FOR DIAGNOSTICS 5092. |
| 306 |
DO 43 L=1,LM 5093. |
| 307 |
LLOW=L 5094. |
| 308 |
IF (.5*(PLE(L+1)+PLE(L+2)).LT.786.) GO TO 44 5095. |
| 309 |
43 CONTINUE 5096. |
| 310 |
44 LMID1=LLOW+1 5097. |
| 311 |
DO 45 L=LMID1,LM 5098. |
| 312 |
LMID=L 5099. |
| 313 |
IF (.5*(PLE(L+1)+PLE(L+2)).LT.430.) GO TO 46 5100. |
| 314 |
45 CONTINUE 5101. |
| 315 |
46 LHI1=LMID+1 5102. |
| 316 |
LHI=LM 5103. |
| 317 |
IF (LHI1.GT.LHI) LHI=LHI1 5104. |
| 318 |
WRITE (6,47) LLOW,LMID1,LMID,LHI1,LHI 5105. |
| 319 |
47 FORMAT (' LOW CLOUDS IN LAYERS 1-',I2,' MID LEVEL CLOUDS IN',5106. |
| 320 |
* ' LAYERS',I3,'-',I2,' HIGH CLOUDS IN LAYERS',I3,'-',I2) 5107. |
| 321 |
C**** NO RADIATION AVERAGING IJRA=1 JRA=1 IRA=1 5108. |
| 322 |
C**** RADIATION AVERAGING IN I 2 1 2 5109. |
| 323 |
C**** RADIATION AVERAGING IN I AND J 4 2 2 5110. |
| 324 |
JRA=(IJRA+2)/3 5111. |
| 325 |
IRA=IJRA/JRA 5112. |
| 326 |
50 JALTER=MOD(NSTEP,NRAD*JRA)/NRAD 5113. |
| 327 |
JDAYR=JDAY |
| 328 |
JYEARR=JYEAR |
| 329 |
IALTER=MOD(NSTEP,NRAD*IJRA)/(NRAD*JRA) 5114. |
| 330 |
TNOW=JYEAR+(JDAY-.5)/365. 5127.1 |
| 331 |
IF (JDAY.NE.JDLAST.AND.KSTREND.NE.0) then |
| 332 |
IF (KSTREND.GT.0) then |
| 333 |
if(abs(CFS0X-1.0).gt.1.e3)then |
| 334 |
print *,'Wrong setting KSTREND=',KSTREND,' CFS0X=', |
| 335 |
& CFS0X |
| 336 |
endif |
| 337 |
S0X=S0X0*(1.+S0RATE/70.*(TNOW-INYEAR)) |
| 338 |
c print *,'From radia S0X0=',S0X0,' S0X=',S0X |
| 339 |
c print *,'S0X=',S0X,' TNOW=',TNOW |
| 340 |
ELSE |
| 341 |
call obssolar(S0X,TNOW) |
| 342 |
ENDIF |
| 343 |
ENDIF |
| 344 |
S0=S0X*1367./RSDIST 5115. |
| 345 |
S0R=S0 |
| 346 |
c print *,'S0=',S0 |
| 347 |
C**** CALCULATE AVERAGE COSINE OF ZENITH ANGLE FOR CURRENT COMP3 STEP 5116. |
| 348 |
C**** AND RADIATION PERIOD 5117. |
| 349 |
ROT1=TWOPI*TOFDAY/24. 5118. |
| 350 |
if(DC25)then |
| 351 |
ROT2=ROT1+TWOPI*DTCNDS/SDAY 5119. |
| 352 |
CALL COSZT (IO,JM,SIND,COSD,ROT1,ROT2,COSZ1) 5120. |
| 353 |
else |
| 354 |
ROT2=ROT1+TWOPI |
| 355 |
CALL COSZR (IO,JM,SIND,COSD,ROT1,ROT2,COSZ1) |
| 356 |
end if |
| 357 |
if(HPRNT)then |
| 358 |
print *,' radia TAU=',TAU |
| 359 |
print *,' CLDSS' |
| 360 |
print *,(CLDSS(1,7,L),L=1,LM) |
| 361 |
print *,' CLDMC' |
| 362 |
print *,(CLDMC(1,7,L),L=1,LM) |
| 363 |
endif |
| 364 |
cprint *,' form radia TAU=',TAU,'MODRD=',MODRD |
| 365 |
C |
| 366 |
IF(MODRD.NE.0) GO TO 840 5121. |
| 367 |
C |
| 368 |
ROT2=ROT1+TWOPI*NRAD*DT/SDAY 5122. |
| 369 |
CALL COSZS (IO,JM,SIND,COSD,ROT1,ROT2,COSZ2,COSZA) 5123. |
| 370 |
C**** 5124. |
| 371 |
C**** COMPUTE EARTH ALBEDOS AND OTHER PARAMETERS FOR BEGINNING OF DAY 5125. |
| 372 |
|
| 373 |
TNOW=JYEAR+(JDAY-.5)/365. 5127.1 |
| 374 |
KWRITE=0 |
| 375 |
if(JMONTH.ne.JMLAST) then |
| 376 |
KWRITE=1 |
| 377 |
print *,' FROM radia READGHG=',READGHG |
| 378 |
if(READGHG.eq.2) call tgases(CO2,JMONTH) |
| 379 |
c print *,(zco2(1,j,1) |
| 380 |
c & *28.97296245/44.0*1.e-3,j=1,jm) |
| 381 |
!ppb(m) to kg per volume base |
| 382 |
if(READGHG.eq.1) call rtgases(CO2,JMONTH) |
| 383 |
#if ( defined PREDICTED_BC) |
| 384 |
nrdbc=nrdbc+1 |
| 385 |
do l=1,lm |
| 386 |
do j=1,jm |
| 387 |
bcod(1,j,l)=bcodmn(j,l,nrdbc) |
| 388 |
enddo |
| 389 |
enddo |
| 390 |
if(nrdbc.eq.12)then |
| 391 |
nrdbc=0. |
| 392 |
endif |
| 393 |
#endif |
| 394 |
endif |
| 395 |
JMLAST=JMONTH |
| 396 |
IF (JDAY.NE.JDLAST.AND.KTREND.GT.0) |
| 397 |
& CALL FORGET(TNOW,KTREND,KWRITE) |
| 398 |
IF (JDAY.NE.JDLAST)then |
| 399 |
#ifdef PREDICTED_GASES |
| 400 |
call chemglobal(P) |
| 401 |
#endif |
| 402 |
#if ( defined PREDICTED_BC) |
| 403 |
call sulfr(BSO4LAND,BSO4OCEAN,1986.) |
| 404 |
do j=1,jm |
| 405 |
FLAND=FDATA(1,J,2) |
| 406 |
BSO4TOTAL(j)=BSO4LAND(j)*FLAND+BSO4OCEAN(j)*(1.-FLAND) |
| 407 |
enddo |
| 408 |
#endif |
| 409 |
