C SUBROUTINE PROF(NHB,LRSTRT,ITAG,LCLAS1) C SUBROUTINE PROF(ITAG,LCLAS1) SUBROUTINE PROF_EM(filename,prefilename,startdate, + ITAG,INCR) C C$$$ SUBPROGRAM DOCUMENTATION BLOCK C . . . C SUBROUTINE: PROF PROFILE SOUNDINGS C PRGRMMR: BLACK ORG: W/NP22 DATE: 99-04-22 C C ABSTRACT: THIS ROUTINE GENERATES THE RAW PROFILE SOUNDING C OUTPUT FILES FROM THE FORECAST RESTRT FILE AND C AUXILIARY FILES C C PROGRAM HISTORY LOG: C 99-04-22 T BLACK - ORIGINATOR C 02-07-01 G MANIKIN - FIXED PROBLEM WITH DHCNVC AND DHRAIN C COMPUTATIONS - SEE COMMENTS BELOW C 03-04-01 M PYLE - BEGAN CONVERTING FOR WRF C 06-07-14 B ZHOU - ADATP FOR SREF WRF-ARW C 07-08-07 J. Du & B. Zhou - (1) Many extra fields were added; C (2) a new prefilename is defined for previous C forecast file in order to calculate precip rate C during INCHOUR interval C 08-07-01 B ZHOU - CHANGED TO MPIIO C 08-10-10 J. Du and B. ZHOU - The order of vertical levels are reversed C for the new ARW model C C USAGE: CALL PROF FROM PROGRAM POST0 C C INPUT ARGUMENT LIST: C NHB - THE UNIT NUMBER FOR READING THE NHB FILE C LRSTRT - THE UNIT NUMBER FOR READING THE RESTRT FILE C ITAG - THE FORECAST HOUR WE ARE DEALING WITH C LCLAS1 - THE UNIT NUMBER FOR WRITING THE PROFILE DATA C C OUTPUT ARGUMENT LIST: C NONE C C SUBPROGRAMS CALLED: C UNIQUE: C C----------------------------------------------------------------------- c use vrbls3d c use vrbls2d c use soil c use masks use kinds, only : i_llong include 'wrf_io_flags.h' include 'mpif.h' INCLUDE "parmsoil" C----------------------------------------------------------------------- P A R A M E T E R cZhou & (NSTAT=800,LCL1ML=13,LCL1SL=50) c20080701 & (NSTAT=1500,LCL1ML=13,LCL1SL=52) & (NSTAT=1815,LCL1ML=15,LCL1SL=52) C----------------------------------------------------------------------- C C PARMS FOR HOURLY PROFILER OUTPUT C NSTAT - MAX NUMBER OF STATIONS C NWORDM - DIMENSION OF OUTPUT ARRAY, MUST BE LARGE ENOUGH C TO HOLD ALL VARIABLES C (MAX NO MULTI-LAYER VARIABLES*LM + NO OF SINGLE LAYER VARS) C LCL1ML - NUMBER OF MULTI-LAYER VARIABLES OUTPUT FOR CLASS 1 C LCL1SL - NUMBER OF SINGLE LAYER VARIABLES OUTPUT FOR CLASS 1 C C------------------------------------------------------------------------ P A R A M E T E R & (ITB=76,JTB=134) P A R A M E T E R & (A2=17.2693882,A3=273.16,A4=35.86,PQ0=379.90516,DTR=1.74532925E-2 &, G=9.81,GI=1./G,RD=287.04,CP=1004.6,CAPA=RD/CP,RHCRIT=0.9999, & TFRZ=273.15) PARAMETER (GAMMA=6.5/1000.,ZSL=0.0,D608=0.608) PARAMETER (TAUCR=RD*GI*290.66,CONST=0.005*G/RD) C------------------------------------------------------------------------ ! R E A L ! & DETA(LM),RDETA(LM),AETA(LM),UL(2*LM) C REAL, ALLOCATABLE:: & RES(:),FIS(:),THS(:),HBOT(:) &,CFRACL(:),CFRACM(:),CFRACH(:),SNO(:) &,SOILTB(:),SFCEXC(:),SMSTAV(:),SMSTOT(:) &,Z0(:),CZEN(:),CZMEAN(:),U00(:),SR(:) &,ACPREC(:),CUPREC(:),ACSNOW(:),ACSNOM(:) &,SSROFF(:),BGROFF(:),SFCSHX(:),SFCLHX(:) &,SUBSHX(:),SNOPCX(:),ASWIN(:),ASWOUT(:) &,ASWTOA(:),ALWIN(:),ALWOUT(:),ALWTOA(:) &,TSHLTR(:),QSHLTR(:),TH2_hold(:) &,TH10(:),Q10(:),U10(:),V10(:) &,TLMIN(:),TLMAX(:) &,SMC(:,:),CMC(:),STC(:,:),SH2O(:,:) &,VEGFRC(:),POTFLX(:),PSLP(:),PDSL1(:) &,EGRID2(:),SM(:),SICE(:) &,HBM2(:),FACTR(:) &,PTBL(:,:),TTBL(:,:) &,STATPR(:),STACPR(:),STAEVP(:) &,STAPOT(:),STASHX(:),STASUB(:),STAPCX(:) &,STASWI(:),STASWO(:),STALWI(:),STALWO(:) &,STALWT(:),STASWT(:),STASNM(:),STASRF(:) &,STABRF(:),STASNO(:) &,ACPREC0(:),CUPREC0(:),SFCLHX0(:),POTFLX0(:) &,SFCSHX0(:),SUBSHX0(:),SNOPCX0(:),ASWIN0(:) &,ASWOUT0(:),ALWIN0(:),ALWOUT0(:),ALWTOA0(:) &,ASWTOA0(:),ACSNOW0(:),ACSNOM0(:),SSROFF0(:) &,BGROFF0(:) C REAL, ALLOCATABLE:: T(:,:),Q(:,:),U(:,:),V(:,:),Q2(:,:) &, OMGALF(:,:),CWM(:,:),TRAIN(:,:),TCUCN(:,:) &,F_RAIN(:,:),F_ICE(:,:),CLDFRA(:,:) &,F_RIMEF(:,:) &, RSWTT(:,:),RLWTT(:,:),CCR(:,:),RTOP(:,:) &, HTM(:,:),OMGA(:,:),p_hold(:,:),t_hold(:,:) &, PINT(:,:),UL(:),PVAPOR(:),ZINT(:,:) REAL, ALLOCATABLE:: DHCNVC(:,:),DHRAIN(:,:),STADHC(:),STADHR(:), & TCUCN0(:,:),TRAIN0(:,:),CPRATE(:) REAL,ALLOCATABLE:: DUM(:,:,:),DUMMY(:,:),DUMMY2(:,:), & DUM3D(:,:,:),DUM3D2(:,:,:),DUM3D3(:,:,:),GDLAT(:,:),GDLON(:,:), & DUM3D_U(:,:,:),DUM3D_V(:,:,:),DUM3D_SOIL(:,:,:) REAL, ALLOCATABLE:: PRODAT(:),FPACK(:) INTEGER, ALLOCATABLE:: IDUM(:,:),LMH(:,:),IW(:,:) REAL, ALLOCATABLE:: qqw(:,:),qqr(:,:),qqs(:,:),qqi(:,:), & qqg(:,:) INTEGER, allocatable:: IDUMMY(:,:) !Binbin: new adding REAL, allocatable:: DUM1D(:) REAL:: STNLAT(NSTAT),STNLON(NSTAT) REAL, ALLOCATABLE :: PMID(:,:), W(:,:), WH(:,:), & pint_part(:),PDS(:) real, allocatable:: CROT(:),SROT(:) C------------------------------------------------------------------------ I N T E G E R & IDSTN(NSTAT),IHINDX(NSTAT),JHINDX(NSTAT) &, IVINDX(NSTAT),JVINDX(NSTAT),IDAT(3) INTEGER:: GDS(200) C------------------------------------------------------------------------ L O G I C A L & RUN,RESTRT,FRST, PRINT_DIAG C------------------------------------------------------------------------ C H A R A C T E R & RSTFIL*90,RESTHR*4,LABEL*32,CISTAT*8,CIDSTN(NSTAT)*8 &,FNAME*90,ENVAR*90,BLANK*4 CHARACTER(LEN=8), ALLOCATABLE :: CIDSTN_SAVE(:) C new stuff character(len=31) :: VarName,varin character(len=90) :: fileName character(len=90) :: prefileName !new added by Jun Du integer :: Status, DataHandle, hor_size, hor_size_u, hor_size_v character(len=19):: startdate,datestr,datestrold real:: rinc(5) integer:: IDATE(8),JDATE(8), IDATENEW(8) character*132, allocatable :: datestr_all(:) character*132, allocatable :: varname_all(:) integer, allocatable :: domainend_all(:,:) integer, allocatable :: start_block(:) integer, allocatable :: end_block(:) integer, allocatable :: start_byte(:) integer, allocatable :: end_byte(:) integer(kind=i_llong), allocatable :: file_offset(:) integer this_offset, this_length REAL SPVAL character*2 cfhr !add by B Zhou C------------------------------------------------------------------------ DATA BLANK/' '/ DATA SPVAL/-9999./ C------------------------------------------------------------------------ C*** C*** READ IN THE INFORMATION FILE ABOUT THE SOUNDINGS C*** write(6,*) 'filename= ', trim(filename) write(6,*) 'startedate= ', startdate datestr=startdate REWIND 19 C READ(19)NUMSTA,IDSTN,STNLAT,STNLON 1, IHINDX,JHINDX,IVINDX,JVINDX,CIDSTN write(6,*) 'STNLAT(1), STNLON(1): ', STNLAT(1), STNLON(1) write(6,*) 'IHINDX(1),JHINDX(1): ', IHINDX(1),JHINDX(1) write(6,*) 'IVINDX(1),JVINDX(1): ', IVINDX(1),JVINDX(1) WRITE(6,20)NUMSTA 20 FORMAT('INIT: NUMBER OF PROFILE STATIONS ',I5) !mp allocate(CIDSTN_SAVE(NUMSTA)) DO N=1,NUMSTA CIDSTN_SAVE(N)=CIDSTN(N) ENDDO !mp if (ITAG .eq. 0) then WRITE(6,30)(IDSTN(N),STNLAT(N)/DTR,STNLON(N)/DTR 1, IHINDX(N),JHINDX(N),IVINDX(N),JVINDX(N) 2, CIDSTN(N),N=1,NUMSTA) else WRITE(6,30)(IDSTN(N),STNLAT(N)/DTR,STNLON(N)/DTR 1, IHINDX(N),JHINDX(N),IVINDX(N),JVINDX(N) 2, CIDSTN_SAVE(N),N=1,NUMSTA,20) endif 30 FORMAT(2X,I6,2F8.2,4I8,4X,A8) write(*,*) 'ITAG=', ITAG FRST=.TRUE. !-------------------------------------------------------------------- !-------------------------------------------------------------------- !