#include "cppdefs.h" SUBROUTINE read_PhyPar (model, inp, out, Lwrite) ! !svn $Id: read_phypar.F 1097 2021-11-12 03:57:36Z arango $ !================================================== Hernan G. Arango === ! Copyright (c) 2002-2021 The ROMS/TOMS Group ! ! Licensed under a MIT/X style license ! ! See License_ROMS.txt ! !======================================================================= ! ! ! This routine reads and reports physical model input parameters. ! ! ! !======================================================================= ! USE mod_param USE mod_parallel #ifdef BIOLOGY USE mod_biology #endif #if defined MODEL_COUPLING && defined MCT_LIB USE mod_coupler #endif #if defined FOUR_DVAR || defined VERIFICATION USE mod_fourdvar #endif USE mod_iounits USE mod_ncparam #ifdef NESTING USE mod_nesting #endif USE mod_netcdf #if defined PIO_LIB && defined DISTRIBUTE USE mod_pio_netcdf #endif USE mod_scalars #if defined SEDIMENT || defined BBL_MODEL USE mod_sediment #endif USE mod_stepping #ifdef PROPAGATOR USE mod_storage #endif USE mod_strings ! USE inp_decode_mod #if defined DISTRIBUTE && defined PIO_LIB USE set_pio_mod #endif ! USE dateclock_mod, ONLY : ref_clock USE strings_mod, ONLY : FoundError ! implicit none ! ! Imported variable declarations ! logical, intent(inout) :: Lwrite ! integer, intent(in) :: model, inp, out ! ! Local variable declarations. ! logical :: got_Ngrids, got_NestLayers logical :: obc_data logical :: Lvalue(1) #if defined SOLVE3D && defined SEDIMENT logical :: LreadNCS = .FALSE. logical :: LreadNNS = .FALSE. #endif logical, allocatable :: Lswitch(:) #if defined SOLVE3D && defined T_PASSIVE logical, allocatable :: Linert(:,:) #endif logical, allocatable :: Ltracer(:,:) #if defined AD_SENSITIVITY || defined I4DVAR_ANA_SENSITIVITY || \ defined FORCING_SV || defined OPT_OBSERVATIONS || \ defined SENSITIVITY_4DVAR || defined SO_SEMI || \ defined STOCHASTIC_OPT # ifndef OBS_SPACE logical, allocatable :: Ladsen(:) # endif #endif ! integer :: Npts, Nval, i, itrc, ivar, k, lstr, ng, nl, status integer :: ifield, ifile, igrid, itracer, nline, max_Ffiles integer :: ibcfile, iclmfile integer :: Cdim, Clen, Rdim integer :: nPETs, maxPETs integer :: OutFiles integer :: Ivalue(1) integer, allocatable :: Nfiles(:) integer, allocatable :: Ncount(:,:) integer, allocatable :: NBCcount(:,:) integer, allocatable :: NCLMcount(:,:) ! real(dp), allocatable :: Dtracer(:,:) real(r8), allocatable :: Rtracer(:,:) real(r8), allocatable :: tracer(:,:) #ifdef NESTING real(r8), allocatable :: RunTimeDay(:), RunTimeSec(:) #endif real(dp) :: Dvalue(1) real(r8) :: Rvalue(1) real(dp), dimension(nRval) :: Rval ! character (len=1 ), parameter :: blank = ' ' character (len=40 ) :: KeyWord character (len=50 ) :: label character (len=80 ) :: text character (len=256) :: fname, line character (len=256), dimension(nCval) :: Cval character (len=*), parameter :: MyFile = & & __FILE__ ! !----------------------------------------------------------------------- ! Initialize. !----------------------------------------------------------------------- ! ifile=1 ! multiple file counter ibcfile=1 ! multiple BC file counter iclmfile=1 ! multiple CLM file counter igrid=1 ! nested grid counter itracer=0 ! LBC tracer counter nline=0 ! LBC multi-line counter DO i=1,LEN(label) label(i:i)=blank END DO got_Ngrids=.FALSE. got_NestLayers=.FALSE. Cdim=SIZE(Cval,1) Clen=LEN(Cval(1)) Rdim=SIZE(Rval,1) ! !----------------------------------------------------------------------- ! Read in physical model parameters. Then, load input data into module. ! Take into account nested grid configurations. !----------------------------------------------------------------------- ! DO WHILE (.TRUE.) READ (inp,'(a)',ERR=10,END=20) line status=decode_line(line, KeyWord, Nval, Cval, Rval) IF (status.gt.0) THEN SELECT CASE (TRIM(KeyWord)) CASE ('TITLE') IF (Nval.eq.1) THEN title=TRIM(ADJUSTL(Cval(Nval))) ELSE WRITE(title,'(a,1x,a)') TRIM(ADJUSTL(title)), & & TRIM(ADJUSTL(Cval(Nval))) END IF CASE ('MyAppCPP') DO i=1,LEN(MyAppCPP) MyAppCPP(i:i)=blank END DO MyAppCPP=TRIM(ADJUSTL(Cval(Nval))) CASE ('VARNAME') DO i=1,LEN(varname) varname(i:i)=blank END DO varname=TRIM(ADJUSTL(Cval(Nval))) CASE ('Ngrids') Npts=load_i(Nval, Rval, 1, Ivalue) Ngrids=Ivalue(1) IF (Ngrids.le.0) THEN IF (Master) WRITE (out,290) 'Ngrids', Ngrids, & & 'must be greater than zero.' exit_flag=5 RETURN END IF got_Ngrids=.TRUE. ! Allocating variables in CALL allocate_param ! modules that solely CALL allocate_parallel (Ngrids) ! depend on the number CALL allocate_iounits (Ngrids) ! nested grids CALL allocate_stepping (Ngrids) #if defined PIO_LIB && defined DISTRIBUTE IF (.not.associated(var_desc)) THEN allocate ( var_desc(Mvars) ) END IF #endif #if defined FOUR_DVAR || defined VERIFICATION CALL allocate_fourdvar #endif IF (.not.allocated(Lswitch)) THEN allocate ( Lswitch(Ngrids) ) END IF IF (.not.allocated(Nfiles)) THEN allocate ( Nfiles(Ngrids) ) Nfiles(1:Ngrids)=0 END IF CASE ('NestLayers') Npts=load_i(Nval, Rval, 1, Ivalue) NestLayers=Ivalue(1) IF (NestLayers.lt.1) THEN IF (Master) WRITE (out,290) 'NestLayers', NestLayers, & & 'must be greater or equal than one.' exit_flag=5 RETURN END IF #ifndef NESTING IF (NestLayers.gt.1) THEN IF (Master) WRITE (out,290) 'NestLayers', NestLayers, & & 'must be equal to one in non-nesting applications.' exit_flag=5 RETURN END IF #endif got_NestLayers=.TRUE. IF (.not.allocated(GridsInLayer)) THEN allocate ( GridsInLayer(NestLayers) ) #ifndef NESTING GridsInLayer(1:NestLayers)=1 #endif END IF IF (.not.allocated(GridNumber)) THEN allocate ( GridNumber(Ngrids,NestLayers) ) GridNumber(1:Ngrids,1:NestLayers)=0 ! Important END IF CASE ('GridsInLayer') IF (.not.got_NestLayers) THEN IF (Master) WRITE (out,320) 'NestLayers', & & 'Add "NestLayers" keyword before GridsInLayer.' exit_flag=5 RETURN END IF Npts=load_i(Nval, Rval, NestLayers, GridsInLayer) ng=0 DO nl=1,NestLayers DO i=1,GridsInLayer(nl) ng=ng+1 ! order of grids are very in GridNumber(i,nl)=ng ! nesting applications. See END DO ! WikiROMS for details. END DO CASE ('Lm') IF (.not.got_Ngrids) THEN IF (Master) WRITE (out,320) 'Ngrids', & & 'Add "Ngrids" keyword before grid dimension (Lm, Mm).' exit_flag=5 RETURN END IF Npts=load_i(Nval, Rval, Ngrids, Lm) DO ng=1,Ngrids IF (Lm(ng).le.0) THEN IF (Master) WRITE (out,300) 'Lm', ng, & & 'must be greater than zero.' exit_flag=5 RETURN END IF END DO CASE ('Mm') Npts=load_i(Nval, Rval, Ngrids, Mm) DO ng=1,Ngrids IF (Mm(ng).le.0) THEN IF (Master) WRITE (out,300) 'Mm', ng, & & 'must be greater than zero.' exit_flag=5 RETURN END IF END DO CASE ('N') Npts=load_i(Nval, Rval, Ngrids, N) DO ng=1,Ngrids IF (N(ng).lt.0) THEN IF (Master) WRITE (out,300) 'N', ng, & & 'must be greater than zero.' exit_flag=5 RETURN END IF END DO #if defined SEDIMENT && defined SOLVE3D CASE ('Nbed') Npts=load_i(Nval, Rval, 1, Ivalue) Nbed=Ivalue(1) IF (Nbed.le.0) THEN IF (Master) WRITE (out,290) 'Nbed = ', Nbed, & & 'must be greater than zero.' exit_flag=5 RETURN END IF #endif #ifdef SOLVE3D CASE ('NAT') Npts=load_i(Nval, Rval, 1, Ivalue) NAT=Ivalue(1) IF ((NAT.lt.1).or.(NAT.gt.2)) THEN IF (Master) WRITE (out,290) 'NAT = ', NAT, & & 'make sure that NAT is either 1 or 2.' exit_flag=5 RETURN END IF # ifdef SALINITY IF (NAT.ne.2) THEN IF (Master) WRITE (out,290) 'NAT = ', NAT, & & 'make sure that NAT is equal to 2.' exit_flag=5 RETURN END IF # endif #endif #if defined T_PASSIVE && defined SOLVE3D CASE ('NPT') Npts=load_i(Nval, Rval, 1, Ivalue) NPT=Ivalue(1) IF (NPT.le.0) THEN IF (Master) WRITE (out,290) 'NPT = ', NPT, & & 'must be greater than zero.' exit_flag=5 RETURN END IF # ifdef AGE_MEAN IF (MOD(NPT,2).ne.0) THEN IF (Master) WRITE (out,290) 'NPT = ', NPT, & & 'must be an even number when Mean Age is activated.' exit_flag=5 RETURN END IF # endif #endif #if defined SEDIMENT && defined SOLVE3D CASE ('NCS') Npts=load_i(Nval, Rval, 1, Ivalue) NCS=Ivalue(1) IF (NCS.lt.0) THEN IF (Master) WRITE (out,290) 'NCS = ', NCS, & & 'must be greater than zero.' exit_flag=5 RETURN END IF LreadNCS=.TRUE. IF (LreadNNS.and.((NCS+NNS).le.0)) THEN IF (Master) WRITE (out,290) 'NST = ', NCS+NNS, & & 'either NCS or NNS must be greater than zero.' exit_flag=5 RETURN END IF NST=NST+NCS CASE ('NNS') Npts=load_i(Nval, Rval, 1, Ivalue) NNS=Ivalue(1) IF (NNS.lt.0) THEN IF (Master) WRITE (out,290) 'NNS = ', & & 'must be greater than zero.' exit_flag=5 RETURN END IF LreadNNS=.TRUE. IF (LreadNCS.and.((NCS+NNS).le.0)) THEN IF (Master) WRITE (out,290) 'NST = ', NCS+NNS, & & 'either NCS or NNS must be greater than zero.' exit_flag=5 RETURN END IF NST=NST+NNS #endif CASE ('NtileI') Npts=load_i(Nval, Rval, Ngrids, NtileI) NtileX(1:Ngrids)=NtileI(1:Ngrids) CASE ('NtileJ') Npts=load_i(Nval, Rval, Ngrids, NtileJ) NtileE(1:Ngrids)=NtileJ(1:Ngrids) #ifdef BIOLOGY CALL initialize_biology #endif #if defined SEDIMENT || defined BBL_MODEL CALL initialize_sediment #endif CALL initialize_param ! Continue allocating/initalizing CALL allocate_scalars ! variables since the application CALL initialize_scalars ! number of nested grids and CALL allocate_ncparam ! domain parameters are known CALL initialize_ncparam #if defined AD_SENSITIVITY || defined I4DVAR_ANA_SENSITIVITY || \ defined FORCING_SV || defined OPT_OBSERVATIONS || \ defined SENSITIVITY_4DVAR || defined SO_SEMI || \ defined STOCHASTIC_OPT # ifndef OBS_SPACE IF (.not.allocated(Ladsen)) THEN allocate (Ladsen(MT*Ngrids)) END IF # endif #endif IF (.not.allocated(Ltracer)) THEN allocate (Ltracer(NAT+NPT,Ngrids)) END IF #if defined SOLVE3D && defined T_PASSIVE IF (.not.allocated(Linert)) THEN allocate (Linert(NPT,Ngrids)) END IF IF (MAXVAL(inert).eq.0) THEN IF (Master) WRITE (out,280) 'inert' exit_flag=5 RETURN END IF #endif IF (.not.allocated(Dtracer)) THEN allocate (Dtracer(NAT+NPT,Ngrids)) END IF IF (.not.allocated(Rtracer)) THEN allocate (Rtracer(NAT+NPT,Ngrids)) END IF IF (.not.allocated(tracer)) THEN allocate (tracer(MT,Ngrids)) END IF #ifdef SOLVE3D CASE ('Hadvection') IF (itracer.lt.(NAT+NPT)) THEN itracer=itracer+1 ELSE itracer=1 ! next nested grid END IF itrc=itracer Npts=load_tadv(Nval, Cval, line, nline, itrc, igrid, & & itracer, 1, NAT+NPT, & & Vname(1,idTvar(itrc)), & & Hadvection) IF (FoundError(exit_flag, NoError, & & __LINE__, MyFile)) RETURN CASE ('Vadvection') IF (itracer.lt.(NAT+NPT)) THEN itracer=itracer+1 ELSE itracer=1 ! next nested grid END IF itrc=itracer Npts=load_tadv(Nval, Cval, line, nline, itrc, igrid, & & itracer, 1, NAT+NPT, & & Vname(1,idTvar(itrc)), & & Vadvection) IF (FoundError(exit_flag, NoError, & & __LINE__, MyFile)) RETURN # if defined ADJOINT || defined TANGENT || defined TL_IOMS CASE ('ad_Hadvection') IF (itracer.lt.(NAT+NPT)) THEN itracer=itracer+1 ELSE itracer=1 ! next nested grid END IF itrc=itracer Npts=load_tadv(Nval, Cval, line, nline, itrc, igrid, & & itracer, 1, NAT+NPT, & & Vname(1,idTvar(itrc)), & & ad_Hadvection) IF (FoundError(exit_flag, NoError, & & __LINE__, MyFile)) RETURN CASE ('ad_Vadvection') IF (itracer.lt.(NAT+NPT)) THEN itracer=itracer+1 ELSE itracer=1 ! next nested grid END IF itrc=itracer Npts=load_tadv(Nval, Cval, line, nline, itrc, igrid, & & itracer, 1, NAT+NPT, & & Vname(1,idTvar(itracer)), & & ad_Vadvection) IF (FoundError(exit_flag, NoError, & & __LINE__, MyFile)) RETURN # endif #endif CASE ('LBC(isFsur)') Npts=load_lbc(Nval, Cval, line, nline, isFsur, igrid, & & 0, 0, Vname(1,idFsur), LBC) CASE ('LBC(isUbar)') Npts=load_lbc(Nval, Cval, line, nline, isUbar, igrid, & & 0, 0, Vname(1,idUbar), LBC) CASE ('LBC(isVbar)') Npts=load_lbc(Nval, Cval, line, nline, isVbar, igrid, & & 0, 0, Vname(1,idVbar), LBC) #ifdef SOLVE3D CASE ('LBC(isUvel)') Npts=load_lbc(Nval, Cval, line, nline, isUvel, igrid, & & 0, 0, Vname(1,idUvel), LBC) CASE ('LBC(isVvel)') Npts=load_lbc(Nval, Cval, line, nline, isVvel, igrid, & & 0, 0, Vname(1,idVvel), LBC) # if defined GLS_MIXING || defined MY25_MIXING CASE ('LBC(isMtke)') Npts=load_lbc(Nval, Cval, line, nline, isMtke, igrid, & & 0, 0, Vname(1,idMtke), LBC) # endif CASE ('LBC(isTvar)') IF (itracer.lt.(NAT+NPT)) THEN itracer=itracer+1 ELSE itracer=1 ! next nested grid END IF ifield=isTvar(itracer) Npts=load_lbc(Nval, Cval, line, nline, ifield, igrid, & & 1, NAT+NPT, Vname(1,idTvar(itracer)), LBC) #endif #if defined ADJOINT || defined TANGENT || defined TL_IOMS CASE ('ad_LBC(isFsur)') Npts=load_lbc(Nval, Cval, line, nline, isFsur, igrid, & & 0, 0, Vname(1,idFsur), ad_LBC) CASE ('ad_LBC(isUbar)') Npts=load_lbc(Nval, Cval, line, nline, isUbar, igrid, & & 0, 0, Vname(1,idUbar), ad_LBC) CASE ('ad_LBC(isVbar)') Npts=load_lbc(Nval, Cval, line, nline, isVbar, igrid, & & 0, 0, Vname(1,idVbar), ad_LBC) # ifdef SOLVE3D CASE ('ad_LBC(isUvel)') Npts=load_lbc(Nval, Cval, line, nline, isUvel, igrid, & & 0, 0, Vname(1,idUvel), ad_LBC) CASE ('ad_LBC(isVvel)') Npts=load_lbc(Nval, Cval, line, nline, isVvel, igrid, & & 0, 0, Vname(1,idVvel), ad_LBC) # if defined GLS_MIXING || defined MY25_MIXING CASE ('ad_LBC(isMtke)') Npts=load_lbc(Nval, Cval, line, nline, isMtke, igrid, & & 0, 0, Vname(1,idMtke), ad_LBC) # endif CASE ('ad_LBC(isTvar)') IF (itracer.lt.(NAT+NPT)) THEN itracer=itracer+1 ELSE itracer=1 ! next nested grid END IF ifield=isTvar(itracer) Npts=load_lbc(Nval, Cval, line, nline, ifield, igrid, & & 1, NAT+NPT, Vname(1,idTvar(itracer)), & & ad_LBC) # endif #endif CASE ('VolCons(west)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) VolCons(iwest,1:Ngrids)=Lswitch(1:Ngrids) CASE ('VolCons(east)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) VolCons(ieast,1:Ngrids)=Lswitch(1:Ngrids) CASE ('VolCons(south)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) VolCons(isouth,1:Ngrids)=Lswitch(1:Ngrids) CASE ('VolCons(north)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) VolCons(inorth,1:Ngrids)=Lswitch(1:Ngrids) #if defined ADJOINT || defined TANGENT || defined TL_IOMS CASE ('ad_VolCons(west)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) ad_VolCons(iwest,1:Ngrids)=Lswitch(1:Ngrids) tl_VolCons(iwest,1:Ngrids)=Lswitch(1:Ngrids) CASE ('ad_VolCons(east)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) ad_VolCons(ieast,1:Ngrids)=Lswitch(1:Ngrids) tl_VolCons(ieast,1:Ngrids)=Lswitch(1:Ngrids) CASE ('ad_VolCons(south)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) ad_VolCons(isouth,1:Ngrids)=Lswitch(1:Ngrids) tl_VolCons(isouth,1:Ngrids)=Lswitch(1:Ngrids) CASE ('ad_VolCons(north)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) ad_VolCons(inorth,1:Ngrids)=Lswitch(1:Ngrids) tl_VolCons(inorth,1:Ngrids)=Lswitch(1:Ngrids) #endif CASE ('NTIMES') Npts=load_i(Nval, Rval, Ngrids, ntimes) #ifdef RBL4DVAR_FCT_SENSITIVITY CASE ('NTIMES_ANA') Npts=load_i(Nval, Rval, Ngrids, ntimes_ana) CASE ('NTIMES_FCT') Npts=load_i(Nval, Rval, Ngrids, ntimes_fct) #endif CASE ('DT') Npts=load_r(Nval, Rval, Ngrids, dt) #if defined MODEL_COUPLING && defined MCT_LIB IF (.not.allocated(CoupleSteps)) THEN allocate (CoupleSteps(Nmodels,Ngrids)) CoupleSteps=0 END IF DO ng=1,Ngrids DO i=1,Nmodels CoupleSteps(i,ng)=MAX(1, & & INT(TimeInterval(Iocean,i)/ & & dt(ng))) END DO END DO #endif CASE ('NDTFAST') Npts=load_i(Nval, Rval, Ngrids, ndtfast) CASE ('ERstr') Npts=load_i(Nval, Rval, 1, Ivalue) ERstr=Ivalue(1) CASE ('ERend') Npts=load_i(Nval, Rval, 1, Ivalue) ERend=Ivalue(1) CASE ('Nouter') Npts=load_i(Nval, Rval, 1, Ivalue) Nouter=Ivalue(1) CASE ('Ninner') Npts=load_i(Nval, Rval, 1, Ivalue) Ninner=Ivalue(1) CASE ('Nsaddle') Npts=load_i(Nval, Rval, 1, Ivalue) Nsaddle=Ivalue(1) CASE ('Nintervals') Npts=load_i(Nval, Rval, 1, Ivalue) Nintervals=Ivalue(1) #ifdef PROPAGATOR CASE ('NEV') Npts=load_i(Nval, Rval, 1, Ivalue) NEV=Ivalue(1) CASE ('NCV') Npts=load_i(Nval, Rval, 1, Ivalue) NCV=Ivalue(1) # if defined FT_EIGENMMODES || defined AFT_EIGENMODES IF (NCV.lt.(2*NEV+1)) THEN IF (Master) WRITE (out,260) 'NCV = ', NCV, & & 'Must be greater than or equal to 2*NEV+1' exit_flag=5 RETURN END IF # else IF (NCV.lt.NEV) THEN IF (Master) WRITE (out,260) 'NCV = ', NCV, & & 'Must be greater than NEV' exit_flag=5 RETURN END IF # endif #endif CASE ('NRREC') Npts=load_i(Nval, Rval, Ngrids, nrrec) DO ng=1,Ngrids IF (nrrec(ng).lt.0) THEN LastRec(ng)=.TRUE. ELSE LastRec(ng)=.FALSE. END IF END DO CASE ('LcycleRST') Npts=load_l(Nval, Cval, Ngrids, LcycleRST) CASE ('NRST') Npts=load_i(Nval, Rval, Ngrids, nRST) CASE ('NSTA') Npts=load_i(Nval, Rval, Ngrids, nSTA) CASE ('NFLT') Npts=load_i(Nval, Rval, Ngrids, nFLT) CASE ('NINFO') Npts=load_i(Nval, Rval, Ngrids, ninfo) DO ng=1,Ngrids IF (ninfo(ng).le.0) THEN WRITE (text,'(a,i2.2,a)') 'ninfo(', ng, ') = ' IF (Master) WRITE (out,260) TRIM(text), ninfo(ng), & & 'must be greater than zero.' exit_flag=5 RETURN END IF END DO CASE ('LDEFOUT') Npts=load_l(Nval, Cval, Ngrids, ldefout) CASE ('NHIS') Npts=load_i(Nval, Rval, Ngrids, nHIS) CASE ('NDEFHIS') Npts=load_i(Nval, Rval, Ngrids, ndefHIS) CASE ('NQCK') Npts=load_i(Nval, Rval, Ngrids, nQCK) #if defined FORWARD_FLUXES && \ (defined BULK_FLUXES || defined FRC_COUPLING) DO ng=1,Ngrids IF (nQCK(ng).le.0) THEN WRITE (text,'(a,i2.2,a)') 'nQCK(', ng, ') = ' IF (Master) WRITE (out,260) TRIM(text), nQCK(ng), & & 'must be greater than zero because the QCK '// & & 'file is used as surface forcing basic state.' exit_flag=5 RETURN END IF END DO #endif CASE ('NDEFQCK') Npts=load_i(Nval, Rval, Ngrids, ndefQCK) CASE ('NTSAVG') Npts=load_i(Nval, Rval, Ngrids, ntsAVG) #ifdef ADJOINT DO ng=1,Ngrids IF (ntsAVG(ng).eq.1) ntsAVG(ng)=ntimes(ng) END DO #endif CASE ('NAVG') Npts=load_i(Nval, Rval, Ngrids, nAVG) CASE ('NDEFAVG') Npts=load_i(Nval, Rval, Ngrids, ndefAVG) CASE ('NTSDIA') Npts=load_i(Nval, Rval, Ngrids, ntsDIA) CASE ('NDIA') Npts=load_i(Nval, Rval, Ngrids, nDIA) CASE ('NDEFDIA') Npts=load_i(Nval, Rval, Ngrids, ndefDIA) CASE ('LcycleTLM') Npts=load_l(Nval, Cval, Ngrids, LcycleTLM) CASE ('NTLM') Npts=load_i(Nval, Rval, Ngrids, nTLM) CASE ('NDEFTLM') Npts=load_i(Nval, Rval, Ngrids, ndefTLM) CASE ('LcycleADJ') Npts=load_l(Nval, Cval, Ngrids, LcycleADJ) CASE ('NADJ') Npts=load_i(Nval, Rval, Ngrids, nADJ) CASE ('NDEFADJ') Npts=load_i(Nval, Rval, Ngrids, ndefADJ) CASE ('NOBC') Npts=load_i(Nval, Rval, Ngrids, nOBC) #ifdef ADJUST_BOUNDARY # ifdef RBL4DVAR_FCT_SENSITIVITY DO ng=1,Ngrids Nbrec(ng)=1+ntimes_ana(ng)/nOBC(ng) END DO allocate ( OBC_time(MAXVAL(Nbrec),Ngrids) ) # else DO ng=1,Ngrids Nbrec(ng)=1+ntimes(ng)/nOBC(ng) END DO allocate ( OBC_time(MAXVAL(Nbrec),Ngrids) ) # endif #endif CASE ('NSFF') Npts=load_i(Nval, Rval, Ngrids, nSFF) #if defined ADJUST_STFLUX || defined ADJUST_WSTRESS # ifdef RBL4DVAR_FCT_SENSITIVITY DO ng=1,Ngrids Nfrec(ng)=1+ntimes_ana(ng)/nSFF(ng) END DO allocate ( SF_time(MAXVAL(Nfrec),Ngrids) ) # else DO ng=1,Ngrids Nfrec(ng)=1+ntimes(ng)/nSFF(ng) END DO allocate ( SF_time(MAXVAL(Nfrec),Ngrids) ) # endif #endif CASE ('LmultiGST') Npts=load_l(Nval, Cval, 1, Lvalue) LmultiGST=Lvalue(1) CASE ('LrstGST') Npts=load_l(Nval, Cval, 1, Lvalue) LrstGST=Lvalue(1) CASE ('MaxIterGST') Npts=load_i(Nval, Rval, 1, Ivalue) MaxIterGST=Ivalue(1) CASE ('NGST') Npts=load_i(Nval, Rval, 1, Ivalue) nGST=Ivalue(1) #ifdef PROPAGATOR CASE ('Ritz_tol') Npts=load_r(Nval, Rval, 1, Dvalue) Ritz_tol=Dvalue(1) #endif CASE ('TNU2') Npts=load_r(Nval, Rval, NAT+NPT, Ngrids, Rtracer) DO ng=1,Ngrids DO itrc=1,NAT nl_tnu2(itrc,ng)=Rtracer(itrc,ng) END DO #ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) nl_tnu2(itrc,ng)=Rtracer(NAT+i,ng) END DO #endif END DO CASE ('TNU4') Npts=load_r(Nval, Rval, NAT+NPT, Ngrids, Rtracer) DO ng=1,Ngrids DO itrc=1,NAT nl_tnu4(itrc,ng)=Rtracer(itrc,ng) END DO #ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) nl_tnu4(itrc,ng)=Rtracer(NAT+i,ng) END DO #endif END DO CASE ('ad_TNU2') Npts=load_r(Nval, Rval, NAT+NPT, Ngrids, Rtracer) DO ng=1,Ngrids DO itrc=1,NAT ad_tnu2(itrc,ng)=Rtracer(itrc,ng) tl_tnu2(itrc,ng)=Rtracer(itrc,ng) END DO #ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) ad_tnu2(itrc,ng)=Rtracer(NAT+i,ng) tl_tnu2(itrc,ng)=Rtracer(NAT+i,ng) END DO #endif END DO CASE ('ad_TNU4') Npts=load_r(Nval, Rval, NAT+NPT, Ngrids, Rtracer) DO ng=1,Ngrids DO itrc=1,NAT ad_tnu4(itrc,ng)=Rtracer(itrc,ng) tl_tnu4(itrc,ng)=Rtracer(itrc,ng) END DO #ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) ad_tnu4(itrc,ng)=Rtracer(NAT+i,ng) tl_tnu4(itrc,ng)=Rtracer(NAT+i,ng) END DO #endif END DO CASE ('VISC2') Npts=load_r(Nval, Rval, Ngrids, nl_visc2) CASE ('VISC4') Npts=load_r(Nval, Rval, Ngrids, nl_visc4) CASE ('ad_VISC2') Npts=load_r(Nval, Rval, Ngrids, ad_visc2) DO ng=1,Ngrids tl_visc2(ng)=ad_visc2(ng) END DO CASE ('ad_VISC4') Npts=load_r(Nval, Rval, Ngrids, ad_visc4) DO ng=1,Ngrids tl_visc4(ng)=ad_visc4(ng) END DO CASE ('LuvSponge') Npts=load_l(Nval, Cval, Ngrids, LuvSponge) #ifdef SOLVE3D CASE ('LtracerSponge') Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT LtracerSponge(itrc,ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) LtracerSponge(itrc,ng)=Ltracer(NAT+i,ng) END DO # endif END DO #endif CASE ('AKT_BAK') Npts=load_r(Nval, Rval, NAT+NPT, Ngrids, Rtracer) DO ng=1,Ngrids DO itrc=1,NAT Akt_bak(itrc,ng)=Rtracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Akt_bak(itrc,ng)=Rtracer(NAT+i,ng) END DO # endif END DO CASE ('AKT_LIMIT') Npts=load_r(Nval, Rval, NAT+NPT, Ngrids, Rtracer) DO ng=1,Ngrids DO itrc=1,NAT Akt_limit(itrc,ng)=Rtracer(itrc,ng) END DO END DO CASE ('ad_AKT_fac') Npts=load_r(Nval, Rval, NAT+NPT, Ngrids, Rtracer) DO ng=1,Ngrids DO itrc=1,NAT ad_Akt_fac(itrc,ng)=Rtracer(itrc,ng) tl_Akt_fac(itrc,ng)=Rtracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) ad_Akt_fac(itrc,ng)=Rtracer(NAT+i,ng) tl_Akt_fac(itrc,ng)=Rtracer(NAT+i,ng) END DO # endif END DO CASE ('AKV_BAK') Npts=load_r(Nval, Rval, Ngrids, Akv_bak) CASE ('AKV_LIMIT') Npts=load_r(Nval, Rval, Ngrids, Akv_limit) CASE ('ad_AKV_fac') Npts=load_r(Nval, Rval, Ngrids, ad_Akv_fac) DO ng=1,Ngrids tl_Akv_fac(ng)=ad_AKv_fac(ng) END DO CASE ('AKK_BAK') Npts=load_r(Nval, Rval, Ngrids, Akk_bak) CASE ('AKP_BAK') Npts=load_r(Nval, Rval, Ngrids, Akp_bak) CASE ('TKENU2') Npts=load_r(Nval, Rval, Ngrids, tkenu2) CASE ('TKENU4') Npts=load_r(Nval, Rval, Ngrids, tkenu4) CASE ('GLS_P') Npts=load_r(Nval, Rval, Ngrids, gls_p) CASE ('GLS_M') Npts=load_r(Nval, Rval, Ngrids, gls_m) CASE ('GLS_N') Npts=load_r(Nval, Rval, Ngrids, gls_n) CASE ('GLS_Kmin') Npts=load_r(Nval, Rval, Ngrids, gls_Kmin) CASE ('GLS_Pmin') Npts=load_r(Nval, Rval, Ngrids, gls_Pmin) CASE ('GLS_CMU0') Npts=load_r(Nval, Rval, Ngrids, gls_cmu0) CASE ('GLS_C1') Npts=load_r(Nval, Rval, Ngrids, gls_c1) CASE ('GLS_C2') Npts=load_r(Nval, Rval, Ngrids, gls_c2) CASE ('GLS_C3M') Npts=load_r(Nval, Rval, Ngrids, gls_c3m) CASE ('GLS_C3P') Npts=load_r(Nval, Rval, Ngrids, gls_c3p) CASE ('GLS_SIGK') Npts=load_r(Nval, Rval, Ngrids, gls_sigk) CASE ('GLS_SIGP') Npts=load_r(Nval, Rval, Ngrids, gls_sigp) CASE ('CHARNOK_ALPHA') Npts=load_r(Nval, Rval, Ngrids, charnok_alpha) CASE ('ZOS_HSIG_ALPHA') Npts=load_r(Nval, Rval, Ngrids, zos_hsig_alpha) CASE ('SZ_ALPHA') Npts=load_r(Nval, Rval, Ngrids, sz_alpha) CASE ('CRGBAN_CW') Npts=load_r(Nval, Rval, Ngrids, crgban_cw) CASE ('RDRG') Npts=load_r(Nval, Rval, Ngrids, rdrg) CASE ('RDRG2') Npts=load_r(Nval, Rval, Ngrids, rdrg2) CASE ('Zob') Npts=load_r(Nval, Rval, Ngrids, Zob) CASE ('Zos') Npts=load_r(Nval, Rval, Ngrids, Zos) #ifdef BULK_FLUXES CASE ('BLK_ZQ') Npts=load_r(Nval, Rval, Ngrids, blk_ZQ) CASE ('BLK_ZT') Npts=load_r(Nval, Rval, Ngrids, blk_ZT) CASE ('BLK_ZW') Npts=load_r(Nval, Rval, Ngrids, blk_ZW) #endif CASE ('DCRIT') Npts=load_r(Nval, Rval, Ngrids, Dcrit) CASE ('WTYPE') Npts=load_i(Nval, Rval, Ngrids, lmd_Jwt) CASE ('LEVSFRC') Npts=load_i(Nval, Rval, Ngrids, levsfrc) CASE ('LEVBFRC') Npts=load_i(Nval, Rval, Ngrids, levbfrc) CASE ('Vtransform') Npts=load_i(Nval, Rval, Ngrids, Vtransform) DO