CALL RCOMPT |
| 410 |
if(CLDFEED)then |
| 411 |
DTSURFAV=0. |
| 412 |
C |
| 413 |
do j=1,jm |
| 414 |
DTSURFAV=DTSURFAV+DTSURF(J)*DXYP(j) |
| 415 |
end do !j |
| 416 |
DTSURFAV=DTSURFAV/AREAG |
| 417 |
do j=1,jm |
| 418 |
do k=1,3 |
| 419 |
cfcld(j,k)=1.+coefcl(k)*DTSURFAV |
| 420 |
end do ! k |
| 421 |
end do ! j |
| 422 |
endif |
| 423 |
ENDIF |
| 424 |
JDLAST=JDAY 5129. |
| 425 |
IHOUR=1.5+TOFDAY 5130. |
| 426 |
if(CLDFEED)then |
| 427 |
if (KWRITE.eq.1)then |
| 428 |
print *,'cfcld' |
| 429 |
print 9456,cfcld |
| 430 |
print *,' DTSURF' |
| 431 |
print 9456,DTSURF |
| 432 |
print *,' DTSURFAV=',DTSURFAV |
| 433 |
9456 format(12f6.2) |
| 434 |
endif |
| 435 |
C Save clouds predicted by model |
| 436 |
do k=1,LM |
| 437 |
do j=1,JM |
| 438 |
CLDSSF(j,k)=CLDSS(1,j,k) |
| 439 |
CLDMCF(j,k)=CLDMC(1,j,k) |
| 440 |
enddo |
| 441 |
enddo |
| 442 |
do k=1,LM |
| 443 |
if(k.le.5)then |
| 444 |
k1=1 |
| 445 |
else |
| 446 |
k1=2 |
| 447 |
endif |
| 448 |
do j=1,JM |
| 449 |
CLDSS(1,j,k)=cfcld(j,k1)*CLDSS(1,j,k) |
| 450 |
CLDMC(1,j,k)=cfcld(j,3)*CLDMC(1,j,k) |
| 451 |
enddo |
| 452 |
enddo |
| 453 |
endif |
| 454 |
C |
| 455 |
CB READING OF CLOUD |
| 456 |
if(abs(PCLOUD-3.).lt.1.5)then |
| 457 |
910 continue |
| 458 |
if(nreadcld.eq.nrcldmax)go to 900 |
| 459 |
read(585,END=900)TFDAYF,JDATEF,JMNTHF,CLDSSF,CLDMCF,IRAND |
| 460 |
nreadcld=nreadcld+1 |
| 461 |
if(IFIRST.eq.1)then |
| 462 |
print *,' radia.f PCLOUD=',PCLOUD |
| 463 |
if(PCLOUD.eq.2)print *,' FIXED MC and SS CLOUDS' |
| 464 |
if(PCLOUD.eq.4)print *,' FIXED MC CLOUDS ONLY' |
| 465 |
if(PCLOUD.eq.3)print *,' FIXED SS CLOUDS ONLY' |
| 466 |
print *,TOFDAY,JDATE,JMONTH |
| 467 |
print *,TFDAYF,JDATEF,JMNTHF |
| 468 |
print *,' DTCNDS=',DTCNDS/3600. |
| 469 |
print *,' DT*NRAD=',DT*NRAD/3600. |
| 470 |
if(.not.WRCLD)IFIRST=0 |
| 471 |
endif |
| 472 |
if(abs(TOFDAY-TFDAYF).gt.1.e-3.or.JDATE.ne.JDATEF.or. |
| 473 |
* JMONTH.ne.JMNTHF)then |
| 474 |
print *,' RADIA, disagrement in clouds' |
| 475 |
print *,TOFDAY,JDATE,JMONTH |
| 476 |
print *,TFDAYF,JDATEF,JMNTHF |
| 477 |
stop |
| 478 |
endif |
| 479 |
go to 920 |
| 480 |
900 rewind 585 |
| 481 |
nreadcld=0 |
| 482 |
print *,' END OF file85' |
| 483 |
print *,JYEAR |
| 484 |
print *,TOFDAY,JDATE,JMONTH |
| 485 |
print *,' REWIND 85' |
| 486 |
go to 910 |
| 487 |
920 continue |
| 488 |
c if (KWRITE.eq.1)then |
| 489 |
c print *,'cfcld' |
| 490 |
c print 9456,cfcld |
| 491 |
c print *,' DTSURF' |
| 492 |
c print 9456,DTSURF |
| 493 |
c9456 format(12f6.2) |
| 494 |
c endif |
| 495 |
CALL RINIT (IRAND) |
| 496 |
do 930 k=1,LM |
| 497 |
do 930 j=1,JM |
| 498 |
if(PCLOUD.ne.4)CLDSS(1,j,k)=CLDSSF(j,k) |
| 499 |
if(PCLOUD.ne.3)CLDMC(1,j,k)=CLDMCF(j,k) |
| 500 |
930 continue |
| 501 |
endif |
| 502 |
CE END OF READING OF CLOUD |
| 503 |
if(WRCLD)then |
| 504 |
if(NWRCLD.eq.1)then |
| 505 |
CALL RFINAL(IRAND) |
| 506 |
if(IFIRST.eq.1)print *,' SHORT CLOUDS RECORD' |
| 507 |
write(581)TOFDAY,JDATE,JMONTH,CLDSS,CLDMC,IRAND |
| 508 |
elseif(NWRCLD.eq.2)then |
| 509 |
if(IFIRST.eq.1)print *,' LONG CLOUDS RECORD' |
| 510 |
do 1150 k=1,14 |
| 511 |
do 1150 j=1,JM0 |
| 512 |
if(k.le.2)then |
| 513 |
ODATA2(j,k)=ODATA(1,j,k) |
| 514 |
BDATA2(j,k)=BLDATA(1,j,k) |
| 515 |
FDATA2(j,k)=FDATA(1,j,k+1) |
| 516 |
endif |
| 517 |
if(k.le.3)RQT2(j,k)=RQT(1,j,k) |
| 518 |
GDATA2(j,k)=GDATA(1,j,k) |
| 519 |
1150 continue |
| 520 |
CALL RFINAL(IRAND) |
| 521 |
write(581)TOFDAY,JDATE,JMONTH,CLDSS,CLDMC,IRAND, |
| 522 |
* JDAY,JYEAR,T,Q,P, |
| 523 |
* ODATA2,BDATA2,FDATA2,GDATA2,RQT2 |
| 524 |
& ,CLDSSF,CLDMCF |
| 525 |
else |
| 526 |
print *,' NWRCLD=',NWRCLD |
| 527 |
stop |
| 528 |
endif |
| 529 |
IFIRST=0 |
| 530 |
endif |
| 531 |
C**** 5131. |
| 532 |