-------------------------------------------------------------------- if ( frst ) then frst = .false. CALL ext_int_ioinit(Status) print*,'CALLed ioinit', Status write(6,*) 'filename early in PROF= ', trim(filename) CALL ext_int_open_for_read( trim(fileName), 0, 0, " ", & DataHandle, Status) print*,'CALLed open for read', Status else Status = 0 endif if ( Status /= 0 ) then print*,'error opening ',trim(fileName), ' Status = ', Status ; stop endif c20080701 The end j row is going to be jend_2u for all variables except for V. c20080701 JSTA_2L=1 c20080701 JEND_2U=JM c20080701 JS=JSTA_2L c20080701 JE=JEND_2U c20080701 IF (JEND_2U.EQ.JM) THEN c20080701 JEV=JEND_2U+1 c20080701 ELSE c20080701 JEV=JEND_2U c20080701 ENDIF c20080701 write(6,*) 'js, je, jev: ', js,je,jev C Getting start time CALL ext_int_get_dom_ti_char(DataHandle 1 ,'START_DATE',startdate, status ) print*,'startdate= ',startdate jdate=0 idate=0 read(startdate,15)iyear,imn,iday,ihrst IDATE(2)=imn IDATE(3)=iday IDATE(1)=iyear IDATE(5)=ihrst 15 format(i4,1x,i2,1x,i2,1x,i2) print*,'start yr mo day hr =',iyear,imn,iday,ihrst ifhr=ITAG print*,' ifhr fileName=',ifhr,trim(fileName) call ext_int_get_dom_ti_integer(DataHandle, & 'WEST-EAST_GRID_DIMENSION',itmp + ,1,ioutcount,istatus) write(6,*) 'west-east dimension: ', itmp IM=itmp-1 call ext_int_get_dom_ti_integer(DataHandle, & 'SOUTH-NORTH_GRID_DIMENSION',itmp + ,1,ioutcount,istatus) write(6,*) 'south-north dimension: ', itmp JM=itmp-1 call ext_int_get_dom_ti_integer(DataHandle, & 'BOTTOM-TOP_GRID_DIMENSION',itmp + ,1,ioutcount,istatus) write(6,*) 'bottom-top dimension: ', itmp LM=itmp-1 write(6,*) 'to big allocate block' ALLOCATE(RES(NUMSTA),FIS(NUMSTA),THS(NUMSTA),HBOT(NUMSTA)) ALLOCATE(CFRACL(NUMSTA),CFRACM(NUMSTA),CFRACH(NUMSTA)) ALLOCATE(SNO(NUMSTA),SOILTB(NUMSTA),SFCEXC(NUMSTA)) ALLOCATE(SMSTAV(NUMSTA),SMSTOT(NUMSTA)) ALLOCATE(Z0(NUMSTA),CZEN(NUMSTA),CZMEAN(NUMSTA)) ALLOCATE(U00(NUMSTA),SR(NUMSTA),ACPREC(NUMSTA)) ALLOCATE(CUPREC(NUMSTA),ACSNOW(NUMSTA),ACSNOM(NUMSTA)) ALLOCATE(SSROFF(NUMSTA),BGROFF(NUMSTA),SFCSHX(NUMSTA)) ALLOCATE(SFCLHX(NUMSTA),SUBSHX(NUMSTA),SNOPCX(NUMSTA)) ALLOCATE(ASWIN(NUMSTA),ASWOUT(NUMSTA),ASWTOA(NUMSTA)) ALLOCATE(ALWIN(NUMSTA),ALWOUT(NUMSTA),ALWTOA(NUMSTA)) ALLOCATE(TSHLTR(NUMSTA),QSHLTR(NUMSTA),TH2_hold(NUMSTA)) ALLOCATE(TH10(NUMSTA),Q10(NUMSTA),U10(NUMSTA),V10(NUMSTA)) ALLOCATE(TLMIN(NUMSTA),TLMAX(NUMSTA),SMC(NUMSTA,NSOIL)) ALLOCATE(CMC(NUMSTA),STC(NUMSTA,NSOIL),SH2O(NUMSTA,NSOIL)) ALLOCATE(VEGFRC(NUMSTA),POTFLX(NUMSTA),PSLP(NUMSTA)) ALLOCATE(PDSL1(NUMSTA),EGRID2(NUMSTA),SM(NUMSTA),SICE(NUMSTA)) ALLOCATE(HBM2(NUMSTA),FACTR(NUMSTA),PTBL(ITB,JTB),TTBL(JTB,ITB)) ALLOCATE(STATPR(NUMSTA),STACPR(NUMSTA),STAEVP(NUMSTA)) ALLOCATE(STAPOT(NUMSTA),STASHX(NUMSTA),STASUB(NUMSTA)) ALLOCATE(STAPCX(NUMSTA),STASWI(NUMSTA),STASWO(NUMSTA)) ALLOCATE(STALWI(NUMSTA),STALWO(NUMSTA),STALWT(NUMSTA)) ALLOCATE(STASWT(NUMSTA),STASNM(NUMSTA),STASRF(NUMSTA)) ALLOCATE(STABRF(NUMSTA),STASNO(NUMSTA),ACPREC0(NUMSTA)) !Binbin: from this, need 2 files ALLOCATE(CUPREC0(NUMSTA),SFCLHX0(NUMSTA),POTFLX0(NUMSTA)) !to compute ALLOCATE(SFCSHX0(NUMSTA),SUBSHX0(NUMSTA),SNOPCX0(NUMSTA)) ALLOCATE(ASWIN0(NUMSTA),ASWOUT0(NUMSTA),ALWIN0(NUMSTA)) ALLOCATE(ALWOUT0(NUMSTA),ALWTOA0(NUMSTA),ASWTOA0(NUMSTA)) ALLOCATE(ACSNOW0(NUMSTA),ACSNOM0(NUMSTA),SSROFF0(NUMSTA)) ALLOCATE(BGROFF0(NUMSTA)) ALLOCATE(F_RAIN(NUMSTA,LM),F_ICE(NUMSTA,LM),CLDFRA(NUMSTA,LM)) ALLOCATE(F_RIMEF(NUMSTA,LM)) ALLOCATE(T(NUMSTA,LM)) ALLOCATE(Q(NUMSTA,LM)) ALLOCATE(U(NUMSTA,LM)) ALLOCATE(V(NUMSTA,LM)) ALLOCATE(Q2(NUMSTA,LM)) ALLOCATE(OMGALF(NUMSTA,LM)) ALLOCATE(CWM(NUMSTA,LM)) ALLOCATE(TRAIN(NUMSTA,LM)) ALLOCATE(TCUCN(NUMSTA,LM)) ALLOCATE(RSWTT(NUMSTA,LM)) ALLOCATE(RLWTT(NUMSTA,LM)) ALLOCATE(CCR(NUMSTA,LM)) ALLOCATE(RTOP(NUMSTA,LM)) ALLOCATE(HTM(NUMSTA,LM)) ALLOCATE(OMGA(NUMSTA,LM)) ALLOCATE(p_hold(NUMSTA,LM)) ALLOCATE(t_hold(NUMSTA,LM)) ALLOCATE(PINT(NUMSTA,LM+1)) ALLOCATE(W(NUMSTA,LM+1)) ALLOCATE(WH(NUMSTA,LM)) ALLOCATE(IW(NUMSTA,LM)) ALLOCATE(STADHC(LM)) ALLOCATE(STADHR(LM)) ALLOCATE(CPRATE(LM)) ALLOCATE(DHRAIN(LM,NUMSTA)) ALLOCATE(DHCNVC(LM,NUMSTA)) ALLOCATE(TCUCN0(LM,NUMSTA)) ALLOCATE(TRAIN0(LM,NUMSTA)) ! former parameter statements NWORDM=(LCL1ML+1)*LM+2*LCL1SL LRECPR=4*(8+9+LCL1ML*LM+LCL1SL) write(6,*) 'NWORDM, LRECPR=', NWORDM, LRECPR ! former parameter statements if (allocated(FPACK)) deallocate(FPACK); allocate(FPACK(NWORDM)) if (allocated(PRODAT)) deallocate(PRODAT); & allocate(PRODAT(NWORDM)) write(6,*) 'allocate with IM, JM, LM: ', IM, JM, LM JS=1 JE=JM JEV=JM+1 if (ALLOCATED(DUM)) deallocate(DUM); & allocate(DUM(IM,JM,4)) if (ALLOCATED(DUMMY)) deallocate(DUMMY); & allocate(DUMMY(IM,JM)) if (ALLOCATED(DUMMY2)) deallocate(DUMMY2); & allocate(DUMMY2(IM,JM)) if (ALLOCATED(DUM3D)) deallocate(DUM3D); & allocate(DUM3D(IM,LM,JM)) if (ALLOCATED(DUM3D_SOIL)) deallocate(DUM3D_SOIL); & allocate(DUM3D_SOIL(IM,NSOIL,JM)) if (ALLOCATED(DUM3D_U)) deallocate(DUM3D_U); & allocate(DUM3D_U(IM+1,LM,JM)) if (ALLOCATED(DUM3D_V)) deallocate(DUM3D_V); & allocate(DUM3D_V(IM,LM,JM+1)) if (ALLOCATED(DUM3D2)) deallocate(DUM3D2); & allocate(DUM3D2(IM,LM+1,JM)) if (ALLOCATED(DUM3D3)) deallocate(DUM3D3); & allocate(DUM3D3(IM,LM+1,JM)) if (ALLOCATED(GDLAT)) deallocate(GDLAT); & allocate(GDLAT(IM,JM)) if (ALLOCATED(GDLON)) deallocate(GDLON); & allocate(GDLON(IM,JM)) if (ALLOCATED(IDUM)) deallocate(IDUM); & allocate(IDUM(IM,JM)) if (ALLOCATED(LMH)) deallocate(LMH); & allocate(LMH(IM,JM)) allocate(qqw(NUMSTA,LM+1)) allocate(qqr(NUMSTA,LM+1)) allocate(qqs(NUMSTA,LM+1)) allocate(qqi(NUMSTA,LM+1)) allocate(qqg(NUMSTA,LM+1)) c20080701 call ext_int_get_dom_ti_integer(DataHandle,'MP_PHYSICS' c20080701 + ,itmp,1,ioutcount,istatus) c20080701 imp_physics=itmp c20080701 print*,'MP_PHYSICS= ',imp_physics call ext_int_get_dom_ti_real(DataHandle,'DX',tmp + ,1,ioutcount,istatus) dxval=nint(tmp) write(6,*) 'dxval= ', dxval call ext_int_get_dom_ti_real(DataHandle,'DY',tmp + ,1,ioutcount,istatus) dyval=nint(tmp) write(6,*) 'dyval= ', dyval call ext_int_get_dom_ti_real(DataHandle,'DT',tmp + ,1,ioutcount,istatus) DT=tmp print*,'DT= ',DT call ext_int_get_dom_ti_real(DataHandle,'CEN_LAT',tmp + ,1,ioutcount,istatus) cenlat=nint(1000.*tmp) write(6,*) 'cenlat= ', cenlat call ext_int_get_dom_ti_real(DataHandle,'CEN_LON',tmp + ,1,ioutcount,istatus) cenlon=nint(1000.*tmp) write(6,*) 'cenlon= ', cenlon call ext_int_get_dom_ti_real(DataHandle,'TRUELAT1',tmp + ,1,ioutcount,istatus) truelat1=nint(1000.*tmp) write(6,*) 'truelat1= ', truelat1 call ext_int_get_dom_ti_real(DataHandle,'TRUELAT2',tmp + ,1,ioutcount,istatus) truelat2=nint(1000.