ng=1,Ngrids IF ((Vtransform(ng).lt.0).or. & & (Vtransform(ng).gt.2)) THEN IF (Master) WRITE (out,260) 'Vtransform = ', & & Vtransform(ng), & & 'Must be either 1 or 2' exit_flag=5 RETURN END IF END DO CASE ('Vstretching') Npts=load_i(Nval, Rval, Ngrids, Vstretching) DO ng=1,Ngrids IF ((Vstretching(ng).lt.0).or. & & (Vstretching(ng).gt.5)) THEN IF (Master) WRITE (out,260) 'Vstretching = ', & & Vstretching(ng), & & 'Must between 1 and 5' exit_flag=5 RETURN END IF END DO CASE ('THETA_S') Npts=load_r(Nval, Rval, Ngrids, theta_s) CASE ('THETA_B') Npts=load_r(Nval, Rval, Ngrids, theta_b) CASE ('TCLINE') Npts=load_r(Nval, Rval, Ngrids, Tcline) DO ng=1,Ngrids hc(ng)=Tcline(ng) END DO CASE ('RHO0') Npts=load_r(Nval, Rval, 1, Rvalue) rho0=Rvalue(1) CASE ('BVF_BAK') Npts=load_r(Nval, Rval, 1, Rvalue) bvf_bak=Rvalue(1) #ifdef TIDE_GENERATING_FORCES CASE ('Lnodal') Npts=load_l(Nval, Cval, 1, Lvalue) Lnodal=Lvalue(1) #endif CASE ('DSTART') Npts=load_r(Nval, Rval, 1, Dvalue) dstart=Dvalue(1) CASE ('TIDE_START') Npts=load_r(Nval, Rval, 1, Dvalue) tide_start=Dvalue(1) CASE ('TIME_REF') Npts=load_r(Nval, Rval, 1, Dvalue) time_ref=Dvalue(1) CALL ref_clock (time_ref) CASE ('TNUDG') Npts=load_r(Nval, Rval, NAT+NPT, Ngrids, Dtracer) DO ng=1,Ngrids DO itrc=1,NAT Tnudg(itrc,ng)=Dtracer(itrc,ng) END DO #ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Tnudg(itrc,ng)=Dtracer(NAT+i,ng) END DO #endif END DO CASE ('ZNUDG') Npts=load_r(Nval, Rval, Ngrids, Znudg) CASE ('M2NUDG') Npts=load_r(Nval, Rval, Ngrids, M2nudg) CASE ('M3NUDG') Npts=load_r(Nval, Rval, Ngrids, M3nudg) CASE ('OBCFAC') Npts=load_r(Nval, Rval, Ngrids, obcfac) CASE ('R0') Npts=load_r(Nval, Rval, Ngrids, R0) DO ng=1,Ngrids IF (R0(ng).lt.100.0_r8) R0(ng)=R0(ng)+1000.0_r8 END DO CASE ('T0') Npts=load_r(Nval, Rval, Ngrids, T0) CASE ('S0') Npts=load_r(Nval, Rval, Ngrids, S0) CASE ('TCOEF') Npts=load_r(Nval, Rval, Ngrids, Tcoef) DO ng=1,Ngrids Tcoef(ng)=ABS(Tcoef(ng)) END DO CASE ('SCOEF') Npts=load_r(Nval, Rval, Ngrids, Scoef) DO ng=1,Ngrids Scoef(ng)=ABS(Scoef(ng)) END DO CASE ('GAMMA2') Npts=load_r(Nval, Rval, Ngrids, gamma2) CASE ('LuvSrc') Npts=load_l(Nval, Cval, Ngrids, LuvSrc) CASE ('LwSrc') Npts=load_l(Nval, Cval, Ngrids, LwSrc) #ifdef SOLVE3D CASE ('LtracerSrc') Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT LtracerSrc(itrc,ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) LtracerSrc(itrc,ng)=Ltracer(NAT+i,ng) END DO # endif END DO #endif CASE ('LsshCLM') Npts=load_l(Nval, Cval, Ngrids, LsshCLM) CASE ('Lm2CLM') Npts=load_l(Nval, Cval, Ngrids, Lm2CLM) #ifdef SOLVE3D CASE ('Lm3CLM') Npts=load_l(Nval, Cval, Ngrids, Lm3CLM) CASE ('LtracerCLM') Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT LtracerCLM(itrc,ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) LtracerCLM(itrc,ng)=Ltracer(NAT+i,ng) END DO # endif END DO #endif CASE ('LnudgeM2CLM') Npts=load_l(Nval, Cval, Ngrids, LnudgeM2CLM) #ifdef SOLVE3D CASE ('LnudgeM3CLM') Npts=load_l(Nval, Cval, Ngrids, LnudgeM3CLM) CASE ('LnudgeTCLM') Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT LnudgeTCLM(itrc,ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) LnudgeTCLM(itrc,ng)=Ltracer(NAT+i,ng) END DO # endif END DO #endif #if defined AD_SENSITIVITY || defined I4DVAR_ANA_SENSITIVITY || \ defined OPT_OBSERVATIONS || defined SENSITIVITY_4DVAR || \ defined SO_SEMI CASE ('DstrS') Npts=load_r(Nval, Rval, Ngrids, DstrS) CASE ('DendS') Npts=load_r(Nval, Rval, Ngrids, DendS) # ifndef OBS_SPACE CASE ('KstrS') Npts=load_i(Nval, Rval, Ngrids, KstrS) CASE ('KendS') Npts=load_i(Nval, Rval, Ngrids, KendS) CASE ('Lstate(isFsur)') IF (isFsur.eq.0) THEN IF (Master) WRITE (out,280) 'isFsur' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Lstate(isFsur)=Ladsen(ng) END DO CASE ('Lstate(isUbar)') IF (isUbar.eq.0) THEN IF (Master) WRITE (out,280) 'isUbar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Lstate(isUbar)=Ladsen(ng) END DO CASE ('Lstate(isVbar)') IF (isVbar.eq.0) THEN IF (Master) WRITE (out,280) 'isVbar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Lstate(isVbar)=Ladsen(ng) END DO # ifdef SOLVE3D CASE ('Lstate(isUvel)') IF (isUvel.eq.0) THEN IF (Master) WRITE (out,280) 'isUvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Lstate(isUvel)=Ladsen(ng) END DO CASE ('Lstate(isVvel)') IF (isVvel.eq.0) THEN IF (Master) WRITE (out,280) 'isVvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Lstate(isVvel)=Ladsen(ng) END DO CASE ('Lstate(isWvel)') IF (isWvel.eq.0) THEN IF (Master) WRITE (out,280) 'isWvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Lstate(isWvel)=Ladsen(ng) END DO CASE ('Lstate(isTvar)') IF (MAXVAL(isTvar).eq.0) THEN IF (Master) WRITE (out,280) 'isTvar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, MT*Ngrids, Ladsen) k=0 DO ng=1,Ngrids DO itrc=1,MT k=k+1 i=isTvar(itrc) SCALARS(ng)%Lstate(i)=Ladsen(k) END DO END DO # endif # endif #endif #if defined FORCING_SV || defined SO_SEMI || \ defined STOCHASTIC_OPT CASE ('Fstate(isFsur)') IF (isFsur.eq.0) THEN IF (Master) WRITE (out,280) 'isFsur' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Fstate(isFsur)=Ladsen(ng) END DO CASE ('Fstate(isUbar)') IF (isUbar.eq.0) THEN IF (Master) WRITE (out,280) 'isUbar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Fstate(isUbar)=Ladsen(ng) END DO CASE ('Fstate(isVbar)') IF (isVbar.eq.0) THEN IF (Master) WRITE (out,280) 'isVbar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Fstate(isVbar)=Ladsen(ng) END DO # ifdef SOLVE3D CASE ('Fstate(isUvel)') IF (isUvel.eq.0) THEN IF (Master) WRITE (out,280) 'isUvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Fstate(isUvel)=Ladsen(ng) END DO CASE ('Fstate(isVvel)') IF (isVvel.eq.0) THEN IF (Master) WRITE (out,280) 'isVvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Fstate(isVvel)=Ladsen(ng) END DO CASE ('Fstate(isTvar)') IF (MAXVAL(isTvar).eq.0) THEN IF (Master) WRITE (out,280) 'isTvar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, MT*Ngrids, Ladsen) k=0 DO ng=1,Ngrids DO itrc=1,MT k=k+1 i=isTvar(itrc) SCALARS(ng)%Fstate(i)=Ladsen(k) END DO END DO # endif CASE ('Fstate(isUstr)') IF (isUstr.eq.0) THEN IF (Master) WRITE (out,280) 'isUstr' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Fstate(isUstr)=Ladsen(ng) END DO CASE ('Fstate(isVstr)') IF (isUstr.eq.0) THEN IF (Master) WRITE (out,280) 'isVstr' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Ladsen) DO ng=1,Ngrids SCALARS(ng)%Fstate(isVstr)=Ladsen(ng) END DO # ifdef SOLVE3D CASE ('Fstate(isTsur)') IF (MAXVAL(isTsur).eq.0) THEN IF (Master) WRITE (out,280) 'isTsur' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, MT*Ngrids, Ladsen) k=0 DO ng=1,Ngrids DO itrc=1,MT k=k+1 i=isTsur(itrc) SCALARS(ng)%Fstate(i)=Ladsen(k) END DO END DO # endif #endif #if defined SO_SEMI || \ (defined STOCHASTIC_OPT && !defined STOCH_OPT_WHITE) CASE ('SO_decay') Npts=load_r(Nval, Rval, Ngrids, SO_decay) CASE ('SO_sdev(isFsur)') Npts=load_r(Nval, Rval, Ngrids, SO_sdev(isFsur,1)) CASE ('SO_sdev(isUbar)') Npts=load_r(Nval, Rval, Ngrids, SO_sdev(isUbar,1)) CASE ('SO_sdev(isVbar)') Npts=load_r(Nval, Rval, Ngrids, SO_sdev(isVbar,1)) # ifdef SOLVE3D CASE ('SO_sdev(isUvel)') Npts=load_r(Nval, Rval, Ngrids, SO_sdev(isUvel,1)) CASE ('SO_sdev(isVvel)') Npts=load_r(Nval, Rval, Ngrids, SO_sdev(isVvel,1)) CASE ('SO_sdev(isTvar)') Npts=load_r(Nval, Rval, MT, Ngrids, tracer) k=0 DO ng=1,Ngrids DO itrc=1,MT k=k+1 i=isTvar(itrc) SO_sdev(i,ng)=tracer(k,ng) END DO END DO # endif CASE ('SO_sdev(isUstr)') Npts=load_r(Nval, Rval, Ngrids, SO_sdev(isUstr,1)) CASE ('SO_sdev(isVstr)') Npts=load_r(Nval, Rval, Ngrids, SO_sdev(isVstr,1)) # ifdef SOLVE3D CASE ('SO_sdev(isTsur)') Npts=load_r(Nval, Rval, MT, Ngrids, tracer) k=0 DO ng=1,Ngrids DO itrc=1,MT k=k+1 i=isTsur(itrc) SO_sdev(i,ng)=tracer(k,ng) END DO END DO # endif #endif CASE ('Hout(idUvel)') IF (idUvel.eq.0) THEN IF (Master) WRITE (out,280) 'idUvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVvel)') IF (idVvel.eq.0) THEN IF (Master) WRITE (out,280) 'idVvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idWvel)') IF (idWvel.eq.0) THEN IF (Master) WRITE (out,280) 'idWvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idWvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idOvel)') IF (idOvel.eq.0) THEN IF (Master) WRITE (out,280) 'idOvel' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idOvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idUbar)') IF (idUbar.eq.0) THEN IF (Master) WRITE (out,280) 'idUbar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUbar,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVbar)') IF (idVbar.eq.0) THEN IF (Master) WRITE (out,280) 'idVbar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVbar,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idFsur)') IF (idFsur.eq.0) THEN IF (Master) WRITE (out,280) 'idFsur' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idFsur,1:Ngrids)=Lswitch(1:Ngrids) #if defined SEDIMENT && defined SED_MORPH CASE ('Hout(idBath)') IF (idbath.eq.0) THEN IF (Master) WRITE (out,280) 'idbath' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idBath,1:Ngrids)=Lswitch(1:Ngrids) #endif CASE ('Hout(idu2dE)') IF (idu2dE.eq.0) THEN IF (Master) WRITE (out,280) 'idu2dE' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idu2dE,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idv2dN)') IF (idv2dN.eq.0) THEN IF (Master) WRITE (out,280) 'idv2dN' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idv2dN,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idu3dE)') IF (idu3dE.eq.0) THEN IF (Master) WRITE (out,280) 'idu3dE' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idu3dE,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idv3dN)') IF (idv3dN.eq.0) THEN IF (Master) WRITE (out,280) 'idv3dN' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idv3dN,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idTvar)') IF (MAXVAL(idTvar).eq.0) THEN IF (Master) WRITE (out,280) 'idTvar' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT i=idTvar(itrc) Hout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Hout(idpthR)') IF (idpthR.eq.0) THEN IF (Master) WRITE (out,280) 'idpthR' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idpthR,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idpthU)') IF (idpthU.eq.0) THEN IF (Master) WRITE (out,280) 'idpthU' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idpthU,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idpthV)') IF (idpthV.eq.0) THEN IF (Master) WRITE (out,280) 'idpthV' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idpthV,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idpthW)') IF (idpthW.eq.0) THEN IF (Master) WRITE (out,280) 'idpthW' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idpthW,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idUsms)') IF (idUsms.eq.0) THEN IF (Master) WRITE (out,280) 'idUsms' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUsms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVsms)') IF (idVsms.eq.0) THEN IF (Master) WRITE (out,280) 'idVsms' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVsms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idUbms)') IF (idUbms.eq.0) THEN IF (Master) WRITE (out,280) 'idUbms' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUbms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVbms)') IF (idVbms.eq.0) THEN IF (Master) WRITE (out,280) 'idVbms' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVbms,1:Ngrids)=Lswitch(1:Ngrids) #ifdef BBL_MODEL CASE ('Hout(idUbrs)') IF (idUbrs.eq.0) THEN IF (Master) WRITE (out,280) 'idUbrs' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUbrs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVbrs)') IF (idVbrs.eq.0) THEN IF (Master) WRITE (out,280) 'idVbrs' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVbrs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idUbws)') IF (idUbws.eq.0) THEN IF (Master) WRITE (out,280) 'idUbws' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUbws,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVbws)') IF (idVbws.eq.0) THEN IF (Master) WRITE (out,280) 'idVbws' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVbws,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idUbcs)') IF (idUbcs.eq.0) THEN IF (Master) WRITE (out,280) 'idUbcs' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUbcs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVbcs)') IF (idVbcs.eq.0) THEN IF (Master) WRITE (out,280) 'idVbcs' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVbcs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idUbot)') IF (idUbot.eq.0) THEN IF (Master) WRITE (out,280) 'idUbot' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUbot,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVbot)') IF (idVbot.eq.0) THEN IF (Master) WRITE (out,280) 'idVbot' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVbot,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idUbur)') IF (idUbur.eq.0) THEN IF (Master) WRITE (out,280) 'idUbur' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUbur,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVbvr)') IF (idVbvr.eq.0) THEN IF (Master) WRITE (out,280) 'idVbvr' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVbvr,1:Ngrids)=Lswitch(1:Ngrids) #endif CASE ('Hout(idW2xx)') IF (idW2xx.eq.0) THEN IF (Master) WRITE (out,280) 'idW2xx' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idW2xx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idW2xy)') IF (idW2xy.eq.0) THEN IF (Master) WRITE (out,280) 'idW2xy' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idW2xy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idW2yy)') IF (idW2yy.eq.0) THEN IF (Master) WRITE (out,280) 'idW2yy' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idW2yy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idU2rs)') IF (idU2rs.eq.0) THEN IF (Master) WRITE (out,280) 'idU2rs' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idU2rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idV2rs)') IF (idV2rs.eq.0) THEN IF (Master) WRITE (out,280) 'idV2rs' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idV2rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idU2Sd)') IF (idU2Sd.eq.0) THEN IF (Master) WRITE (out,280) 'idU2Sd' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idU2Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idV2Sd)') IF (idV2Sd.eq.0) THEN IF (Master) WRITE (out,280) 'idV2Sd' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idV2Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idW3xx)') IF (idW3xx.eq.0) THEN IF (Master) WRITE (out,280) 'idW3xx' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idW3xx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idW3xy)') IF (idW3xy.eq.0) THEN IF (Master) WRITE (out,280) 'idW3xy' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idW3xy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idW3yy)') IF (idW3yy.eq.0) THEN IF (Master) WRITE (out,280) 'idW3yy' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idW3yy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idW3zx)') IF (idW3zx.eq.0) THEN IF (Master) WRITE (out,280) 'idW3zx' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idW3zx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idW3zy)') IF (idW3zy.eq.0) THEN IF (Master) WRITE (out,280) 'idW3zy' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idW3zy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idU3rs)') IF (idU3rs.eq.0) THEN IF (Master) WRITE (out,280) 'idU3rs' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idU3rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idV3rs)') IF (idV3rs.eq.0) THEN IF (Master) WRITE (out,280) 'idV3rs' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idV3rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idU3Sd)') IF (idU3Sd.eq.0) THEN IF (Master) WRITE (out,280) 'idU3Sd' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idU3Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idV3Sd)') IF (idV3Sd.eq.0) THEN IF (Master) WRITE (out,280) 'idV3Sd' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idV3Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idWamp)') IF (idWamp.eq.0) THEN IF (Master) WRITE (out,280) 'idWamp' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idWamp,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idWlen)') IF (idWlen.eq.0) THEN IF (Master) WRITE (out,280) 'idWlen' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idWlen,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idWdir)') IF (idWdir.eq.0) THEN IF (Master) WRITE (out,280) 'idWdir' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idWdir,1:Ngrids)=Lswitch(1:Ngrids) #ifdef WAVES_TOP_PERIOD CASE ('Hout(idWptp)') IF (idWptp.eq.0) THEN IF (Master) WRITE (out,280) 'idWptp' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idWptp,1:Ngrids)=Lswitch(1:Ngrids) #endif #ifdef WAVES_BOT_PERIOD CASE ('Hout(idWpbt)') IF (idWpbt.eq.0) THEN IF (Master) WRITE (out,280) 'idWpbt' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idWpbt,1:Ngrids)=Lswitch(1:Ngrids) #endif #ifdef WAVES_UB CASE ('Hout(idWorb)') IF (idWorb.eq.0) THEN IF (Master) WRITE (out,280) 'idWorb' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idWorb,1:Ngrids)=Lswitch(1:Ngrids) #endif #if defined TKE_WAVEDISS || defined WAV_COUPLING CASE ('Hout(idWdis)') IF (idWdis.eq.0) THEN IF (Master) WRITE (out,280) 'idWdis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idWdis,1:Ngrids)=Lswitch(1:Ngrids) #endif #ifdef SOLVE3D # if defined BULK_FLUXES || defined ECOSIM || defined ATM_PRESS CASE ('Hout(idPair)') IF (idPair.eq.0) THEN IF (Master) WRITE (out,280) 'idPair' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idPair,1:Ngrids)=Lswitch(1:Ngrids) # endif # if defined BULK_FLUXES CASE ('Hout(idTair)') IF (idTair.eq.0) THEN IF (Master) WRITE (out,280) 'idTair' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idTair,1:Ngrids)=Lswitch(1:Ngrids) # endif # if defined BULK_FLUXES || defined ECOSIM CASE ('Hout(idUair)') IF (idUair.eq.0) THEN IF (Master) WRITE (out,280) 'idUair' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idUair,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVair)') IF (idVair.eq.0) THEN IF (Master) WRITE (out,280) 'idVair' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVair,1:Ngrids)=Lswitch(1:Ngrids) # endif #endif CASE ('Hout(idTsur)') IF (idTsur(itemp).eq.0) THEN IF (Master) WRITE (out,280) 'idTsur' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT i=idTsur(itrc) Hout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Hout(idLhea)') IF (idLhea.eq.0) THEN IF (Master) WRITE (out,280) 'idLhea' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idLhea,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idShea)') IF (idShea.eq.0) THEN IF (Master) WRITE (out,280) 'idShea' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idShea,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idLrad)') IF (idLrad.eq.0) THEN IF (Master) WRITE (out,280) 'idLrad' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idLrad,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idSrad)') IF (idSrad.eq.0) THEN IF (Master) WRITE (out,280) 'idSrad' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idSrad,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idEmPf)') IF (idEmPf.eq.0) THEN IF (Master) WRITE (out,280) 'idEmPf' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idEmPf,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idevap)') IF (idevap.eq.0) THEN IF (Master) WRITE (out,280) 'idevap' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idevap,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idrain)') IF (idrain.eq.0) THEN IF (Master) WRITE (out,280) 'idrain' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idrain,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idDano)') IF (idDano.eq.0) THEN IF (Master) WRITE (out,280) 'idDano' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idDano,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idVvis)') IF (idVvis.eq.0) THEN IF (Master) WRITE (out,280) 'idVvis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idVvis,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idTdif)') IF (idTdif.eq.0) THEN IF (Master) WRITE (out,280) 'idTdif' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idTdif,1:Ngrids)=Lswitch(1:Ngrids) #ifdef SALINITY CASE ('Hout(idSdif)') IF (idSdif.eq.0) THEN IF (Master) WRITE (out,280) 'idSdif' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idSdif,1:Ngrids)=Lswitch(1:Ngrids) #endif CASE ('Hout(idHsbl)') IF (idHsbl.eq.0) THEN IF (Master) WRITE (out,280) 'idHsbl' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idHsbl,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idHbbl)') IF (idHbbl.eq.0) THEN IF (Master) WRITE (out,280) 'idHbbl' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idHbbl,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idMtke)') IF (idMtke.eq.0) THEN IF (Master) WRITE (out,280) 'idMtke' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idMtke,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Hout(idMtls)') IF (idMtls.eq.0) THEN IF (Master) WRITE (out,280) 'idMtls' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Hout(idMtls,1:Ngrids)=Lswitch(1:Ngrids) #if defined SOLVE3D && defined T_PASSIVE CASE ('Hout(inert)') Npts=load_l(Nval, Cval, NPT, Ngrids, Linert) DO ng=1,Ngrids DO i=1,NPT itrc=idTvar(inert(i)) Hout(itrc,ng)=Linert(i,ng) END DO END DO #endif CASE ('Qout(idUvel)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVvel)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idWvel)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idWvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idOvel)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idOvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idUbar)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUbar,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVbar)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVbar,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idFsur)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idFsur,1:Ngrids)=Lswitch(1:Ngrids) #if defined SEDIMENT && defined SED_MORPH CASE ('Qout(idBath)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idBath,1:Ngrids)=Lswitch(1:Ngrids) #endif CASE ('Qout(idu2dE)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idu2dE,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idv2dN)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idv2dN,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idu3dE)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idu3dE,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idv3dN)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idv3dN,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idTvar)') Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT i=idTvar(itrc) Qout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Qout(idUsur)') IF (idUsur.eq.0) THEN IF (Master) WRITE (out,280) 'idUsur' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUsur,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVsur)') IF (idUsur.eq.0) THEN IF (Master) WRITE (out,280) 'idVsur' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVsur,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idUsuE)') IF (idUsuE.eq.0) THEN IF (Master) WRITE (out,280) 'idUsuE' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUsuE,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVsuN)') IF (idVsuN.eq.0) THEN IF (Master) WRITE (out,280) 'idVsuN' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVsuN,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idsurT)') IF (MAXVAL(idsurT).eq.0) THEN IF (Master) WRITE (out,280) 'idsurT' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT i=idsurT(itrc) Qout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Qout(idpthR)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idpthR,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idpthU)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idpthU,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idpthV)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idpthV,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idpthW)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idpthW,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idUsms)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUsms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVsms)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVsms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idUbms)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUbms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVbms)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVbms,1:Ngrids)=Lswitch(1:Ngrids) #ifdef BBL_MODEL CASE ('Qout(idUbrs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUbrs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVbrs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVbrs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idUbws)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUbws,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVbws)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVbws,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idUbcs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUbcs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVbcs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVbcs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idUbot)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUbot,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVbot)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVbot,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idUbur)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUbur,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVbvr)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVbvr,1:Ngrids)=Lswitch(1:Ngrids) #endif CASE ('Qout(idW2xx)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idW2xx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idW2xy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idW2xy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idW2yy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idW2yy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idU2rs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idU2rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idV2rs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idV2rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idU2Sd)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idU2Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idV2Sd)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idV2Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idW3xx)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idW3xx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idW3xy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idW3xy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idW3yy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idW3yy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idW3zx)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idW3zx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idW3zy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idW3zy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idU3rs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idU3rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idV3rs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idV3rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idU3Sd)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idU3Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idV3Sd)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idV3Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idWamp)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idWamp,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idWlen)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idWlen,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idWdir)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idWdir,1:Ngrids)=Lswitch(1:Ngrids) #ifdef WAVES_TOP_PERIOD CASE ('Qout(idWptp)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idWptp,1:Ngrids)=Lswitch(1:Ngrids) #endif #ifdef WAVES_BOT_PERIOD CASE ('Qout(idWpbt)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idWpbt,1:Ngrids)=Lswitch(1:Ngrids) #endif #ifdef WAVES_UB CASE ('Qout(idWorb)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idWorb,1:Ngrids)=Lswitch(1:Ngrids) #endif #if defined TKE_WAVEDISS || defined WAV_COUPLING CASE ('Qout(idWdis)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idWdis,1:Ngrids)=Lswitch(1:Ngrids) #endif #ifdef SOLVE3D # if defined BULK_FLUXES || defined ECOSIM || defined ATM_PRESS CASE ('Qout(idPair)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idPair,1:Ngrids)=Lswitch(1:Ngrids) # endif # if defined BULK_FLUXES CASE ('Qout(idTair)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idTair,1:Ngrids)=Lswitch(1:Ngrids) # endif # if defined BULK_FLUXES || defined ECOSIM CASE ('Qout(idUair)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idUair,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVair)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVair,1:Ngrids)=Lswitch(1:Ngrids) # endif #endif CASE ('Qout(idTsur)') Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT i=idTsur(itrc) Qout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Qout(idLhea)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idLhea,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idShea)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idShea,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idLrad)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idLrad,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idSrad)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idSrad,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idEmPf)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idEmPf,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idevap)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idevap,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idrain)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idrain,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idDano)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idDano,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idVvis)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idVvis,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idTdif)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idTdif,1:Ngrids)=Lswitch(1:Ngrids) #ifdef SALINITY CASE ('Qout(idSdif)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idSdif,1:Ngrids)=Lswitch(1:Ngrids) #endif CASE ('Qout(idHsbl)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idHsbl,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idHbbl)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idHbbl,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idMtke)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idMtke,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Qout(idMtls)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Qout(idMtls,1:Ngrids)=Lswitch(1:Ngrids) #if defined SOLVE3D && defined T_PASSIVE CASE ('Qout(inert)') Npts=load_l(Nval, Cval, NPT, Ngrids, Linert) DO ng=1,Ngrids DO i=1,NPT itrc=idTvar(inert(i)) Qout(itrc,ng)=Linert(i,ng) END DO END DO CASE ('Qout(Snert)') Npts=load_l(Nval, Cval, NPT, Ngrids, Linert) DO ng=1,Ngrids DO i=1,NPT itrc=idsurT(inert(i)) Qout(itrc,ng)=Linert(i,ng) END DO END DO #endif #if defined AVERAGES || \ (defined AD_AVERAGES && defined ADJOINT) || \ (defined RP_AVERAGES && defined TL_IOMS) || \ (defined TL_AVERAGES && defined TANGENT) CASE ('Aout(idUvel)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idUvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idVvel)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idVvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idWvel)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idWvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idOvel)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idOvel,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idUbar)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idUbar,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idVbar)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idVbar,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idFsur)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idFsur,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idu2dE)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idu2dE,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idv2dN)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idv2dN,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idu3dE)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idu3dE,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idv3dN)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idv3dN,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idTvar)') Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT i=idTvar(itrc) Aout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Aout(idUsms)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idUsms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idVsms)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idVsms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idUbms)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idUbms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idVbms)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idVbms,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idW2xx)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idW2xx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idW2xy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idW2xy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idW2yy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idW2yy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idU2rs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idU2rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idV2rs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idV2rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idU2Sd)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idU2Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idV2Sd)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idV2Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idW3xx)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idW3xx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idW3xy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idW3xy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idW3yy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idW3yy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idW3zx)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idW3zx,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idW3zy)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idW3zy,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idU3rs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idU3rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idV3rs)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idV3rs,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idU3Sd)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idU3Sd,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idV3Sd)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idV3Sd,1:Ngrids)=Lswitch(1:Ngrids) # ifdef SOLVE3D # if defined BULK_FLUXES || defined ECOSIM || defined ATM_PRESS CASE ('Aout(idPair)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idPair,1:Ngrids)=Lswitch(1:Ngrids) # endif # if defined BULK_FLUXES CASE ('Aout(idTair)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idTair,1:Ngrids)=Lswitch(1:Ngrids) # endif # if defined BULK_FLUXES || defined ECOSIM CASE ('Aout(idUair)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idUair,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idVair)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idVair,1:Ngrids)=Lswitch(1:Ngrids) # endif # endif CASE ('Aout(idTsur)') Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT i=idTsur(itrc) Aout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Aout(idLhea)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idLhea,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idShea)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idShea,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idLrad)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idLrad,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idSrad)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idSrad,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idevap)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idevap,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idrain)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idrain,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idDano)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idDano,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idVvis)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idVvis,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idTdif)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idTdif,1:Ngrids)=Lswitch(1:Ngrids) # ifdef SALINITY CASE ('Aout(idSdif)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idSdif,1:Ngrids)=Lswitch(1:Ngrids) # endif CASE ('Aout(idHsbl)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idHsbl,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idHbbl)') Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idHbbl,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(id2dRV)') IF (id2dRV.eq.0) THEN IF (Master) WRITE (out,280) 'id2dRV' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(id2dRV,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(id3dRV)') IF (id3dRV.eq.0) THEN IF (Master) WRITE (out,280) 'id3dRV' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(id3dRV,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(id2dPV)') IF (id2dPV.eq.0) THEN IF (Master) WRITE (out,280) 'id2dPV' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(id2dPV,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(id3dPV)') IF (id3dPV.eq.0) THEN IF (Master) WRITE (out,280) 'id3dPV' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(id3dPV,1:Ngrids)=Lswitch(1:Ngrids) # if defined AVERAGES && defined AVERAGES_DETIDE && \ (defined SSH_TIDES || defined UV_TIDES) CASE ('Aout(idFsuD)') IF (idFsuD.eq.0) THEN IF (Master) WRITE (out,280) 'idFsuD' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idFsuD,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idu2dD)') IF (idu2dD.eq.0) THEN IF (Master) WRITE (out,280) 'idu2dD' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idu2dD,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idv2dD)') IF (idv2dD.eq.0) THEN IF (Master) WRITE (out,280) 'idv2dD' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idv2dD,1:Ngrids)=Lswitch(1:Ngrids) # ifdef SOLVE3D CASE ('Aout(idu3dD)') IF (idu3dD.eq.0) THEN IF (Master) WRITE (out,280) 'idu3dD' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idu3dD,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idv3dD)') IF (idv3dD.eq.0) THEN IF (Master) WRITE (out,280) 'idv3dD' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idv3dD,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idTrcD)') IF (MAXVAL(idTrcD).eq.0) THEN IF (Master) WRITE (out,280) 'idTrcD' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT i=idTrcD(itrc) Aout(i,ng)=Ltracer(itrc,ng) END DO END DO # endif # endif # ifdef SOLVE3D CASE ('Aout(idHUav)') IF (idHUav.eq.0) THEN IF (Master) WRITE (out,280) 'idHUav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idHUav,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idHVav)') IF (idHVav.eq.0) THEN IF (Master) WRITE (out,280) 'idHVav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idHVav,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idUUav)') IF (idUUav.eq.0) THEN IF (Master) WRITE (out,280) 'idUUav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idUUav,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idUVav)') IF (idUVav.eq.0) THEN IF (Master) WRITE (out,280) 'idUVav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idUVav,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idVVav)') IF (idVVav.eq.0) THEN IF (Master) WRITE (out,280) 'idVVav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idVVav,1:Ngrids)=Lswitch(1:Ngrids) # endif CASE ('Aout(idU2av)') IF (idU2av.eq.0) THEN IF (Master) WRITE (out,280) 'idU2av' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idU2av,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idV2av)') IF (idV2av.eq.0) THEN IF (Master) WRITE (out,280) 'idV2av' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idV2av,1:Ngrids)=Lswitch(1:Ngrids) CASE ('Aout(idZZav)') IF (idZZav.eq.0) THEN IF (Master) WRITE (out,280) 'idZZav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) Aout(idZZav,1:Ngrids)=Lswitch(1:Ngrids) # ifdef SOLVE3D CASE ('Aout(idTTav)') IF (MAXVAL(idTTav).eq.0) THEN IF (Master) WRITE (out,280) 'idTTav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT+NPT i=idTTav(itrc) Aout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Aout(idUTav)') IF (MAXVAL(idUTav).eq.0) THEN IF (Master) WRITE (out,280) 'idUTav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT+NPT i=idUTav(itrc) Aout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Aout(idVTav)') IF (MAXVAL(idVTav).eq.0) THEN IF (Master) WRITE (out,280) 'idVTav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT+NPT i=idVTav(itrc) Aout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Aout(iHUTav)') IF (MAXVAL(iHUTav).eq.0) THEN IF (Master) WRITE (out,280) 'iHUTav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT+NPT i=iHUTav(itrc) Aout(i,ng)=Ltracer(itrc,ng) END DO END DO CASE ('Aout(iHVTav)') IF (MAXVAL(iHVTav).eq.0) THEN IF (Master) WRITE (out,280) 'iHVTav' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT+NPT i=iHVTav(itrc) Aout(i,ng)=Ltracer(itrc,ng) END DO END DO # endif # if defined SOLVE3D && defined T_PASSIVE CASE ('Aout(inert)') Npts=load_l(Nval, Cval, NPT, Ngrids, Linert) DO ng=1,Ngrids DO i=1,NPT itrc=idTvar(inert(i)) Aout(itrc,ng)=Linert(i,ng) END DO END DO # endif #endif #ifdef DIAGNOSTICS_UV CASE ('Dout(M2rate)') IF (M2rate.le.0) THEN IF (Master) WRITE (out,280) 'M2rate' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2rate),ng)=Lswitch(ng) Dout(idDv2d(M2rate),ng)=Lswitch(ng) END DO CASE ('Dout(M2pgrd)') IF (M2pgrd.le.0) THEN IF (Master) WRITE (out,280) 'M2pgrd' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2pgrd),ng)=Lswitch(ng) Dout(idDv2d(M2pgrd),ng)=Lswitch(ng) END DO # ifdef UV_COR CASE ('Dout(M2fcor)') IF (M2fcor.le.0) THEN IF (Master) WRITE (out,280) 'M2fcor' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2fcor),ng)=Lswitch(ng) Dout(idDv2d(M2fcor),ng)=Lswitch(ng) END DO # endif # ifdef UV_ADV CASE ('Dout(M2hadv)') IF (M2hadv.le.0) THEN IF (Master) WRITE (out,280) 'M2hadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2hadv),ng)=Lswitch(ng) Dout(idDv2d(M2hadv),ng)=Lswitch(ng) END DO CASE ('Dout(M2xadv)') IF (M2xadv.le.0) THEN IF (Master) WRITE (out,280) 'M2xadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2xadv),ng)=Lswitch(ng) Dout(idDv2d(M2xadv),ng)=Lswitch(ng) END DO CASE ('Dout(M2yadv)') IF (M2yadv.le.0) THEN IF (Master) WRITE (out,280) 'M2yadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2yadv),ng)=Lswitch(ng) Dout(idDv2d(M2yadv),ng)=Lswitch(ng) END DO # endif # ifdef NEARSHORE_MELLOR CASE ('Dout(M2hrad)') IF (M2hrad.le.0) THEN IF (Master) WRITE (out,280) 'M2hrad' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2hrad),ng)=Lswitch(ng) Dout(idDv2d(M2hrad),ng)=Lswitch(ng) END DO # endif # if defined UV_VIS2 || defined UV_VIS4 CASE ('Dout(M2hvis)') IF (M2hvis.le.0) THEN IF (Master) WRITE (out,280) 'M2hvis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2hvis),ng)=Lswitch(ng) Dout(idDv2d(M2hvis),ng)=Lswitch(ng) END DO CASE ('Dout(M2xvis)') IF (M2xvis.le.0) THEN IF (Master) WRITE (out,280) 'M2xvis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2xvis),ng)=Lswitch(ng) Dout(idDv2d(M2xvis),ng)=Lswitch(ng) END DO CASE ('Dout(M2yvis)') IF (M2yvis.le.0) THEN IF (Master) WRITE (out,280) 'M2yvis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2yvis),ng)=Lswitch(ng) Dout(idDv2d(M2yvis),ng)=Lswitch(ng) END DO # endif CASE ('Dout(M2sstr)') IF (M2sstr.le.0) THEN IF (Master) WRITE (out,280) 'M2sstr' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2sstr),ng)=Lswitch(ng) Dout(idDv2d(M2sstr),ng)=Lswitch(ng) END DO CASE ('Dout(M2bstr)') IF (M2bstr.le.0) THEN IF (Master) WRITE (out,280) 'M2bstr' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu2d(M2bstr),ng)=Lswitch(ng) Dout(idDv2d(M2bstr),ng)=Lswitch(ng) END DO # ifdef SOLVE3D CASE ('Dout(M3rate)') IF (M3rate.le.0) THEN IF (Master) WRITE (out,280) 'M3rate' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3rate),ng)=Lswitch(ng) Dout(idDv3d(M3rate),ng)=Lswitch(ng) END DO CASE ('Dout(M3pgrd)') IF (M3pgrd.le.0) THEN IF (Master) WRITE (out,280) 'M3pgrd' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3pgrd),ng)=Lswitch(ng) Dout(idDv3d(M3pgrd),ng)=Lswitch(ng) END DO # ifdef UV_COR CASE ('Dout(M3fcor)') IF (M3fcor.le.0) THEN IF (Master) WRITE (out,280) 'M3fcor' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3fcor),ng)=Lswitch(ng) Dout(idDv3d(M3fcor),ng)=Lswitch(ng) END DO # endif # ifdef UV_ADV CASE ('Dout(M3hadv)') IF (M3hadv.le.0) THEN IF (Master) WRITE (out,280) 'M3hadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3hadv),ng)=Lswitch(ng) Dout(idDv3d(M3hadv),ng)=Lswitch(ng) END DO CASE ('Dout(M3xadv)') IF (M3xadv.le.0) THEN IF (Master) WRITE (out,280) 'M3xadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3xadv),ng)=Lswitch(ng) Dout(idDv3d(M3xadv),ng)=Lswitch(ng) END DO CASE ('Dout(M3yadv)') IF (M3yadv.le.0) THEN IF (Master) WRITE (out,280) 'M3yadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3yadv),ng)=Lswitch(ng) Dout(idDv3d(M3yadv),ng)=Lswitch(ng) END DO CASE ('Dout(M3vadv)') IF (M3vadv.le.0) THEN IF (Master) WRITE (out,280) 'M3vadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3vadv),ng)=Lswitch(ng) Dout(idDv3d(M3vadv),ng)=Lswitch(ng) END DO # endif # ifdef NEARSHORE_MELLOR CASE ('Dout(M3hrad)') IF (M3hrad.le.0) THEN IF (Master) WRITE (out,280) 'M3hrad' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3hrad),ng)=Lswitch(ng) Dout(idDv3d(M3hrad),ng)=Lswitch(ng) END DO # endif # if defined UV_VIS2 || defined UV_VIS4 CASE ('Dout(M3hvis)') IF (M3hvis.le.0) THEN IF (Master) WRITE (out,280) 'M3hvis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3hvis),ng)=Lswitch(ng) Dout(idDv3d(M3hvis),ng)=Lswitch(ng) END DO CASE ('Dout(M3xvis)') IF (M3xvis.le.0) THEN IF (Master) WRITE (out,280) 'M3xvis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3xvis),ng)=Lswitch(ng) Dout(idDv3d(M3xvis),ng)=Lswitch(ng) END DO CASE ('Dout(M3yvis)') IF (M3yvis.le.0) THEN IF (Master) WRITE (out,280) 'M3yvis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3yvis),ng)=Lswitch(ng) Dout(idDv3d(M3yvis),ng)=Lswitch(ng) END DO # endif CASE ('Dout(M3vvis)') IF (M3vvis.le.0) THEN IF (Master) WRITE (out,280) 'M3vvis' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, Ngrids, Lswitch) DO ng=1,Ngrids Dout(idDu3d(M3vvis),ng)=Lswitch(ng) Dout(idDv3d(M3vvis),ng)=Lswitch(ng) END DO # endif #endif #if defined DIAGNOSTICS_TS && defined SOLVE3D CASE ('Dout(iTrate)') IF (iTrate.le.0) THEN IF (Master) WRITE (out,280) 'iTrate' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iTrate),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iTrate),ng)=Ltracer(NAT+i,ng) END DO # endif END DO CASE ('Dout(iThadv)') IF (iThadv.le.0) THEN IF (Master) WRITE (out,280) 'iThadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iThadv),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iThadv),ng)=Ltracer(NAT+i,ng) END DO # endif END DO CASE ('Dout(iTxadv)') IF (iTxadv.le.0) THEN IF (Master) WRITE (out,280) 'iTxadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iTxadv),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iTxadv),ng)=Ltracer(NAT+i,ng) END DO # endif END DO CASE ('Dout(iTyadv)') IF (iTyadv.le.0) THEN IF (Master) WRITE (out,280) 'iTyadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iTyadv),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iTyadv),ng)=Ltracer(NAT+i,ng) END DO # endif END DO CASE ('Dout(iTvadv)') IF (iTvadv.le.0) THEN IF (Master) WRITE (out,280) 'iTvadv' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iTvadv),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iTvadv),ng)=Ltracer(NAT+i,ng) END DO # endif END DO # if defined TS_DIF2 || defined TS_DIF4 CASE ('Dout(iThdif)') IF (iThdif.le.0) THEN IF (Master) WRITE (out,280) 'iThdif' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iThdif),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iThdif),ng)=Ltracer(NAT+i,ng) END DO # endif END DO CASE ('Dout(iTxdif)') IF (iTxdif.le.0) THEN IF (Master) WRITE (out,280) 'iTxdif' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iTxdif),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iTxdif),ng)=Ltracer(NAT+i,ng) END DO # endif END DO CASE ('Dout(iTydif)') IF (iTydif.le.0) THEN IF (Master) WRITE (out,280) 'iTydif' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iTydif),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iTydif),ng)=Ltracer(NAT+i,ng) END DO # endif END DO # if defined MIX_GEO_TS || defined MIX_ISO_TS CASE ('Dout(iTsdif)') IF (iTsdif.le.0) THEN IF (Master) WRITE (out,280) 'iTsdif' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iTsdif),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iTsdif),ng)=Ltracer(NAT+i,ng) END DO # endif END DO # endif # endif CASE ('Dout(iTvdif)') IF (iTvdif.le.0) THEN IF (Master) WRITE (out,280) 'iTvdif' exit_flag=5 RETURN END IF Npts=load_l(Nval, Cval, NAT+NPT, Ngrids, Ltracer) DO ng=1,Ngrids DO itrc=1,NAT Dout(idDtrc(itrc,iTvdif),ng)=Ltracer(itrc,ng) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) Dout(idDtrc(itrc,iTvdif),ng)=Ltracer(NAT+i,ng) END DO # endif END DO #endif CASE ('NUSER') Npts=load_i(Nval, Rval, 1, Ivalue) Nuser=Ivalue(1) CASE ('USER') Npts=load_r(Nval, Rval, MAX(1,Nuser), user) CASE ('INP_LIB') Npts=load_i(Nval, Rval, 1, Ivalue) #if defined PIO_LIB && defined DISTRIBUTE inp_lib=Ivalue(1) IF ((inp_lib.lt.1).or.