C**** MAIN J LOOP 5132. |
| 533 |
C**** 5133. |
| 534 |
DO 600 J=1,JM 5134. |
| 535 |
IF ((J-1)*(JM-J).NE.0) GO TO 140 5135. |
| 536 |
C**** CONDITIONS AT THE POLES 5136. |
| 537 |
POLE=.TRUE. 5137. |
| 538 |
MODRJ=0 5138. |
| 539 |
IMAX=1 5139. |
| 540 |
GO TO 160 5140. |
| 541 |
C**** CONDITIONS AT NON-POLAR POINTS 5141. |
| 542 |
140 POLE=.FALSE. 5142. |
| 543 |
MODRJ=MOD(J+JALTER,JRA) 5143. |
| 544 |
IMAX=IM 5144. |
| 545 |
160 XFRADJ=.2+1.2*COSP(J)*COSP(J) 5145. |
| 546 |
JLAT=J 5145.1 |
| 547 |
if(GSOEQ)then |
| 548 |
C |
| 549 |
RVOL=0.012 |
| 550 |
FVOL=0.0045 |
| 551 |
FGOLDU(1)=(RVOL+FVOL)/RVOL |
| 552 |
C |
| 553 |
endif |
| 554 |
IF(MODRJ.EQ.0) CALL RCOMPJ 5146. |
| 555 |
C**** 5147. |
| 556 |
C**** MAIN I LOOP 5148. |
| 557 |
C**** 5149. |
| 558 |
IM1=IM 5150. |
| 559 |
DO 500 I=1,IMAX 5151. |
| 560 |
MODRIJ=MODRJ+MOD(I+IALTER,IRA) 5152. |
| 561 |
IF(POLE) MODRIJ=0 5153. |
| 562 |
JR=J |
| 563 |
C**** DETERMINE FRACTIONS FOR SURFACE TYPES AND COLUMN PRESSURE 5155. |
| 564 |
PLAND=FDATA(I,J,2) 5156. |
| 565 |
PWATER=1.-PLAND |
| 566 |
POICE=ODATA(I,J,2)*(1.-PLAND) 5157. |
| 567 |
POCEAN=(1.-PLAND)-POICE 5158. |
| 568 |
if(POCEAN.LE.1.E-5)then |
| 569 |
POCEAN=0. |
| 570 |
POICE=PWATER |
| 571 |
endif |
| 572 |
PLICE=FDATA(I,J,3)*PLAND 5159. |
| 573 |
PEARTH=PLAND-PLICE 5160. |
| 574 |
SP=P(I,J) 5161. |
| 575 |
C**** 5162. |
| 576 |
C**** DETERMINE CLOUDS (AND THEIR OPTICAL DEPTHS) SEEN BY RADIATION 5163. |
| 577 |
C**** 5164. |
| 578 |
X=999999. 5164.1 |
| 579 |
c RANDSS=RANDU(X) 5165. |
| 580 |
c RANDMC=RANDU(X) 5166. |
| 581 |
CALL RANDUU(RANDSS,X) |
| 582 |
CALL RANDUU(RANDMC,X) |
| 583 |
if(HPRNT)then |
| 584 |
print *,' radia TAU=',TAU |
| 585 |
print *,' RANDSS=',RANDSS |
| 586 |
print *,' RANDMC=',RANDMC |
| 587 |
endif |
| 588 |
C |
| 589 |
CSS=0. 5167. |
| 590 |
CMC=0. 5168. |
| 591 |
DEPTH=0. 5169. |
| 592 |
LTOP=0 5169.1 |
| 593 |
DO 210 L=1,LM 5170. |
| 594 |
RTAU(L)=0. 5171. |
| 595 |
210 TOTCLD(L)=0. 5172. |
| 596 |
DO 240 L=1,LM 5173. |
| 597 |
IF(CLDSS(I,J,L).LT.RANDSS) GO TO 220 5174. |
| 598 |
RTAUSS=.013333*(PTOP-100.+SIG(L)*SP) 5175. |
| 599 |
IF(RTAUSS.LT.0.) RTAUSS=0. 5176. |
| 600 |
IF (T(I,J,L)*PK(I,J,L).LT.TCIR) RTAUSS=.3333333 5177. |
| 601 |
RTAU(L)=RTAUSS 5178. |
| 602 |
CSS=1. 5179. |
| 603 |
AJL(J,L,28)=AJL(J,L,28)+CSS 5180. |
| 604 |
TOTCLD(L)=1. 5181. |
| 605 |
LTOP=L 5181.1 |
| 606 |
220 IF(CLDMC(I,J,L).LE.RANDMC) GO TO 240 5182. |
| 607 |
RTAUMC=DSIG(L)*SP*.08 5183. |
| 608 |
IF(RTAUMC.GT.RTAU(L)) RTAU(L)=RTAUMC 5184. |
| 609 |
CMC=1. 5185. |
| 610 |
AJL(J,L,29)=AJL(J,L,29)+CMC 5186. |
| 611 |
TOTCLD(L)=1. 5187. |
| 612 |
LTOP=L 5187.1 |
| 613 |
DEPTH=DEPTH+SP*DSIG(L) 5188. |
| 614 |
AJL(J,L,19)=AJL(J,L,19)+TOTCLD(L) 5189. |
| 615 |
240 CONTINUE |
| 616 |
AJ(J,57)=AJ(J,57)+CSS*POCEAN 5190. |
| 617 |
BJ(J,57)=BJ(J,57)+CSS*PLAND 5191. |
| 618 |
CJ(J,57)=CJ(J,57)+CSS*POICE 5192. |
| 619 |
DJ(JR,57)=DJ(JR,57)+CSS*DXYP(J) 5193. |
| 620 |
AJ(J,58)=AJ(J,58)+CMC*POCEAN 5194. |
| 621 |
BJ(J,58)=BJ(J,58)+CMC*PLAND 5195. |
| 622 |
CJ(J,58)=CJ(J,58)+CMC*POICE 5196. |
| 623 |
DJ(JR,58)=DJ(JR,58)+CMC*DXYP(J) 5197. |
| 624 |
AIJ(I,J,17)=AIJ(I,J,17)+CMC 5198. |
| 625 |
AJ(J,80)=AJ(J,80)+DEPTH*POCEAN 5199. |
| 626 |
BJ(J,80)=BJ(J,80)+DEPTH*PLAND 5200. |
| 627 |
CJ(J,80)=CJ(J,80)+DEPTH*POICE 5201. |
| 628 |
DJ(JR,80)=DJ(JR,80)+DEPTH*DXYP(J) 5202. |
| 629 |
CLDCV=CMC+CSS-CMC*CSS 5203. |
| 630 |
cldd4tem(j)=cldd4tem(j)+CLDCV |
| 631 |
ncldd4tem(j)=ncldd4tem(j)+1 |
| 632 |
AJ(J,59)=AJ(J,59)+CLDCV*POCEAN 5204. |
| 633 |
BJ(J,59)=BJ(J,59)+CLDCV*PLAND 5205. |
| 634 |
CJ(J,59)=CJ(J,59)+CLDCV*POICE 5206. |
| 635 |
DJ(JR,59)=DJ(JR,59)+CLDCV*DXYP(J) 5207. |
| 636 |
C**** clear sky condinion |
| 637 |
CSS0=CSS |
| 638 |
CMC0=CMC |