*tmp) write(6,*) 'truelat2= ', truelat2 call ext_int_get_dom_ti_integer(DataHandle,'MAP_PROJ',itmp + ,1,ioutcount,istatus) maptype=itmp write(6,*) 'maptype is ', maptype c closing wrf io api call ext_int_ioclose ( DataHandle, Status ) c start calling mpi io iunit=33 call count_recs_wrf_binary_file(iunit, trim(fileName), nrecs) print*,'- FILE CONTAINS ',nrecs, ' RECORDS' allocate (datestr_all(nrecs)) allocate (varname_all(nrecs)) allocate (domainend_all(3,nrecs)) allocate (start_block(nrecs)) allocate (end_block(nrecs)) allocate (start_byte(nrecs)) allocate (end_byte(nrecs)) allocate (file_offset(nrecs)) if (ITAG .eq. 0) then PRINT_DIAG=.true. else PRINT_DIAG=.false. endif write(*,*) 'Before inventory_wrf_binary_file:', trim(filename) call inventory_wrf_binary_file(iunit, trim(filename), nrecs, + datestr_all,varname_all,domainend_all, + start_block,end_block,start_byte,end_byte,file_offset, + print_diag) ! close(iunit) call mpi_init(ierr) write(6,*) 'ierr from mpi_init: ', ierr call mpi_comm_rank(MPI_COMM_WORLD,mype,ierr) write(6,*) 'ierr from mpi_comm_rank: ', ierr call mpi_comm_size(MPI_COMM_WORLD,npes,ierr) write(6,*) 'ierr from mpi_comm_size: ', ierr write(6,*) 'want to open: ', trim(filename) write(6,*) 'mpi_mode_rdonly: ', mpi_mode_rdonly write(6,*) 'call mpi_file_open: ', mpi_comm_world, + trim(filename) + , mpi_mode_rdonly,mpi_info_null, iunit, ierr call mpi_file_open(mpi_comm_world, trim(filename) + , mpi_mode_rdonly,mpi_info_null, iunit, ierr) if (ierr /= 0) then print*,"Error opening file with mpi io ",iunit,ierr call mpi_abort(mpi_comm_world, 59, ierr) ! stop end if hor_size=IM*JM hor_size_u=(IM+1)*(JM) hor_size_v=(IM)*(JM+1) ! get 3-D variables print*,'im,jm,lm= ',im,jm,lm c VarName='U' call retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret /= 0) then print*,VarName," not found in file-Assigned missing values" U=SPVAL else write(6,*) 'size of dum3d_u: ', size(dum3d_u) write(6,*) 'hor_size_u*lm: ', hor_size_u*lm call mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D_U,(hor_size_u*lm),mpi_real4 + , mpi_status_ignore, ierr) if (ierr /= 0) then print*,"Error reading ", VarName,"Assigned missing values" U=SPVAL else DO L = 1,LM DO N=1,NUMSTA I=IVINDX(N) J=JVINDX(N) U(N,L) = DUM3D_U(I,L,J) END DO END DO endif endif VarName='V' call retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret /= 0) then print*,VarName," not found in file-Assigned missing values" V=SPVAL else call mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D_V,(hor_size_v*lm),mpi_real4 + , mpi_status_ignore, ierr) if (ierr /= 0) then print*,"Error reading ", VarName,"Assigned missing values" V=SPVAL else DO L = 1,LM DO N=1,NUMSTA I=IVINDX(N) J=JVINDX(N) V(N,L) = DUM3D_V(I,L,J) END DO END DO endif endif write(6,*) 'V: ', DUM3D_V(20,20,20) VarName='W' call retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret /= 0) then print*,VarName," not found in file-Assigned missing values" W=SPVAL else call mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D2,(hor_size*(lm+1)),mpi_real4 + , mpi_status_ignore, ierr) if (ierr /= 0) then print*,"Error reading ", VarName,"Assigned missing values" V=SPVAL else DO L = 1,LM+1 DO N=1,NUMSTA I=IVINDX(N) J=JVINDX(N) W(N,L) = DUM3D2(I,L,J) END DO END DO endif endif write(6,*) 'W: ', DUM3D(20,20,20) DO L = 1,LM DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) WH(N,L) = (W(N,L)+W(N,L+1))*0.5 END DO END DO VarName='T' call retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret /= 0) then print*,VarName," not found in file-Assigned missing values" t_hold=SPVAL else call mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,(hor_size*lm),mpi_real4 + , mpi_status_ignore, ierr) if (ierr /= 0) then print*,"Error reading ", VarName,"Assigned missing values" t_hold=SPVAL else DO L = 1,LM+1 DO N=1,NUMSTA I=IVINDX(N) J=JVINDX(N) t_hold(N,L) = DUM3D(I,L,J) END DO END DO endif endif do l = 1, lm do N = 1, NUMSTA I=IHINDX(N) J=JHINDX(N) t_hold ( N , L ) = dum3d ( i, l, j ) + 300. end do end do ! t_hold has potential temperature here VarName='MU' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + , mpi_status_ignore, ierr) VarName='MUB' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY2,hor_size,mpi_real4 + , mpi_status_ignore, ierr) 633 format(15(f6.0,1x)) if (allocated(pint_part)) deallocate(pint_part) allocate(pint_part(NUMSTA)) if (allocated(PDS)) deallocate(PDS) allocate(PDS(NUMSTA)) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) pint_part(N)=DUMMY(I,J)+DUMMY2(I,J) ! write(6,*) 'N, pint_part(N): ', N, pint_part(N) if (CIDSTN_SAVE(N) .eq. 'KOAK ') then write(6,*) 'KOAK, MU,MUB,pint_part: ',DUMMY(I,J),DUMMY2(I,J), & pint_part(N) endif if (CIDSTN_SAVE(N) .eq. 'BLU ') then write(6,*) 'BLU, MU,MUB,pint_part: ',DUMMY(I,J),DUMMY2(I,J), & pint_part(N) endif ENDDO VarName='P' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) DO L=1,LM DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) p_hold(N,L)=DUM3D(I,L,J) ENDDO ENDDO VarName='QVAPOR' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) DO L=1,LM DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) Q(N,L)=DUM3D(I,L,J)/(1.0+DUM3D(I,L,J)) ENDDO ENDDO VarName='QCLOUD' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) DO L = 1, LM DO N=1,NUMSTA Q2(N,L)=0. CWM(N,L)=DUM3D(IHINDX(N),L,JHINDX(N)) ENDDO ENDDO VarName='TSLB' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D_SOIL,hor_size*nsoil,mpi_real4 + ,mpi_status_ignore, ierr) DO L = 1, NSOIL DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) ! STC(N,L) = DUM3D_SOIL(I,NSOIL-L+1,J) STC(N,L) = DUM3D_SOIL(I,L,J) END DO END DO VarName='Q2' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA QSHLTR(N)=DUMMY(IHINDX(N),JHINDX(N)) ENDDO VarName='TH2' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA TH2_hold(N)=DUMMY(IHINDX(N),JHINDX(N)) ENDDO VarName='U10' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA U10(N)=DUMMY(IHINDX(N),JHINDX(N)) ENDDO VarName='V10' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA V10(N)=DUMMY(IHINDX(N),JHINDX(N)) ENDDO DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) TH10(N)=-9999. Q10(N)=-9999. END DO VarName='SMOIS' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D_SOIL,hor_size*nsoil,mpi_real4 + ,mpi_status_ignore, ierr) DO L = 1, NSOIL DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) ! SMC(N,L) = DUM3D_SOIL(I,NSOIL-L+1,J) SMC(N,L) = DUM3D_SOIL(I,L,J) ENDDO ENDDO VarName='SH2O' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D_SOIL,hor_size*nsoil,mpi_real4 + ,mpi_status_ignore, ierr) DO L = 1, NSOIL DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) CMC(N) = DUM3D (I,1,J) ! ?????? ! SH2O(N,L)= DUM3D_SOIL(I,NSOIL-L+1,J) SH2O(N,L)= DUM3D_SOIL(I,L,J) END DO END DO write(6,*) 'past soil' c reading SMSTAV VarName='SMSTAV' DUMMY=0. CALL retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret .eq. 0) then CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SMSTAV(N)=DUMMY(I,J) ENDDO else write(0,*) 'SMSTAV not found - set to SPVAL ', SPVAL DO N=1,NUMSTA SMSTAV(N)=SPVAL ENDDO endif VarName='SMSTOT' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) DUMMY=0. if (iret .eq. 0) then CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SMSTOT(N)=DUMMY(I,J) ENDDO else write(0,*) 'SMSTOT not found - set to SPVAL ', SPVAL DO N=1,NUMSTA SMSTOT(N)=SPVAL ENDDO endif write(6,*) 'to VEGFRA' VarName='VEGFRA' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) VEGFRC(N)=DUMMY(I,J) ENDDO VarName='ACSNOW' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM(:,:,1),hor_size,mpi_real4 + ,mpi_status_ignore, ierr) VarName='ACSNOM' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM(:,:,2),hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) ACSNOW(N)=DUM(I,J,1) ACSNOM(N)=DUM(I,J,2) ENDDO write(6,*) 'past acsnom' VarName='SNOW' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SNO(N)=DUMMY(I,J) if (SNO(N) .gt. 0) then write(0,*) 'N, SNO(N): ', N, SNO(N) endif ENDDO VarName='PB' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) write(6,*) 'to PMID alloc statements' if (allocated(PMID)) deallocate(PMID) allocate(PMID(NUMSTA,LM)) DO L=1,LM DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) PMID(N,L)=p_hold(N,L)+DUM3D(I,L,J) T(N,L)=t_hold(N,L)*(PMID(N,L)*1.e-5)**CAPA if (N .eq. NUMSTA/2) then ! write(6,*) 'N,L,PMID,t_hold,T: ', N,L,PMID(N,L),t_hold(N,L),T(N,L) endif OMGA(N,L)=-WH(N,L)*PMID(N,L)*G/ & (RD*T(N,L)*(1+.608*Q(N,L))) !!!!! CONSTRAIN Q TO A PARTICULAR RH VALUE, FOLLOWING CALRH OF WRFPOST QC= (PQ0/PMID(N,L)) *EXP(A2*(T(N,L)-A3)/(T(N,L)-A4)) RH=Q(N,L)/QC IF (RH .gt. RHCRIT) THEN IF (RH .gt. 1.02) THEN write(6,*) 'reducing RH from: ', RH, ' at N,L: ', N,L ENDIF Q(N,L)=0.999*RHCRIT*QC ENDIF !!!!! END RH CONSTRAIN ENDDO ENDDO VarName='HGT' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA RES(N)=1.0 FIS(N)=DUMMY(IHINDX(N),JHINDX(N))*G ENDDO !HERENOW VarName='P_TOP' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,pt,1,mpi_real4 + ,mpi_status_ignore, ierr) write(6,*) 'returned P_TOP into PT as : ', PT !!!! need to do the qvapor fix - integrated contribution of !!!! moisture to the surface pressure allocate(PVAPOR(NUMSTA)) allocate(ZINT(NUMSTA,LM+1)) VarName='PHB' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D2,hor_size*(lm+1),mpi_real4 + ,mpi_status_ignore, ierr) VarName='PH' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D3,hor_size*(lm+1),mpi_real4 + ,mpi_status_ignore, ierr) DO L=1,LM+1 DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) ZINT(N,L)=(DUM3D2(I,L,J)+DUM3D3(I,L,J))/G ENDDO ENDDO DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) PVAPOR(N)=0. do L=1,LM dz=ZINT(N,L+1)-ZINT(N,L) rho=PMID(N,L)/(RD*T(N,L)) if (L .le. LM-1) then QMEAN=0.5*(Q(N,L)+Q(N,L+1)) else QMEAN=Q(N,L) endif ! if (mod(L,5) .eq. 0 .and. mod(N,20) .eq. 0) then ! write(0,*) 'N, L, dz, rho, qmean, increm: ', ! & N, L, dz, rho, qmean, G*rho*dz*QMEAN ! endif pvapor(N)=pvapor(N)+G*rho*dz*QMEAN enddo ENDDO !!!! end vapor fix !!! what is the vertical order of fields?? !!! !!! PINT has ground at LM+1, but temp appears to have ground at L=1 !!! !!! make PINT(1)=sfc !!! !!! ????????????????????? !!! DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) PINT (N,LM+1)=PT PINT (N,1)=pint_part(N)+PT+PVAPOR(N) PDS(N)=pint_part(N)+PT+PVAPOR(N) TSHLTR(N)=TH2_hold(N)*(PINT(N,1)/100000.)**CAPA HBOT(N)=-9999. CFRACL(N)=-9999. !!! constrain surface RH QC=(PQ0/PINT(N,1))*EXP(A2*(TSHLTR(N)-A3)/(TSHLTR(N)-A4)) RH=QSHLTR(N)/QC IF (RH .gt. RHCRIT) THEN write(6,*) 'reducing surface RH from: ', RH, ' at N: ', N QSHLTR(N)=0.999*RHCRIT*QC ENDIF ENDDO c B Zhou, add following specific for SREF -------------------- qqw=0. qqr=0. qqs=0. qqi=0. qqg=0. cwm=0. if(imp_physics.ne.5 .and. imp_physics.ne.0)then VarName='QCLOUD' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) ! partition cloud water and ice for WSM3 DO L=1,LM DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) if(imp_physics.eq.3)then if(t(N,L) .ge. TFRZ)then qqw ( n, l ) = dum3d ( i,j,l ) else qqi ( n, l ) = dum3d ( i, j, l ) end if end if END DO END DO end if cc B Zhou, Add QRAIN. Matt's code has no this field if(imp_physics.ne.5 .and. imp_physics.ne.0)then VarName='QRAIN' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) do l = 1, lm do n = 1, NUMSTA I=IHINDX(N) J=JHINDX(N) if(imp_physics .eq. 3)then if(t(n,l) .ge. TFRZ)then qqr ( n , l ) = dum3d ( i, j, l ) else qqs ( n, l ) = dum3d ( i, j, l ) end if end if end do end do end if if(imp_physics.ne.1 .and. imp_physics.ne.3 + .and. imp_physics.ne.5 .and. imp_physics.ne.0)then VarName='QICE' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) do l = 1, lm do n = 1, NUMSTA I=IHINDX(N) J=JHINDX(N) qqi ( n, l ) = dum3d ( i, j, l ) end do end do end if if(imp_physics.ne.1 .and. imp_physics.ne.3 + .and. imp_physics.ne.5 .and. imp_physics.ne.0)then VarName='QSNOW' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) do l = 1, lm do n = 1, NUMSTA I=IHINDX(N) J=JHINDX(N) qqs ( n, l ) = dum3d ( i, j, l ) end do end do end if if(imp_physics.eq.2 .or. imp_physics.eq.6 + .or. imp_physics.eq.8)then VarName='QGRAUP' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) do l = 1, lm do n = 1, NUMSTA I=IHINDX(N) J=JHINDX(N) qqg ( n, l ) = dum3d ( i, j, l ) !CHC CONVERT MIXING RATIO TO SPECIFIC HUMIDITY end do end do end if if(imp_physics.eq.5) then VarName='CWM' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM3D,hor_size*lm,mpi_real4 + ,mpi_status_ignore, ierr) do l = 1, lm do n = 1, NUMSTA I=IHINDX(N) J=JHINDX(N) CWM(N,L)=DUM3D(I,J,L) end do end do else do l = 1, lm do n = 1, NUMSTA IF(QQR(n,L).LT.SPVAL)THEN CWM(N,L)=QQR(n,L) END IF IF(QQI(n,L).LT.SPVAL)THEN !a bug? -- Jun Du CWM(N,L)=CWM(N,L)+QQI(n,L) END IF IF(QQW(n,L).LT.SPVAL)THEN CWM(N,L)=CWM(N,L)+QQW(n,L) END IF IF(QQS(n,L).LT.SPVAL)THEN CWM(N,L)=CWM(N,L)+QQS(n,L) END IF IF(QQG(n,L).LT.SPVAL)THEN CWM(N,L)=CWM(N,L)+QQG(n,L) END IF end do end do end if ccc------------------------------------------------------------------------------ C** Compute PSLP using NMC reduction C DO N=1,NUMSTA PSFC = PDS(N) ZSFC = FIS(N)*GI PSLP(N) = PSFC C C COMPUTE LAYER TAU (VIRTUAL TEMP*RD/G). TVRT = T(N,1)*(1.0+D608*Q(N,1)) ! if (mod(N,50) .eq. 0) then ! write(0,*) 'N, T(N,1), Q(N,1), TVRT: ', ! & N, T(N,1), Q(N,1), TVRT ! endif TAU = TVRT*RD*GI C C COMPUTE TAU AT THE GROUND (Z=ZSFC) AND SEA LEVEL (Z=0) C ASSUMING A CONSTANT LAPSE RATE OF GAMMA=6.5DEG/KM. TVRSFC = TVRT + (ZSFC- ZSL)*GAMMA TAUSFC = TVRSFC*RD*GI TVRSL = TVRT + (ZSFC- ZSL)*GAMMA TAUSL = TVRSL*RD*GI C C IF NEED BE APPLY SHEULL CORRECTION. IF ((TAUSL.GT.TAUCR).AND.(TAUSFC.LE.TAUCR)) THEN TAUSL=TAUCR ELSEIF ((TAUSL.GT.TAUCR).AND.(TAUSFC.GT.TAUCR)) THEN TAUSL = TAUCR-CONST*(TAUSFC-TAUCR)**2 ENDIF C C COMPUTE MEAN TAU. TAUAVG = 0.5*(TAUSL+TAUSFC) C C COMPUTE SEA LEVEL PRESSURE. IF (FIS(N).GT.1.0) PSLP(N) = PSFC*EXP(ZSFC/TAUAVG) c print *,n,idstn(n),pslp(n),tvrt if (mod(N,20) .eq. 0) then write(0,*) 'N, PDS(N), PSLP(N): ', N, PDS(N), PSLP(N) endif ENDDO CC CC RAINC is "ACCUMULATED TOTAL CUMULUS PRECIPITATION" CC RAINNC is "ACCUMULATED TOTAL GRID SCALE PRECIPITATION" VarName='RAINC' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM(:,:,1),hor_size,mpi_real4 + ,mpi_status_ignore, ierr) VarName='RAINNC' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM(:,:,2),hor_size,mpi_real4 + ,mpi_status_ignore, ierr) ! write(6,*) 'RAIN over domain' ! do J=JE,JS,-(JE-JS)/37 ! write(6,635) ( (DUM(I,J,1)+DUM(I,J,2)), I=1,IM,IM/23) ! enddo 635 format(30(f4.1,1x)) ! write(6,*) 'RAINC, RAINNC (160,124): ', DUM(160,124,1), ! & DUM(160,124,2) DO N=1,NUMSTA CUPREC(N)=DUM(IHINDX(N),JHINDX(N),1)*.001 ACPREC(N)=( DUM(IHINDX(N),JHINDX(N),1)+ & DUM(IHINDX(N),JHINDX(N),2) )*.001 ! if (ACPREC(N) .gt. 0) then ! write(6,*) 'CIDSTN, ACPREC: ', CIDSTN_SAVE(N),ACPREC(N) ! endif ENDDO VarName='XLAT' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) do j = 1, jm do i = 1, im GDLAT ( i, j ) = DUMMY ( i, j ) end do end do VarName='XLONG' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) do j = 1, jm do i = 1, im GDLON ( i, j ) = DUMMY ( i, j ) end do end do VarName='TMN' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM(:,:,1),hor_size,mpi_real4 + ,mpi_status_ignore, ierr) ! XLAND 1 land 2 sea VarName='XLAND' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SM(N)=DUMMY(I,J)-1.0 