(inp_lib.gt.2)) THEN IF (Master) WRITE (out,260) 'inp_lib = ', & & inp_lib, & & 'Must be either 1 or 2' exit_flag=5 RETURN END IF #else inp_lib=1 #endif CASE ('OUT_LIB') Npts=load_i(Nval, Rval, 1, Ivalue) #if defined PIO_LIB && defined DISTRIBUTE out_lib=Ivalue(1) IF ((inp_lib.lt.1).or.(inp_lib.gt.2)) THEN IF (Master) WRITE (out,260) 'out_lib = ', & & out_lib, & & 'Must be either 1 or 2' exit_flag=5 RETURN END IF #else out_lib=1 #endif #if defined PIO_LIB && defined DISTRIBUTE CASE ('PIO_METHOD') Npts=load_i(Nval, Rval, 1, Ivalue) IF ((Ivalue(1).lt.0).or.(Ivalue(1).gt.4)) THEN IF (Master) WRITE (out,260) 'pio_method = ', & & Ivalue(1), & & 'Must be between 1 and 4' ELSE SELECT CASE (Ivalue(1)) CASE (0) TypeCDF5=.TRUE. ! CDF-5, not portable pio_method=PIO_iotype_pnetcdf pio_MethodName='PnetCDF' CASE (1) TypeCDF5=.FALSE. ! NetCDF-3 64-bit pio_method=PIO_iotype_pnetcdf pio_MethodName='PnetCDF' CASE (2) pio_method=PIO_iotype_netcdf pio_MethodName='NetCDF' CASE (3) pio_method=PIO_iotype_netcdf4c pio_MethodName='NetCDF4c' CASE (4) pio_method=PIO_iotype_netcdf4p pio_MethodName='NetCDF4p' END SELECT END IF CASE ('PIO_IOTASKS') Npts=load_i(Nval, Rval, 1, Ivalue) pio_NumIOtasks=Ivalue(1) IF ((pio_NumIOtasks.lt.1).or. & & (pio_NumIOtasks.gt.numthreads)) THEN IF (Master) WRITE (out,260) 'pio_NumIOtasks = ', & & pio_NumIOtasks, & & 'Must be between 1 and NtileI*NtileJ' exit_flag=5 RETURN END IF CASE ('PIO_STRIDE') Npts=load_i(Nval, Rval, 1, Ivalue) pio_stride=Ivalue(1) IF ((pio_stride.lt.1).or. & (pio_stride*pio_NumIOtasks.gt.numthreads)) THEN IF (Master) WRITE (out,260) 'pio_stride = ', & & pio_stride, & & 'Must be greater than 0 and not exceed NtileI*NtileJ' exit_flag=5 RETURN END IF CASE ('PIO_BASE') Npts=load_i(Nval, Rval, 1, Ivalue) pio_base=Ivalue(1) IF (pio_base.lt.0) THEN IF (Master) WRITE (out,260) 'pio_base = ', & & pio_base, & & 'Is usually 0 or greater' exit_flag=5 RETURN ELSE IF ((numthreads.eq.1).and.(pio_base.ne.0)) THEN IF (Master) WRITE (out,260) 'pio_base = ', & & pio_base, & & 'Reset to 0 since running on a single process' pio_base=0 ! reset since offset is not needed END IF END IF CASE ('PIO_AGGREG') Npts=load_i(Nval, Rval, 1, Ivalue) pio_aggregator=Ivalue(1) IF (pio_aggregator.lt.1) THEN IF (Master) WRITE (out,260) 'pio_aggregator = ', & & pio_aggregator, & & 'Must be greater than 0' exit_flag=5 RETURN END IF CASE ('PIO_REARR') Npts=load_i(Nval, Rval, 1, Ivalue) IF ((Ivalue(1).lt.1).or.(Ivalue(1).gt.2)) THEN IF (Master) WRITE (out,260) 'pio_rearranger = ', & & Ivalue(1), & & 'Must be 1 or 2' exit_flag=5 RETURN ELSE SELECT CASE (Ivalue(1)) CASE (1) pio_rearranger=PIO_rearr_box CASE (2) pio_rearranger=PIO_rearr_subset END SELECT END IF CASE ('PIO_REARRCOM') Npts=load_i(Nval, Rval, 1, Ivalue) IF ((Ivalue(1).lt.0).or.(Ivalue(1).gt.1)) THEN IF (Master) WRITE (out,260) 'pio_rearr_opt_comm = ', & & Ivalue(1), & & 'Must be 0 or 1' exit_flag=5 RETURN ELSE SELECT CASE (Ivalue(1)) CASE (0) pio_rearr_comm=PIO_rearr_comm_p2p CASE (1) pio_rearr_comm=PIO_rearr_comm_coll END SELECT END IF CASE ('PIO_REARRDIR') Npts=load_i(Nval, Rval, 1, Ivalue) IF ((Ivalue(1).lt.0).or.(Ivalue(1).gt.3)) THEN IF (Master) WRITE (out,260) 'pio_rearr_opt_fcd = ', & & Ivalue(1), & & 'Must be between 0 and 3' exit_flag=5 RETURN ELSE SELECT CASE (Ivalue(1)) CASE (0) pio_rearr_fcd=PIO_rearr_comm_fc_2d_enable CASE (1) pio_rearr_fcd=PIO_rearr_comm_fc_1d_comp2io CASE (2) pio_rearr_fcd=PIO_rearr_comm_fc_1d_io2comp CASE (3) pio_rearr_fcd=PIO_rearr_comm_fc_2d_disable END SELECT END IF CASE ('PIO_C2I_HS') Npts=load_l(Nval, Cval, 1, Lvalue) pio_rearr_C2I_HS=Lvalue(1) CASE ('PIO_C2I_Send') Npts=load_l(Nval, Cval, 1, Lvalue) pio_rearr_C2I_iS=Lvalue(1) CASE ('PIO_C2I_Preq') Npts=load_i(Nval, Rval, 1, Ivalue) IF (Ivalue(1).lt.0) THEN pio_rearr_C2I_PR=PIO_rearr_comm_unlimited_pend_req ELSE pio_rearr_C2I_PR=Ivalue(1) END IF CASE ('PIO_I2C_HS') Npts=load_l(Nval, Cval, 1, Lvalue) pio_rearr_I2C_HS=Lvalue(1) CASE ('PIO_I2C_Send') Npts=load_l(Nval, Cval, 1, Lvalue) pio_rearr_I2C_iS=Lvalue(1) CASE ('PIO_I2C_Preq') Npts=load_i(Nval, Rval, 1, Ivalue) IF (Ivalue(1).lt.0) THEN pio_rearr_I2C_PR=PIO_rearr_comm_unlimited_pend_req ELSE pio_rearr_I2C_PR=Ivalue(1) END IF #endif CASE ('NC_SHUFFLE') Npts=load_i(Nval, Rval, 1, Ivalue) shuffle=Ivalue(1) CASE ('NC_DEFLATE') Npts=load_i(Nval, Rval, 1, Ivalue) deflate=Ivalue(1) CASE ('NC_DLEVEL') Npts=load_i(Nval, Rval, 1, Ivalue) deflate_level=Ivalue(1) CASE ('DAINAME') label='DAI - Data Assimilation Initial/Restart fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, DAI) CASE ('GSTNAME') label='GST - generalized stability theory analysis' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, GST) CASE ('RSTNAME') label='RST - restart fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, RST) CASE ('HISNAME') label='HIS - nonlinear model history fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, HIS) CASE ('QCKNAME') label='QCK - nonlinear model quicksave fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, QCK) CASE ('TLMNAME') label='TLM - tangent linear model history fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, TLM) CASE ('TLFNAME') label='TLF - tangent linear model impulse forcing' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, TLF) CASE ('ADJNAME') label='ADM - adjoint model history fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, ADM) CASE ('AVGNAME') label='AVG - time-averaged history fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, AVG) CASE ('HARNAME') label='HAR - least-squares detiding harmonics' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, HAR) CASE ('DIANAME') label='DIA - time-averaged diagnostics fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, DIA) CASE ('STANAME') label='STA - stations time-series' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, STA) CASE ('FLTNAME') label='FLT - Lagragian particles trajectories' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, out_lib, FLT) CASE ('GRDNAME') label='GRD - application grid' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, GRD) CASE ('ININAME') label='INI - nonlinear model initial conditions' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, INI) CASE ('IRPNAME') label='IRP - representer model initial conditions' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, IRP) CASE ('ITLNAME') label='ITL - tangent linear model initial conditions' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, ITL) CASE ('IADNAME') label='IAD - adjoint model initial conditions' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, IAD) CASE ('FWDNAME') label='FWD - basic state forward trajectory' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, FWD) CASE ('ADSNAME') label='ADS - adjoint sensitivity functional' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, ADS) #ifdef RBL4DVAR_FCT_SENSITIVITY # ifndef OBS_SPACE CASE ('FOInameA') label='FOIA - adjoint sensitivity functional A' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, FOIA) CASE ('FOInameB') label='FOIB - adjoint sensitivity functional B' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, FOIB) # endif CASE ('FCTnameA') label='FCTA - forecast state forward trajectory A' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, FCTA) CASE ('FCTnameB') label='FCTB - forecast state forward trajectory B' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, FCTB) #endif CASE ('NGCNAME') DO i=1,LEN(NGCname) NGCname(i:i)=blank END DO NGCname=TRIM(ADJUSTL(Cval(Nval))) CASE ('NBCFILES') Npts=load_i(Nval, Rval, Ngrids, nBCfiles) DO ng=1,Ngrids IF (nBCfiles(ng).le.0) THEN IF (Master) WRITE (out,260) 'NBCFILES', nBCfiles(ng), & & 'Must be equal or greater than one.' exit_flag=4 RETURN END IF END DO max_Ffiles=MAXVAL(nBCfiles) allocate ( BRY(max_Ffiles,Ngrids) ) allocate ( BRYids(max_Ffiles,Ngrids) ) # if defined PIO_LIB && defined DISTRIBUTE allocate ( BRYdesc(max_Ffiles,Ngrids) ) # endif allocate ( NBCcount(max_Ffiles,Ngrids) ) BRYids(1:max_Ffiles,1:Ngrids)=-1 # if defined PIO_LIB && defined DISTRIBUTE BRYdesc(1:max_Ffiles,1:Ngrids)%fh=-1 # endif NBCcount(1:max_Ffiles,1:Ngrids)=0 CASE ('BRYNAME') label='BRY - lateral open boundary conditions' DO ng=1,Ngrids IF (nBCfiles(ng).lt.0) THEN IF (Master) WRITE (out,290) 'nBCfiles = ', & & nBCfiles(ng), & & 'KeyWord ''NBCFILES'' unread or misssing from '// & & 'input script ''roms.in''.' exit_flag=4 RETURN END IF END DO Npts=load_s2d(Nval, Cval, Cdim, line, label, ibcfile, & & igrid, Ngrids, nBCfiles, NBCcount, & & max_Ffiles, inp_lib, BRY) CASE ('NCLMFILES') Npts=load_i(Nval, Rval, Ngrids, nCLMfiles) DO ng=1,Ngrids IF (nCLMfiles(ng).le.0) THEN IF (Master) WRITE (out,260) 'NCLMFILES', & & nCLMfiles(ng), & & 'Must be equal or greater than one.' exit_flag=4 RETURN END IF END DO max_Ffiles=MAXVAL(nCLMfiles) allocate ( CLM(max_Ffiles,Ngrids) ) allocate ( CLMids(max_Ffiles,Ngrids) ) # if defined PIO_LIB && defined DISTRIBUTE allocate ( CLMdesc(max_Ffiles,Ngrids) ) # endif allocate ( NCLMcount(max_Ffiles,Ngrids) ) CLMids(1:max_Ffiles,1:Ngrids)=-1 # if defined PIO_LIB && defined DISTRIBUTE CLMdesc(1:max_Ffiles,1:Ngrids)%fh=-1 # endif NCLMcount(1:max_Ffiles,1:Ngrids)=0 CASE ('CLMNAME') label='CLM - climatology fields' DO ng=1,Ngrids IF (nCLMfiles(ng).lt.0) THEN IF (Master) WRITE (out,290) 'nCLMfiles = ', & & nCLMfiles(ng), & & 'KeyWord ''NCLMFILES'' unread or misssing from '// & & 'input script ''roms.in''.' exit_flag=4 RETURN END IF END DO Npts=load_s2d(Nval, Cval, Cdim, line, label, iclmfile, & & igrid, Ngrids, nCLMfiles, NCLMcount, & & max_Ffiles, inp_lib, CLM) CASE ('NUDNAME') label='NUD - nudging coefficients' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, NUD) CASE ('SSFNAME') label='SSF - Sources/Sinks forcing fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, SSF) # if defined SSH_TIDES || defined UV_TIDES || \ defined TIDE_GENERATING_FORCES CASE ('TIDENAME') label='TIDE - Tidal forcing fields' Npts=load_s1d(Nval, Cval, Cdim, line, label, igrid, & & Ngrids, Nfiles, inp_lib, TIDE) # endif CASE ('NFFILES') Npts=load_i(Nval, Rval, Ngrids, nFfiles) DO ng=1,Ngrids IF (nFfiles(ng).le.0) THEN IF (Master) WRITE (out,260) 'NFFILES', nFfiles(ng), & & 'Must be equal or greater than one.' exit_flag=4 RETURN END IF END DO max_Ffiles=MAXVAL(nFfiles) allocate ( FRC(max_Ffiles,Ngrids) ) allocate ( FRCids(max_Ffiles,Ngrids) ) # if defined PIO_LIB && defined DISTRIBUTE allocate ( FRCdesc(max_Ffiles,Ngrids) ) # endif allocate ( Ncount(max_Ffiles,Ngrids) ) FRCids(1:max_Ffiles,1:Ngrids)=-1 # if defined PIO_LIB && defined DISTRIBUTE FRCdesc(1:max_Ffiles,1:Ngrids)%fh=-1 # endif Ncount(1:max_Ffiles,1:Ngrids)=0 CASE ('FRCNAME') label='FRC - forcing fields' DO ng=1,Ngrids IF (nFfiles(ng).lt.0) THEN IF (Master) WRITE (out,290) 'nFfiles = ', & & nFfiles(ng), & & 'KeyWord ''NFFILES'' unread or misssing from '// & & 'input script ''roms.in''.' exit_flag=4 RETURN END IF END DO Npts=load_s2d(Nval, Cval, Cdim, line, label, ifile, & & igrid, Ngrids, nFfiles, Ncount, max_Ffiles, & & inp_lib, FRC) CASE ('APARNAM') DO i=1,LEN(aparnam) aparnam(i:i)=blank END DO aparnam=TRIM(ADJUSTL(Cval(Nval))) CASE ('SPOSNAM') DO i=1,LEN(sposnam) sposnam(i:i)=blank END DO sposnam=TRIM(ADJUSTL(Cval(Nval))) CASE ('FPOSNAM') DO i=1,LEN(fposnam) fposnam(i:i)=blank END DO fposnam=TRIM(ADJUSTL(Cval(Nval))) CASE ('BPARNAM') DO i=1,LEN(bparnam) bparnam(i:i)=blank END DO bparnam=TRIM(ADJUSTL(Cval(Nval))) CASE ('SPARNAM') DO i=1,LEN(sparnam) sparnam(i:i)=blank END DO sparnam=TRIM(ADJUSTL(Cval(Nval))) CASE ('USRNAME') DO i=1,LEN(USRname) USRname(i:i)=blank END DO USRname=TRIM(ADJUSTL(Cval(Nval))) END SELECT IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN END IF END DO 10 IF (Master) WRITE (out,50) line exit_flag=4 RETURN 20 CLOSE (inp) ! !----------------------------------------------------------------------- ! Process input parameters. !----------------------------------------------------------------------- ! ! Check if nesting parameters "NestLayers", "GridsInLayer", and ! "GridNumber" have been assigned. The code below is necessary ! for compatability with old "roms.in" input scripts. ! #ifndef NESTING IF (.not.got_NestLayers) THEN NestLayers=1 IF (.not.allocated(GridsInLayer)) THEN allocate ( GridsInLayer(NestLayers) ) END IF IF (.not.allocated(GridNumber)) THEN allocate ( GridNumber(Ngrids,NestLayers) ) END IF END IF GridsInLayer=1 ! In case that users set illegal GridNumber=1 ! values in non-nesting applications #else IF (.not.got_NestLayers) THEN IF (Master) THEN WRITE (out,320) 'NestLayers', & & 'Add "NestLayers" keyword after "Ngrids".' exit_flag=5 RETURN END IF END IF IF (.not.allocated(GridsInLayer)) THEN IF (Master) THEN WRITE (out,320) 'GridsInLayer', & & 'Add "GridsInLayer" keyword after "NestLayers".' exit_flag=5 RETURN END IF END IF #endif ! ! Check if both point sources methodologies are activated. Only one ! method is allowed for a particular grid. Otherwise, the point ! source will be applies twice. ! ! we dont need this anymore ! DO ng=1,Ngrids ! IF (LuvSrc(ng).and.LwSrc(ng)) THEN ! IF (Master) THEN ! WRITE (out,261) 'LuvSrc', LuvSrc(ng), & ! & 'Because LwSrc is also ON; only one method is legal.' ! WRITE (out,261) 'LwSrc', LwSrc(ng), & ! & 'Because LuvSrc is also ON; only one method is legal.' ! END IF ! exit_flag=4 ! RETURN ! END IF ! END DO #ifdef SP4DVAR ! ! Check if the number of split time intervals (Nsaddle) in the saddle- ! point 4D-Var is legal for a simulation. ! DO ng=1,Ngrids IF (MOD((ntimes(ng)/nHIS(ng)),Nsaddle).ne.0) THEN IF (Master) THEN WRITE (out,350) 'Nsaddle = ', Nsaddle, ng, & & 'ntimes/nHIS = ', ntimes(ng)/nHIS(ng), & & 'MOD(ntimes/nHis,Nsaddle) = ', & & MOD((ntimes(ng)/nHIS(ng)),Nsaddle), & & 'must be zero for legal computations.', & & 'Revise input parameters.' END IF exit_flag=4 RETURN END IF END DO #endif # if defined FORWARD_FLUXES && \ (defined BULK_FLUXES || defined FRC_COUPLING) ! ! Make sure that logical output switches are activated for wind ! stress, shortwave radiation, and surface active tracers fluxes ! when using fluxes from the nonlinear model via (bulk_flux). ! DO ng=1,Ngrids Qout(idUsms,ng)=.TRUE. Qout(idVsms,ng)=.TRUE. # ifdef ATM_PRESS Qout(idPair,ng)=.TRUE. # endif # ifdef SOLVE3D Qout(idSrad,ng)=.TRUE. Qout(idTsur(itemp),ng)=.TRUE. # if defined EMINUSP || defined FRC_COUPLING Qout(idEmPf,ng)=.TRUE. # endif # endif END DO #endif #if defined FORWARD_MIXING && defined SOLVE3D && \ (defined GLS_MIXING || defined LMD_MIXING || \ defined MY25_MIXING) ! ! Make sure that logical output switches are activated for vertical ! diffusion and viscosity mixing coefficients. ! DO ng=1,Ngrids Hout(idSdif,ng)=.TRUE. Hout(idTdif,ng)=.TRUE. Hout(idVvis,ng)=.TRUE. END DO #endif #if defined FORCING_SV || defined SO_SEMI || \ defined STOCHASTIC_OPT ! ! Make sure that logical output switches are activated for the ! Forcing Singular Vectors or Stochastic Optimals variables. ! DO ng=1,Ngrids IF (SCALARS(ng)%Fstate(isFsur)) Hout(idFsur,ng)=.TRUE. # ifndef SOLVE3D IF (SCALARS(ng)%Fstate(isUbar)) Hout(idUbar,ng)=.TRUE. IF (SCALARS(ng)%Fstate(isVbar)) Hout(idVbar,ng)=.TRUE. # else IF (SCALARS(ng)%Fstate(isUvel)) Hout(idUvel,ng)=.TRUE. IF (SCALARS(ng)%Fstate(isVvel)) Hout(idVvel,ng)=.TRUE. DO itrc=1,NT(ng) IF (SCALARS(ng)%Fstate(isTvar(itrc))) THEN Hout(idTvar(itrc),ng)=.TRUE. END IF IF (SCALARS(ng)%Fstate(isTsur(itrc))) THEN Hout(idTsur(itrc),ng)=.TRUE. END IF END DO # endif IF (SCALARS(ng)%Fstate(isUstr)) Hout(idUsms,ng)=.TRUE. IF (SCALARS(ng)%Fstate(isVstr)) Hout(idVsms,ng)=.TRUE. END DO #endif ! ! Make sure that both component switches are activated when processing ! (Eastward,Northward) momentum components at RHO-points. ! DO ng=1,Ngrids IF (.not.Hout(idu2dE,ng).and.Hout(idv2dN,ng)) THEN Hout(idu2dE,ng)=.TRUE. END IF IF (.not.Hout(idv2dN,ng).and.Hout(idu2dE,ng)) THEN Hout(idv2dN,ng)=.TRUE. END IF #ifdef SOLVE3D IF (.not.Hout(idu3dE,ng).and.Hout(idv3dN,ng)) THEN Hout(idu3dE,ng)=.TRUE. END IF IF (.not.Hout(idv3dN,ng).and.Hout(idu3dE,ng)) THEN Hout(idv3dN,ng)=.TRUE. END IF #endif #ifdef AVERAGES IF (.not.Aout(idu2dE,ng).and.Aout(idv2dN,ng)) THEN Aout(idu2dE,ng)=.TRUE. END IF IF (.not.Aout(idv2dN,ng).and.Aout(idu2dE,ng)) THEN Aout(idv2dN,ng)=.TRUE. END IF # ifdef SOLVE3D IF (.not.Aout(idu3dE,ng).and.Aout(idv3dN,ng)) THEN Aout(idu3dE,ng)=.TRUE. END IF IF (.not.Aout(idv3dN,ng).and.Aout(idu3dE,ng)) THEN Aout(idv3dN,ng)=.TRUE. END IF # endif #endif END DO ! ! Set various parameters. ! DO ng=1,Ngrids ! ! Set switch to create history NetCDF file. ! IF ((nHIS(ng).gt.0).and.ANY(Hout(:,ng))) THEN LdefHIS(ng)=.TRUE. END IF ! ! Set switch to create quicksave NetCDF file. ! IF ((nQCK(ng).gt.0).and.ANY(Qout(:,ng))) THEN LdefQCK(ng)=.TRUE. END IF # if defined AVERAGES && defined AVERAGES_DETIDE && \ (defined SSH_TIDES || defined UV_TIDES) ! ! If restart, turn off definition of detide harmonics NetCDF file ! since we only need to update time-averaged accumulated harmonics. ! IF (nrrec(ng).ne.0) THEN LdefTIDE(ng)=.FALSE. END IF # endif ! ! Set switch to process climatology file. ! #ifndef ANA_SSH IF (LsshCLM(ng)) CLM_FILE(ng)=.TRUE. #endif #ifndef ANA_M2CLIMA IF (Lm2CLM(ng)) CLM_FILE(ng)=.TRUE. #endif #ifdef SOLVE3D # ifndef ANA_M3CLIMA IF (Lm3CLM(ng)) CLM_FILE(ng)=.TRUE. # endif # ifndef ANA_TCLIMA IF (ANY(LtracerCLM(:,ng))) CLM_FILE(ng)=.TRUE. # endif # if defined TS_MIX_CLIMA && (defined TS_DIF2 || defined TS_DIF4) CLM_FILE(ng)=.TRUE. # endif #endif #if defined I4DVAR || defined WEAK_CONSTRAINT ! ! If weak constraint, disallow recycling of the adjoint model. ! LcycleADJ(ng)=.FALSE. #endif #if defined AVERAGES && defined AVERAGES_DETIDE && \ (defined SSH_TIDES || defined UV_TIDES) ! ! If computing time-averaged detided fields, make sure the the regular ! time-averaged switches are activated for such variables. ! IF (.not.Aout(idFsur,ng).and.Aout(idFsuD,ng)) THEN Aout(idFsur,ng)=.TRUE. END IF IF (.not.Aout(idUbar,ng).and.Aout(idu2dD,ng)) THEN Aout(idUbar,ng)=.TRUE. END IF IF (.not.Aout(idVbar,ng).and.Aout(idv2dD,ng)) THEN Aout(idVbar,ng)=.TRUE. END IF # ifdef SOLVE3D IF (.not.Aout(idUvel,ng).and.Aout(idu3dD,ng)) THEN Aout(idUvel,ng)=.TRUE. END IF IF (.not.Aout(idVvel,ng).and.Aout(idv3dD,ng)) THEN Aout(idVvel,ng)=.TRUE. END IF DO itrc=1,NAT IF (.not.Aout(idTvar(itrc),ng).and. & & Aout(idTrcD(itrc),ng)) THEN Aout(idTvar(itrc),ng)=.TRUE. END IF END DO # endif #endif #if defined I4DVAR ! ! If strong constraint, write only final adjoint solution since only ! we are estimating initial conditions. ! nADJ(ng)=ntimes(ng) #endif #if defined RBL4DVAR || defined R4DVAR ! ! If dual formulation and strong constraint, limit writing the adjoint ! solution to the end of time-stepping. ! IF (nADJ(ng).gt.ntimes(ng)) THEN nADJ(ng)=ntimes(ng) END IF #endif #if defined I4DVAR || defined RBL4DVAR || defined R4DVAR ! ! Ensure that restart file is written only at least at the end. In ! sequential data assimilation the restart file can be used as the ! first guess for the next assimilation cycle. Notice that we can ! also use the DAINAME file for such purpose. However, in lagged ! data assimilation windows, "nRST" can be set to a value less than ! "ntimes" (say, daily) and "LcycleRST" is set to false. So, there ! are several initialization record possibilities for the next ! assimilation cycle. ! IF (nRST(ng).gt.ntimes(ng)) THEN nRST(ng)=ntimes(ng) END IF #endif #if defined STOCHASTIC_OPT && !defined STOCH_OPT_WHITE ! ! For red noise stochastic optimals, nADJ must equal the number of ! trapezoidal intervals. ! nADJ(ng)=ntimes(ng)/Nintervals #endif #if defined FOUR_DVAR || defined IMPULSE ! ! Set size of additonal dimension for error covariance normalization ! and standard deviation factors. ! # if defined CORRELATION || defined WEAK_CONSTRAINT # ifdef SP4DVAR NSA=2 # else IF (nADJ(ng).lt.ntimes(ng)) THEN NSA=2 ELSE NSA=1 END IF # ifdef CORRELATION ntimes=1 ! no time-stepping required # endif # endif # else NSA=1 # endif #endif #ifdef WEAK_CONSTRAINT # ifndef ARRAY_MODES ! ! If weak constraint assimilation, set tangent linear number of ! time-steps between writing of fields the same as the basic ! state. Disallow recycling. ! # ifdef SP4DVAR nTLM(ng)=ntimes(ng)/Nsaddle nADJ(ng)=nTLM(ng) nSPT(ng)=nTLM(ng) nSPA(ng)=nTLM(ng) nSCT(ng)=nTLM(ng) nSCA(ng)=nTLM(ng) LcycleTLM(ng)=.FALSE. # else nTLM(ng)=nHIS(ng) LcycleTLM(ng)=.FALSE. # endif # endif #endif #if defined TIME_CONV && defined WEAK_CONSTRAINT ! ! Set number of full state records needed for time convolutions. ! NrecTC(ng)=(ntimes(ng)/nADJ(ng))+1 #endif #if defined FOUR_DVAR ! ! If variational data assimilation, disallow creation of multiple ! output adjoint history files and the tangent linear history file ! in I4D-Var. Multiple TLM history are allow in R4d-Var and ! irrelevant in RBL4D-Var since TLM history is turned off. The ! adjoint history files are special at the unlimited dimension ! is not associated with time records. ! ndefADJ(ng)=0 # if defined I4DVAR || defined I4DVAR_ANA_SENSITIVITY ndefTLM(ng)=0 # endif #endif ! ! If appropriate, deactive outpur NetCDF files switches. ! IF (((nrrec(ng).eq.0).and.