| 639 |
do L=1,LM |
| 640 |
RTAU0(L)=RTAU(L) |
| 641 |
TOTCLD0(L)=TOTCLD(L) |
| 642 |
enddo |
| 643 |
if(CMC.le.0.and.CSS.le.0)then |
| 644 |
CLEAR(J)=1 |
| 645 |
else |
| 646 |
CLEAR(J)=0 |
| 647 |
endif |
| 648 |
if(STRARFOR.or.CO2FOR.or.S0FOR.or.FORBC)then |
| 649 |
CLEAR(J)=0 |
| 650 |
endif |
| 651 |
C**** 5247. |
| 652 |
C**** SET UP VERTICAL ARRAYS OMITTING THE I AND J INDICES 5248. |
| 653 |
C**** 5249. |
| 654 |
C**** EVEN PRESSURES 5250. |
| 655 |
DO 340 L=1,LM 5251. |
| 656 |
PLE(L)=SIGE(L)*SP+PTOP 5252. |
| 657 |
C**** TEMPERATURES 5253. |
| 658 |
TL(L)=T(I,J,L)*PK(I,J,L) 5254. |
| 659 |
C**** MOISTURE VARIABLES 5255. |
| 660 |
QL(L)=Q(I,J,L) 5256. |
| 661 |
340 CONTINUE 5257. |
| 662 |
C**** 5258. |
| 663 |
C**** RADIATION, SOLAR AND THERMAL 5259. |
| 664 |
C**** 5260. |
| 665 |
|
| 666 |
DO 420 K=1,3 5261. |
| 667 |
420 TL(LM+K)=RQT(I,J,K) 5262. |
| 668 |
COSZ=COSZA(I,J) 5263. |
| 669 |
TGO=ODATA(I,J,1)+TF 5264. |
| 670 |
TGOI=GDATA(I,J,3)+TF 5265. |
| 671 |
TGLI=GDATA(I,J,13)+TF 5266. |
| 672 |
TGE=GDATA(I,J,4)+TF 5267. |
| 673 |
TS=BLDATA(I,J,2) 5268. |
| 674 |
SNOWOI=GDATA(I,J,1) 5269. |
| 675 |
SNOWLI=GDATA(I,J,12) 5270. |
| 676 |
SNOWE=GDATA(I,J,2) 5271. |
| 677 |
AGESN=GDATA(I,J,11) 5272. |
| 678 |
c print *,'From radia J=',J,' TAU=',TAU,' TS=',TS |
| 679 |
c print *,TGO,TGOI,TGLI,TGE |
| 680 |
c print *,SNOWOI,SNOWLI,SNOWE,AGESN |
| 681 |
WEARTH=(GDATA(I,J,5)+GDATA(I,J,6))/(VDATA(I,J,9)+1.E-20) 5273. |
| 682 |
DO 430 K=1,8 5274. |
| 683 |
430 PVT(K)=VDATA(I,J,K) 5275. |
| 684 |
WS=BLDATA(I,J,1) 5276. |
| 685 |
do 439 L=1,LM+1 |
| 686 |
SRHR(I,J,L)=0. |
| 687 |
TRHR(I,J,L)=0. |
| 688 |
if(L.le.4)then |
| 689 |
SNFS(I,J,L)=0. |
| 690 |
TNFS(I,J,L)=0. |
| 691 |
if(L.le.3)then |
| 692 |
SRHRS(I,J,L)=0. |
| 693 |
TRHRS(I,J,L)=0. |
| 694 |
endif |
| 695 |
endif |
| 696 |
439 continue |
| 697 |
TRNFP0(J)=0. |
| 698 |
TRNFP1(J)=0. |
| 699 |
TRINCG(I,J)=0. |
| 700 |
BTMPW(I,J)=0. |
| 701 |
SRDAN=0. |
| 702 |
SRNAN=0. |
| 703 |
do 449 K=1,9 |
| 704 |
ALB(I,J,K)=0. |
| 705 |
ALBJ(J,K)=0. |
| 706 |
449 continue |
| 707 |
do 499 ii=1,3 |
| 708 |
COSZ=COSZA(I,J) |
| 709 |
PLAND=FDATA(I,J,2) |
| 710 |
PWATER=1.-PLAND |
| 711 |
POICE=ODATA(I,J,2)*(1.-PLAND) |
| 712 |
POCEAN=(1.-PLAND)-POICE |
| 713 |
if(POCEAN.LE.1.E-5)then |
| 714 |
POCEAN=0. |
| 715 |
POICE=PWATER |
| 716 |
endif |
| 717 |
PLICE=FDATA(I,J,3)*PLAND |
| 718 |
PEARTH=PLAND-PLICE |
| 719 |
if(ii.eq.1)then |
| 720 |
BSO4BC=BSO4OCEAN(J)/BSO4TOTAL(J) |
| 721 |
PTYPE=POCEAN |
| 722 |
POICE=0. |
| 723 |
POCEAN=1. |
| 724 |
PLAND=0. |
| 725 |
PEARTH=0. |
| 726 |
PLICE=0. |
| 727 |
TGAL=0. |
| 728 |
else if(ii.eq.3)then |
| 729 |
BSO4BC=BSO4OCEAN(J)/BSO4TOTAL(J) |
| 730 |
PTYPE=POICE |
| 731 |
POICE=1. |
| 732 |
POCEAN=0. |
| 733 |
PLAND=0. |
| 734 |
PEARTH=0. |
| 735 |
PLICE=0. |
| 736 |
TGAL=TGOI |
| 737 |
else |
| 738 |
BSO4BC=BSO4LAND(J)/BSO4TOTAL(J) |
| 739 |
PTYPE=PLAND |
| 740 |
POCEAN=0. |
| 741 |
POICE=0. |
| 742 |
PWATER=0. |
| 743 |
PLICE=FDATA(I,J,3) |
| 744 |
PEARTH=1.-PLICE |
| 745 |
TGAL=TGE*PEARTH+TGLI*PLICE |
| 746 |
PLAND=1. |
| 747 |
endif |
| 748 |
if(PTYPE.lt.1.e-10)go to 499 |
| 749 |
if(ii.gt.1)then |
| 750 |
if(TGAL.lt.263.)then |
| 751 |
FRSNALB=0.30 |
| 752 |
elseif(TGAL.lt.273.)then |
| 753 |
FRSNALB=0.30-0.015*(TGAL-263.) |
| 754 |
else |
| 755 |
FRSNALB=0.15 |
| 756 |
endif |
| 757 |
endif !ii |
| 758 |
c FGOLDU(2)=XFRADJ*(1.-PEARTH) 5277. |
| 759 |
c FGOLDU(3)=XFRADJ*PEARTH 5278. |
| 760 |
FGOLDU(2)=XFRADJ*(1.-PLAND) |
| 761 |
FGOLDU(3)=XFRADJ*PLAND |
| 762 |
if(CO2FOR)then |
| 763 |
IF (KTREND.GT.0) THEN |
| 764 |
CALL FORGET(TNOW,KTREND,0) |
| 765 |
ELSE |
| 766 |
FULGAS(2)=CO2 |
| 767 |
ENDIF |
| 768 |
endif |
| 769 |
! |
| 770 |