SOILTB(N)=DUM(I,J,1) ! NOT 100% sure on this definition ENDDO VarName='HFX' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SFCSHX(N)=-1.0*DUMMY(I,J) ENDDO VarName='LH' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SFCLHX(N)=-1.0*DUMMY(I,J) ENDDO VarName='SFCEXC' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret .eq. 0) then CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SFCEXC(N)=DUMMY(I,J) ENDDO else write(0,*) VarName, ' not found - set to SPVAL' DO N=1,NUMSTA SFCEXC(N)=SPVAL ENDDO endif VarName='SWDOWN' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) write(6,*) 'max SWDOWN: ', maxval(DUMMY) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) ASWIN(N)=DUMMY(I,J) ENDDO VarName='GSW' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret .eq. 0) then CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) ASWOUT(N)=ASWIN(N)-DUMMY(I,J) ENDDO else DO N=1,NUMSTA ASWOUT(N)=SPVAL ENDDO endif !! VarName='GLW' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) write(6,*) 'max GLW: ', maxval(DUMMY) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) ALWIN(N)=DUMMY(I,J) if (IDSTN(N) .eq. 832) then write(6,*) 'for station 832, found ASWIN, ASWOUT: ', & ASWIN(N), ASWOUT(N) endif ENDDO !! VarName='UDROFF' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret .eq. 0) then CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) BGROFF(N)=DUMMY(I,J) ENDDO else DO N=1,NUMSTA BGROFF(N)=0. ENDDO endif !! VarName='T02_MIN' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret .eq. 0) then CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) TLMIN(N)=DUMMY(I,J) ENDDO else DO N=1,NUMSTA TLMIN(N)=-999. ENDDO endif !! VarName='T02_MAX' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) if (iret .eq. 0) then CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) TLMAX(N)=DUMMY(I,J) ENDDO else DO N=1,NUMSTA TLMAX(N)=-999. ENDDO endif !! VarName='SFROFF' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SSROFF(N)=DUMMY(I,J) ENDDO ! VarName='Z0' ! CALL retrieve_index(index,VarName,varname_all,nrecs,iret) ! CALL mpi_file_read_at(iunit,file_offset(index+1) ! + ,DUMMY,hor_size,mpi_real4 ! + ,mpi_status_ignore, ierr) ! ! DO N=1,NUMSTA ! I=IHINDX(N) ! J=JHINDX(N) ! Z0(N)=DUMMY(I,J) ! ENDDO VarName='TSK' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) EGRID2(N)=DUMMY(I,J) ENDDO write(*,*) 'reading file:', trim(fileName), ' done!' write(*,*) 'LM, P, T, U, V, Q, CWM, OMGA, at station 1' DO L = 1, LM write(*,'(i5, f10.2,3f7.2,3f10.5)') L,PMID(1,L),T(1,L), & U(1,L),V(1,L), Q(1,L), CWM(1,L), OMGA(1,L) END DO write(*,*) 'QSHLTR=',QSHLTR(1) write(*,*) 'TSHLTR=',TSHLTR(1) write(*,*) 'U10=',U10(1) write(*,*) 'V10=',V10(1) write(*,*) 'ACSNOW=',ACSNOW(1) write(*,*) 'ACSNOM=',ACSNOM(1) write(*,*) 'CMC=',CMC(1) write(*,*) 'SMSTAV=',SMSTAV(1) write(*,*) 'VEGFRC=',VEGFRC(1) write(*,*) 'CUPREC=',CUPREC(1) write(*,*) 'ACPREC=',ACPREC(1) write(*,*) 'GDLAT=', GDLAT(IHINDX(1),JHINDX(1)) write(*,*) 'GDLON=', GDLON(IHINDX(1),JHINDX(1)) write(*,*) 'SM=',SM(1) !!!!!!!!!!!!!!!!! END INSERT !!!!!!!!!!!!!!!!!!!!!!!!!!!!!1 C------------------------------------------------------------------------ C*** C*** READ QUANTITIES NEEDED FROM THE NHB FILE C*** DO N=1,NUMSTA ! HBM2(N)=DUM(IHINDX(N),JHINDX(N),1) HBM2(N)=1.0 ENDDO C !! ICE available in wrfinput file...zero out for now ! VarName='XICE' ! VarName='XICEM' VarName='SEAICE' DUMMY=0. CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SICE(N)=DUMMY(I,J) ENDDO call mpi_file_close(iunit,ierr) deallocate (datestr_all) deallocate (varname_all) deallocate (domainend_all) deallocate (start_block) deallocate (end_block) deallocate (start_byte) deallocate (end_byte) deallocate (file_offset) C DO L=1,LM DO N=1,NUMSTA HTM(N,L)=1.0 ENDDO ENDDO write(6,*) 'set LMH to : ', LM write(6,*) 'IM,jm: ', Im,jm do J=1,JM do I=1,IM LMH(I,J)=LM enddo enddo C C Define a GDS, then use GDSWIZ to find N.N. point GDS=-1 if(maptype .eq. 1)THEN ! Lambert conformal GDS(1)=3 GDS(2)=im GDS(3)=jm GDS(4)=int(GDLAT(1,1)*1000) GDS(5)=int(GDLON(1,1)*1000) GDS(6)=8 GDS(7)=CENLON GDS(8)=DXVAL GDS(9)=DYVAL GDS(10)=0 GDS(11)=64 GDS(12)=TRUELAT2 GDS(13)=TRUELAT1 c20080701 GDS(14)=255 ELSE IF(MAPTYPE .EQ. 2)THEN !Polar stereographic GDS(1)=5 GDS(2)=im GDS(3)=jm GDS(4)=int(GDLAT(1,1)*1000) GDS(5)=int(GDLON(1,1)*1000) GDS(6)=8 GDS(7)=CENLON GDS(8)=DXVAL GDS(9)=DYVAL GDS(10)=0 GDS(11)=64 c20080701 GDS(12)=TRUELAT2 c20080701 GDS(13)=TRUELAT1 c20080701 GDS(14)=255 ELSE IF(MAPTYPE .EQ. 3)THEN !Mercator GDS(1)=1 GDS(2)=im GDS(3)=jm GDS(4)=int(GDLAT(1,1)*1000) GDS(5)=int(GDLON(1,1)*1000) GDS(6)=8 GDS(7)=int(GDLAT(IM,JM)*1000) GDS(8)=int(GDLON(IM,JM)*1000) GDS(9)=TRUELAT1 GDS(10)=0 GDS(11)=64 GDS(12)=DXVAL GDS(13)=DYVAL c20080701 GDS(14)=255 END IF write(6,*) 'GDS= ', (GDS(NN),NN=1,14) C C GET ROTATION ANGLES FOR WIND C write(6,*) 'numsta= ', numsta ALLOCATE(CROT(NUMSTA),SROT(NUMSTA)) write(6,*) 'allocated crot, srot' CROT=0. SROT=0. DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) RLATX=GDLAT(I,J) RLONX=GDLON(I,J) CALL GDSWIZ(GDS,-1,1,-9999.,xout,yout, & RLONX,RLATX,NRET,1,CROT(N),SROT(N)) ENDDO NTSPH=INT(3600./DT+0.50) write(6,*) 'rot angles defined, and ntsph= ', ntsph C C------------------------------------------------------------------------ C DO L=1,LM DO N=1,NUMSTA TRAIN(N,L)=-9999. TCUCN(N,L)=-9999. ENDDO ENDDO DO N=1,NUMSTA cBinbin Z0(N)=-9999. HBOT(N)=-9999. CFRACL(N)=-9999. CFRACM(N)=-9999. CZEN(N)=-9999. ENDDO DO N=1,NUMSTA CFRACH(N)=-9999. CZMEAN(N)=-9999. U00(N)=-9999. SR(N)=0.0 Z0(N)=-9999. ENDDO DO N=1,NUMSTA SUBSHX(N)=-9999. SNOPCX(N)=-9999. ENDDO DO N=1,NUMSTA ASWTOA(N)=-9999. ALWOUT(N)=-9999. ALWTOA(N)=-9999. ENDDO DO N=1,NUMSTA POTFLX(N)=-9999. ! TLMIN(N)=-9999. ! TLMAX(N)=-9999. ENDDO C------------------------------------------------------------------------ C*** C*** READ RADIATIVE TEMPERATURE TENDENCIES C*** DO L=1,LM DO N=1,NUMSTA RSWTT(N,L)=-9999. RLWTT(N,L)=-9999. ENDDO ENDDO C C------------------------------------------------------------------------ C*** THE FORECAST HOUR C*** write(6,*) 'past block of code' IFHR=ITAG write(6,*) 'IFHR: ', IFHR C------------------------------------------------------------------------ IF(ITAG.GT.0)THEN write(6,*) 'working on preceding file' C*** GENERATE THE NAME OF THE PRECEDING RESTRT FILE C*** ITAG0=ITAG-INCR RINC(1)=0. RINC(2)=float(ITAG0) RINC(3)=0. RINC(4)=0. RINC(5)=0. write(6,*) 'RINC(2): ', rinc(2) cZhou call w3movdat(rinc,idate,jdate) cZhou write(DateStrold,301) JDATE(1),JDATE(2),JDATE(3),JDATE(5) cZhou 301 format(i4,'-',i2.2,'-',i2.2,'_',i2.2,':00:00') cZhou write(6,*) 'filename later in PROF: ', filename, '_END' cZhou len=index(filename,' ')-1 cZhou write(6,*) 'LEN= ', LEN cZhou write(6,*) 'carried over part: ', filename(1:len-19) cZhou filename=filename(1:len-19)//DateStrold if(ITAG0.lt.10) then write(cfhr,'(1a,i1)') '0', ITAG0 else write(cfhr,'(i2)') ITAG0 end if len=LEN_TRIM(filename) filename=prefilename(1:len) cDu.Jun filename=filename(1:len-2)//cfhr write(*,*) 'Previous file=', trim(filename) write(6,*) 'date for old file is: ', datestrold !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! ! INSERT READ FROM ABOVE ONCE WORK OUT KINKS !