(nAVG(ng).gt.ntimes(ng))).or. & & (nAVG(ng).eq.0)) THEN LdefAVG(ng)=.FALSE. END IF IF (((nrrec(ng).eq.0).and.(nDIA(ng).gt.ntimes(ng))).or. & & (nDIA(ng).eq.0)) THEN LdefDIA(ng)=.FALSE. END IF IF (((nrrec(ng).eq.0).and.(nFLT(ng).gt.ntimes(ng))).or. & & (nFLT(ng).eq.0)) THEN LdefFLT(ng)=.FALSE. END IF IF (((nrrec(ng).eq.0).and.(nHIS(ng).gt.ntimes(ng))).or. & & (nHIS(ng).eq.0)) THEN LdefHIS(ng)=.FALSE. END IF IF (((nrrec(ng).eq.0).and.(nQCK(ng).gt.ntimes(ng))).or. & & (nQCK(ng).eq.0)) THEN LdefQCK(ng)=.FALSE. END IF IF (((nrrec(ng).eq.0).and.(nRST(ng).gt.ntimes(ng))).or. & & (nRST(ng).eq.0)) THEN LdefRST(ng)=.FALSE. END IF IF (((nrrec(ng).eq.0).and.(nSTA(ng).gt.ntimes(ng))).or. & & (nSTA(ng).eq.0)) THEN LdefSTA(ng)=.FALSE. END IF ! ! Determine switch to process boundary NetCDF file. ! ObcData(ng)=.FALSE. #ifndef ANA_FSOBC ObcData(ng)=ObcData(ng).or.ANY(LBC(:,isFsur,ng)%acquire) # if defined ADJOINT || defined TANGENT || defined TL_IOMS ObcData(ng)=ObcData(ng).or.ANY(ad_LBC(:,isFsur,ng)%acquire) # endif #endif #ifndef ANA_M2OBC ObcData(ng)=ObcData(ng).or.ANY(LBC(:,isUbar,ng)%acquire) & & .or.ANY(LBC(:,isVbar,ng)%acquire) # if defined ADJOINT || defined TANGENT || defined TL_IOMS ObcData(ng)=ObcData(ng).or.ANY(ad_LBC(:,isUbar,ng)%acquire) & & .or.ANY(ad_LBC(:,isVbar,ng)%acquire) # endif #endif #ifdef SOLVE3D # ifndef ANA_M3OBC ObcData(ng)=ObcData(ng).or.ANY(LBC(:,isUvel,ng)%acquire) & & .or.ANY(LBC(:,isVvel,ng)%acquire) # if defined ADJOINT || defined TANGENT || defined TL_IOMS ObcData(ng)=ObcData(ng).or.ANY(ad_LBC(:,isUvel,ng)%acquire) & & .or.ANY(ad_LBC(:,isVvel,ng)%acquire) # endif # endif # ifndef ANA_TOBC ObcData(ng)=ObcData(ng).or.ANY(LBC(:,isTvar(:),ng)%acquire) # if defined ADJOINT || defined TANGENT || defined TL_IOMS ObcData(ng)=ObcData(ng).or.ANY(ad_LBC(:,isTvar(:),ng)%acquire) # endif # endif #endif END DO ! ! If multiple output files, edit derived type structure to store the ! information about all multi-files. ! DO ng=1,Ngrids IF ((nHIS(ng).gt.0).and.(ndefHIS(ng).gt.0)) THEN OutFiles=ntimes(ng)/ndefHIS(ng) IF ((nHIS(ng).eq.ndefHIS(ng)).or. & & (MOD(ntimes(ng),ndefHIS(ng)).ge.nHIS(ng))) THEN OutFiles=Outfiles+1 END IF CALL edit_file_struct (ng, OutFiles, HIS) END IF IF ((nQCK(ng).gt.0).and.(ndefQCK(ng).gt.0)) THEN OutFiles=ntimes(ng)/ndefQCK(ng) IF ((nQCK(ng).eq.ndefQCK(ng)).or. & & (MOD(ntimes(ng),ndefQCK(ng)).ge.nQCK(ng))) THEN OutFiles=Outfiles+1 END IF CALL edit_file_struct (ng, OutFiles, QCK) END IF #ifdef ADJOINT IF ((nADJ(ng).gt.0).and.(ndefADJ(ng).gt.0)) THEN OutFiles=ntimes(ng)/ndefADJ(ng) IF ((nADJ(ng).eq.ndefADJ(ng)).or. & & (MOD(ntimes(ng),ndefADJ(ng)).ge.nADJ(ng))) THEN OutFiles=Outfiles+1 END IF CALL edit_file_struct (ng, OutFiles, ADM) END IF #endif #ifdef AVERAGES IF ((nAVG(ng).gt.0).and.(ndefAVG(ng).gt.0)) THEN OutFiles=ntimes(ng)/ndefAVG(ng) IF ((nAVG(ng).eq.ndefAVG(ng)).or. & & (MOD(ntimes(ng),ndefAVG(ng)).ge.nAVG(ng))) THEN OutFiles=Outfiles+1 END IF CALL edit_file_struct (ng, OutFiles, AVG) AVG(ng)%load=0 ! because delayed creation of NetCDF file END IF ! due to time-averaging #endif #ifdef DIAGNOSTICS IF ((nDIA(ng).gt.0).and.(ndefDIA(ng).gt.0)) THEN OutFiles=ntimes(ng)/ndefDIA(ng) IF ((nDIA(ng).eq.ndefDIA(ng)).or. & & (MOD(ntimes(ng),ndefDIA(ng)).ge.nDIA(ng))) THEN OutFiles=Outfiles+1 END IF CALL edit_file_struct (ng, OutFiles, DIA) DIA(ng)%load=0 ! because delayed creation of NetCDF file END IF ! due to time-averaging #endif #if defined TANGENT || defined TL_IOMS IF ((nTLM(ng).gt.0).and.(ndefTLM(ng).gt.0)) THEN OutFiles=ntimes(ng)/ndefTLM(ng) IF ((nTLM(ng).eq.ndefTLM(ng)).or. & & (MOD(ntimes(ng),ndefTLM(ng)).ge.nTLM(ng))) THEN OutFiles=Outfiles+1 END IF CALL edit_file_struct (ng, OutFiles, TLM) END IF #endif END DO #ifdef FORWARD_FLUXES ! ! Allocate and initialize BLK I/O structure with the same values as ! QCK. ! DO ng=1,Ngrids OutFiles=QCK(ng)%Nfiles allocate ( BLK(ng)%Nrec(OutFiles) ) allocate ( BLK(ng)%time_min(OutFiles) ) allocate ( BLK(ng)%time_max(OutFiles) ) allocate ( BLK(ng)%Vid(NV) ) allocate ( BLK(ng)%Tid(MT) ) allocate ( BLK(ng)%files(OutFiles) ) BLK(ng)%Nfiles=OutFiles BLK(ng)%Fcount=1 BLK(ng)%Rindex=0 BLK(ng)%ncid=-1 BLK(ng)%Vid(1:NV)=-1 BLK(ng)%Tid(1:MT)=-1 BLK(ng)%Nrec=0 BLK(ng)%time_min=0.0_dp BLK(ng)%time_max=0.0_dp BLK(ng)%label='BLK - nonlinear model bulk fluxes' lstr=LEN(BLK(ng)%name) DO i=1,lstr BLK(ng)%head(i:i)=blank BLK(ng)%base(i:i)=blank BLK(ng)%name(i:i)=blank END DO DO k=1,OutFiles DO i=1,lstr BLK(ng)%files(k)(i:i)=blank END DO END DO END DO #endif ! !----------------------------------------------------------------------- ! Report input parameters. !----------------------------------------------------------------------- ! #if defined PIO_LIB && defined DISTRIBUTE # ifdef ASYNCHRONOUS_SCORPIO ! ! If SCORPIO library and asynchronous I/O, split the distributed- ! memory communicator into disjointed computational and dedicated ! I/O processes. (HGA: It doesn't work. There are bugs in the ! SCORPIO library). ! CALL set_pio_async IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN # endif ! ! Initialize PIO system for either synchronous or asynchronous I/O. ! CALL initialize_pio IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ! ! Reset Lwrite switch since the Master may have changed when splitting ! the initial communicator. ! Lwrite=Master ! ! Report to standard output. ! #endif IF (Master.and.Lwrite) THEN lstr=INDEX(my_fflags, 'free')-2 IF (lstr.le.0) lstr=LEN_TRIM(my_fflags) WRITE (out,60) TRIM(title), TRIM(my_os), TRIM(my_cpu), & & TRIM(my_fort), TRIM(my_fc), my_fflags(1:lstr), & #ifdef DISTRIBUTE # if defined PIO_LIB && \ (defined ASYNCHRONOUS_PIO || defined ASYNCHRONOUS_SCORPIO) & PEER_COMM_WORLD, PeerSize, & & OCN_COMM_WORLD, numthreads, & & IO_COMM_WORLD, pio_NumIOtasks, TRIM(CioRanks), & # ifdef ASYNCHRONOUS_SCORPIO & INTER_COMM_WORLD, & # endif # endif # ifdef DISJOINTED & FULL_COMM_WORLD, FullSize, NsubGroups, & & FORK_COMM_WORLD, ForkSize, & & 0, (FullSize/ForkSize)-1, & # ifdef CONCURRENT_KERNEL & TASK_COMM_WORLD, TaskSize, & & 0, (FullSize/TaskSize)-1, & # endif # endif # if !(defined PIO_LIB && \ (defined ASYNCHRONOUS_PIO || defined ASYNCHRONOUS_SCORPIO)) && \ !defined DISJOINTED & OCN_COMM_WORLD, numthreads, & # endif & TRIM(Iname), & #endif #ifdef GIT_URL & TRIM(git_url), TRIM(git_rev), & #endif & TRIM(svn_url), TRIM(svn_rev), & & TRIM(Rdir), TRIM(Hdir), TRIM(Hfile), TRIM(Adir) ! DO ng=1,Ngrids ! ! Report grid size and domain decomposition. Check for correct tile ! decomposition. ! #ifdef DISTRIBUTE WRITE (out,70) ng, Lm(ng), Mm(ng), N(ng), numthreads, & & NtileI(ng), NtileJ(ng) maxPETs=numthreads ! regular unsplit nPETs=NtileI(ng)*NtileJ(ng) ! values label='NtileI * NtileJ =' ! # ifdef SP4DVAR # ifdef DISJOINTED # ifdef CONCURRENT_KERNEL maxPETs=FullSize nPETs=NtileI(ng)*NtileJ(ng)*Nsaddle*2 label='NtileI * NtileJ * Nsaddle * 2 =' # else maxPETs=FullSize nPETs=NtileI(ng)*NtileJ(ng)*Nsaddle label='NtileI * NtileJ * Nsaddle =' # endif # else maxPETs=numthreads nPETs=NtileI(ng)*NtileJ(ng) label='NtileI * NtileJ =' # endif # endif # if defined PIO_LIB && defined DISTRIBUTE && \ (defined ASYNCHRONOUS_PIO || defined ASYNCHRONOUS_SCORPIO) maxPETs=PeerSize IF ((inp_lib.eq.io_pio).or.(out_lib.eq.io_pio)) THEN nPETs=(NtileI(ng)*NtileJ(ng))+pio_NumIOtasks label='(NtileI * NtileJ) + pio_NumIOtasks =' ELSE nPETs=(NtileI(ng)*NtileJ(ng)) label='NtileI * NtileJ =' END IF # endif IF (nPETs.ne.maxPETs) THEN WRITE (out,80) ng, TRIM(label), nPETS, maxPETs exit_flag=6 RETURN END IF #else WRITE (out,90) ng, Lm(ng), Mm(ng), N(ng), numthreads, & & NtileI(ng), NtileJ(ng) IF (NtileI(ng)*NtileJ(ng).le.0) THEN WRITE (out,100) ng exit_flag=6 RETURN END IF IF (MOD(NtileI(ng)*NtileJ(ng),numthreads).ne.0) THEN WRITE (out,100) ng exit_flag=6 RETURN END IF #endif ! ! Report physical parameters. ! WRITE (out,110) ng WRITE (out,120) ntimes(ng), 'ntimes', & & 'Number of timesteps for 3-D equations.' #if defined RBL4DVAR_FCT_SENSITIVITY WRITE (out,120) ntimes_ana(ng), 'ntimes_ana', & & 'Observation impacts analysis interval.' WRITE (out,120) ntimes_fct(ng), 'ntimes_fct', & & 'Observation impacts forecast interval.' #endif WRITE (out,140) dt(ng), 'dt', & & 'Timestep size (s) for 3-D equations.' WRITE (out,130) ndtfast(ng), 'ndtfast', & & 'Number of timesteps for 2-D equations between', & & 'each 3D timestep.' WRITE (out,120) ERstr, 'ERstr', & & 'Starting ensemble/perturbation run number.' WRITE (out,120) ERend, 'ERend', & & 'Ending ensemble/perturbation run number.' #ifdef FOUR_DVAR WRITE (out,120) Nouter, 'Nouter', & & 'Maximun number of 4DVAR outer loop iterations.' #endif #if defined I4DVAR || defined I4DVAR_ANA_SENSITIVITY || \ defined HESSIAN_FSV || defined HESSIAN_SO || \ defined HESSIAN_SV || defined SENSITIVITY_4DVAR || \ defined RBL4DVAR || defined R4DVAR || \ defined SP4DVAR || defined TL_RBL4DVAR || \ defined TL_R4DVAR WRITE (out,120) Ninner, 'Ninner', & & 'Maximum number of 4D-Var inner loop iterations.' # ifdef SP4DVAR WRITE (out,120) Nsaddle, 'Nsaddle', & & 'Number of intervals for saddle point algorithm.' # endif #endif #ifdef STOCHASTIC_OPT WRITE (out,120) Nintervals, 'Nintervals', & & 'Number of stochastic optimals timestep intervals.' #endif #ifdef PROPAGATOR WRITE (out,120) NEV, 'NEV', & & 'Number of Lanczos/Arnoldi eigenvalues to compute.' WRITE (out,120) NCV, 'NCV', & & 'Number of Lanczos/Arnoldi eigenvectors to compute.' #endif WRITE (out,120) nrrec(ng), 'nrrec', & & 'Number of restart records to read from disk.' WRITE (out,170) LcycleRST(ng), 'LcycleRST', & & 'Switch to recycle time-records in restart file.' WRITE (out,130) nRST(ng), 'nRST', & & 'Number of timesteps between the writing of data', & & 'into restart fields.' WRITE (out,130) ninfo(ng), 'ninfo', & & 'Number of timesteps between print of information', & & 'to standard output.' #ifdef STATIONS WRITE (out,130) nSTA(ng), 'nSTA', & & 'Number of timesteps between the writing of data', & & 'the stations file.' #endif #ifdef FLOATS WRITE (out,130) nFLT(ng), 'nFLT', & & 'Number of timesteps between the writing of data', & & 'into floats file.' #endif WRITE (out,170) ldefout(ng), 'ldefout', & & 'Switch to create a new output NetCDF file(s).' WRITE (out,130) nHIS(ng), 'nHIS', & & 'Number of timesteps between the writing fields', & & 'into history file.' IF (ndefHIS(ng).gt.0) THEN WRITE (out,130) ndefHIS(ng), 'ndefHIS', & & 'Number of timesteps between creation of new', & & 'history files.' END IF WRITE (out,130) nQCK(ng), 'nQCK', & & 'Number of timesteps between the writing fields', & & 'into quicksave file.' IF (ndefQCK(ng).gt.0) THEN WRITE (out,130) ndefQCK(ng), 'ndefQCK', & & 'Number of timesteps between creation of new', & & 'brief snpashots files.' END IF #if defined AVERAGES || \ (defined AD_AVERAGES && defined ADJOINT) || \ (defined RP_AVERAGES && defined TL_IOMS) || \ (defined TL_AVERAGES && defined TANGENT) WRITE (out,130) ntsAVG(ng), 'ntsAVG', & & 'Starting timestep for the accumulation of output', & & 'time-averaged data.' WRITE (out,130) nAVG(ng), 'nAVG', & & 'Number of timesteps between the writing of', & & 'time-averaged data into averages file.' IF (ndefAVG(ng).gt.0) THEN WRITE (out,130) ndefAVG(ng), 'ndefAVG', & & 'Number of timesteps between creation of new', & & 'time-averaged file.' END IF #endif #ifdef DIAGNOSTICS WRITE (out,130) ntsDIA(ng), 'ntsDIA', & & 'Starting timestep for the accumulation of output', & & 'time-averaged diagnostics data.' WRITE (out,130) nDIA(ng), 'nDIA', & & 'Number of timesteps between the writing of', & & 'time-averaged data into diagnostics file.' IF (ndefDIA(ng).gt.0) THEN WRITE (out,130) ndefDIA(ng), 'ndefDIA', & & 'Number of timesteps between creation of new', & & 'diagnostic file.' END IF #endif #ifdef TANGENT WRITE (out,170) LcycleTLM(ng), 'LcycleTLM', & & 'Switch to recycle time-records in tangent file.' WRITE (out,130) nTLM(ng), 'nTLM', & & 'Number of timesteps between the writing of', & & 'data into tangent file.' IF (ndefTLM(ng).gt.0) THEN WRITE (out,130) ndefTLM(ng), 'ndefTLM', & & 'Number of timesteps between creation of new', & & 'tangent file.' END IF #endif #ifdef ADJOINT WRITE (out,170) LcycleADJ(ng), 'LcycleADJ', & & 'Switch to recycle time-records in adjoint file.' WRITE (out,130) nADJ(ng), 'nADJ', & & 'Number of timesteps between the writing of', & & 'data into adjoint file.' IF (ndefADJ(ng).gt.0) THEN WRITE (out,130) ndefADJ(ng), 'ndefADJ', & & 'Number of timesteps between creation of new', & & 'adjoint file.' END IF #endif #ifdef ADJUST_BOUNDARY WRITE (text,'(i8)') Nbrec(ng) WRITE (out,130) nOBC(ng), 'nOBC', & & 'Number of timesteps between 4D-Var adjustment of', & & 'open boundaries, Nbrec = '//TRIM(ADJUSTL(text)) IF (Nbrec(ng).gt.500) THEN WRITE (out,'(t32,a)') 'WARNING: ''Nbrec'' is large, '// & & 'change ''ntimes'' or ''nOBC'' to lower memory demand.' END IF #endif #if defined ADJUST_STFLUX || defined ADJUST_WSTRESS WRITE (text,'(i8)') Nfrec(ng) WRITE (out,130) nSFF(ng), 'nSFF', & & 'Number of timesteps between 4D-Var adjustment of', & & 'surface forcing fields, Nfrec = '//TRIM(ADJUSTL(text)) IF (Nfrec(ng).gt.500) THEN WRITE (out,'(t32,a)') 'WARNING: ''Nfrec'' is large, '// & & 'change ''ntimes'' or ''nSFF'' to lower memory demand.' END IF #endif #ifdef PROPAGATOR WRITE (out,170) LmultiGST, 'LmultiGST', & & 'Switch to write one GST eigenvector per file.' WRITE (out,170) LrstGST, 'LrstGST', & & 'Switch to restart GST analysis.' WRITE (out,120) MaxIterGST, 'MaxIterGST', & & 'Maximum number of GST algorithm iterations.' WRITE (out,130) nGST, 'nGST', & & 'Number of GST iterations between storing check', & & 'pointing data into NetCDF file.' WRITE (out,210) Ritz_tol, 'Ritz_tol', & & 'Relative accuracy of Ritz values computed in the', & & 'GST analysis.' #endif #ifdef SOLVE3D # ifdef TS_DIF2 DO i=1,NAT+NPT itrc=i # ifdef T_PASSIVE IF (i.gt.NAT) itrc=inert(i-NAT) # endif WRITE (out,190) nl_tnu2(itrc,ng), 'nl_tnu2', itrc, & & 'NLM Horizontal, harmonic mixing coefficient', & & '(m2/s) for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) # ifdef ADJOINT WRITE (out,190) ad_tnu2(itrc,ng), 'ad_tnu2', itrc, & & 'ADM Horizontal, harmonic mixing coefficient', & & '(m2/s) for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) # endif # if defined TANGENT || defined TL_IOMS WRITE (out,190) tl_tnu2(itrc,ng), 'tl_tnu2', itrc, & & 'TLM Horizontal, harmonic mixing coefficient', & & '(m2/s) for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) # endif END DO # endif # ifdef TS_DIF4 DO i=1,NAT+NPT itrc=i # ifdef T_PASSIVE IF (i.gt.NAT) itrc=inert(i-NAT) # endif WRITE (out,190) nl_tnu4(itrc,ng), 'nl_tnu4', itrc, & & 'NLM Horizontal, biharmonic mixing coefficient', & & '(m4/s) for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) # ifdef ADJOINT WRITE (out,190) ad_tnu4(itrc,ng), 'ad_tnu4', itrc, & & 'ADM Horizontal, biharmonic mixing coefficient', & & '(m4/s) for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) # endif # if defined TANGENT || defined TL_IOMS WRITE (out,190) tl_tnu4(itrc,ng), 'tl_tnu4', itrc, & & 'TLM Horizontal, biharmonic mixing coefficient', & & '(m4/s) for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) # endif END DO # endif #endif #ifdef UV_VIS2 WRITE (out,210) nl_visc2(ng), 'nl_visc2', & & 'NLM Horizontal, harmonic mixing coefficient', & & '(m2/s) for momentum.' # ifdef ADJOINT WRITE (out,210) ad_visc2(ng), 'ad_visc2', & & 'ADM Horizontal, harmonic mixing coefficient', & & '(m2/s) for momentum.' # endif # if defined TANGENT || defined TL_IOMS WRITE (out,210) tl_visc2(ng), 'tl_visc2', & & 'TLM Horizontal, harmonic mixing coefficient', & & '(m2/s) for momentum.' # endif #endif #ifdef UV_VIS4 WRITE (out,210) nl_visc4(ng), 'nl_visc4', & & 'NLM Horizontal, biharmonic mixing coefficient', & & '(m4/s) for momentum.' # ifdef ADJOINT WRITE (out,210) ad_visc4(ng), 'ad_visc4', & & 'ADM Horizontal, biharmonic mixing coefficient', & & '(m4/s) for momentum.' # endif # if defined TANGENT || defined TL_IOMS WRITE (out,210) tl_visc4(ng), 'tl_visc4', & & 'TLM Horizontal, biharmonic mixing coefficient', & & '(m4/s) for momentum.' # endif #endif IF (LuvSponge(ng)) THEN WRITE (out,170) LuvSponge(ng), 'LuvSponge', & & 'Turning ON sponge on horizontal momentum.' ELSE WRITE (out,170) LuvSponge(ng), 'LuvSponge', & & 'Turning OFF sponge on horizontal momentum.' END IF #ifdef SOLVE3D DO i=1,NAT IF (LtracerSponge(i,ng)) THEN WRITE (out,185) LtracerSponge(i,ng), 'LtracerSponge', i, & & 'Turning ON sponge on tracer ', i, & & TRIM(Vname(1,idTvar(i))) ELSE WRITE (out,185) LtracerSponge(i,ng), 'LtracerSponge', i, & & 'Turning OFF sponge on tracer ', i, & & TRIM(Vname(1,idTvar(i))) END IF END DO # ifdef T_PASSIVE DO itrc=1,NPT i=inert(itrc) IF (LtracerSponge(i,ng)) THEN WRITE (out,185) LtracerSponge(i,ng), 'LtracerSponge', i, & & 'Turning ON sponge on tracer ', i, & & TRIM(Vname(1,idTvar(i))) ELSE WRITE (out,185) LtracerSponge(i,ng), 'LtracerSponge', i, & & 'Turning OFF sponge on tracer ', i, & & TRIM(Vname(1,idTvar(i))) END IF END DO # endif DO i=1,NAT+NPT itrc=i # ifdef T_PASSIVE IF (i.gt.NAT) itrc=inert(i-NAT) # endif WRITE (out,190) Akt_bak(itrc,ng), 'Akt_bak', itrc, & & 'Background vertical mixing coefficient (m2/s)', & & 'for tracer ', itrc, TRIM(Vname(1,idTvar(itrc))) END DO # if defined LIMIT_VDIFF && \ (defined GLS_MIXING || defined LMD_MIXING || defined MY25_MIXING) DO itrc=1,NAT WRITE (out,190) Akt_limit(itrc,ng), 'Akt_limit', itrc, & & 'Vertical diffusion upper threshold (m2/s)', & & 'for tracer ', itrc, TRIM(Vname(1,idTvar(itrc))) END DO # endif WRITE (out,210) Akv_bak(ng), 'Akv_bak', & & 'Background vertical mixing coefficient (m2/s)', & & 'for momentum.' # if defined LIMIT_VVISC && \ (defined GLS_MIXING || defined LMD_MIXING || defined MY25_MIXING) WRITE (out,210) Akv_limit(ng), 'Akv_limit', & & 'Vertical viscosity upper threshold (m2/s)', & & 'for momentum.' # endif # if defined MY25_MIXING || defined GLS_MIXING WRITE (out,210) Akk_bak(ng), 'Akk_bak', & & 'Background vertical mixing coefficient (m2/s)', & & 'for turbulent energy.' WRITE (out,210) Akp_bak(ng), 'Akp_bak', & & 'Background vertical mixing coefficient (m2/s)', & & 'for turbulent generic statistical field.' # ifdef TKE_DIF2 WRITE (out,210) tkenu2(ng), 'tkenu2', & & 'Horizontal, harmonic mixing coefficient (m2/s)', & & 'for turbulent energy.' # endif # ifdef TKE_DIF4 WRITE (out,210) tkenu4(ng), 'tkenu4', & & 'Horizontal, biharmonic mixing coefficient (m4/s)', & & 'for turbulent energy.' # endif # endif # ifdef GLS_MIXING WRITE (out,140) gls_p(ng), 'gls_p', & & 'GLS stability exponent.' WRITE (out,140) gls_m(ng), 'gls_m', & & 'GLS turbulent kinetic energy exponent.' WRITE (out,140) gls_n(ng), 'gls_n', & & 'GLS turbulent length scale exponent.' WRITE (out,200) gls_Kmin(ng), 'gls_Kmin', & & 'GLS minimum value of turbulent kinetic energy.' WRITE (out,200) gls_Pmin(ng), 'gls_Pmin', & & 'GLS minimum value of dissipation.' WRITE (out,200) gls_cmu0(ng), 'gls_cmu0', & & 'GLS stability coefficient.' WRITE (out,200) gls_c1(ng), 'gls_c1', & & 'GLS shear production coefficient.' WRITE (out,200) gls_c2(ng), 'gls_c2', & & 'GLS dissipation coefficient.' WRITE (out,200) gls_c3m(ng), 'gls_c3m', & & 'GLS stable buoyancy production coefficient.' WRITE (out,200) gls_c3p(ng), 'gls_c3p', & & 'GLS unstable buoyancy production coefficient.' WRITE (out,200) gls_sigk(ng), 'gls_sigk', & & 'GLS constant Schmidt number for TKE.' WRITE (out,200) gls_sigp(ng), 'gls_sigp', & & 'GLS constant Schmidt number for PSI.' WRITE (out,140) charnok_alpha(ng), 'charnok_alpha', & & 'Charnok factor for Zos calculation.' WRITE (out,140) zos_hsig_alpha(ng), 'zos_hsig_alpha', & & 'Factor for Zos calculation using Hsig(Awave).' WRITE (out,140) sz_alpha(ng), 'sz_alpha', & & 'Factor for Wave dissipation surface tke flux .' WRITE (out,140) crgban_cw(ng), 'crgban_cw', & & 'Factor for Craig/Banner surface tke flux.' # endif # ifdef FORWARD_MIXING DO i=1,NAT+NPT itrc=i # ifdef T_PASSIVE IF (i.gt.NAT) itrc=inert(i-NAT) # endif # ifdef ADJOINT WRITE (out,190) ad_Akt_fac(itrc,ng), 'ad_Akt_fac', itrc, & & 'ADM basic state vertical mixing scale factor', & & 'for tracer ', itrc, TRIM(Vname(1,idTvar(itrc))) # endif # if defined TANGENT || defined TL_IOMS WRITE (out,190) tl_Akt_fac(itrc,ng), 'tl_Akt_fac', itrc, & & 'TLM basic state vertical mixing scale factor', & & 'for tracer ', itrc, TRIM(Vname(1,idTvar(itrc))) # endif END DO # ifdef ADJOINT WRITE (out,210) ad_Akv_fac(ng), 'ad_Akv_fac', & & 'ADM basic state vertical mixing scale factor', & & 'for momentum.' # endif # if defined TANGENT || defined TL_IOMS WRITE (out,210) tl_Akv_fac(ng), 'tl_Akv_fac', & & 'TLM basic state vertical mixing scale factor', & & 'for momentum.' # endif # endif #endif WRITE (out,200) rdrg(ng), 'rdrg', & & 'Linear bottom drag coefficient (m/s).' WRITE (out,200) rdrg2(ng), 'rdrg2', & & 'Quadratic bottom drag coefficient.' WRITE (out,200) Zob(ng), 'Zob', & & 'Bottom roughness (m).' #ifdef BBL_MODEL IF (Zob(ng).le.0.0_r8) THEN WRITE (out,265) 'Zob = ', Zob(ng), & & 'It must be greater than zero when BBL is activated.' exit_flag=5 RETURN END IF #endif #ifdef SOLVE3D # ifdef GLS_MIXING WRITE (out,200) Zos(ng), 'Zos', & & 'Surface roughness (m).' # endif # ifdef BULK_FLUXES WRITE (out,200) blk_ZQ(ng), 'blk_ZQ', & & 'Height (m) of surface air humidity measurement.' IF (blk_ZQ(ng).le.0.0_r8) THEN WRITE (out,265) 'blk_ZQ = ', blk_ZQ(ng), & & 'It must be greater than zero.' exit_flag=5 RETURN END IF WRITE (out,200) blk_ZT(ng), 'blk_ZT', & & 'Height (m) of surface air temperature measurement.' IF (blk_ZT(ng).le.0.0_r8) THEN WRITE (out,265) 'blk_ZT = ', blk_ZT(ng), & & 'It must be greater than zero.' exit_flag=5 RETURN END IF WRITE (out,200) blk_ZW(ng), 'blk_ZW', & & 'Height (m) of surface winds measurement.' IF (blk_ZW(ng).le.0.0_r8) THEN WRITE (out,265) 'blk_ZW = ', blk_ZW(ng), & & 'It must be greater than zero.' exit_flag=5 RETURN END IF # endif #endif #if defined WET_DRY WRITE (out,200) Dcrit(ng), 'Dcrit', & & 'Minimum depth for wetting and drying (m).' #endif #ifdef SOLVE3D # if defined LMD_SKPP || defined SOLAR_SOURCE WRITE (out,120) lmd_Jwt(ng), 'lmd_Jwt', & & 'Jerlov water type.' IF ((lmd_Jwt(ng).lt.1).or.(lmd_Jwt(ng).gt.9)) THEN WRITE (out,260) 'lmd_Jwt = ', lmd_Jwt(ng), & & 'It must between one and nine.' exit_flag=5 RETURN END IF # endif # ifdef BODYFORCE WRITE (out,130) levsfrc(ng), 'levsfrc', & & 'Deepest level to apply surface stress as a', & & 'bodyforce.' IF ((levsfrc(ng).lt.1).or.(levsfrc(ng).gt.N(ng))) THEN WRITE (out,260) 'levsfrc = ', levsfrc(ng), & & 'Out of range surface bodyforce level.' exit_flag=5 RETURN END IF WRITE (out,130) levbfrc(ng), 'levbfrc', & & 'Shallowest level to apply bottom stress as a', & & 'bodyforce.' IF ((levbfrc(ng).lt.1).or.