#if ( defined FIXED_FOR ) |
| 771 |
FULGAS(2)=1. |
| 772 |
#endif |
| 773 |
! |
| 774 |
if(S0FOR)then |
| 775 |
S0=S0R |
| 776 |
endif |
| 777 |
CSS=CSS0 |
| 778 |
CMC=CMC0 |
| 779 |
do L=1,LM |
| 780 |
RTAU(L)=RTAU0(L) |
| 781 |
TOTCLD(L)=TOTCLD0(L) |
| 782 |
enddo |
| 783 |
|
| 784 |
Chemstry Model Patch 092295 |
| 785 |
c |
| 786 |
PTYPER=max(PTYPE,5.e-3) |
| 787 |
FAERSOL=PLAND/PTYPER*3.0*CFAEROSOL |
| 788 |
C Factor 3 is a "parameterization" for indirec aerosol effect |
| 789 |
c For normal setting CFAEROSOL=1.0 (default) |
| 790 |
c For hight forcing CFAEROSOL=0.5 |
| 791 |
c For low forcing CFAEROSOL=2.0 |
| 792 |
c |
| 793 |
c ========================== |
| 794 |
#if ( defined PREDICTED_BC) |
| 795 |
FBC=BSO4BC*CFBC |
| 796 |
#endif |
| 797 |
ILON=I 5278.1 |
| 798 |
JLAT=J 5278.2 |
| 799 |
if(GHSFALB)then |
| 800 |
BVSURFA=ALBCF |
| 801 |
XVSURFA=ALBCF |
| 802 |
BNSURFA=ALBCF |
| 803 |
XNSURFA=ALBCF |
| 804 |
else |
| 805 |
BVSURFA=0.0 |
| 806 |
XVSURFA=0.0 |
| 807 |
BNSURFA=0.0 |
| 808 |
XNSURFA=0.0 |
| 809 |
endif |
| 810 |
if(STRARFOR)then |
| 811 |
c if(j.gt.JM/2)then |
| 812 |
FGOLDU(1)=FGOLDU1 |
| 813 |
c else |
| 814 |
c FGOLDU(1)=1. |
| 815 |
c endif |
| 816 |
endif |
| 817 |
if(J.eq.-10)then |
| 818 |
print *,'From radia GHSFALB=',GHSFALB,' ALBCF=',ALBCF |
| 819 |
print *,'From radia BVSURFA=',BVSURFA |
| 820 |
endif |
| 821 |
c if(J.eq.1)then |
| 822 |
c print *,ii,PTYPE,PWATER,POCEAN,POICE,PLAND,PEARTH,PLICE |
| 823 |
c print *,(FGOLDU(if),if=1,5) |
| 824 |
c endif |
| 825 |
c print *,'S0 for real calculation=',S0 |
| 826 |
CALL RCOMPX 5279. |
| 827 |
if (IRFIRST.eq.1.and.READGHG.eq.1)then |
| 828 |
CALL WRITER(12) |
| 829 |
if(ii.ge.2)IRFIRST=0 |
| 830 |
endif |
| 831 |
IF(DMOD(TAU,365.*24.).EQ.0..and.J.eq.JM/2) then |
| 832 |
print *,' tau=',TAU,' J=',J |
| 833 |
CALL WRITER (1,0) |
| 834 |
endif |
| 835 |
c CALL WRITER (13) 5280. |
| 836 |
SRHR(I,J,1)=SRHR(I,J,1)+SRNFLB(1)*PTYPE |
| 837 |
c GHOST FORCINGS |
| 838 |
if(GHSF)then |
| 839 |
|
| 840 |
do LFR=1,lm+1 |
| 841 |
if(LFR.gt.1)then |
| 842 |
TRFCRL(LFR-1)=TRFCRL(LFR-1)-ghostf(LFR,J) |
| 843 |
TRNFLB(LFR)=TRNFLB(LFR)+ghflux(LFR,J) |
| 844 |
endif |
| 845 |
enddo |
| 846 |
endif |
| 847 |
c |
| 848 |
TRHR(I,J,1)=TRHR(I,J,1)+(STBO*(POCEAN*TGO**4+POICE*TGOI**4 |
| 849 |
* +PLICE*TGLI**4+PEARTH*TGE**4)-TRNFLB(1))*PTYPE |
| 850 |
if(GHSF)then |
| 851 |
TRHR(I,J,1)=TRHR(I,J,1)+ghostf(1,J)*PTYPE |
| 852 |
TRDFLB(1)=TRDFLB(1)+ghostf(1,J) |
| 853 |
endif |
| 854 |
C ***** |
| 855 |
TRSURF(J,ii)=STBO*(POCEAN*TGO**4+POICE*TGOI**4 |
| 856 |
* +PLICE*TGLI**4+PEARTH*TGE**4)-TRNFLB(1) |
| 857 |
if(GHSF)then |
| 858 |
TRSURF(J,ii)=TRSURF(J,ii)+ghostf(1,J) |
| 859 |
endif |
| 860 |
SRSURF(J,ii)=SRNFLB(1) |
| 861 |
DO 440 L=1,LM 5284. |
| 862 |
SRHR(I,J,L+1)=SRHR(I,J,L+1)+SRFHRL(L)*PTYPE |
| 863 |
440 TRHR(I,J,L+1)=TRHR(I,J,L+1)-TRFCRL(L)*PTYPE |
| 864 |
DO 450 LR=1,3 5287. |
| 865 |
SRHRS(I,J,LR)=SRHRS(I,J,LR)+SRFHRL(LM+LR)*PTYPE |
| 866 |
450 TRHRS(I,J,LR)=TRHRS(I,J,LR)-TRFCRL(LM+LR)*PTYPE |
| 867 |
DO 460 K=1,4 5290. |
| 868 |
SNFS(I,J,K)=SNFS(I,J,K)+SRNFLB(K+LM)*PTYPE |
| 869 |
460 TNFS(I,J,K)=TNFS(I,J,K)+(TRNFLB(K+LM)-TRNFLB(1))*PTYPE |
| 870 |
TRNFP0(J)=TRNFP0(J)+TRNFLB(4+LM)*PTYPE |
| 871 |
TRNFP1(J)=TRNFP1(J)+TRNFLB(1+LM)*PTYPE |
| 872 |
TRINCG(I,J)=TRINCG(I,J)+TRDFLB(1)*PTYPE |
| 873 |
BTMPW(I,J)=BTMPW(I,J)+(BTEMPW-TF)*PTYPE |
| 874 |
c ALB(I,J,1)=SRNFLB(1)/(SRDFLB(1)+1.E-20) 5295. |
| 875 |
SRDAN=SRDAN+SRDFLB(1)*PTYPE |
| 876 |
SRNAN=SRNAN+SRNFLB(1)*PTYPE |
| 877 |
ALB(I,J,2)=ALB(I,J,2)+PLAVIS*PTYPE |
| 878 |
ALB(I,J,3)=ALB(I,J,3)+PLANIR*PTYPE |
| 879 |
ALB(I,J,4)=ALB(I,J,4)+ALBVIS*PTYPE |
| 880 |
ALB(I,J,5)=ALB(I,J,5)+ALBNIR*PTYPE |
| 881 |
ALB(I,J,6)=ALB(I,J,6)+SRRVIS*PTYPE |