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! CALL ext_int_ioinit(Status) print*,'CALLed ioinit', Status write(6,*) 'filename early in PROF= ', trim(filename) CALL ext_int_open_for_read( trim(fileName), 0, 0, " ", & DataHandle, Status) print*,'CALLed open for read', Status if ( Status /= 0 ) then print*,'error opening ',trim(fileName), ' Status = ', Status ; stop endif C Getting start time CALL ext_int_get_dom_ti_char(DataHandle 1 ,'START_DATE',startdate, status ) print*,'startdate= ',startdate c20080701 call ext_int_get_dom_ti_integer(DataHandle,'MP_PHYSICS' c20080701 + ,itmp,1,ioutcount,istatus) call ext_int_get_dom_ti_real(DataHandle,'DX',tmp + ,1,ioutcount,istatus) dxval=nint(tmp) write(6,*) 'dxval= ', dxval call ext_int_get_dom_ti_real(DataHandle,'DY',tmp + ,1,ioutcount,istatus) dyval=nint(tmp) write(6,*) 'dyval= ', dyval !need to get DT tmp=-99 ! hardwire for safety call ext_int_get_dom_ti_real(DataHandle,'DT',tmp + ,1,ioutcount,istatus) write(6,*) 'istatus from ext_int_get_dom_ti_real for DT: ', & istatus write(6,*) 'returned a value of ', tmp write(6,*) 'setting to 60' tmp=60 DT=tmp print*,'DT= ',DT call ext_int_get_dom_ti_real(DataHandle,'CEN_LAT',tmp + ,1,ioutcount,istatus) cenlat=nint(1000.*tmp) write(6,*) 'cenlat= ', cenlat call ext_int_get_dom_ti_real(DataHandle,'CEN_LON',tmp + ,1,ioutcount,istatus) cenlon=nint(1000.*tmp) write(6,*) 'cenlon= ', cenlon call ext_int_get_dom_ti_real(DataHandle,'TRUELAT1',tmp + ,1,ioutcount,istatus) truelat1=nint(1000.*tmp) write(6,*) 'truelat1= ', truelat1 call ext_int_get_dom_ti_real(DataHandle,'TRUELAT2',tmp + ,1,ioutcount,istatus) truelat2=nint(1000.*tmp) write(6,*) 'truelat2= ', truelat2 call ext_int_get_dom_ti_integer(DataHandle,'MAP_PROJ',itmp + ,1,ioutcount,istatus) maptype=itmp write(6,*) 'maptype is ', maptype call ext_int_ioclose ( DataHandle, Status ) c start calling mpi io iunit=33 call count_recs_wrf_binary_file(iunit, trim(fileName), nrecs) print*,'- FILE CONTAINS ',nrecs, ' RECORDS' allocate (datestr_all(nrecs)) allocate (varname_all(nrecs)) allocate (domainend_all(3,nrecs)) allocate (start_block(nrecs)) allocate (end_block(nrecs)) allocate (start_byte(nrecs)) allocate (end_byte(nrecs)) allocate (file_offset(nrecs)) call inventory_wrf_binary_file(iunit, trim(filename), nrecs, + datestr_all,varname_all,domainend_all, + start_block,end_block,start_byte,end_byte,file_offset, + print_diag) write(6,*) 'call mpi_file_open: ', mpi_comm_world, + trim(filename) + , mpi_mode_rdonly,mpi_info_null, iunit, ierr call mpi_file_open(mpi_comm_world, trim(filename) + , mpi_mode_rdonly,mpi_info_null, iunit, ierr) if (ierr /= 0) then print*,"Error opening file with mpi io ",iunit,ierr call mpi_abort(mpi_comm_world, 59, ierr) ! stop end if VarName='ACSNOW' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA ACSNOW0(N)=DUMMY(IHINDX(N),JHINDX(N)) ENDDO VarName='ACSNOM' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA ACSNOM0(N)=DUMMY(IHINDX(N),JHINDX(N)) ENDDO CC CC RAINC is "ACCUMULATED TOTAL CUMULUS PRECIPITATION" CC RAINNC is "ACCUMULATED TOTAL GRID SCALE PRECIPITATION" write(6,*) 'getting RAINC' VarName='RAINC' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM(:,:,1),hor_size,mpi_real4 + ,mpi_status_ignore, ierr) write(6,*) 'getting RAINNC' VarName='RAINNC' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUM(:,:,2),hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA CUPREC0(N)=DUM(IHINDX(N),JHINDX(N),1)*.001 ACPREC0(N)=( DUM(IHINDX(N),JHINDX(N),1)+ & DUM(IHINDX(N),JHINDX(N),2) )*.001 ENDDO VarName='HFX' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SFCSHX0(N)=DUMMY(I,J) ENDDO VarName='LH' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SFCLHX0(N)=DUMMY(I,J) ENDDO VarName='UDROFF' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) BGROFF0(N)=DUMMY(I,J) if (N .eq. 256) then write(0,*) 'N, BGROFF0: ', N, BGROFF0(N) endif ENDDO VarName='SFROFF' CALL retrieve_index(index,VarName,varname_all,nrecs,iret) CALL mpi_file_read_at(iunit,file_offset(index+1) + ,DUMMY,hor_size,mpi_real4 + ,mpi_status_ignore, ierr) DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) SSROFF0(N)=DUMMY(I,J) ENDDO call mpi_file_close(iunit,ierr) deallocate (datestr_all) deallocate (varname_all) deallocate (domainend_all) deallocate (start_block) deallocate (end_block) deallocate (start_byte) deallocate (end_byte) deallocate (file_offset) write(6,*) 'done reading old file' !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! ! END INSERT READ !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! do L=1,LM DO N=1,NUMSTA TRAIN0(N,L)=-9999. TCUCN0(N,L)=-9999. ENDDO enddo DO N=1,NUMSTA ! SFCSHX0(N)=-9999. ! SFCLHX0(N)=-9999. SUBSHX0(N)=-9999. SNOPCX0(N)=-9999. ENDDO DO N=1,NUMSTA ASWTOA0(N)=-9999. ALWOUT0(N)=-9999. ALWTOA0(N)=-9999. POTFLX0(N)=-9999. ENDDO ENDIF C------------------------------------------------------------------------ C*** C*** ALL THE DATA IS NOW IN. C*** CALCULATE CLOUD FRACTION AND CLOUD WATER/ICE ID NUMBER. C*** C------------------------------------------------------------------------ UTIM=1. US=1. CCLIMIT=1.E-3 CLIMIT =1.E-20 C----------------------------------------------------------------------- !$OMP parallel do DO N=1,NUMSTA IW(N,1)=-9999 CCR(N,1)=-9999. PDSL1(N)=pint_part(N)*RES(N) ENDDO C C------------------QW, QI AND QINT-------------------------------------- C !!! !!! skip section for now !!! DO 220 L=2,LM DO 210 N=1,NUMSTA IW(N,L)=-9999 CCR(N,L)=-9999. C C-------------------ICE-WATER ID NUMBER IW------------------------------ C ! write(6,*) 'here d' 210 CONTINUE 220 CONTINUE 221 continue C---------------------------------------------------------------------- C*** C*** BEGIN THE PROFILE POSTING CODE. C---------------------------------------------------------------------- C*** C*** USE ZERO IN ACCUMULATION ARRAYS AT APPROPRIATE TIMES C*** IF(ITAG .eq. 0) THEN C C C what would appropriate if test be here? C C DO N=1,NUMSTA C C*** ZERO ACCUMLATION ARRAYS. C STATPR(N)=0. STACPR(N)=0. STAEVP(N)=0. STAPOT(N)=0. STASHX(N)=0. STASUB(N)=0. STAPCX(N)=0. STASWI(N)=0. STASWO(N)=0. STALWI(N)=0. STALWO(N)=0. STALWT(N)=0. STASWT(N)=0. STASNM(N)=0. STASNO(N)=0. STASRF(N)=0. STABRF(N)=0. DO L=1,LM DHCNVC(L,N)=0. DHRAIN(L,N)=0. ENDDO ENDDO C GO TO 300 ENDIF C--------------------------------------------------------------------- C*** C*** WE MUST CHECK TO SEE IF WE ARE 1 HOUR AFTER ANY OF THE C*** ACCUMULATION BUCKETS HAVE BEEN EMPTIED. IF WE ARE AT SUCH A C*** TIME THEN WE NEED TO SET TO ZERO THE VARIABLES USED TO HOLD C*** THE PRECEDING HOUR'S VALUES. C*** C--------------------------------------------------------------------- C C C At this point, accumulation buckets are a foreign concept in C the WRF model. C c TIME=(NTSD-1)*DT c RESET0=TIME-(NTSD/NPREC)*NPREC*DT c RESET1=(NPHS-1)*DT+3600. TIME=IFCST ! write(6,*) 'here (3)' RESET0=1. ! designed to prevent resets. Reconsider later DO N=1,NUMSTA STATPR(N)=ACPREC0(N)*1.E3 if (ACPREC0(N) .gt. 0) then write(6,*) 'N,ACPREC0(N),STATPR(N): ', N, & ACPREC0(N),STATPR(N) endif STACPR(N)=CUPREC0(N)*1.E3 STASNM(N)=ACSNOM0(N)*1.E3 STASNO(N)=ACSNOW0(N)*1.E3 STASRF(N)=SSROFF0(N)*1.E3 STABRF(N)=BGROFF0(N)*1.E3 if (N .eq. 256) then write(0,*) 'N, STABRF(N): ', N, STABRF(N) endif ENDDO DO N=1,NUMSTA STASWI(N)=ASWIN0(N) STASWO(N)=ASWOUT0(N) STASWT(N)=ASWTOA0(N) ENDDO DO N=1,NUMSTA STALWI(N)=ALWIN0(N) STALWO(N)=ALWOUT0(N) STALWT(N)=-ALWTOA0(N) ENDDO DO N=1,NUMSTA STAEVP(N)=SFCLHX0(N) STAPOT(N)=POTFLX0(N) STASHX(N)=SFCSHX0(N) STASUB(N)=SUBSHX0(N) STAPCX(N)=SNOPCX0(N) ENDDO DHCNVC(L,N)=TCUCN0(N,L) DHRAIN(L,N)=TRAIN0(N,L) C------------------------------------------------------------------ 300 CONTINUE C------------------------------------------------------------------ C C*** FOR ROTATION OF WINDS FROM E-GRID TO GEODETIC ORIENTATION C*** WE NEED THE TWO QUANTITIES BELOW. C c SINPH0=SIN(TPH0D*DTR) c COSPH0=COS(TPH0D*DTR) C C*** INITIAL CALCULATIONS/PREPARATIONS. WE LOAD SEVERAL C*** ARRAYS WITH PROFILE VARIABLES. C !