(levbfrc(ng).gt.N(ng))) THEN WRITE (out,260) 'levbfrc = ', levbfrc(ng), & & 'Out of range bottom bodyforce level.' exit_flag=5 RETURN END IF # endif #endif #ifdef SOLVE3D WRITE (out,120) Vtransform(ng), 'Vtransform', & & 'S-coordinate transformation equation.' WRITE (out,120) Vstretching(ng), 'Vstretching', & & 'S-coordinate stretching function.' WRITE (out,200) theta_s(ng), 'theta_s', & & 'S-coordinate surface control parameter.' WRITE (out,200) theta_b(ng), 'theta_b', & & 'S-coordinate bottom control parameter.' IF (Tcline(ng).gt.1.0E+5_r8) THEN WRITE (out,210) Tcline(ng), 'Tcline', & & 'S-coordinate surface/bottom layer width (m) used', & & 'in vertical coordinate stretching.' ELSE WRITE (out,160) Tcline(ng), 'Tcline', & & 'S-coordinate surface/bottom layer width (m) used', & & 'in vertical coordinate stretching.' END IF #endif WRITE (out,140) rho0, 'rho0', & & 'Mean density (kg/m3) for Boussinesq approximation.' #if defined SOLVE3D && (defined FOUR_DVAR || defined PROPAGATOR) WRITE (out,200) bvf_bak, 'bvf_bak', & & 'Background Brunt-Vaisala frequency squared (1/s2).' #endif #ifdef TIDE_GENERATING_FORCES WRITE (out,170) Lnodal, 'Lnodal', & & 'Switch to apply a 18.5-year lunar nodal correction.' #endif WRITE (out,140) dstart, 'dstart', & & 'Time-stamp assigned to model initialization (days).' #if defined SSH_TIDES || defined UV_TIDES WRITE (out,140) tide_start, 'tide_start', & & 'Reference time origin for tidal forcing (days).' #endif WRITE (out,150) time_ref, 'time_ref', & & 'Reference time for units attribute (yyyymmdd.dd)' #ifdef SOLVE3D DO i=1,NAT+NPT itrc=i # ifdef T_PASSIVE IF (i.gt.NAT) itrc=inert(i-NAT) # endif WRITE (out,190) Tnudg(itrc,ng), 'Tnudg', itrc, & & 'Nudging/relaxation time scale (days)', & & 'for tracer ', itrc, TRIM(Vname(1,idTvar(itrc))) END DO # if defined SCORRECTION && defined SALINITY IF (Tnudg(isalt,ng).le.0.0_r8) THEN WRITE (out,265) 'Tnudg(isalt) = ', Tnudg(isalt,ng), & & 'Must be greater than zero for salt flux correction.' exit_flag=5 RETURN END IF # endif #endif WRITE (out,210) Znudg(ng), 'Znudg', & & 'Nudging/relaxation time scale (days)', & & 'for free-surface.' WRITE (out,210) M2nudg(ng), 'M2nudg', & & 'Nudging/relaxation time scale (days)', & & 'for 2D momentum.' #ifdef SOLVE3D WRITE (out,210) M3nudg(ng), 'M3nudg', & & 'Nudging/relaxation time scale (days)', & & 'for 3D momentum.' #endif WRITE (out,210) obcfac(ng), 'obcfac', & & 'Factor between passive and active', & & 'open boundary conditions.' WRITE (out,170) VolCons(1,ng), 'VolCons(1)', & & 'NLM western edge boundary volume conservation.' WRITE (out,170) VolCons(2,ng), 'VolCons(2)', & & 'NLM southern edge boundary volume conservation.' WRITE (out,170) VolCons(3,ng), 'VolCons(3)', & & 'NLM eastern edge boundary volume conservation.' WRITE (out,170) VolCons(4,ng), 'VolCons(4)', & & 'NLM northern edge boundary volume conservation.' #ifdef ADJOINT WRITE (out,170) ad_VolCons(1,ng), 'ad_VolCons(1)', & & 'ADM western edge boundary volume conservation.' WRITE (out,170) ad_VolCons(2,ng), 'ad_VolCons(2)', & & 'ADM southern edge boundary volume conservation.' WRITE (out,170) ad_VolCons(3,ng), 'ad_VolCons(3)', & & 'ADM eastern edge boundary volume conservation.' WRITE (out,170) ad_VolCons(4,ng), 'ad_VolCons(4)', & & 'ADM northern edge boundary volume conservation.' #endif #if defined TANGENT || defined TL_IOMS WRITE (out,170) tl_VolCons(1,ng), 'tl_VolCons(1)', & & 'TLM western edge boundary volume conservation.' WRITE (out,170) tl_VolCons(2,ng), 'tl_VolCons(2)', & & 'TLM southern edge boundary volume conservation.' WRITE (out,170) tl_VolCons(3,ng), 'tl_VolCons(3)', & & 'TLM eastern edge boundary volume conservation.' WRITE (out,170) tl_VolCons(4,ng), 'tl_VolCons(4)', & & 'TLM northern edge boundary volume conservation.' #endif #ifdef SOLVE3D WRITE (out,140) T0(ng), 'T0', & & 'Background potential temperature (C) constant.' WRITE (out,140) S0(ng), 'S0', & & 'Background salinity (PSU) constant.' # ifndef NONLIN_EOS WRITE (out,160) R0(ng), 'R0', & & 'Background density (kg/m3) used in linear Equation', & & 'of State.' # endif # if !defined NONLIN_EOS || defined FOUR_DVAR || defined PROPAGATOR WRITE (out,200) Tcoef(ng), 'Tcoef', & & 'Thermal expansion coefficient (1/Celsius).' WRITE (out,200) Scoef(ng), 'Scoef', & & 'Saline contraction coefficient (1/PSU).' # endif #endif WRITE (out,160) gamma2(ng), 'gamma2', & & 'Slipperiness variable: free-slip (1.0) or ', & & ' no-slip (-1.0).' IF (LuvSrc(ng)) THEN WRITE (out,170) LuvSrc(ng), 'LuvSrc', & & 'Turning ON momentum point Sources/Sinks.' ELSE WRITE (out,170) LuvSrc(ng), 'LuvSrc', & & 'Turning OFF momentum point Sources/Sinks.' END IF IF (LwSrc(ng)) THEN WRITE (out,170) LwSrc(ng), 'LwSrc', & & 'Turning ON volume influx point Sources/Sinks.' ELSE WRITE (out,170) LwSrc(ng), 'LwSrc', & & 'Turning OFF volume influx point Sources/Sinks.' END IF #ifdef SOLVE3D DO itrc=1,NAT IF (LtracerSrc(itrc,ng)) THEN WRITE (out,185) LtracerSrc(itrc,ng), 'LtracerSrc', itrc, & & 'Turning ON point Sources/Sinks on tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) ELSE WRITE (out,185) LtracerSrc(itrc,ng), 'LtracerSrc', itrc, & & 'Turning OFF point Sources/Sinks on tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END IF END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (LtracerSrc(itrc,ng)) THEN WRITE (out,185) LtracerSrc(itrc,ng), 'LtracerSrc', itrc, & & 'Turning ON point Sources/Sinks on tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) ELSE WRITE (out,185) LtracerSrc(itrc,ng), 'LtracerSrc', itrc, & & 'Turning OFF point Sources/Sinks on tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END IF END DO # endif #endif IF (LsshCLM(ng)) THEN WRITE (out,170) LsshCLM(ng), 'LsshCLM', & & 'Turning ON processing of SSH climatology.' ELSE WRITE (out,170) LsshCLM(ng), 'LsshCLM', & & 'Turning OFF processing of SSH climatology.' END IF IF (Lm2CLM(ng)) THEN WRITE (out,170) Lm2CLM(ng), 'Lm2CLM', & & 'Turning ON processing of 2D momentum climatology.' ELSE WRITE (out,170) Lm2CLM(ng), 'Lm2CLM', & & 'Turning OFF processing of 2D momentum climatology.' END IF #ifdef SOLVE3D IF (Lm3CLM(ng)) THEN WRITE (out,170) Lm3CLM(ng), 'Lm3CLM', & & 'Turning ON processing of 3D momentum climatology.' ELSE WRITE (out,170) Lm3CLM(ng), 'Lm3CLM', & & 'Turning OFF processing of 3D momentum climatology.' END IF DO i=1,NAT IF (LtracerCLM(i,ng)) THEN WRITE (out,185) LtracerCLM(i,ng), 'LtracerCLM', i, & & 'Turning ON processing of climatology tracer ', i, & & TRIM(Vname(1,idTvar(i))) ELSE WRITE (out,185) LtracerCLM(i,ng), 'LtracerCLM', i, & & 'Turning OFF processing of climatology tracer ', i, & & TRIM(Vname(1,idTvar(i))) END IF END DO # ifdef T_PASSIVE DO itrc=1,NPT i=inert(itrc) IF (LtracerCLM(i,ng)) THEN WRITE (out,185) LtracerCLM(i,ng), 'LtracerCLM', i, & & 'Turning ON processing of climatology tracer ', i, & & TRIM(Vname(1,idTvar(i))) ELSE WRITE (out,185) LtracerCLM(i,ng), 'LtracerCLM', i, & & 'Turning OFF processing of climatology tracer ', i, & & TRIM(Vname(1,idTvar(i))) END IF END DO # endif #endif IF (LnudgeM2CLM(ng)) THEN WRITE (out,170) LnudgeM2CLM(ng), 'LnudgeM2CLM', & & 'Turning ON nudging of 2D momentum climatology.' ELSE WRITE (out,170) LnudgeM2CLM(ng), 'LnudgeM2CLM', & & 'Turning OFF nudging of 2D momentum climatology.' END IF #ifdef SOLVE3D IF (LnudgeM3CLM(ng)) THEN WRITE (out,170) LnudgeM3CLM(ng), 'LnudgeM3CLM', & & 'Turning ON nudging of 3D momentum climatology.' ELSE WRITE (out,170) LnudgeM3CLM(ng), 'LnudgeM3CLM', & & 'Turning OFF nudging of 3D momentum climatology.' END IF DO i=1,NAT IF (LnudgeTCLM(i,ng)) THEN WRITE (out,185) LnudgeTCLM(i,ng), 'LnudgeTCLM', i, & & 'Turning ON nudging of climatology tracer ', i, & & TRIM(Vname(1,idTvar(i))) ELSE WRITE (out,185) LnudgeTCLM(i,ng), 'LnudgeTCLM', i, & & 'Turning OFF nudging of climatology tracer ', i, & & TRIM(Vname(1,idTvar(i))) END IF END DO # ifdef T_PASSIVE DO itrc=1,NPT i=inert(itrc) IF (LnudgeTCLM(i,ng)) THEN WRITE (out,185) LnudgeTCLM(i,ng), 'LnudgeTCLM', i, & & 'Turning ON nudging of climatology tracer ', i, & & TRIM(Vname(1,idTvar(i))) ELSE WRITE (out,185) LnudgeTCLM(i,ng), 'LnudgeTCLM', i, & & 'Turning OFF nudging of climatology tracer ', i, & & TRIM(Vname(1,idTvar(i))) END IF END DO # endif #endif #if defined AD_SENSITIVITY || defined I4DVAR_ANA_SENSITIVITY || \ defined OPT_OBSERVATIONS || defined SENSITIVITY_4DVAR || \ defined SO_SEMI WRITE (out,140) DstrS(ng), 'DstrS', & & 'Starting day for ADM sensitivity forcing.' WRITE (out,140) DendS(ng), 'DendS', & & 'Ending day for ADM sensitivity forcing.' # ifndef OBS_SPACE # ifdef SOLVE3D WRITE (out,120) KstrS(ng), 'KstrS', & & 'Deepest level whose ADM sensitivity is required.' IF ((KstrS(ng).lt.1).or.(KstrS(ng).gt.N(ng))) THEN WRITE (out,260) 'KstrS = ', KstrS(ng), & & 'Out of range ADM sensitivity starting level.' exit_flag=5 RETURN END IF WRITE (out,120) KendS(ng), 'KendS', & & 'Shallowest level whose ADM sensitivity is required.' IF ((KendS(ng).lt.1).or.(KendS(ng).gt.N(ng))) THEN WRITE (out,260) 'KendS = ', KendS(ng), & & 'Out of range ADM sensitivity level.' exit_flag=5 RETURN END IF # endif IF (SCALARS(ng)%Lstate(isFsur)) & & WRITE (out,170) SCALARS(ng)%Lstate(isFsur), & & 'Lstate(isFsur)', & & 'Adjoint sensitivity on free-surface.' IF (SCALARS(ng)%Lstate(isUbar)) & & WRITE (out,170) SCALARS(ng)%Lstate(isUbar), & & 'Lstate(isUbar)', & & 'Adjoint sensitivity on 2D U-momentum component.' IF (SCALARS(ng)%Lstate(isVbar)) & & WRITE (out,170) SCALARS(ng)%Lstate(isVbar), & & 'Lstate(isVbar)', & & 'Adjoint sensitivity on 2D V-momentum component.' # ifdef SOLVE3D IF (SCALARS(ng)%Lstate(isUvel)) & & WRITE (out,170) SCALARS(ng)%Lstate(isUvel), & & 'Lstate(isUvel)', & & 'Adjoint sensitivity on 3D U-momentum component.' IF (SCALARS(ng)%Lstate(isVvel)) & & WRITE (out,170) SCALARS(ng)%Lstate(isVvel), & & 'Lstate(isVvel)', & & 'Adjoint sensitivity on 3D V-momentum component.' IF (SCALARS(ng)%Lstate(isWvel)) & & WRITE (out,170) SCALARS(ng)%Lstate(isWvel), & & 'Lstate(isWvel)', & & 'Adjoint sensitivity on 3D W-momentum component.' DO itrc=1,NT(ng) IF (SCALARS(ng)%Lstate(isTvar(itrc))) & & WRITE (out,180) SCALARS(ng)%Lstate(isTvar(itrc)), & & 'Lstate(idTvar)', & & 'Adjoint sensitivity on tracer ', & & itrc, TRIM(Vname(1,idTvar(itrc))) END DO # endif # endif #endif #if defined FORCING_SV || defined SO_SEMI || defined STOCHASTIC_OPT IF (SCALARS(ng)%Fstate(isFsur)) & & WRITE (out,170) SCALARS(ng)%Fstate(isFsur), & & 'Fstate(isFsur)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on free-surface.' # else & 'Stochastic Optimals on free-surface.' # endif # ifdef SOLVE3D IF (SCALARS(ng)%Fstate(isUvel)) & & WRITE (out,170) SCALARS(ng)%Fstate(isUvel), & & 'Fstate(isUvel)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on 3D U-momentum component.' # else & 'Stochastic Optimals on 3D U-momentum component.' # endif IF (SCALARS(ng)%Fstate(isVvel)) & & WRITE (out,170) SCALARS(ng)%Fstate(isVvel), & & 'Fstate(isVvel)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on 3D V-momentum component.' # else & 'Stochastic Optimals on 3D V-momentum component.' # endif DO itrc=1,NT(ng) IF (SCALARS(ng)%Fstate(isTvar(itrc))) & & WRITE (out,180) SCALARS(ng)%Fstate(isTvar(itrc)), & & 'Fstate(idTVar)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on tracer', & # else & 'Stochastic Optimals on tracer', & # endif & itrc, TRIM(Vname(1,idTvar(itrc))) END DO # else IF (SCALARS(ng)%Fstate(isUbar)) & & WRITE (out,170) SCALARS(ng)%Fstate(isUbar), & & 'Fstate(isUbar)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on 2D U-momentum component.' # else & 'Stochastic Optimals on 2D U-momentum component.' # endif IF (SCALARS(ng)%Fstate(isVbar)) & & WRITE (out,170) SCALARS(ng)%Fstate(isVbar), & & 'Fstate(isVbar)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on 2D V-momentum component.' # else & 'Stochastic Optimals on 2D V-momentum component.' # endif # endif IF (SCALARS(ng)%Fstate(isUstr)) & & WRITE (out,170) SCALARS(ng)%Fstate(isUstr), & & 'Fstate(isUstr)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on surface U-stress.' # else & 'Stochastic Optimals on surface U-stress.' # endif IF (SCALARS(ng)%Fstate(isVstr)) & & WRITE (out,170) SCALARS(ng)%Fstate(isVstr), & & 'Fstate(isVstr)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on surface V-stress.' # else & 'Stochastic Optimals on surface V-stress.' # endif # ifdef SOLVE3D DO itrc=1,NT(ng) IF (SCALARS(ng)%Fstate(isTsur(itrc))) & & WRITE (out,180) SCALARS(ng)%Fstate(isTsur(itrc)), & & 'Fstate(idTsur)', & # ifdef FORCING_SV & 'Singular Forcing Vectors on surface flux of tracer', & # else & 'Stochastic Optimals on surface flux of tracer', & # endif & itrc, TRIM(Vname(1,idTvar(itrc))) END DO # endif #endif #ifdef SO_SEMI # ifndef SO_SEMI_WHITE WRITE (out,140) SO_decay(ng), 'SO_decay', & & 'Stochastic optimals time decorrelation scale (days).' # endif IF (SCALARS(ng)%Fstate(isFsur)) & WRITE (out,200) SO_sdev(isFsur,ng), 'SO_sdev(isFsur)', & & 'Stochastic Optimals scale, free-surface' # ifdef SOLVE3D IF (SCALARS(ng)%Fstate(isUvel)) & WRITE (out,200) SO_sdev(isUvel,ng), 'SO_sdev(isUvel)', & & 'Stochastic Optimals scale, 3D U-momentum' IF (SCALARS(ng)%Fstate(isVvel)) & WRITE (out,200) SO_sdev(isVvel,ng), 'SO_sdev(isVvel)', & & 'Stochastic Optimals scale, 3D V-momentum' DO itrc=1,NT(ng) IF (SCALARS(ng)%Fstate(isTvar(itrc))) & & WRITE (out,195) SO_sdev(isTvar(itrc),ng), & & 'SO_sdev(idTvar)', & & 'Stochastic Optimals scale, tracer', & & itrc, TRIM(Vname(1,idTvar(itrc))) END DO # else IF (SCALARS(ng)%Fstate(isUbar)) & WRITE (out,200) SO_sdev(isUbar,ng), 'SO_sdev(isUbar)', & & 'Stochastic Optimals scale, 2D U-momentum' IF (SCALARS(ng)%Fstate(isVbar)) & WRITE (out,200) SO_sdev(isVbar,ng), 'SO_sdev(isVbar)', & & 'Stochastic Optimals scale, 2D V-momentum' # endif IF (SCALARS(ng)%Fstate(isUstr)) & WRITE (out,200) SO_sdev(isUstr,ng), 'SO_sdev(isUstr)', & & 'Stochastic Optimals scale, surface U-stress' IF (SCALARS(ng)%Fstate(isVstr)) & WRITE (out,200) SO_sdev(isVstr,ng), 'SO_sdev(isVstr)', & & 'Stochastic Optimals scale, surface V-stress' # ifdef SOLVE3D DO itrc=1,NT(ng) IF (SCALARS(ng)%Fstate(isTsur(itrc))) & & WRITE (out,195) SO_sdev(isTsur(itrc),ng), & & 'SO_sdev(idTsur)', & & 'Stochastic Optimals scale, surface flux of tracer', & & itrc, TRIM(Vname(1,idTvar(itrc))) END DO # endif #endif IF ((nHIS(ng).gt.0).and.ANY(Hout(:,ng))) THEN WRITE (out,'(1x)') #if defined SEDIMENT && defined SED_MORPH IF (Hout(idBath,ng)) WRITE (out,170) Hout(idBath,ng), & & 'Hout(idBath)', & & 'Write out time-dependent bathymetry.' #endif IF (Hout(idFsur,ng)) WRITE (out,170) Hout(idFsur,ng), & & 'Hout(idFsur)', & & 'Write out free-surface.' IF (Hout(idUbar,ng)) WRITE (out,170) Hout(idUbar,ng), & & 'Hout(idUbar)', & & 'Write out 2D U-momentum component.' IF (Hout(idVbar,ng)) WRITE (out,170) Hout(idVbar,ng), & & 'Hout(idVbar)', & & 'Write out 2D V-momentum component.' IF (Hout(idu2dE,ng)) WRITE (out,170) Hout(idu2dE,ng), & & 'Hout(idu2dE)', & & 'Write out 2D U-eastward at RHO-points.' IF (Hout(idv2dN,ng)) WRITE (out,170) Hout(idv2dN,ng), & & 'Hout(idv2dN)', & & 'Write out 2D V-northward at RHO-points.' #ifdef SOLVE3D IF (Hout(idUvel,ng)) WRITE (out,170) Hout(idUvel,ng), & & 'Hout(idUvel)', & & 'Write out 3D U-momentum component.' IF (Hout(idVvel,ng)) WRITE (out,170) Hout(idVvel,ng), & & 'Hout(idVvel)', & & 'Write out 3D V-momentum component.' IF (Hout(idu3dE,ng)) WRITE (out,170) Hout(idu3dE,ng), & & 'Hout(idu3dE)', & & 'Write out 3D U-wastward component at RHO-points.' IF (Hout(idv3dN,ng)) WRITE (out,170) Hout(idv3dN,ng), & & 'Hout(idv3dN)', & & 'Write out 3D V-northward component at RHO-points.' IF (Hout(idWvel,ng)) WRITE (out,170) Hout(idWvel,ng), & & 'Hout(idWvel)', & & 'Write out W-momentum component.' IF (Hout(idOvel,ng)) WRITE (out,170) Hout(idOvel,ng), & & 'Hout(idOvel)', & & 'Write out omega vertical velocity.' DO itrc=1,NAT IF (Hout(idTvar(itrc),ng)) WRITE (out,180) & & Hout(idTvar(itrc),ng), 'Hout(idTvar)', & & 'Write out tracer ', itrc, TRIM(Vname(1,idTvar(itrc))) END DO IF (Hout(idpthR,ng)) WRITE (out,170) Hout(idpthR,ng), & & 'Hout(idpthR)', & & 'Write out time-varying dephts of RHO-points.' IF (Hout(idpthU,ng)) WRITE (out,170) Hout(idpthU,ng), & & 'Hout(idpthU)', & & 'Write out time-varying dephts of U-points.' IF (Hout(idpthV,ng)) WRITE (out,170) Hout(idpthV,ng), & & 'Hout(idpthV)', & & 'Write out time-varying dephts of V-points.' IF (Hout(idpthW,ng)) WRITE (out,170) Hout(idpthW,ng), & & 'Hout(idpthW)', & & 'Write out time-varying dephts of W-points.' #endif IF (Hout(idUsms,ng)) WRITE (out,170) Hout(idUsms,ng), & & 'Hout(idUsms)', & & 'Write out surface U-momentum stress.' IF (Hout(idVsms,ng)) WRITE (out,170) Hout(idVsms,ng), & & 'Hout(idVsms)', & & 'Write out surface V-momentum stress.' IF (Hout(idUbms,ng)) WRITE (out,170) Hout(idUbms,ng), & & 'Hout(idUbms)', & & 'Write out bottom U-momentum stress.' IF (Hout(idVbms,ng)) WRITE (out,170) Hout(idVbms,ng), & & 'Hout(idVbms)', & & 'Write out bottom V-momentum stress.' #ifdef BBL_MODEL IF (Hout(idUbrs,ng)) WRITE (out,170) Hout(idUbrs,ng), & & 'Hout(idUbrs)', & & 'Write out bottom U-current stress.' IF (Hout(idVbrs,ng)) WRITE (out,170) Hout(idVbrs,ng), & & 'Hout(idVbrs)', & & 'Write out bottom V-current stress.' IF (Hout(idUbws,ng)) WRITE (out,170) Hout(idUbws,ng), & & 'Hout(idUbws)', & & 'Write out wind-induced, bottom U-wave stress.' IF (Hout(idVbws,ng)) WRITE (out,170) Hout(idVbws,ng), & & 'Hout(idVbws)', & & 'Write out wind-induced, bottom V-wave stress.' IF (Hout(idUbcs,ng)) WRITE (out,170) Hout(idUbcs,ng), & & 'Hout(idUbcs)', & & 'Write out max wind + current, bottom U-wave stress.' IF (Hout(idVbcs,ng)) WRITE (out,170) Hout(idVbcs,ng), & & 'Hout(idVbcs)', & & 'Write out max wind + current, bottom V-wave stress.' IF (Hout(idUbot,ng)) WRITE (out,170) Hout(idUbot,ng), & & 'Hout(idUbot)', & & 'Write out bed wave orbital U-velocity.' IF (Hout(idVbot,ng)) WRITE (out,170) Hout(idVbot,ng), & & 'Hout(idVbot)', & & 'Write out bed wave orbital V-velocity.' IF (Hout(idUbur,ng)) WRITE (out,170) Hout(idUbur,ng), & & 'Hout(idUbur)', & & 'Write out bottom U-momentum above bed.' IF (Hout(idVbvr,ng)) WRITE (out,170) Hout(idVbvr,ng), & & 'Hout(idVbvr)', & & 'Write out bottom V-momentum above bed.' #endif #if defined NEARSHORE_MELLOR IF (Hout(idW2xx,ng)) WRITE (out,170) Hout(idW2xx,ng), & & 'Hout(idW2xx)', & & 'Write out 2D radiation stress, Sxx.' IF (Hout(idW2xy,ng)) WRITE (out,170) Hout(idW2xy,ng), & & 'Hout(idW2xy)', & & 'Write out 2D radiation stress, Sxy.' IF (Hout(idW2yy,ng)) WRITE (out,170) Hout(idW2yy,ng), & & 'Hout(idW2yy)', & & 'Write out 2D radiation stress, Syy.' IF (Hout(idU2rs,ng)) WRITE (out,170) Hout(idU2rs,ng), & & 'Hout(idU2rs)', & & 'Write out total 2D u-radiation stress.' IF (Hout(idV2rs,ng)) WRITE (out,170) Hout(idV2rs,ng), & & 'Hout(idV2rs)', & & 'Write out total 2D v-radiation stress.' IF (Hout(idU2Sd,ng)) WRITE (out,170) Hout(idU2Sd,ng), & & 'Hout(idU2Sd)', & & 'Write out 2D u-momentum stokes velocity.' IF (Hout(idV2Sd,ng)) WRITE (out,170) Hout(idV2Sd,ng), & & 'Hout(idV2Sd)', & & 'Write out 2D v-momentum stokes velocity.' # ifdef SOLVE3D IF (Hout(idW3xx,ng)) WRITE (out,170) Hout(idW3xx,ng), & & 'Hout(idW3xx)', & & 'Write out 3D radiation stress, Sxx.' IF (Hout(idW3xy,ng)) WRITE (out,170) Hout(idW3xy,ng), & & 'Hout(idW3xy)', & & 'Write out 3D radiation stress, Sxy.' IF (Hout(idW3yy,ng)) WRITE (out,170) Hout(idW3yy,ng), & & 'Hout(idW3yy)', & & 'Write out 3D radiation stress, Syy.' # ifdef NEARSHORE_MELLOR05 IF (Hout(idW3zx,ng)) WRITE (out,170) Hout(idW3zx,ng), & & 'Hout(idW3zx)', & & 'Write out 3D radiation stress, Szx.' IF (Hout(idW3zy,ng)) WRITE (out,170) Hout(idW3zy,ng), & & 'Hout(idW3zy)', & & 'Write out 3D radiation stress, Szy.' # endif IF (Hout(idU3rs,ng)) WRITE (out,170) Hout(idU3rs,ng), & & 'Hout(idU3rs)', & & 'Write out total 3D u-radiation stress.' IF (Hout(idV3rs,ng)) WRITE (out,170) Hout(idV3rs,ng), & & 'Hout(idV3rs)', & & 'Write out total 3D v-radiation stress.' IF (Hout(idU3Sd,ng)) WRITE (out,170) Hout(idU3Sd,ng), & & 'Hout(idU3Sd)', & & 'Write out 3D u-momentum stokes velocity.' IF (Hout(idV3Sd,ng)) WRITE (out,170) Hout(idV3Sd,ng), & & 'Hout(idV3Sd)', & & 'Write out 3D v-momentum stokes velocity.' # endif #endif #ifdef WAVES_HEIGHT IF (Hout(idWamp,ng)) WRITE (out,170) Hout(idWamp,ng), & & 'Hout(idWamp)', & & 'Write out wave height.' #endif #ifdef WAVES_LENGTH IF (Hout(idWlen,ng)) WRITE (out,170) Hout(idWlen,ng), & & 'Hout(idWlen)', & & 'Write out wavelength.' #endif #ifdef WAVES_DIR IF (Hout(idWdir,ng)) WRITE (out,170) Hout(idWdir,ng), & & 'Hout(idWdir)', & & 'Write out wave direction.' #endif #ifdef WAVES_TOP_PERIOD IF (Hout(idWptp,ng)) WRITE (out,170) Hout(idWptp,ng), & & 'Hout(idWptp)', & & 'Write out wave surface period.' #endif #ifdef WAVES_BOT_PERIOD IF (Hout(idWpbt,ng)) WRITE (out,170) Hout(idWpbt,ng), & & 'Hout(idWpbt)', & & 'Write out wave bottom period.' #endif #ifdef WAVES_UB IF (Hout(idWorb,ng)) WRITE (out,170) Hout(idWorb,ng), & & 'Hout(idWorb)', & & 'Write out wave bottom orbital velocity.' #endif #if defined TKE_WAVEDISS || defined WAV_COUPLING IF (Hout(idWdis,ng)) WRITE (out,170) Hout(idWdis,ng), & & 'Hout(idWdis)', & & 'Write out wave dissipation.' #endif #if defined SOLVE3D && defined T_PASSIVE DO itrc=1,NPT IF (Hout(idTvar(inert(itrc)),ng)) WRITE (out,180) & & Hout(idTvar(inert(itrc)),ng), 'Hout(inert)', & & 'Write out inert passive tracer ', itrc, & & TRIM(Vname(1,idTvar(inert(itrc)))) END DO #endif #ifdef SOLVE3D # if defined BULK_FLUXES || defined ECOSIM || defined ATM_PRESS IF (Hout(idPair,ng)) WRITE (out,170) Hout(idPair,ng), & & 'Hout(idPair)', & & 'Write out surface air pressure.' # endif # if defined BULK_FLUXES IF (Hout(idTair,ng)) WRITE (out,170) Hout(idTair,ng), & & 'Hout(idTair)', & & 'Write out surface air temperature.' # endif # if defined BULK_FLUXES || defined ECOSIM IF (Hout(idUair,ng)) WRITE (out,170) Hout(idUair,ng), & & 'Hout(idUair)', & & 'Write out surface U-wind component.' IF (Hout(idVair,ng)) WRITE (out,170) Hout(idVair,ng), & & 'Hout(idVair)', & & 'Write out surface V-wind component.' # endif IF (Hout(idTsur(itemp),ng)) WRITE (out,170) & & Hout(idTsur(itemp),ng), 'Hout(idTsur)', & & 'Write out surface net heat flux.' # ifdef SALINITY IF (Hout(idTsur(isalt),ng)) WRITE (out,170) & & Hout(idTsur(isalt),ng), 'Hout(idTsur)', & & 'Write out surface net salt flux.' # endif # ifdef SHORTWAVE IF (Hout(idSrad,ng)) WRITE (out,170) Hout(idSrad,ng), & & 'Hout(idSrad)', & & 'Write out shortwave radiation flux.' # endif # if defined BULK_FLUXES || defined FRC_COUPLING IF (Hout(idLrad,ng)) WRITE (out,170) Hout(idLrad,ng), & & 'Hout(idLrad)', & & 'Write out longwave radiation flux.' IF (Hout(idLhea,ng)) WRITE (out,170) Hout(idLhea,ng), & & 'Hout(idLhea)', & & 'Write out latent heat flux.' IF (Hout(idShea,ng)) WRITE (out,170) Hout(idShea,ng), & & 'Hout(idShea)', & & 'Write out sensible heat flux.' # if defined EMINUSP || defined FRC_COUPLING IF (Hout(idEmPf,ng)) WRITE (out,170) Hout(idEmPf,ng), & & 'Hout(idEmPf)', & & 'Write out E-P flux.' # endif # ifdef EMINUSP IF (Hout(idevap,ng)) WRITE (out,170) Hout(idevap,ng), & & 'Hout(idevap)', & & 'Write out evaporation rate.' IF (Hout(idrain,ng)) WRITE (out,170) Hout(idrain,ng), & & 'Hout(idrain)', & & 'Write out rain rate.' # endif # endif IF (Hout(idDano,ng)) WRITE (out,170) Hout(idDano,ng), & & 'Hout(idDano)', & & 'Write out density anomaly.' IF (Hout(idVvis,ng)) WRITE (out,170) Hout(idVvis,ng), & & 'Hout(idVvis)', & & 'Write out vertical viscosity: AKv.' IF (Hout(idTdif,ng)) WRITE (out,170) Hout(idTdif,ng), & & 'Hout(idTdif)', & & 'Write out vertical diffusion: AKt(itemp).' # ifdef SALINITY IF (Hout(idSdif,ng)) WRITE (out,170) Hout(idSdif,ng), & & 'Hout(idSdif)', & & 'Write out vertical diffusion: AKt(isalt).' # endif # ifdef LMD_SKPP IF (Hout(idHsbl,ng)) WRITE (out,170) Hout(idHsbl,ng), & & 'Hout(idHsbl)', & & 'Write out depth of surface boundary layer.' # endif # ifdef LMD_BKPP IF (Hout(idHbbl,ng)) WRITE (out,170) Hout(idHbbl,ng), & & 'Hout(idHbbl)', & & 'Write out depth