| 882 |
ALB(I,J,7)=ALB(I,J,7)+SRRNIR*PTYPE |
| 883 |
ALB(I,J,8)=ALB(I,J,8)+SRAVIS*PTYPE |
| 884 |
ALB(I,J,9)=ALB(I,J,9)+SRANIR*PTYPE |
| 885 |
ALB1=SRNFLB(1)/(SRDFLB(1)+1.E-20) |
| 886 |
C ********** |
| 887 |
ALBJ(J,2)=PLAVIS |
| 888 |
ALBJ(J,3)=PLANIR |
| 889 |
ALBJ(J,4)=ALBVIS |
| 890 |
ALBJ(J,5)=ALBNIR |
| 891 |
ALBJ(J,6)=SRRVIS |
| 892 |
ALBJ(J,7)=SRRNIR |
| 893 |
ALBJ(J,8)=SRAVIS |
| 894 |
ALBJ(J,9)=SRANIR |
| 895 |
ALBJ(J,1)=SRNFLB(1)/(SRDFLB(1)+1.E-20) |
| 896 |
C ********* |
| 897 |
COSZ=COSZ2(I,J) |
| 898 |
do L=LM,1,-1 |
| 899 |
AJL(J,L,43)=AJL(J,L,43)-TRNFLB(L+1)*PTYPE |
| 900 |
AJL(J,L,42)=AJL(J,L,42)+(SRNFLB(L+1)*COSZ)*PTYPE |
| 901 |
enddo |
| 902 |
if(ii.eq.2)then |
| 903 |
#if ( defined CLM ) |
| 904 |
C for TEM CLM |
| 905 |
DSWSRF(j)=SRDFLB(1) |
| 906 |
DLWSRF(j)=TRSURF(J,2) |
| 907 |
DSWVIS(j)=SRDVIS |
| 908 |
DSWNIR(j)=SRDNIR |
| 909 |
C for TEM CLM |
| 910 |
#endif |
| 911 |
PLAND=PTYPE |
| 912 |
BJ(J,1)=BJ(J,1)+(S0*COSZ)*PLAND |
| 913 |
BJ(J,2)=BJ(J,2)+(SRNFLB(4+LM)*COSZ)*PLAND |
| 914 |
c BSNFS1=BSNFS1+(SRNFLB(1+LM)*COSZ)*PLAND |
| 915 |
c BJ(J,5)=BJ(J,5)+(SRNFLB(1)*COSZ/(ALB1+1.E-20))*PLAND |
| 916 |
BJ(J,5)=BJ(J,5)+(SRDFLB(1)*COSZ)*PLAND |
| 917 |
BJ(J,6)=BJ(J,6)+(SRNFLB(1)*COSZ)*PLAND |
| 918 |
BJ(J,55)=BJ(J,55)+(BTEMPW-TF)*PLAND |
| 919 |
BJ(J,67)=BJ(J,67)+TRDFLB(1)*PLAND |
| 920 |
BJ(J,70)=BJ(J,70)-(TRNFLB(4+LM)-TRNFLB(1))*PLAND |
| 921 |
BJ(J,7)=BJ(J,7)-TRNFLB(4+LM)*PLAND |
| 922 |
BJ(J,8)=BJ(J,8)-TRNFLB(1+LM)*PLAND |
| 923 |
BJ(J,3)=BJ(J,3)+(SRNFLB(1+LM)*COSZ)*PLAND |
| 924 |
BJ(J,71)=BJ(J,71)-(TRNFLB(1+LM)-TRNFLB(1))*PLAND |
| 925 |
DO 761 K=2,9 |
| 926 |
BJ(J,K+70)=BJ(J,K+70)+(S0*COSZ)*ALBJ(J,K)*PLAND |
| 927 |
761 CONTINUE |
| 928 |
else if(ii.eq.1)then |
| 929 |
POCEAN=PTYPE |
| 930 |
AJ(J,1)=AJ(J,1)+(S0*COSZ)*POCEAN |
| 931 |
AJ(J,2)=AJ(J,2)+(SRNFLB(4+LM)*COSZ)*POCEAN |
| 932 |
AJ(J,5)=AJ(J,5)+(SRDFLB(1)*COSZ)*POCEAN |
| 933 |
AJ(J,6)=AJ(J,6)+(SRNFLB(1)*COSZ)*POCEAN |
| 934 |
AJ(J,55)=AJ(J,55)+(BTEMPW-TF)*POCEAN |
| 935 |
AJ(J,67)=AJ(J,67)+TRDFLB(1)*POCEAN |
| 936 |
AJ(J,70)=AJ(J,70)-(TRNFLB(4+LM)-TRNFLB(1))*POCEAN |
| 937 |
AJ(J,7)=AJ(J,7)-TRNFLB(4+LM)*POCEAN |
| 938 |
AJ(J,8)=AJ(J,8)-TRNFLB(1+LM)*POCEAN |
| 939 |
AJ(J,3)=AJ(J,3)+(SRNFLB(1+LM)*COSZ)*POCEAN |
| 940 |
AJ(J,71)=AJ(J,71)-(TRNFLB(1+LM)-TRNFLB(1))*POCEAN |
| 941 |
#if ( defined OCEAN_3D ) |
| 942 |
solarinc_ocean(J)=solarinc_ocean(J)+SRDFLB(1)*COSZ |
| 943 |
solarnet_ocean(J)=solarnet_ocean(J)+SRNFLB(1)*COSZ |
| 944 |
navrado(j)=navrado(j)+1 |
| 945 |
#endif |
| 946 |
C |
| 947 |
DO K=2,9 |
| 948 |
AJ(J,K+70)=AJ(J,K+70)+(S0*COSZ)*ALBJ(J,K)*POCEAN |
| 949 |
END DO |
| 950 |
C |
| 951 |
else |
| 952 |
POICE=PTYPE |
| 953 |
CJ(J,1)=CJ(J,1)+(S0*COSZ)*POICE |
| 954 |
CJ(J,2)=CJ(J,2)+(SRNFLB(4+LM)*COSZ)*POICE |
| 955 |
CJ(J,5)=CJ(J,5)+(SRDFLB(1)*COSZ)*POICE |
| 956 |
CJ(J,6)=CJ(J,6)+(SRNFLB(1)*COSZ)*POICE |
| 957 |
CJ(J,55)=CJ(J,55)+(BTEMPW-TF)*POICE |
| 958 |
CJ(J,67)=CJ(J,67)+TRDFLB(1)*POICE |
| 959 |
CJ(J,70)=CJ(J,70)-(TRNFLB(4+LM)-TRNFLB(1))*POICE |
| 960 |
CJ(J,7)=CJ(J,7)-TRNFLB(4+LM)*POICE |
| 961 |
CJ(J,8)=CJ(J,8)-TRNFLB(1+LM)*POICE |
| 962 |
CJ(J,3)=CJ(J,3)+(SRNFLB(1+LM)*COSZ)*POICE |
| 963 |
CJ(J,71)=CJ(J,71)-(TRNFLB(1+LM)-TRNFLB(1))*POICE |
| 964 |
#if ( defined OCEAN_3D ) |
| 965 |
solarinc_ice(J)=solarinc_ice(J)+SRDFLB(1)*COSZ |
| 966 |
solarnet_ice(J)=solarnet_ice(J)+SRNFLB(1)*COSZ |
| 967 |
navrad(j)=navrad(j)+1 |
| 968 |
#endif |
| 969 |
C |
| 970 |
DO K=2,9 |
| 971 |
CJ(J,K+70)=CJ(J,K+70)+(S0*COSZ)*ALBJ(J,K)*POICE |
| 972 |
END DO |
| 973 |
endif |
| 974 |
if(CLEAR(J).eq.0)then |
| 975 |
PLAND=FDATA(I,J,2) |
| 976 |
PWATER=1.-PLAND |
| 977 |
POICE=ODATA(I,J,2)*(1.-PLAND) |
| 978 |
POCEAN=(1.-PLAND)-POICE |
| 979 |
if(POCEAN.LE.1.E-5)then |