$OMP parallel do DO N=1,NUMSTA IF(CZMEAN(N).GT.0.)THEN FACTR(N)=CZEN(N)/CZMEAN(N) ELSE FACTR(N)=0. ENDIF ENDDO C C*** ADJUST SHORTAVE TENDENCIES TO ACCOUNT FOR CHANGE OF SOLAR POSITION C*** BETWEEN CALLS TO RADIATION C !$OMP parallel do DO L=1,LM DO N=1,NUMSTA if (RSWTT(N,L) .ne. -9999) then RSWTT(N,L)=RSWTT(N,L)*FACTR(N) endif ENDDO ENDDO C C*** COMPUTE RTOP C !$OMP parallel do DO L=1,LM DO N=1,NUMSTA APEL=PMID(N,L) RTOP(N,L)=RD*T(N,L)*(1.+0.608*Q(N,L))/APEL ENDDO ENDDO C C*** PDS IS SURFACE PRESSURE. C !$OMP parallel do DO N=1,NUMSTA I=IHINDX(N) J=JHINDX(N) PDS(N)=pint_part(N)+PT ENDDO C C*** EGRID2 IS THE SURFACE TEMPERATURE. C !$OMP parallel do DO N=1,NUMSTA IF(ACPREC(N).LT.0.)ACPREC(N)=0. IF(CUPREC(N).LT.0.)CUPREC(N)=0. ENDDO C C*** SET CYCLE, DATE, AND FORECAST TIME. C IDATE(2)=imn IDATE(3)=iday IDATE(1)=iyear IDATE(5)=ihrst IDAT(3)=IDATE(1) IDAT(1)=IDATE(2) IDAT(2)=IDATE(3) IYR =IDAT(3) IMNTH=IDAT(1) IDAY =IDAT(2) IFCST=3600*ITAG IHR=ITAG write(6,*) 'IFCST: ', IFCST WRITE(6,*)' POST PROFILE FOR ', 1 IYR,IMNTH,IDAY,IHR write(6,*) 'IHRST= ', IHRST C C*** SET RTSPH,RTSCU,RTSRA TO 1. OVER THE NUMBER OF TIMES THE C*** VARIOUS PHYSICS ROUTINES HAVE BEEN C*** CALLED SINCE LAST OUTPUT OF PROFILER DATA. NECESSARY FOR C*** CORRECT AVERAGING OF VARIABLES. C write(6,*) 'APHTIM, ACUTIM, ARATIM were: ', & APHTIM, ACUTIM, ARATIM APHTIM=0. ACUTIM=0. ARATIM=0. IF(APHTIM.GT.0.)THEN RTSPH=1./APHTIM ELSE RTSPH=1. ENDIF C IF(ACUTIM.GT.0.)THEN RTSCU=1./ACUTIM ELSE RTSCU=1. ENDIF C IF(ARATIM.GT.0.)THEN RTSRA=1./ARATIM ELSE RTSRA=1. ENDIF write(6,*) 'RTSPH, RTSCU, RTSRA: ', RTSPH, RTSCU, RTSRA C C-------------------------------------------------------------------------- C-------------------------------------------------------------------------- C*** C*** OUTPUT PROFILE DATA. THE FOLLOWING LOOP IS OVER ALL PROFILE SITES. C*** C-------------------------------------------------------------------------- LCLAS1=79 write(6,*) 'open output file with RECL: ', LRECPR OPEN(UNIT=LCLAS1,ACCESS='DIRECT',RECL=LRECPR,IOSTAT=IER) C-------------------------------------------------------------------------- write(6,*) 'RECORD LENGTH = ', LRECPR DO 1000 N=1,NUMSTA C C*** ZERO OUTPUT ARRAY. C DO K=1,NWORDM PRODAT(K)=0. FPACK(K) =0. ENDDO C C*** CONSTRUCT HEADER FOR CURRENT PROFILE SITE. THE HEADER CONTAINS C*** THE FOLLOWING INFORMATION: PACKED CYCLE-DATE, FORECAST TIME, C*** INTEGER STATION ID, STATION LATITUDE, STATION LONGITUDE, STATION C*** ELEVATION, NUMBER OF VERTICAL LEVELS IN PROFILE, NUMBER OF MULTI- C*** LEVEL PARAMETERS, NUMBER OF SINGLE LEVEL PARAMETERS, TOTAL LENGTH C*** (IN WORDS) OF MULTI- AND SINGLE LEVEL DATA, PROFILE CLASS FLAG, C*** AND A DUMMY WORD FOR FUTURE USE. C IH=IHINDX(N) JH=JHINDX(N) LMHK = LMH(IH,JH) NWORD2 = 2*LMHK NWORD3 = 3*LMHK NWORD4 = 4*LMHK NWORD5 = 5*LMHK NWORD6 = 6*LMHK NWORD7 = 7*LMHK NWORD8 = 8*LMHK NWORD9 = 9*LMHK NWORD10 = 10*LMHK NWORD11 = 11*LMHK NWORD12 = 12*LMHK NWORD13 = 13*LMHK c20080708 NWORD14 = 14*LMHK c20080708 NWORD13 = 15*LMHK ISTAT = IDSTN(N) CISTAT = CIDSTN_SAVE(N) ! write(6,*) 'CISTAT: ', CISTAT C FPACK(1) = STNLAT(N)/DTR !mp FPACK(2) = -STNLON(N)/DTR FPACK(2) = STNLON(N)/DTR IF(FPACK(2).LT.-180.)FPACK(2)=FPACK(2)+360. FPACK(3) = FIS(N)*GI FPACK(4) = FLOAT(LMHK) FPACK(5) = LCL1ML -2 !20080708: B Zhou don't store 13 and 14th sounding FPACK(6) = LCL1SL FPACK(7) = 9+FPACK(5)*FPACK(4)+FPACK(6) FPACK(8) = 999. FPACK(9) = 999. C C*** WIND ROTATION SINES AND COSINES C SINALP = SROT(N) COSALP = CROT(N) C C------------------------------------------------------------------ C*** EXTRACT PRESSURE AND TEMPERATURE PROFILES. C*** EXTRACT/ROTATE U AND V WIND COMPONENT PROFILES. C*** EXTRACT SPECIFIC HUMIDITY AND TEMPERATURE TENDENCY. C*** EXTRACT CLOUD WATER, HEATING DUE TO CONVECTION, LARGE C*** SCALE RAIN, SHORT WAVE RADIATION, LONG WAVE RADIATION, C*** AND CLOUD FRACTION. C------------------------------------------------------------------ C DO LV=1,LMHK c LVL=LMHK-LV+1 !old ARW version Jun Du: 20081010 LVL=LV PRODAT(LVL) = PMID(N,LV) if (mod(LV,15) .eq. 0 .and. mod(N,50) .eq. 0) then write(6,*) 'PRODAT definition, PMID: ', N,L,PMID(N,LV) endif if (LVL .eq. 1 .and. mod(N,25) .eq. 0) then write(6,*) 'N, PSFC: ', N,PRODAT(1) endif PRODAT(LMHK+LVL) = T(N,LV) C*** ROTATE WINDS C UT = U(N,LV) VT = V(N,LV) PRODAT(NWORD2+LVL) = UT*COSALP+VT*SINALP PRODAT(NWORD3+LVL) = VT*COSALP-UT*SINALP if (N .eq. 1) THEN c WRITE(6,*) 'orig U,V: ', UT,VT c write(6,*) 'COSALP,SINALP: ', COSALP,SINALP c WRITE(6,*) 'rotat U,V: ', PRODAT(NWORD2+LVL),PRODAT(NWORD3+LVL) c write(6,*) '-----------------' endif C PRODAT(NWORD4+LVL) = Q(N,LV) C IF(RTOP(N,LV).GT.1.E-12) THEN PRODAT(NWORD5+LVL) = OMGA(N,LV) Cmp 1 PRODAT(NWORD5+LVL) = OMGALF(N,LV)*CP/(RTOP(N,LV)*DT) ENDIF QLIQ = (1.-F_ice(N,LV))*CWM(N,LV) c20080708 PRODAT(NWORD13+LVL) = F_rain(N,LV)*QLIQ PRODAT(NWORD6+LVL) = QLIQ-PRODAT(NWORD7+LVL) c20080708 PRODAT(NWORD14+LVL) = F_ice(N,LV)*CWM(N,LV) PRODAT(NWORD7+LVL) = TCUCN(N,LV) PRODAT(NWORD8+LVL) = TRAIN(N,LV) PRODAT(NWORD9+LVL) = RSWTT(N,LV) PRODAT(NWORD10+LVL)= RLWTT(N,LV) PRODAT(NWORD11+LVL)= CLDFRA(N,LV)*100. C IF(LV.EQ.1)THEN PRODAT(NWORD12+LVL)=Q2(N,LV) ELSE PRODAT(NWORD12+LVL)=(Q2(N,LV)+Q2(N,LV-1))*0.5 ENDIF ENDDO C C*** MODIFY ACCUMLATIONS SO AS TO REPRESENT ACCUMULATED C*** CHANGE SINCE LAST PROFILE OUTPUT TIME. C CGSM MODIFIED CODE TO ACCOUNT FOR DHCNVC AND DHRAIN BEING C COMPUTED FROM TOP DOWN WHILE PRODAT IS FILLED FROM C BOTTOM UP C DO LL=1,LMHK c LVL=LMHK-LL+1 !old ARW version Jun Du: 20081010 LVL=LL STADHC(LL) = PRODAT(NWORD7+LL) - DHCNVC(LVL,N) STADHR(LL) = PRODAT(NWORD8+LL) - DHRAIN(LVL,N) C DHCNVC(LVL,N) = PRODAT(NWORD7+LL) DHRAIN(LVL,N) = PRODAT(NWORD8+LL) C Ctmp IF(MOD(NTSD,NHEAT).LT.NCNVC)THEN DHCNVC(LVL,N) = 0. DHRAIN(LVL,N) = 0. Ctmp ENDIF ENDDO C C*** EXTRACT SINGLE LEVEL DATA. EGRID2 IS SURFACE TEMPERATURE. C PRODAT(NWORD13+1) = PSLP (N) !sea level pressure, -999 PRODAT(NWORD13+2) = PDS (N) !sfc pressure PRODAT(NWORD13+3) = EGRID2(N) !Skin temperaure PRODAT(NWORD13+4) = TLMIN (N) !1hr min T, -999 PRODAT(NWORD13+5) = TLMAX (N) !1hr max T,-999 PRODAT(NWORD13+6) = SMSTAV(N)*100. !Soil moisture availability if (mod(N,50) .eq. 0) then write(0,*) 'NWORD13+6, PRODAT(NWORD13+6) for SMSTAV(%): ', & NWORD13+6, PRODAT(NWORD13+6) endif PRODAT(NWORD13+7) = ACPREC(N)*1000. !ACCUMULATED TOTAL GRID SCALE PRECIPITATION PRODAT(NWORD13+8) = CUPREC(N)*1000. !ACCUMULATED TOTAL CUMULUS PRECIPITATION PRODAT(NWORD13+27) = Z0 (N) !Roughness length C STAPRX=PRODAT(NWORD13+7)-STATPR(N) STACRX=PRODAT(NWORD13+8)-STACPR(N) ! if (STAPRX .gt. 0) then ! write(6,*) '1hr precip: ', N,STAPRX ! endif C C*** ROTATE WINDS C UT = U10(N) VT = V10(N) PRODAT(NWORD13+28) = UT*COSALP+VT*SINALP !10 U PRODAT(NWORD13+29) = VT*COSALP-UT*SINALP !10 V C PRODAT(NWORD13+30) = TH10 (N) ! -999 PRODAT(NWORD13+31) = QSHLTR(N) ! Q10 undefined; use Q2m PRODAT(NWORD13+32) = TSHLTR(N) !T2m PRODAT(NWORD13+33) = QSHLTR(N) !Q2m PRODAT(NWORD13+34) = SFCEXC(N) !sfc exchange coefficient PRODAT(NWORD13+35) = VEGFRC(N) !veg fraction PRODAT(NWORD13+36) = CMC (N)*1000. !canopy water PRODAT(NWORD13+37) = SMC (N,1) !layer 1 volumnetric soil moisture PRODAT(NWORD13+38) = SMC (N,2) !layer 2 volumnetric soil moisture PRODAT(NWORD13+39) = SMC (N,3) !layer 3 volumnetric soil moisture PRODAT(NWORD13+40) = SMC (N,4) !layer 4 volumnetric soil moisture PRODAT(NWORD13+41) = STC (N,1) !layer 1 volumnetric soil temperature PRODAT(NWORD13+42) = STC (N,2) !layer 2 volumnetric soil temperature PRODAT(NWORD13+43) = STC (N,3) !layer 3 volumnetric soil temperature PRODAT(NWORD13+44) = STC (N,4) !layer 4 volumnetric soil temperature PRODAT(NWORD13+45) = SM (N) + SICE(N) !Land/sea mask PRODAT(NWORD13+46) = CFRACL(N)*100. !low cloud fraction, -999 PRODAT(NWORD13+47) = CFRACM(N)*100. !mid cloud fraction, -999 PRODAT(NWORD13+48) = CFRACH(N)*100. !high cloud fraction, -999 PRODAT(NWORD13+49) = SR (N)*100. !snow ratio, set = 0.0 PRODAT(NWORD13+50) = NINT(HBOT(N)) !snow type, -999 C PRODAT(NWORD13+9) = SFCLHX(N) !average sfc latent heat flux,-999 PRODAT(NWORD13+10) = POTFLX(N) !average sfc sensible heat flux,-999 PRODAT(NWORD13+11) = SFCSHX(N) !sfc sensible heat flux,-999 PRODAT(NWORD13+12) = SUBSHX(N) !sub-sfc heat,999 PRODAT(NWORD13+13) = SNOPCX(N) !snow phase change,-999 PRODAT(NWORD13+14) = ASWIN (N) !average short wave down flux, -999 PRODAT(NWORD13+15) = ASWOUT(N) !average short wave up flux, -999 PRODAT(NWORD13+16) = ALWIN (N) !average long wave down flux, -999 PRODAT(NWORD13+17) = ALWOUT(N) !average long wave down flux, -999 PRODAT(NWORD13+18) =-ALWTOA(N) !net long wave flux at top, -999 PRODAT(NWORD13+19) = ASWTOA(N) !net short wave flux at top, -999 PRODAT(NWORD13+20) = ACSNOW(N)*1000. !1hr accumu snow fall PRODAT(NWORD13+21) = SMSTOT(N)*1000. !total soil moisture, -999 PRODAT(NWORD13+22) = SNO (N)*1000. !snow water equivalent, PRODAT(NWORD13+23) = ACSNOM(N)*1000. !1hr snow water melt PRODAT(NWORD13+24) = SSROFF(N)*1000. !1hr sfc accumu runoff PRODAT(NWORD13+25) = BGROFF(N)*1000. !1hr accumu baseflow-ground water runoff PRODAT(NWORD13+26) = SOILTB(N) !bottom soil temperature, -999 C C*** ACCUMULATED CHANGE SINCE LAST PROFILE OUTPUT TIME. C PSFCEVP = PRODAT(NWORD13+9 ) - STAEVP(N) PPOTEVP = PRODAT(NWORD13+10) - STAPOT(N) PSFCSHX = PRODAT(NWORD13+11) - STASHX(N) PSFCSUB = PRODAT(NWORD13+12) - STASUB(N) PSNOPCX = PRODAT(NWORD13+13) - STAPCX(N) PRSWIN = PRODAT(NWORD13+14) - STASWI(N) PRSWOUT = PRODAT(NWORD13+15) - STASWO(N) PRLWIN = PRODAT(NWORD13+16) - STALWI(N) PRLWOUT = PRODAT(NWORD13+17) - STALWO(N) PRLWTOA = PRODAT(NWORD13+18) - STALWT(N) PRSWTOA = PRODAT(NWORD13+19) - STASWT(N) PACSNOW = PRODAT(NWORD13+20) - STASNO(N) PACSNOM = PRODAT(NWORD13+23) - STASNM(N) PSSROFF = PRODAT(NWORD13+24) - STASRF(N) PBGROFF = PRODAT(NWORD13+25) - STABRF(N) if (N .eq. 256) then write(0,*) 'N, PRODAT(NWORD13+25), STABRF(N), PBGROFF: ', N, & PRODAT(NWORD13+25), STABRF(N), PBGROFF endif C*** C*** TRANSFER STATION PROFILE DATA TO "PACKED" OUTPUT ARRAY. C*** NN = 0 NLEN = FPACK(7) C write(6,*) 'NWORD13+41,NWORD13+32 ', NWORD13+41,NWORD13+32 C write(6,*) 'SOIL TEMP ', PRODAT(NWORD13+41) C write(6,*) 'SHELT TEMP ', PRODAT(NWORD13+32) C DO NL = 10,NLEN NN = NL-9 FPACK(NL) = PRODAT(NN) ENDDO C C*** REPLACE ACCUMULATED QUANTITIES WITH ACCUMULATION C*** SINCE LAST PROFILE OUTPUT TIME. C DO LL = 1,LMHK ! FPACK(9+NWORD7+LL) = STADHC(LL)*RTSCU ! FPACK(9+NWORD8+LL) = STADHR(LL)*RTSRA FPACK(9+NWORD7+LL) = -9999. FPACK(9+NWORD8+LL) = -9999. ENDDO C FPACK(9+NWORD13+7) = STAPRX ! write(6,*) 'precip written to FPACK element: ', 9+NWORD13+7 FPACK(9+NWORD13+8) = STACRX FPACK(9+NWORD13+9) = PSFCEVP * RTSPH FPACK(9+NWORD13+10) = PPOTEVP * RTSPH FPACK(9+NWORD13+11) = PSFCSHX * RTSPH FPACK(9+NWORD13+12) = PSFCSUB * RTSPH FPACK(9+NWORD13+13) = PSNOPCX * RTSPH FPACK(9+NWORD13+14) = PRSWIN * RTSPH FPACK(9+NWORD13+15) = PRSWOUT * RTSPH FPACK(9+NWORD13+16) = PRLWIN * RTSPH write(6,*) 'SW, LW in in FPACK: ', & FPACK(9+NWORD13+14), FPACK(9+NWORD13+16) FPACK(9+NWORD13+17) = PRLWOUT * RTSPH FPACK(9+NWORD13+18) = PRLWTOA * RTSPH FPACK(9+NWORD13+19) = PRSWTOA * RTSPH FPACK(9+NWORD13+20) = PACSNOW FPACK(9+NWORD13+23) = PACSNOM FPACK(9+NWORD13+24) = PSSROFF FPACK(9+NWORD13+25) = PBGROFF C ! IF(RESTRT)THEN IF(ITAG .eq. 0)THEN DO LL = 1,LMHK FPACK(9+NWORD7+LL) = 0. FPACK(9+NWORD8+LL) = 0. ENDDO C FPACK(9+NWORD13+7) = 0. FPACK(9+NWORD13+8) = 0. FPACK(9+NWORD13+9) = 0. FPACK(9+NWORD13+10) = 0. FPACK(9+NWORD13+11) = 0. FPACK(9+NWORD13+12) = 0. FPACK(9+NWORD13+13) = 0. FPACK(9+NWORD13+14) = 0. FPACK(9+NWORD13+15) = 0. FPACK(9+NWORD13+16) = 0. FPACK(9+NWORD13+17) = 0. FPACK(9+NWORD13+18) = 0. FPACK(9+NWORD13+19) = 0. FPACK(9+NWORD13+20) = 0. FPACK(9+NWORD13+23) = 0. FPACK(9+NWORD13+24) = 0. FPACK(9+NWORD13+25) = 0. ENDIF C--------------------------------------------------------------------- C*** C*** WRITE PROFILE DATA C*** ! write(6,*) 'IFHR, NUMSTA, N, NREC: ', IFHR, NUMSTA, N, ! & IFHR*NUMSTA+N !normal NREC=IFHR*NUMSTA+N cZHOU NREC=(IFHR/INCR)*NUMSTA+N NREC=N ! write(6,*) 'NREC, NLEN, FPACK: ', NREC, NLEN, ! & (FPACK(NNN),NNN=1,NLEN,NLEN/5) if (NREC.eq.1 .or. NREC.eq.100) then write(6,*) 'NREC, IHRST, IDAT, IFCST, ISTAT, CISTAT: ', & NREC, IHRST, IDAT, IFCST, ISTAT, CISTAT write(*,'(a5,10f8.2)') 'F1-10:',(FPACK(k),k=1,10) do kk=1,LM write(*,'(a5,f10.2,3f8.3)') 'FPACK',FPACK(9+kk), & FPACK(9+LM+kk),FPACK(9+2*LM+kk), & FPACK(9+3*LM+kk) end do end if WRITE(LCLAS1,REC=NREC)IHRST,IDAT,IFCST,ISTAT,CISTAT 1, (FPACK(NL),NL=1,NLEN) C--------------------------------------------------------------------- 1000 CONTINUE CLOSE(LCLAS1) DEALLOCATE(T,Q,U,V,Q2,OMGALF,CWM,TRAIN,TCUCN) DEALLOCATE(RSWTT,RLWTT,CCR,RTOP,HTM,OMGA,p_hold) DEALLOCATE(t_hold,PINT) DEALLOCATE(DHCNVC,DHRAIN,STADHC,STADHR,TCUCN0,TRAIN0) DEALLOCATE(DUM,DUMMY,DUMMY2,DUM3D,DUM3D2,DUM3D3,GDLAT) DEALLOCATE(GDLON,PRODAT,FPACK,IDUM,LMH) DEALLOCATE( & RES,FIS,THS,HBOT &,CFRACL,CFRACM,CFRACH,SNO &,SOILTB,SFCEXC,SMSTAV,SMSTOT &,Z0,CZEN,CZMEAN,U00,SR &,ACPREC,CUPREC,ACSNOW,ACSNOM &,SSROFF,BGROFF,SFCSHX,SFCLHX &,SUBSHX,SNOPCX,ASWIN,ASWOUT &,ASWTOA,ALWIN,ALWOUT,ALWTOA &,TSHLTR,QSHLTR,TH2_hold &,TH10,Q10,U10,V10 &,TLMIN,TLMAX &,SMC,CMC,STC,SH2O &,VEGFRC,POTFLX,PSLP,PDSL1 &,EGRID2,SM,SICE &,HBM2,FACTR &,PTBL,TTBL &,STATPR,STACPR,STAEVP &,STAPOT,STASHX,STASUB,STAPCX &,STASWI,STASWO,STALWI,STALWO &,STALWT,STASWT,STASNM,STASRF &,STABRF,STASNO &,ACPREC0,CUPREC0,SFCLHX0,POTFLX0 &,SFCSHX0,SUBSHX0,SNOPCX0,ASWIN0 &,ASWOUT0,ALWIN0,ALWOUT0,ALWTOA0 &,ASWTOA0,ACSNOW0,ACSNOM0,SSROFF0 &,BGROFF0,PVAPOR,ZINT) write(*,*) 'running whole program done!!!!' C C*** END OF PROFILE SITE LOOP C C*** END PROFILE POSTING CODE. call mpi_file_close(iunit,ierr) call mpi_finalize(mpi_comm_world, ierr) C--------------------------------------------------------------------- RETURN END