of bottom boundary layer.' # endif # if defined GLS_MIXING || defined MY25_MIXING IF (Hout(idMtke,ng)) WRITE (out,170) Hout(idMtke,ng), & & 'Hout(idMtke)', & & 'Write out turbulent kinetic energy.' IF (Hout(idMtls,ng)) WRITE (out,170) Hout(idMtls,ng), & & 'Hout(idMtls)', & & 'Write out turbulent generic length-scale.' # endif #endif END IF IF ((nQCK(ng).gt.0).and.ANY(Qout(:,ng))) THEN WRITE (out,'(1x)') #if defined SEDIMENT && defined SED_MORPH IF (Qout(idBath,ng)) WRITE (out,170) Qout(idBath,ng), & & 'Qout(idBath)', & & 'Write out time-dependent bathymetry.' #endif IF (Qout(idFsur,ng)) WRITE (out,170) Qout(idFsur,ng), & & 'Qout(idFsur)', & & 'Write out free-surface.' IF (Qout(idUbar,ng)) WRITE (out,170) Qout(idUbar,ng), & & 'Qout(idUbar)', & & 'Write out 2D U-momentum component.' IF (Qout(idVbar,ng)) WRITE (out,170) Qout(idVbar,ng), & & 'Qout(idVbar)', & & 'Write out 2D V-momentum component.' IF (Qout(idu2dE,ng)) WRITE (out,170) Qout(idu2dE,ng), & & 'Qout(idu2dE)', & & 'Write out 2D U-eastward at RHO-points.' IF (Qout(idv2dN,ng)) WRITE (out,170) Qout(idv2dN,ng), & & 'Qout(idv2dN)', & & 'Write out 2D V-northward at RHO-points.' #ifdef SOLVE3D IF (Qout(idUvel,ng)) WRITE (out,170) Qout(idUvel,ng), & & 'Qout(idUvel)', & & 'Write out 3D U-momentum component.' IF (Qout(idVvel,ng)) WRITE (out,170) Qout(idVvel,ng), & & 'Qout(idVvel)', & & 'Write out 3D V-momentum component.' IF (Qout(idUsur,ng)) WRITE (out,170) Qout(idUsur,ng), & & 'Qout(idUsur)', & & 'Write out surface U-momentum component.' IF (Qout(idVsur,ng)) WRITE (out,170) Qout(idVsur,ng), & & 'Qout(idVsur)', & & 'Write out surface V-momentum component.' IF (Qout(idu3dE,ng)) WRITE (out,170) Qout(idu3dE,ng), & & 'Qout(idu3dE)', & & 'Write out 3D U-wastward component at RHO-points.' IF (Qout(idv3dN,ng)) WRITE (out,170) Qout(idv3dN,ng), & & 'Qout(idv3dN)', & & 'Write out 3D V-northward component at RHO-points.' IF (Qout(idu3dE,ng)) WRITE (out,170) Qout(idu3dE,ng), & & 'Qout(idu3dE)', & & 'Write out surface U-wastward component at RHO-points.' IF (Qout(idv3dN,ng)) WRITE (out,170) Qout(idv3dN,ng), & & 'Qout(idv3dN)', & & 'Write out surface V-northward component at RHO-points.' IF (Qout(idWvel,ng)) WRITE (out,170) Qout(idWvel,ng), & & 'Qout(idWvel)', & & 'Write out W-momentum component.' IF (Qout(idOvel,ng)) WRITE (out,170) Qout(idOvel,ng), & & 'Qout(idOvel)', & & 'Write out omega vertical velocity.' DO itrc=1,NAT IF (Qout(idTvar(itrc),ng)) WRITE (out,180) & & Qout(idTvar(itrc),ng), 'Qout(idTvar)', & & 'Write out tracer ', itrc, TRIM(Vname(1,idTvar(itrc))) END DO DO itrc=1,NAT IF (Qout(idsurT(itrc),ng)) WRITE (out,180) & & Qout(idsurT(itrc),ng), 'Qout(idsurT)', & & 'Write out surface tracer ', itrc, & & TRIM(Vname(1,idsurT(itrc))) END DO IF (Qout(idpthR,ng)) WRITE (out,170) Qout(idpthR,ng), & & 'Qout(idpthR)', & & 'Write out time-varying dephts of RHO-points.' IF (Qout(idpthU,ng)) WRITE (out,170) Qout(idpthU,ng), & & 'Qout(idpthU)', & & 'Write out time-varying dephts of U-points.' IF (Qout(idpthV,ng)) WRITE (out,170) Qout(idpthV,ng), & & 'Qout(idpthV)', & & 'Write out time-varying dephts of V-points.' IF (Qout(idpthW,ng)) WRITE (out,170) Qout(idpthW,ng), & & 'Qout(idpthW)', & & 'Write out time-varying dephts of W-points.' #endif IF (Qout(idUsms,ng)) WRITE (out,170) Qout(idUsms,ng), & & 'Qout(idUsms)', & & 'Write out surface U-momentum stress.' IF (Qout(idVsms,ng)) WRITE (out,170) Qout(idVsms,ng), & & 'Qout(idVsms)', & & 'Write out surface V-momentum stress.' IF (Qout(idUbms,ng)) WRITE (out,170) Qout(idUbms,ng), & & 'Qout(idUbms)', & & 'Write out bottom U-momentum stress.' IF (Qout(idVbms,ng)) WRITE (out,170) Qout(idVbms,ng), & & 'Qout(idVbms)', & & 'Write out bottom V-momentum stress.' #ifdef BBL_MODEL IF (Qout(idUbrs,ng)) WRITE (out,170) Qout(idUbrs,ng), & & 'Qout(idUbrs)', & & 'Write out bottom U-current stress.' IF (Qout(idVbrs,ng)) WRITE (out,170) Qout(idVbrs,ng), & & 'Qout(idVbrs)', & & 'Write out bottom V-current stress.' IF (Qout(idUbws,ng)) WRITE (out,170) Qout(idUbws,ng), & & 'Qout(idUbws)', & & 'Write out wind-induced, bottom U-wave stress.' IF (Qout(idVbws,ng)) WRITE (out,170) Qout(idVbws,ng), & & 'Qout(idVbws)', & & 'Write out wind-induced, bottom V-wave stress.' IF (Qout(idUbcs,ng)) WRITE (out,170) Qout(idUbcs,ng), & & 'Qout(idUbcs)', & & 'Write out max wind + current, bottom U-wave stress.' IF (Qout(idVbcs,ng)) WRITE (out,170) Qout(idVbcs,ng), & & 'Qout(idVbcs)', & & 'Write out max wind + current, bottom V-wave stress.' IF (Qout(idUbot,ng)) WRITE (out,170) Qout(idUbot,ng), & & 'Qout(idUbot)', & & 'Write out bed wave orbital U-velocity.' IF (Qout(idVbot,ng)) WRITE (out,170) Qout(idVbot,ng), & & 'Qout(idVbot)', & & 'Write out bed wave orbital V-velocity.' IF (Qout(idUbur,ng)) WRITE (out,170) Qout(idUbur,ng), & & 'Qout(idUbur)', & & 'Write out bottom U-momentum above bed.' IF (Qout(idVbvr,ng)) WRITE (out,170) Qout(idVbvr,ng), & & 'Qout(idVbvr)', & & 'Write out bottom V-momentum above bed.' #endif #if defined NEARSHORE_MELLOR IF (Qout(idW2xx,ng)) WRITE (out,170) Qout(idW2xx,ng), & & 'Qout(idW2xx)', & & 'Write out 2D radiation stress, Sxx.' IF (Qout(idW2xy,ng)) WRITE (out,170) Qout(idW2xy,ng), & & 'Qout(idW2xy)', & & 'Write out 2D radiation stress, Sxy.' IF (Qout(idW2yy,ng)) WRITE (out,170) Qout(idW2yy,ng), & & 'Qout(idW2yy)', & & 'Write out 2D radiation stress, Syy.' IF (Qout(idU2rs,ng)) WRITE (out,170) Qout(idU2rs,ng), & & 'Qout(idU2rs)', & & 'Write out total 2D u-radiation stress.' IF (Qout(idV2rs,ng)) WRITE (out,170) Qout(idV2rs,ng), & & 'Qout(idV2rs)', & & 'Write out total 2D v-radiation stress.' IF (Qout(idU2Sd,ng)) WRITE (out,170) Qout(idU2Sd,ng), & & 'Qout(idU2Sd)', & & 'Write out 2D u-momentum stokes velocity.' IF (Qout(idV2Sd,ng)) WRITE (out,170) Qout(idV2Sd,ng), & & 'Qout(idV2Sd)', & & 'Write out 2D v-momentum stokes velocity.' # ifdef SOLVE3D IF (Qout(idW3xx,ng)) WRITE (out,170) Qout(idW3xx,ng), & & 'Qout(idW3xx)', & & 'Write out 3D radiation stress, Sxx.' IF (Qout(idW3xy,ng)) WRITE (out,170) Qout(idW3xy,ng), & & 'Qout(idW3xy)', & & 'Write out 3D radiation stress, Sxy.' IF (Qout(idW3yy,ng)) WRITE (out,170) Qout(idW3yy,ng), & & 'Qout(idW3yy)', & & 'Write out 3D radiation stress, Syy.' # ifdef NEARSHORE_MELLOR05 IF (Qout(idW3zx,ng)) WRITE (out,170) Qout(idW3zx,ng), & & 'Qout(idW3zx)', & & 'Write out 3D radiation stress, Szx.' IF (Qout(idW3zy,ng)) WRITE (out,170) Qout(idW3zy,ng), & & 'Qout(idW3zy)', & & 'Write out 3D radiation stress, Szy.' # endif IF (Qout(idU3rs,ng)) WRITE (out,170) Qout(idU3rs,ng), & & 'Qout(idU3rs)', & & 'Write out total 3D u-radiation stress.' IF (Qout(idV3rs,ng)) WRITE (out,170) Qout(idV3rs,ng), & & 'Qout(idV3rs)', & & 'Write out total 3D v-radiation stress.' IF (Qout(idU3Sd,ng)) WRITE (out,170) Qout(idU3Sd,ng), & & 'Qout(idU3Sd)', & & 'Write out 3D u-momentum stokes velocity.' IF (Qout(idV3Sd,ng)) WRITE (out,170) Qout(idV3Sd,ng), & & 'Qout(idV3Sd)', & & 'Write out 3D v-momentum stokes velocity.' # endif #endif #ifdef WAVES_HEIGHT IF (Qout(idWamp,ng)) WRITE (out,170) Qout(idWamp,ng), & & 'Qout(idWamp)', & & 'Write out wave height.' #endif #ifdef WAVES_LENGTH IF (Qout(idWlen,ng)) WRITE (out,170) Qout(idWlen,ng), & & 'Qout(idWlen)', & & 'Write out wavelength.' #endif #ifdef WAVES_DIR IF (Qout(idWdir,ng)) WRITE (out,170) Qout(idWdir,ng), & & 'Qout(idWdir)', & & 'Write out wave direction.' #endif #ifdef WAVES_TOP_PERIOD IF (Qout(idWptp,ng)) WRITE (out,170) Qout(idWptp,ng), & & 'Qout(idWptp)', & & 'Write out wave surface period.' #endif #ifdef WAVES_BOT_PERIOD IF (Qout(idWpbt,ng)) WRITE (out,170) Qout(idWpbt,ng), & & 'Qout(idWpbt)', & & 'Write out wave bottom period.' #endif #ifdef WAVES_UB IF (Qout(idWorb,ng)) WRITE (out,170) Qout(idWorb,ng), & & 'Qout(idWorb)', & & 'Write out wave bottom orbital velocity.' #endif #if defined TKE_WAVEDISS || defined WAV_COUPLING IF (Qout(idWdis,ng)) WRITE (out,170) Qout(idWdis,ng), & & 'Qout(idWdis)', & & 'Write out wave dissipation.' #endif #if defined SOLVE3D && defined T_PASSIVE DO itrc=1,NPT IF (Qout(idTvar(inert(itrc)),ng)) WRITE (out,180) & & Qout(idTvar(inert(itrc)),ng), 'Qout(inert)', & & 'Write out inert passive tracer ', itrc, & & TRIM(Vname(1,idTvar(inert(itrc)))) END DO DO itrc=1,NPT IF (Qout(idsurT(inert(itrc)),ng)) WRITE (out,180) & & Qout(idsurT(inert(itrc)),ng), 'Qout(Snert)', & & 'Write out inert passive tracer ', itrc, & & TRIM(Vname(1,idsurT(inert(itrc)))) END DO #endif #ifdef SOLVE3D # if defined BULK_FLUXES || defined ECOSIM || defined ATM_PRESS IF (Qout(idPair,ng)) WRITE (out,170) Qout(idPair,ng), & & 'Qout(idPair)', & & 'Write out surface air pressure.' # endif # if defined BULK_FLUXES IF (Qout(idTair,ng)) WRITE (out,170) Qout(idTair,ng), & & 'Qout(idTair)', & & 'Write out surface air temperature.' # endif # if defined BULK_FLUXES || defined ECOSIM IF (Qout(idUair,ng)) WRITE (out,170) Qout(idUair,ng), & & 'Qout(idUair)', & & 'Write out surface U-wind component.' IF (Qout(idVair,ng)) WRITE (out,170) Qout(idVair,ng), & & 'Qout(idVair)', & & 'Write out surface V-wind component.' # endif IF (Qout(idTsur(itemp),ng)) WRITE (out,170) & & Qout(idTsur(itemp),ng), 'Qout(idTsur)', & & 'Write out surface net heat flux.' # ifdef SALINITY IF (Qout(idTsur(isalt),ng)) WRITE (out,170) & & Qout(idTsur(isalt),ng), 'Qout(idTsur)', & & 'Write out surface net salt flux.' # endif # ifdef SHORTWAVE IF (Qout(idSrad,ng)) WRITE (out,170) Qout(idSrad,ng), & & 'Qout(idSrad)', & & 'Write out shortwave radiation flux.' # endif # if defined BULK_FLUXES || defined FRC_COUPLING IF (Qout(idLrad,ng)) WRITE (out,170) Qout(idLrad,ng), & & 'Qout(idLrad)', & & 'Write out longwave radiation flux.' IF (Qout(idLhea,ng)) WRITE (out,170) Qout(idLhea,ng), & & 'Qout(idLhea)', & & 'Write out latent heat flux.' IF (Qout(idShea,ng)) WRITE (out,170) Qout(idShea,ng), & & 'Qout(idShea)', & & 'Write out sensible heat flux.' # if defined EMINUSP || defined FRC_COUPLING IF (Qout(idEmPf,ng)) WRITE (out,170) Qout(idEmPf,ng), & & 'Qout(idEmPf)', & & 'Write out E-P flux.' # endif # ifdef EMINUSP IF (Qout(idevap,ng)) WRITE (out,170) Qout(idevap,ng), & & 'Qout(idevap)', & & 'Write out evaporation rate.' IF (Qout(idrain,ng)) WRITE (out,170) Qout(idrain,ng), & & 'Qout(idrain)', & & 'Write out rain rate.' # endif # endif IF (Qout(idDano,ng)) WRITE (out,170) Qout(idDano,ng), & & 'Qout(idDano)', & & 'Write out density anomaly.' IF (Qout(idVvis,ng)) WRITE (out,170) Qout(idVvis,ng), & & 'Qout(idVvis)', & & 'Write out vertical viscosity: AKv.' IF (Qout(idTdif,ng)) WRITE (out,170) Qout(idTdif,ng), & & 'Qout(idTdif)', & & 'Write out vertical diffusion: AKt(itemp).' # ifdef SALINITY IF (Qout(idSdif,ng)) WRITE (out,170) Qout(idSdif,ng), & & 'Qout(idSdif)', & & 'Write out vertical diffusion: AKt(isalt).' # endif # ifdef LMD_SKPP IF (Qout(idHsbl,ng)) WRITE (out,170) Qout(idHsbl,ng), & & 'Qout(idHsbl)', & & 'Write out depth of surface boundary layer.' # endif # ifdef LMD_BKPP IF (Qout(idHbbl,ng)) WRITE (out,170) Qout(idHbbl,ng), & & 'Qout(idHbbl)', & & 'Write out depth of bottom boundary layer.' # endif # if defined GLS_MIXING || defined MY25_MIXING IF (Qout(idMtke,ng)) WRITE (out,170) Qout(idMtke,ng), & & 'Qout(idMtke)', & & 'Write out turbulent kinetic energy.' IF (Qout(idMtls,ng)) WRITE (out,170) Qout(idMtls,ng), & & 'Qout(idMtls)', & & 'Write out turbulent generic length-scale.' # endif #endif END IF #if defined AVERAGES || \ (defined AD_AVERAGES && defined ADJOINT) || \ (defined RP_AVERAGES && defined TL_IOMS) || \ (defined TL_AVERAGES && defined TANGENT) IF ((nAVG(ng).gt.0).and.ANY(Aout(:,ng))) THEN WRITE (out,'(1x)') IF (Aout(idFsur,ng)) WRITE (out,170) Aout(idFsur,ng), & & 'Aout(idFsur)', & & 'Write out averaged free-surface.' IF (Aout(idUbar,ng)) WRITE (out,170) Aout(idUbar,ng), & & 'Aout(idUbar)', & & 'Write out averaged 2D U-momentum component.' IF (Aout(idVbar,ng)) WRITE (out,170) Aout(idVbar,ng), & & 'Aout(idVbar)', & & 'Write out averaged 2D V-momentum component.' IF (Aout(idu2dE,ng)) WRITE (out,170) Aout(idu2dE,ng), & & 'Aout(idu2dE)', & & 'Write out averaged 2D U-eastward at RHO-points.' IF (Aout(idv2dN,ng)) WRITE (out,170) Aout(idv2dN,ng), & & 'Aout(idv2dN)', & & 'Write out averaged 2D V-northward at RHO-points.' # ifdef SOLVE3D IF (Aout(idUvel,ng)) WRITE (out,170) Aout(idUvel,ng), & & 'Aout(idUvel)', & & 'Write out averaged 3D U-momentum component.' IF (Aout(idVvel,ng)) WRITE (out,170) Aout(idVvel,ng), & & 'Aout(idVvel)', & & 'Write out averaged 3D V-momentum component.' IF (Aout(idu3dE,ng)) WRITE (out,170) Aout(idu3dE,ng), & & 'Aout(idu3dE)', & & 'Write out averaged 3D U-eastward at RHO-points.' IF (Aout(idv3dN,ng)) WRITE (out,170) Aout(idv3dN,ng), & & 'Aout(idv3dN)', & & 'Write out averaged 3D V-northward at RHO-points.' IF (Aout(idWvel,ng)) WRITE (out,170) Aout(idWvel,ng), & & 'Aout(idWvel)', & & 'Write out averaged W-momentum component.' IF (Aout(idOvel,ng)) WRITE (out,170) Aout(idOvel,ng), & & 'Aout(idOvel)', & & 'Write out averaged omega vertical velocity.' DO itrc=1,NAT IF (Aout(idTvar(itrc),ng)) WRITE (out,180) & & Aout(idTvar(itrc),ng), 'Aout(idTvar)', & & 'Write out averaged tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif IF (Aout(idUsms,ng)) WRITE (out,170) Aout(idUsms,ng), & & 'Aout(idUsms)', & & 'Write out averaged surface U-momentum stress.' IF (Aout(idVsms,ng)) WRITE (out,170) Aout(idVsms,ng), & & 'Aout(idVsms)', & & 'Write out averaged surface V-momentum stress.' IF (Aout(idUbms,ng)) WRITE (out,170) Aout(idUbms,ng), & & 'Aout(idUbms)', & & 'Write out averaged bottom U-momentum stress.' IF (Aout(idVbms,ng)) WRITE (out,170) Aout(idVbms,ng), & & 'Aout(idVbms)', & & 'Write out averaged bottom V-momentum stress.' # if defined NEARSHORE_MELLOR IF (Aout(idW2xx,ng)) WRITE (out,170) Aout(idW2xx,ng), & & 'Aout(idW2xx)', & & 'Write out averaged 2D radiation stress, Sxx.' IF (Aout(idW2xy,ng)) WRITE (out,170) Aout(idW2xy,ng), & & 'Aout(idW2xy)', & & 'Write out averaged 2D radiation stress, Sxy.' IF (Aout(idW2yy,ng)) WRITE (out,170) Aout(idW2yy,ng), & & 'Aout(idW2yy)', & & 'Write out averaged 2D radiation stress, Syy.' IF (Aout(idU2rs,ng)) WRITE (out,170) Aout(idU2rs,ng), & & 'Aout(idU2rs)', & & 'Write out averaged total 2D u-radiation stress.' IF (Aout(idV2rs,ng)) WRITE (out,170) Aout(idV2rs,ng), & & 'Aout(idV2rs)', & & 'Write out averaged total 2D v-radiation stress.' IF (Aout(idU2Sd,ng)) WRITE (out,170) Aout(idU2Sd,ng), & & 'Aout(idU2Sd)', & & 'Write out averaged 2D u-momentum stokes velocity.' IF (Aout(idV2Sd,ng)) WRITE (out,170) Aout(idV2Sd,ng), & & 'Aout(idV2Sd)', & & 'Write out averaged 2D v-momentum stokes velocity.' # ifdef SOLVE3D IF (Aout(idW3xx,ng)) WRITE (out,170) Aout(idW3xx,ng), & & 'Aout(idW3xx)', & & 'Write out averaged 3D radiation stress, Sxx.' IF (Aout(idW3xy,ng)) WRITE (out,170) Aout(idW3xy,ng), & & 'Aout(idW3xy)', & & 'Write out averaged 3D radiation stress, Sxy.' IF (Aout(idW3yy,ng)) WRITE (out,170) Aout(idW3yy,ng), & & 'Aout(idW3yy)', & & 'Write out averaged 3D radiation stress, Syy.' IF (Aout(idW3zx,ng)) WRITE (out,170) Aout(idW3zx,ng), & & 'Aout(idW3zx)', & & 'Write out averaged 3D radiation stress, Szx.' IF (Aout(idW3zy,ng)) WRITE (out,170) Aout(idW3zy,ng), & & 'Aout(idW3zy)', & & 'Write out averaged 3D radiation stress, Szy.' IF (Aout(idU3rs,ng)) WRITE (out,170) Aout(idU3rs,ng), & & 'Aout(idU3rs)', & & 'Write out averaged total 3D u-radiation stress.' IF (Aout(idV3rs,ng)) WRITE (out,170) Aout(idV3rs,ng), & & 'Aout(idV3rs)', & & 'Write out averaged total 3D v-radiation stress.' IF (Aout(idU3Sd,ng)) WRITE (out,170) Aout(idU3Sd,ng), & & 'Aout(idU3Sd)', & & 'Write out averaged 3D u-momentum stokes velocity.' IF (Aout(idV3Sd,ng)) WRITE (out,170) Aout(idV3Sd,ng), & & 'Aout(idV3Sd)', & & 'Write out averaged 3D v-momentum stokes velocity.' # endif # endif # if defined SOLVE3D && defined T_PASSIVE DO itrc=1,NPT IF (Aout(idTvar(inert(itrc)),ng)) WRITE (out,180) & & Aout(idTvar(inert(itrc)),ng), 'Aout(inert)', & & 'Write out averaged inert passive tracer ', itrc, & & TRIM(Vname(1,idTvar(inert(itrc)))) END DO # endif # ifdef SOLVE3D # if defined BULK_FLUXES || defined ECOSIM || defined ATM_PRESS IF (Aout(idPair,ng)) WRITE (out,170) Aout(idPair,ng), & & 'Aout(idPair)', & & 'Write out averaged surface air pressure.' # endif # if defined BULK_FLUXES IF (Aout(idTair,ng)) WRITE (out,170) Aout(idTair,ng), & & 'Aout(idTair)', & & 'Write out averaged surface air temperature.' # endif # if defined BULK_FLUXES || defined ECOSIM IF (Aout(idUair,ng)) WRITE (out,170) Aout(idUair,ng), & & 'Aout(idUair)', & & 'Write out averaged surface U-wind component.' IF (Aout(idVair,ng)) WRITE (out,170) Aout(idVair,ng), & & 'Aout(idVair)', & & 'Write out averaged surface V-wind component.' # endif IF (Aout(idTsur(itemp),ng)) WRITE (out,170) & & Aout(idTsur(itemp),ng), 'Aout(idTsur)', & & 'Write out averaged surface net heat flux.' # ifdef SALINITY IF (Aout(idTsur(isalt),ng)) WRITE (out,170) & & Aout(idTsur(isalt),ng), 'Aout(idTsur)', & & 'Write out averaged surface net salt flux.' # endif # ifdef SHORTWAVE IF (Aout(idSrad,ng)) WRITE (out,170) Aout(idSrad,ng), & & 'Aout(idSrad)', & & 'Write out averaged shortwave radiation flux.' # endif # ifdef BULK_FLUXES IF (Aout(idLrad,ng)) WRITE (out,170) Aout(idLrad,ng), & & 'Aout(idLrad)', & & 'Write out averaged longwave radiation flux.' IF (Aout(idLhea,ng)) WRITE (out,170) Aout(idLhea,ng), & & 'Aout(idLhea)', & & 'Write out averaged latent heat flux.' IF (Aout(idShea,ng)) WRITE (out,170) Aout(idShea,ng), & & 'Aout(idShea)', & & 'Write out averaged sensible heat flux.' # ifdef EMINUSP IF (Aout(idevap,ng)) WRITE (out,170) Aout(idevap,ng), & & 'Aout(idevap)', & & 'Write out averaged evaporation rate.' IF (Aout(idrain,ng)) WRITE (out,170) Aout(idrain,ng), & & 'Aout(idrain)', & & 'Write out averaged rain rate.' # endif # endif IF (Aout(idDano,ng)) WRITE (out,170) Aout(idDano,ng), & & 'Aout(idDano)', & & 'Write out averaged density anomaly.' # if defined LMD_MIXING || defined MY25_MIXING || defined GLS_MIXING IF (Aout(idVvis,ng)) WRITE (out,170) Aout(idVvis,ng), & & 'Aout(idVvis)', & & 'Write out averaged vertical viscosity: AKv.' IF (Aout(idTdif,ng)) WRITE (out,170) Aout(idTdif,ng), & & 'Aout(idTdif)', & & 'Write out averaged vertical diffusion: AKt(itemp).' # ifdef SALINITY IF (Aout(idSdif,ng)) WRITE (out,170) Aout(idSdif,ng), & & 'Aout(idSdif)', & & 'Write out averaged vertical diffusion: AKt(isalt).' # endif # endif # ifdef LMD_SKPP IF (Aout(idHsbl,ng)) WRITE (out,170) Aout(idHsbl,ng), & & 'Aout(idHsbl)', & & 'Write out averaged depth of surface boundary layer.' # endif # ifdef LMD_BKPP IF (Aout(idHbbl,ng)) WRITE (out,170) Aout(idHbbl,ng), & & 'Aout(idHbbl)', & & 'Write out averaged depth of bottom boundary layer.' # endif # endif IF (Aout(id2dRV,ng)) WRITE (out,170) Aout(id2dRV,ng), & & 'Aout(id2dRV)', & & 'Write out averaged 2D relative vorticity.' IF (Aout(id2dPV,ng)) WRITE (out,170) Aout(id2dPV,ng), & & 'Aout(id2dPV)', & & 'Write out averaged 2D potential vorticity.' # ifdef SOLVE3D IF (Aout(id3dRV,ng)) WRITE (out,170) Aout(id3dRV,ng), & & 'Aout(id3dRV)', & & 'Write out averaged 3D relative vorticity.' IF (Aout(id3dPV,ng)) WRITE (out,170) Aout(id3dPV,ng), & & 'Aout(id3dPV)', & & 'Write out averaged 3D potential vorticity.' # endif IF (Aout(idZZav,ng)) WRITE (out,170) Aout(idZZav,ng), & & 'Aout(idZZav)', & & 'Write out averaged quadratic term.' IF (Aout(idU2av,ng)) WRITE (out,170) Aout(idU2av,ng), & & 'Aout(idU2av)', & & 'Write out averaged quadratic term.' IF (Aout(idV2av,ng)) WRITE (out,170) Aout(idV2av,ng), & & 'Aout(idV2av)', & & 'Write out averaged quadratic term.' # ifdef SOLVE3D IF (Aout(idHUav,ng)) WRITE (out,170) Aout(idHUav,ng), & & 'Aout(idHUav)', & & 'Write out averaged u-volume flux, Huon.' IF (Aout(idHVav,ng)) WRITE (out,170) Aout(idHVav,ng), & & 'Aout(idHVav)', & & 'Write out averaged v-volume flux, Hvom.' IF (Aout(idUUav,ng)) WRITE (out,170) Aout(idUUav,ng), & & 'Aout(idUUav)', & & 'Write out averaged quadratic term.' IF (Aout(idUVav,ng)) WRITE (out,170) Aout(idUVav,ng), & & 'Aout(idUVav)', & & 'Write out averaged quadratic term.' IF (Aout(idVVav,ng)) WRITE (out,170) Aout(idVVav,ng), & & 'Aout(idVVav)', & & 'Write out averaged quadratic term.' DO itrc=1,NAT+NPT IF (Aout(idTTav(itrc),ng)) WRITE (out,180) & & Aout(idTTav(itrc),ng), 'Aout(idTTav)', & & 'Write out averaged for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO DO itrc=1,NAT+NPT IF (Aout(idUTav(itrc),ng)) WRITE (out,180) & & Aout(idUTav(itrc),ng), 'Aout(idUTav)', & & 'Write out averaged for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO DO itrc=1,NAT+NPT IF (Aout(idVTav(itrc),ng)) WRITE (out,180) & & Aout(idVTav(itrc),ng), 'Aout(idVTav)', & & 'Write out averaged for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO DO itrc=1,NAT+NPT IF (Aout(iHUTav(itrc),ng)) WRITE (out,180) & & Aout(iHUTav(itrc),ng), 'Aout(iHUTav)', & & 'Write out averaged for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO DO itrc=1,NAT+NPT IF (Aout(iHVTav(itrc),ng)) WRITE (out,180) & & Aout(iHVTav(itrc),ng), 'Aout(iHVTav)', & & 'Write out averaged for tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif # if defined AVERAGES && defined AVERAGES_DETIDE && \ (defined SSH_TIDES || defined UV_TIDES) WRITE (out,'(1x)') IF (Aout(idFsuD,ng)) WRITE (out,170) Aout(idFsuD,ng), & & 'Aout(idFsuD)', & & 'Write out detided free-surface.' IF (Aout(idu2dD,ng)) WRITE (out,170) Aout(idu2dD,ng), & & 'Aout(idu2dD)', & & 'Write out detided 2D U-velocity.' IF (Aout(idv2dD,ng)) WRITE (out,170) Aout(idv2dD,ng), & & 'Aout(idv2dD)', & & 'Write out detided 2D V-velocity.' # ifdef SOLVE3D IF (Aout(idu3dD,ng)) WRITE (out,170) Aout(idu3dD,ng), & & 'Aout(idu3dD)', & & 'Write out detided 3D U-velocity.' IF (Aout(idv3dD,ng)) WRITE (out,170) Aout(idv3dD,ng), & & 'Aout(idv3dD)', & & 'Write out detided 3D V-velocity.' DO itrc=1,NAT IF (Aout(idTrcD(itrc),ng)) WRITE (out,180) & & Aout(idTrcD(itrc),ng), 'Aout(idTrcD)', & & 'Write out detided tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif # endif END IF #endif #ifdef DIAGNOSTICS_UV IF ((nDIA(ng).gt.0).and.ANY(Dout(:,ng))) THEN WRITE (out,'(1x)') IF (Dout(idDu2d(M2rate),ng).or.Dout(idDv2d(M2rate),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2rate)', & & 'Write out 2D momentum acceleration.' IF (Dout(idDu2d(M2pgrd),ng).or.Dout(idDv2d(M2pgrd),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2pgrd)', & & 'Write out 2D momentum pressure gradient.' # ifdef UV_COR IF (Dout(idDu2d(M2fcor),ng).or.Dout(idDv2d(M2fcor),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2fcor)', & & 'Write out 2D momentum Coriolis force.' # endif # ifdef UV_ADV IF (Dout(idDu2d(M2hadv),ng).or.Dout(idDv2d(M2hadv),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2hadv)', & & 'Write out 2D momentum horizontal advection.' IF (Dout(idDu2d(M2xadv),ng).or.Dout(idDv2d(M2xadv),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2xadv)', & & 'Write out 2D momentum horizontal X-advection.' IF (Dout(idDu2d(M2yadv),ng).or.Dout(idDv2d(M2yadv),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2yadv)', & & 'Write out 2D momentum horizontal Y-advection.' # endif # ifdef NEARSHORE_MELLOR IF (Dout(idDu2d(M2hrad),ng).or.Dout(idDv2d(M2hrad),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2hrad)', & & 'Write out 2D momentum horizontal radiation stress.' # endif # if defined UV_VIS2 || defined UV_VIS4 IF (Dout(idDu2d(M2hvis),ng).or.Dout(idDv2d(M2hvis),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2hvis)', & & 'Write out 2D momentum horizontal viscosity.' IF (Dout(idDu2d(M2xvis),ng).or.Dout(idDv2d(M2xvis),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2xvis)', & & 'Write out 2D momentum horizontal X-viscosity.' IF (Dout(idDu2d(M2yvis),ng).or.Dout(idDv2d(M2yvis),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2yvis)', & & 