| 980 |
POCEAN=0. |
| 981 |
POICE=PWATER |
| 982 |
endif |
| 983 |
PLICE=FDATA(I,J,3)*PLAND |
| 984 |
PEARTH=PLAND-PLICE |
| 985 |
if(ii.eq.1)then |
| 986 |
PTYPE=POCEAN |
| 987 |
POICE=0. |
| 988 |
POCEAN=1. |
| 989 |
PLAND=0. |
| 990 |
PEARTH=0. |
| 991 |
PLICE=0. |
| 992 |
else if(ii.eq.3)then |
| 993 |
PTYPE=POICE |
| 994 |
POICE=1. |
| 995 |
POCEAN=0. |
| 996 |
PLAND=0. |
| 997 |
PEARTH=0. |
| 998 |
PLICE=0. |
| 999 |
else |
| 1000 |
PTYPE=PLAND |
| 1001 |
POCEAN=0. |
| 1002 |
POICE=0. |
| 1003 |
PWATER=0. |
| 1004 |
PLICE=FDATA(I,J,3) |
| 1005 |
PEARTH=1.-PLICE |
| 1006 |
PLAND=1. |
| 1007 |
endif |
| 1008 |
COSZ=COSZA(I,J) |
| 1009 |
if(STRARFOR)then |
| 1010 |
FGOLDU(1)=1.0 |
| 1011 |
elseif(CO2FOR)then |
| 1012 |
FULGAS(2)=CO2F |
| 1013 |
elseif(S0FOR)then |
| 1014 |
c print *,'For S0FOR ',S0X0,CFS0X,S0X |
| 1015 |
S0=S0X0/CFS0X*1367./RSDIST |
| 1016 |
c print *,'S0 for forcing calculation=',S0 |
| 1017 |
elseif(FORBC)then |
| 1018 |
FBC=0.0 |
| 1019 |
else |
| 1020 |
CSS=0. |
| 1021 |
CMC=0. |
| 1022 |
DEPTH=0. |
| 1023 |
LTOP=0. |
| 1024 |
do 1210 L=1,LM |
| 1025 |
RTAU(L)=0. |
| 1026 |
TOTCLD(L)=0. |
| 1027 |
1210 continue |
| 1028 |
endif |
| 1029 |
568 continue |
| 1030 |
CALL RCOMPX |
| 1031 |
endif |
| 1032 |
SRHRCL(J)=SRNFLB(1) |
| 1033 |
TRHRCL(J)=-TRNFLB(1) |
| 1034 |
ALBCL(J)=SRNFLB(1)/(SRDFLB(1)+1.e-20) |
| 1035 |
SNP1CL(J)=SRNFLB(LM+1) |
| 1036 |
SNP0CL(J)=SRNFLB(LM+4) |
| 1037 |
TRINCL(J)=TRDFLB(1) |
| 1038 |
TRP0CL(J)=TRNFLB(LM+4) |
| 1039 |
TRP1CL(J)=TRNFLB(LM+1) |
| 1040 |
COSZ=COSZ2(I,J) |
| 1041 |
do L=LM,1,-1 |
| 1042 |
AJL(J,L,46)=AJL(J,L,46)-TRNFLB(L+1)*PTYPE |
| 1043 |
AJL(J,L,45)=AJL(J,L,45)+(SRNFLB(L+1)*COSZ)*PTYPE |
| 1044 |
enddo |
| 1045 |
C ******* |
| 1046 |
NCLR(J)=NCLR(J)+1 |
| 1047 |
SRHE5=SRHRCL(J)*COSZ/(ALBCL(J)+1.E-20) |
| 1048 |
if(ii.eq.1)then |
| 1049 |
POCEAN=PTYPE |
| 1050 |
AJCLR(J,1)=AJCLR(J,1)+(S0*COSZ)*POCEAN |
| 1051 |
AJCLR(J,2)=AJCLR(J,2)+(SNP0CL(J)*COSZ)*POCEAN |
| 1052 |
AJCLR(J,4)=AJCLR(J,4)+(SRHRCL(J)*COSZ)*POCEAN |
| 1053 |
AJCLR(J,5)=AJCLR(J,5)+SRHE5*POCEAN |
| 1054 |
AJCLR(J,6)=AJCLR(J,6)+TRINCL(J)*POCEAN |
| 1055 |
AJCLR(J,8)=AJCLR(J,8)-TRP0CL(J)*POCEAN |
| 1056 |
AJCLR(J,9)=AJCLR(J,9)-TRP1CL(J)*POCEAN |
| 1057 |
AJCLR(J,3)=AJCLR(J,3)+(SNP1CL(J)*COSZ)*POCEAN |
| 1058 |
AJCLR(J,7)=AJCLR(J,7)+TRHRCL(J)*POCEAN |
| 1059 |
else if(ii.eq.2)then |
| 1060 |
PLAND=PTYPE |
| 1061 |
BJCLR(J,1)=BJCLR(J,1)+(S0*COSZ)*PLAND |
| 1062 |
BJCLR(J,2)=BJCLR(J,2)+(SNP0CL(J)*COSZ)*PLAND |
| 1063 |
BJCLR(J,4)=BJCLR(J,4)+(SRHRCL(J)*COSZ)*PLAND |
| 1064 |
BJCLR(J,5)=BJCLR(J,5)+SRHE5*PLAND |
| 1065 |
BJCLR(J,6)=BJCLR(J,6)+TRINCL(J)*PLAND |
| 1066 |
BJCLR(J,8)=BJCLR(J,8)-TRP0CL(J)*PLAND |
| 1067 |
BJCLR(J,9)=BJCLR(J,9)-TRP1CL(J)*PLAND |
| 1068 |
BJCLR(J,3)=BJCLR(J,3)+(SNP1CL(J)*COSZ)*PLAND |
| 1069 |
BJCLR(J,7)=BJCLR(J,7)+TRHRCL(J)*PLAND |
| 1070 |
else |
| 1071 |
POICE=PTYPE |
| 1072 |
CJCLR(J,1)=CJCLR(J,1)+(S0*COSZ)*POICE |
| 1073 |
CJCLR(J,2)=CJCLR(J,2)+(SNP0CL(J)*COSZ)*POICE |
| 1074 |
CJCLR(J,4)=CJCLR(J,4)+(SRHRCL(J)*COSZ)*POICE |
| 1075 |
CJCLR(J,5)=CJCLR(J,5)+SRHE5*POICE |
| 1076 |
CJCLR(J,6)=CJCLR(J,6)+TRINCL(J)*POICE |
| 1077 |
CJCLR(J,8)=CJCLR(J,8)-TRP0CL(J)*POICE |
| 1078 |
CJCLR(J,9)=CJCLR(J,9)-TRP1CL(J)*POICE |
| 1079 |
CJCLR(J,3)=CJCLR(J,3)+(SNP1CL(J)*COSZ)*POICE |
| 1080 |
CJCLR(J,7)=CJCLR(J,7)+TRHRCL(J)*POICE |
| 1081 |
endif |
| 1082 |
C ********* |
| 1083 |
499 continue |
| 1084 |
ALB(I,J,1)=SRNAN/(SRDAN+1.E-20) |
| 1085 |
500 IM1=I 5304. |
| 1086 |
C**** 5305. |
| 1087 |
C**** END OF MAIN LOOP FOR I INDEX 5306. |
| 1088 |
C**** 5307. |
| 1089 |
600 CONTINUE 5345. |
| 1090 |
C**** 5346. |
| 1091 |
C**** END OF MAIN LOOP FOR J INDEX 5347. |
| 1092 |
C**** 5348. |
| 1093 |
C**** ACCUMULATE THE RADIATION DIAGNOSTICS 5394. |
| 1094 |
C**** 5395. |
| 1095 |
700 DO 780 J=1,JM 5396. |
| 1096 |
DXYPJ=DXYP(J) 5397. |
| 1097 |
IMAX=IM 5398. |
| 1098 |
IF(J.EQ.1.OR.J.EQ.JM) IMAX=1 5399. |
| 1099 |
DO 720 L=1,LM 5400. |
| 1100 |
ASRHR=0. 5401. |
| 1101 |
ATRHR=0. 5402. |
| 1102 |
DO 710 I=1,IMAX 5403. |
| 1103 |
ASRHR=ASRHR+SRHR(I,J,L+1)*COSZ2(I,J) 5404. |
| 1104 |
710 ATRHR=ATRHR+TRHR(I,J,L+1) 5405. |
| 1105 |
AJL(J,L,9)=AJL(J,L,9)+ASRHR 5406. |
| 1106 |
720 AJL(J,L,10)=AJL(J,L,10)+ATRHR 5407. |
| 1107 |
ASNFS1=0. 5408. |
| 1108 |
BSNFS1=0. 5409. |
| 1109 |
CSNFS1=0. 5410. |
| 1110 |
ATNFS1=0. 5411. |
| 1111 |
BTNFS1=0. 5412. |
| 1112 |
CTNFS1=0. 5413. |
| 1113 |
DO 770 I=1,IMAX 5414. |
| 1114 |
SP=P(I,J) 5415. |
| 1115 |
COSZ=COSZ2(I,J) 5416. |
| 1116 |
PLAND=FDATA(I,J,2) 5417. |
| 1117 |
PWATER=1.-PLAND |
| 1118 |
POICE=ODATA(I,J,2)*(1.-PLAND) 5418. |
| 1119 |
POCEAN=(1.-PLAND)-POICE 5419. |
| 1120 |
if(POCEAN.LE.1.E-5)then |
| 1121 |
POCEAN=0. |
| 1122 |
POICE=PWATER |
| 1123 |
endif |
| 1124 |
JR=J |
| 1125 |
DO 740 LR=1,3 5421. |
| 1126 |
ASJL(J,LR,3)=ASJL(J,LR,3)+SRHRS(I,J,LR)*COSZ 5422. |
| 1127 |
740 ASJL(J,LR,4)=ASJL(J,LR,4)+TRHRS(I,J,LR) 5423. |
| 1128 |
DJ(JR,1)=DJ(JR,1)+(S0*COSZ)*DXYPJ 5440. |
| 1129 |
DJ(JR,2)=DJ(JR,2)+(SNFS(I,J,4)*COSZ)*DXYPJ 5444. |
| 1130 |
DJ(JR,3)=DJ(JR,3)+(SNFS(I,J,1)*COSZ)*DXYPJ 5448. |
| 1131 |
DJ(JR,5)=DJ(JR,5)+(SRHR(I,J,1)*COSZ/(ALB(I,J,1)+1.E-20))*DXYPJ 5452. |
| 1132 |
DJ(JR,6)=DJ(JR,6)+(SRHR(I,J,1)*COSZ)*DXYPJ 5456. |
| 1133 |
DJ(JR,55)=DJ(JR,55)+BTMPW(I,J)*DXYPJ 5460. |
| 1134 |
DJ(JR,67)=DJ(JR,67)+TRINCG(I,J)*DXYPJ 5464. |
| 1135 |
DJ(JR,70)=DJ(JR,70)-TNFS(I,J,4)*DXYPJ 5468. |
| 1136 |
DJ(JR,71)=DJ(JR,71)-TNFS(I,J,1)*DXYPJ 5472. |
| 1137 |
770 CONTINUE 5485. |
| 1138 |
780 CONTINUE 5492. |
| 1139 |
C**** 5504. |
| 1140 |
C**** UPDATE THE TEMPERATURES BY RADIATION 5505. |
| 1141 |
C**** 5506. |
| 1142 |
800 DO 820 J=1,JM 5507. |
| 1143 |
IMAX=IM 5508. |
| 1144 |
IF(J.EQ.1.OR.J.EQ.JM) IMAX=1 5509. |
| 1145 |
DO 820 LR=1,3 5510. |
| 1146 |
DO 820 I=1,IMAX 5511. |
| 1147 |
820 RQT(I,J,LR)=RQT(I,J,LR)+(SRHRS(I,J,LR)*COSZ2(I,J) 5512. |
| 1148 |
* +TRHRS(I,J,LR))*COE(LR+LM) 5513. |
| 1149 |
840 DO 860 J=1,JM 5514. |
| 1150 |
#if ( defined HR_DATA ) |
| 1151 |
dswhr(j)=DSWSRF(j)*COSZ1(1,j) |
| 1152 |
dlwhr(j)=DLWSRF(j) |
| 1153 |
#endif |
| 1154 |
#if ( defined CLM ) |
| 1155 |
dsw4clm(j)=DSWSRF(j)*COSZ1(1,j) |
| 1156 |
dlw4clm(j)=DLWSRF(j) |
| 1157 |
swinr4clm(j)=DSWNIR(j)*COSZ1(1,j) |
| 1158 |
swvis4clm(j)=DSWVIS(j)*COSZ1(1,j) |
| 1159 |
c For TEM |
| 1160 |
swtd4tem(j)=swtd4tem(j)+S0*COSZ1(1,j) |
| 1161 |
swsd4tem(j)=swsd4tem(j)+DSWSRF(j)*COSZ1(1,j) |
| 1162 |
nradd4tem(j)=nradd4tem(j)+1 |
| 1163 |
#endif |
| 1164 |
IMAX=IM 5515. |
| 1165 |
IF(J.EQ.1.OR.J.EQ.JM) IMAX=1 5516. |
| 1166 |
if(HPRNT)then |
| 1167 |
if(J.eq.1)then |
| 1168 |
print *,' radia TAU=',TAU |
| 1169 |
print *,' Before 860' |
| 1170 |
print *,(T(1,1,L),L=1,LM) |
| 1171 |
endif |
| 1172 |
endif |
| 1173 |
DO 860 L=1,LM 5517. |
| 1174 |
DO 860 I=1,IMAX 5518. |
| 1175 |
860 T(I,J,L)=T(I,J,L)+(SRHR(I,J,L+1)*COSZ1(I,J)+TRHR(I,J,L+1)) 5519. |
| 1176 |
* *COE(L)/(P(I,J)*PK(I,J,L)) 5520. |
| 1177 |
if(HPRNT)then |
| 1178 |
print *,' radia TAU=',TAU |
| 1179 |
print *,' after 860' |
| 1180 |
print 'B66',T(1,1,1) |
| 1181 |
print *,'COSZ1(1,1)',COSZ1(1,1),' COE(1)=',COE(1) |
| 1182 |
print *,'SRHR' |
| 1183 |
print *,(SRHR(1,1,L+1),L=1,LM) |
| 1184 |
print *,'TRHR' |
| 1185 |
print *,(TRHR(1,1,L+1),L=1,LM) |
| 1186 |
print *,'T' |
| 1187 |
print *,(T(1,1,L),L=1,LM) |
| 1188 |
endif |
| 1189 |
c if(ncallclm.ge.9)stop |
| 1190 |
RETURN 5521. |
| 1191 |
END 5522. |
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