'Write out 2D momentum horizontal Y-viscosity.' # endif IF (Dout(idDu2d(M2sstr),ng).or.Dout(idDv2d(M2sstr),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2sstr)', & & 'Write out 2D momentum surface stress.' IF (Dout(idDu2d(M2bstr),ng).or.Dout(idDv2d(M2bstr),ng)) & & WRITE (out,170) .TRUE., 'Dout(M2bstr)', & & 'Write out 2D momentum bottom stress.' # ifdef SOLVE3D WRITE (out,'(1x)') IF (Dout(idDu3d(M3rate),ng).or.Dout(idDv3d(M3rate),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3rate)', & & 'Write out 3D momentum acceleration.' IF (Dout(idDu3d(M3pgrd),ng).or.Dout(idDv3d(M3pgrd),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3pgrd)', & & 'Write out 3D momentum pressure gradient.' # ifdef UV_COR IF (Dout(idDu3d(M3fcor),ng).or.Dout(idDv3d(M3fcor),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3fcor)', & & 'Write out 3D momentum Coriolis force.' # endif # ifdef UV_ADV IF (Dout(idDu3d(M3hadv),ng).or.Dout(idDv3d(M3hadv),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3hadv)', & & 'Write out 3D momentum horizontal advection.' IF (Dout(idDu3d(M3xadv),ng).or.Dout(idDv3d(M3xadv),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3xadv)', & & 'Write out 3D momentum horizontal X-advection.' IF (Dout(idDu3d(M3yadv),ng).or.Dout(idDv3d(M3yadv),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3yadv)', & & 'Write out 3D momentum horizontal Y-advection.' IF (Dout(idDu3d(M3vadv),ng).or.Dout(idDv3d(M3vadv),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3vadv)', & & 'Write out 3D momentum vertical advection.' # endif # ifdef NEARSHORE_MELLOR IF (Dout(idDu3d(M3hrad),ng).or.Dout(idDv3d(M3hrad),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3hrad)', & & 'Write out 3D momentum horizontal radiation stress.' IF (Dout(idDu3d(M3vrad),ng).or.Dout(idDv3d(M3vrad),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3vrad)', & & 'Write out 3D momentum vertical radiation stress.' # endif # if defined UV_VIS2 || defined UV_VIS4 IF (Dout(idDu3d(M3hvis),ng).or.Dout(idDv3d(M3hvis),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3hvis)', & & 'Write out 3D momentum horizontal viscosity.' IF (Dout(idDu3d(M3xvis),ng).or.Dout(idDv3d(M3xvis),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3xvis)', & & 'Write out 3D momentum horizontal X-viscosity.' IF (Dout(idDu3d(M3yvis),ng).or.Dout(idDv3d(M3yvis),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3yvis)', & & 'Write out 3D momentum horizontal Y-viscosity.' # endif IF (Dout(idDu3d(M3vvis),ng).or.Dout(idDv3d(M3vvis),ng)) & & WRITE (out,170) .TRUE., 'Dout(M3vvis)', & & 'Write out 3D momentum vertical viscosity.' # endif END IF #endif #if defined DIAGNOSTICS_TS && defined SOLVE3D IF (nDIA(ng).gt.0) THEN WRITE (out,'(1x)') DO itrc=1,NAT IF (Dout(idDtrc(itrc,iTrate),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTrate)', & & 'Write out rate of change of tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iTrate),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTrate)', & & 'Write out rate of change of tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif DO itrc=1,NAT IF (Dout(idDtrc(itrc,iThadv),ng)) & & WRITE (out,180) .TRUE., 'Dout(iThadv)', & & 'Write out horizontal advection, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iThadv),ng)) & & WRITE (out,180) .TRUE., 'Dout(iThadv)', & & 'Write out horizontal advection, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif DO itrc=1,NAT IF (Dout(idDtrc(itrc,iTxadv),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTxadv)', & & 'Write out horizontal X-advection, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iTxadv),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTxadv)', & & 'Write out horizontal X-advection, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif DO itrc=1,NAT IF (Dout(idDtrc(itrc,iTyadv),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTyadv)', & & 'Write out horizontal Y-advection, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iTyadv),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTyadv)', & & 'Write out horizontal Y-advection, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif DO itrc=1,NAT IF (Dout(idDtrc(itrc,iTvadv),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTvadv)', & & 'Write out vertical advection, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iTvadv),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTvadv)', & & 'Write out vertical advection, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif # if defined TS_DIF2 || defined TS_DIF4 DO itrc=1,NAT IF (Dout(idDtrc(itrc,iThdif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iThdif)', & & 'Write out horizontal diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iThdif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iThdif)', & & 'Write out horizontal diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif DO itrc=1,NAT IF (Dout(idDtrc(itrc,iTxdif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTxdif)', & & 'Write out horizontal X-diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(i,iTxdif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTxdif)', & & 'Write out horizontal X-diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif DO itrc=1,NAT IF (Dout(idDtrc(itrc,iTydif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTydif)', & & 'Write out horizontal Y-diffusion , tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iTydif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTydif)', & & 'Write out horizontal Y-diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif # if defined MIX_GEO_TS || defined MIX_ISO_TS DO itrc=1,NAT IF (Dout(idDtrc(itrc,iTsdif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTsdif)', & & 'Write out horizontal S-diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iTsdif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTsdif)', & & 'Write out horizontal S-diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif # endif # endif DO itrc=1,NAT IF (Dout(idDtrc(itrc,iTvdif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTvdif)', & & 'Write out vertical diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # ifdef T_PASSIVE DO i=1,NPT itrc=inert(i) IF (Dout(idDtrc(itrc,iTvdif),ng)) & & WRITE (out,180) .TRUE., 'Dout(iTvdif)', & & 'Write out vertical diffusion, tracer ', itrc, & & TRIM(Vname(1,idTvar(itrc))) END DO # endif END IF #endif WRITE (out,'(1x)') IF (inp_lib.eq.io_nf90) THEN WRITE (out,120) inp_lib, 'inp_lib', & & 'Using standard NetCDF library for input files.' #if defined PIO_LIB && defined DISTRIBUTE ELSE IF (inp_lib.eq.io_pio) THEN WRITE (out,120) inp_lib, 'inp_lib', & & 'Using Parallel-IO (PIO) library for input files.' #endif END IF IF (out_lib.eq.io_nf90) THEN WRITE (out,120) out_lib, 'out_lib', & & 'Using standard NetCDF library for output files.' #if defined PIO_LIB && defined DISTRIBUTE ELSE IF (inp_lib.eq.io_pio) THEN WRITE (out,120) out_lib, 'out_lib', & & 'Using Parallel-IO (PIO) library for output files.' #endif END IF #if defined PIO_LIB && defined DISTRIBUTE SELECT CASE (pio_method) CASE (0) text='Parallel read and write of PnetCDF files (CDF-5).' CASE (PIO_iotype_pnetcdf) text='Parallel read and write of PnetCDF files (NetCDF3).' CASE (PIO_iotype_netcdf) text='Serial read and write of NetCDF3 files.' CASE (PIO_iotype_netcdf4c) text='Parallel read and serial write of compressed '// & & 'NetCDF4 (HDF5) files.' CASE (PIO_iotype_netcdf4p) text='Parallel read and write of NETCDF4 (HDF5) files.' END SELECT WRITE (out,120) pio_method, 'pio_method', TRIM(text) WRITE (out,120) pio_NumIOtasks, 'pio_NumIOtasks', & & 'Number of mpi-processors used for I/O.' WRITE (out,120) pio_stride, 'pio_stride', & & 'Stride step in the mpi-rank between I/O tasks.' WRITE (out,120) pio_base, 'pio_base', & & 'Offset for the first I/O task.' WRITE (out,120) pio_aggregator, 'pio_aggregator', & & 'Number of mpi-aggregators for intra-communications.' SELECT CASE (pio_rearranger) CASE (PIO_rearr_box) text='Box rearrangement method.' CASE (PIO_rearr_subset) text='Subset rearrangement method.' END SELECT WRITE (out,120) pio_rearranger, 'pio_rearranger', TRIM(text) SELECT CASE (pio_rearr_comm) CASE (PIO_rearr_comm_p2p) text='Point-to-Point rearranger communications.' CASE (PIO_rearr_comm_coll) text='Collective rearranger communications.' END SELECT WRITE (out,120) pio_rearr_comm, 'pio_rearr_comm', TRIM(text) SELECT CASE (pio_rearr_fcd) CASE (PIO_rearr_comm_fc_2d_enable) text='Enabled C2I flow control, and vice versa.' CASE (PIO_rearr_comm_fc_1d_comp2io) text='Enabled C2I flow control only.' CASE (PIO_rearr_comm_fc_1d_io2comp) text='Enabled I2C flow control only.' CASE (PIO_rearr_comm_fc_2d_disable) text='Disabled flow control' END SELECT WRITE (out,120) pio_rearr_fcd, 'pio_rearr_fcd', TRIM(text) WRITE (out,170) pio_rearr_C2I_HS, 'pio_rearr_C2I_HS', & & 'Enabled C2I rearranger handshake.' WRITE (out,170) pio_rearr_I2C_HS, 'pio_rearr_I2C_HS', & & 'Enabled I2C rearranger handshake.' WRITE (out,170) pio_rearr_C2I_iS, 'pio_rearr_C2I_iS', & & 'Enabled C2I rearranger mpi-Isends.' WRITE (out,170) pio_rearr_I2C_iS, 'pio_rearr_I2C_iS', & & 'Enabled I2C rearranger mpi-Isends.' WRITE (out,120) pio_rearr_C2I_PR, 'pio_rearr_C2I_PR', & & 'Maximum C2I rearranger pending requests.' WRITE (out,120) pio_rearr_I2C_PR, 'pio_rearr_I2C_PR', & & 'Maximum I2C rearranger pending requests.' #endif #if defined HDF5 && defined DEFLATE WRITE (out,120) shuffle, 'shuffle', & & 'NetCDF-4/HDF5 file format shuffle filer flag.' WRITE (out,120) deflate, 'deflate', & & 'NetCDF-4/HDF5 file format deflate filer flag.' WRITE (out,120) deflate_level, 'deflate_level', & & 'NetCDF-4/HDF5 file format deflate level parameter.' #endif END DO END IF ! !----------------------------------------------------------------------- ! Report output/input files and check availability of input files. !----------------------------------------------------------------------- ! DO ng=1,Ngrids IF (Master.and.Lwrite) THEN WRITE (out,220) #if !defined CORRELATION # if defined FOUR_DVAR || defined ENKF_RESTART WRITE (out,230) ' Output DA Initial/Restart File: ', & & TRIM(DAI(ng)%name) # endif # ifdef PROPAGATOR WRITE (out,230) ' Output GST Restart File: ', & & TRIM(GST(ng)%name) # endif WRITE (out,230) ' Output Restart File: ', & & TRIM(RST(ng)%name) IF (LdefHIS(ng)) THEN IF (ndefHIS(ng).eq.0) THEN WRITE (out,230) ' Output History File: ', & & TRIM(HIS(ng)%name) ELSE WRITE (out,230) ' Prefix for History Files: ', & & TRIM(HIS(ng)%head) END IF END IF # ifdef TANGENT IF (ndefTLM(ng).eq.0) THEN WRITE (out,230) ' Output Tangent File: ', & & TRIM(TLM(ng)%name) ELSE WRITE (out,230) ' Prefix for Tangent Files: ', & & TRIM(TLM(ng)%head) END IF # endif # ifdef WEAK_CONSTRAINT WRITE (out,230) ' Output Impulse Forcing File: ', & & TRIM(TLF(ng)%name) # endif #endif #ifdef ADJOINT IF (ndefADJ(ng).eq.0) THEN WRITE (out,230) ' Output Adjoint File: ', & & TRIM(ADM(ng)%name) ELSE WRITE (out,230) ' Prefix for Adjoint Files: ', & & TRIM(ADM(ng)%head) END IF #endif #if !defined CORRELATION # if defined FORWARD_WRITE && !defined FOUR_DVAR WRITE (out,230) ' Output Forward State File: ', & & TRIM(FWD(ng)%name) # endif # if defined AVERAGES || \ (defined AD_AVERAGES && defined ADJOINT) || \ (defined RP_AVERAGES && defined TL_IOMS) || \ (defined TL_AVERAGES && defined TANGENT) IF (ndefAVG(ng).eq.0) THEN WRITE (out,230) ' Output Averages File: ', & & TRIM(AVG(ng)%name) ELSE WRITE (out,230) ' Prefix for Averages Files: ', & & TRIM(AVG(ng)%head) END IF # endif # if defined AVERAGES && defined AVERAGES_DETIDE && \ (defined SSH_TIDES || defined UV_TIDES) WRITE (out,230) ' Output Detiding Harmonics File: ', & & TRIM(HAR(ng)%name) # endif # ifdef DIAGNOSTICS IF (ndefDIA(ng).eq.0) THEN WRITE (out,230) ' Output Diagnostics File: ', & & TRIM(DIA(ng)%name) ELSE WRITE (out,230) ' Prefix for Diagnostics Files: ', & & TRIM(DIA(ng)%head) END IF # endif # ifdef STATIONS WRITE (out,230) ' Output Stations File: ', & & TRIM(STA(ng)%name) # endif # ifdef FLOATS WRITE (out,230) ' Output Floats File: ', & & TRIM(FLT(ng)%name) # endif # ifdef MODEL_COUPLING WRITE (out,230) ' Physical parameters File: ', & & TRIM(Iname) # endif #endif END IF #ifndef ANA_GRID fname=GRD(ng)%name IF (.not.find_file(ng, out, fname, 'GRDNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Input Grid File: ', TRIM(fname) END IF #endif #if !defined CORRELATION # ifdef NESTING fname=NGCname IF (.not.find_file(ng, out, fname, 'NGCNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Nesting grid connectivity File: ', TRIM(fname) END IF # endif #endif #ifdef INI_FILE # ifdef NONLINEAR fname=INI(ng)%name IF (.not.find_file(ng, out, fname, 'ININAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & ' Input Nonlinear Initial File: ', TRIM(fname) END IF # endif # if !defined CORRELATION # if defined TANGENT && \ !(defined FOUR_DVAR || defined I4DVAR_ANA_SENSITIVITY || \ defined JEDI || defined OPT_OBSERVATIONS || \ defined SANITY_CHECK || defined SENSITIVITY_4DVAR || \ defined TLM_CHECK) fname=ITL(ng)%name IF (.not.find_file(ng, out, fname, 'ITLNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Input Tangent Initial File: ', TRIM(fname) END IF # endif # if defined WEAK_CONSTRAINT && \ !(defined RBL4DVAR || \ defined RBL4DVAR_ANA_SENSITIVITY || \ defined RBL4DVAR_FCT_SENSITIVITY || \ defined R_SYMMETRY || \ defined SP4DVAR) fname=IRP(ng)%name IF (.not.find_file(ng, out, fname, 'IRPNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Input Representer Initial File: ', TRIM(fname) END IF # endif # if defined ADJOINT && \ !(defined AD_SENSITIVITY || defined FOUR_DVAR || \ defined I4DVAR_ANA_SENSITIVITY || defined FORCING_SV || \ defined OPT_OBSERVATIONS || defined OPT_PERTURBATION || \ defined SANITY_CHECK || defined SENSITIVITY_4DVAR || \ defined SO_SEMI || defined STOCHASTIC_OPT || \ defined HESSIAN_SV || defined HESSIAN_SO || \ defined HESSIAN_FSV || defined JEDI) fname=IAD(ng)%name IF (.not.find_file(ng, out, fname, 'IADNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Input Adjoint Initial File: ', TRIM(fname) END IF # endif # endif #endif #if !defined CORRELATION # ifndef ANA_PSOURCE IF (LuvSrc(ng).or.LwSrc(ng).or.(ANY(LtracerSrc(:,ng)))) THEN fname=SSF(ng)%name IF (.not.find_file(ng, out, fname, 'SSFNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Input Sources/Sinks File: ', TRIM(fname) END IF END IF # endif # if defined SSH_TIDES || defined UV_TIDES IF (ng.eq.1) THEN ! only tidal forcing on grid 1 fname=TIDE(ng)%name IF (.not.find_file(ng, out, fname, 'TIDENAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Tidal Forcing File: ', TRIM(fname) END IF END IF # endif # ifdef FRC_FILE DO i=1,nFfiles(ng) DO ifile=1,FRC(i,ng)%Nfiles fname=FRC(i,ng)%files(ifile) IF (.not.find_file(ng, out, fname, 'FRCNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) & & RETURN ELSE IF (ifile.eq.1) THEN IF (Master.and.Lwrite) WRITE (out,310) & & ' Input Forcing File ', i,': ', TRIM(fname) ELSE IF (Master.and.Lwrite) WRITE (out,'(37x,a)') TRIM(fname) END IF END IF END DO END DO # endif DO i=1,nCLMfiles(ng) IF (CLM_FILE(ng)) THEN DO ifile=1,CLM(i,ng)%Nfiles fname=CLM(i,ng)%files(ifile) IF (.not.find_file(ng, out, fname, 'CLMNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) & & RETURN ELSE IF (ifile.eq.1) THEN IF (Master.and.Lwrite) WRITE (out,310) & & ' Input Climatology File ',i,': ',TRIM(fname) ELSE IF (Master.and.Lwrite) WRITE (out,'(37x,a)') & & TRIM(fname) END IF END IF END DO END IF END DO # ifndef ANA_NUDGCOEF IF (LnudgeM2CLM(ng).or.LnudgeM3CLM(ng).or. & & (ANY(LnudgeTCLM(:,ng)))) THEN fname=NUD(ng)%name IF (.not.find_file(ng, out, fname, 'NUDNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Input Nudge Coefficients File: ', TRIM(fname) END IF END IF # endif # if defined FORWARD_READ && \ !(defined FOUR_DVAR || defined JEDI || defined PICARD_TEST) DO ifile=1,FWD(ng)%Nfiles fname=FWD(ng)%files(ifile) IF (.not.find_file(ng, out, fname, 'FWDNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (ifile.eq.1) THEN IF (Master.and.Lwrite) WRITE (out,230) & & ' Input Forward State File: ', TRIM(fname) ELSE WRITE (out,'(37x,a)') TRIM(fname) END IF END IF END DO # endif # if defined AD_SENSITIVITY || defined I4DVAR_ANA_SENSITIVITY || \ defined OPT_OBSERVATIONS || defined SENSITIVITY_4DVAR || \ defined SO_SEMI # ifndef OBS_SPACE fname=ADS(ng)%name IF (.not.find_file(ng, out, fname, 'ADSNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Input Adjoint Sensitivity File: ', TRIM(fname) END IF # endif # endif ! IF (ObcData(ng)) THEN DO i=1,nBCfiles(ng) DO ifile=1,BRY(i,ng)%Nfiles fname=BRY(i,ng)%files(ifile) IF (.not.find_file(ng, out, fname, 'BRYNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) & & RETURN ELSE IF (ifile.eq.1) THEN IF (Master.and.Lwrite) WRITE (out,310) & & ' Input Lateral Boundary File ', i, ': ', & & TRIM(fname) ELSE IF (Master.and.Lwrite) WRITE (out,'(37x,a)') & & TRIM(fname) END IF END IF END DO END DO END IF # ifdef STATIONS fname=sposnam IF (.not.find_file(ng, out, fname, 'SPOSNAM')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Station positions File: ', TRIM(fname) END IF # endif #endif #ifdef FOUR_DVAR fname=aparnam IF (.not.find_file(ng, out, fname, 'APARNAM')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Assimilation Parameters File: ', TRIM(fname) END IF #endif #if !defined CORRELATION # ifdef FLOATS fname=fposnam IF (.not.find_file(ng, out, fname, 'FPOSNAM')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Initial Floats Positions File: ', TRIM(fname) END IF # endif # ifdef BIOLOGY fname=bparnam IF (.not.find_file(ng, out, fname, 'BPARNAM')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & ' Biology Parameters File: ', TRIM(fname) END IF # endif #endif fname=varname IF (.not.find_file(ng, out, fname, 'VARNAME')) THEN IF (FoundError(exit_flag, NoError, __LINE__, MyFile)) RETURN ELSE IF (Master.and.Lwrite) WRITE (out,230) & & 'ROMS I/O variables Metadata File: ', TRIM(fname) END IF END DO IF (Nuser.gt.0) THEN IF (Master.and.Lwrite) WRITE (out,230) & & ' Input/Output USER File: ', TRIM(USRname) END IF ! !----------------------------------------------------------------------- ! Report generic USER parameters. !----------------------------------------------------------------------- ! IF (Nuser.gt.0) THEN IF (Master.and.Lwrite) THEN WRITE (out,240) DO i=1,Nuser WRITE (out,250) user(i), i, i END DO END IF END IF #if !defined ANA_TIDES && \ (defined TIDE_GENERATING_FORCES || \ defined SSH_TIDES || defined UV_TIDES) ! !----------------------------------------------------------------------- ! Check and report tidal reference date for zero phase. !----------------------------------------------------------------------- ! DO ng=1,Ngrids CALL tides_date (ng) END DO #endif #if defined WEAK_CONSTRAINT && \ (defined POSTERIOR_EOFS || defined POSTERIOR_ERROR_F || \ defined POSTERIOR_ERROR_I) ! !----------------------------------------------------------------------- ! If weak constraint and estimating posterior analysis error ! covariance matrix, stop it using Nouter > 1. Currently, the ! analysis is only possible for Nouter = 1. !----------------------------------------------------------------------- ! IF (Nouter.gt.1) THEN IF (Master) THEN WRITE (out,330) 'Nouter = ', Nouter, & & 'Posterior analysis error available for Nouter=1 only.' END IF exit_flag=5 RETURN END IF #endif #ifdef NESTING ! !----------------------------------------------------------------------- ! If nesting, make sure that all grids are computing solutions for the ! same amount of time (seconds). !----------------------------------------------------------------------- ! IF (.not.allocated(RunTimeDay)) THEN allocate ( RunTimeDay(Ngrids) ) END IF IF (.not.allocated(RunTimeSec)) THEN allocate ( RunTimeSec(Ngrids) ) END IF DO ng=1,Ngrids RunTimeSec(ng)=REAL(ntimes(ng),r8)*dt(ng) RunTimeDay(ng)=RunTimeSec(ng)*sec2day END DO DO ng=2,Ngrids IF (ABS(RunTimeSec(1)-RunTimeSec(ng)).ne.0.0_r8) THEN IF (Master) THEN WRITE (out,340) 1, RunTimeSec( 1), RunTimeDay( 1), & & ng, RunTimeSec(ng), RunTimeDay(ng) END IF exit_flag=5 RETURN END IF END DO #endif #ifdef SOLVE3D ! !----------------------------------------------------------------------- ! Rescale active tracer parameters !----------------------------------------------------------------------- ! DO ng=1,Ngrids DO i=1,NAT+NPT itrc=i # ifdef T_PASSIVE IF (i.gt.NAT) itrc=inert(i-NAT) # endif ! ! Take the square root of the biharmonic coefficients so it can ! be applied to each harmonic operator. ! nl_tnu4(itrc,ng)=SQRT(ABS(nl_tnu4(itrc,ng))) #ifdef ADJOINT ad_tnu4(itrc,ng)=SQRT(ABS(ad_tnu4(itrc,ng))) #endif #if defined TANGENT || defined TL_IOMS tl_tnu4(itrc,ng)=SQRT(ABS(tl_tnu4(itrc,ng))) #endif ! ! Compute inverse nudging coefficients (1/s) used in various tasks. ! IF (Tnudg(itrc,ng).gt.0.0_r8) THEN Tnudg(itrc,ng)=1.0_r8/(Tnudg(itrc,ng)*86400.0_r8) ELSE Tnudg(itrc,ng)=0.0_r8 END IF END DO END DO #endif 50 FORMAT (/,' READ_PhyPar - Error while processing line: ',/,a) 60 FORMAT (/,1x,a,/, & & /,1x,'Operating system : ',a, & & /,1x,'CPU/hardware : ',a, & & /,1x,'Compiler system : ',a, & & /,1x,'Compiler command : ',a, & & /,1x,'Compiler flags : ',a, & #ifdef DISTRIBUTE # if defined PIO_LIB && \ (defined ASYNCHRONOUS_PIO || defined ASYNCHRONOUS_SCORPIO) & /,1x,'Peer Communicator : ',i0,', PET size = ',i0, & & /,1x,'OCN Communicator : ',i0,', PET size = ',i0, & & /,1x,'I/O Communicator : ',i0,', PET size = ',i0, & & 2x,'(Peer Ranks: ',a,')', & # ifdef ASYNCHRONOUS_SCORPIO & /,1x,'InterCommunicator : ',i0, & # endif # endif # ifdef DISJOINTED & /,1x,'Full Communicator : ',i0,', PET size = ',i0, & & ', Disjointed Subgroups = ',i0, & & /,1x,'Fork Communicator : ',i0,', PET size = ',i0, & & ', Color Range = ',i0,' to ',i0, & # ifdef CONCURRENT_KERNEL & /,1x,'Task Communicator : ',i0,', PET size = ',i0, & & ', Color Range = ',i0,' to ',i0, & # endif # endif # if !(defined PIO_LIB && \ (defined ASYNCHRONOUS_PIO || defined ASYNCHRONOUS_SCORPIO)) && \ !defined DISJOINTED & /,1x,'OCN Communicator : ',i0,', PET size = ',i0,/, & # endif & /,1x,'Input Script : ',a,/, & #endif #ifdef GIT_URL & /,1x,'GIT Root URL : ',a, & & /,1x,'GIT Revision : ',a, & #endif & /,1x,'SVN Root URL : ',a, & & /,1x,'SVN Revision : ',a,/, & & /,1x,'Local Root : ',a, & & /,1x,'Header Dir : ',a, & & /,1x,'Header file : ',a, & & /,1x,'Analytical Dir : ',a) 70 FORMAT (/,' Resolution, Grid ',i2.2,': ',i0,'x',i0,'x',i0, & & ',',2x,'Parallel Nodes: ',i0,',',2x,'Tiling: ',i0, & & 'x',i0) 80 FORMAT (/,' ROMS/TOMS: Wrong choice of grid ',i2.2,1x, & & 'partition or number of parallel nodes.', & & /,12x,a,1x,i0,/,12x, & & 'must be equal to the number of parallel processes = ', & & i0,/,12x,'Change -np value to mpirun or', & & /,12x,'change domain partition in input script.') 90 FORMAT (/,' Resolution, Grid ',i2.2,': ',i0,'x',i0,'x',i0, & & ',',2x,'Parallel Threads: ',i0,',',2x,'Tiling: ',i0, & & 'x',i0) 100 FORMAT (/,' ROMS/TOMS: Wrong choice of grid ',i2.2,1x, & & 'partition or number of parallel threads.', & & /,12x,'NtileI*NtileJ must be a positive multiple of the', & & ' number of threads.', & & /,12x,'Change number of threads (environment variable) ', & & 'or',/,12x,'change domain partition in input script.') 110 FORMAT (/,/,' Physical Parameters, Grid: ',i2.2, & & /, ' =============================',/) 120 FORMAT (1x,i10,2x,a,t32,a) 130 FORMAT (1x,i10,2x,a,t32,a,/,t34,a) 140 FORMAT (f11.3,2x,a,t32,a) 150 FORMAT (f11.2,2x,a,t32,a) 160 FORMAT (f11.3,2x,a,t32,a,/,t34,a) 170 FORMAT (10x,l1,2x,a,t32,a) 180 FORMAT (10x,l1,2x,a,t32,a,i2.2,':',1x,a) 185 FORMAT (10x,l1,2x,a,'(',i2.2,')',t32,a,i2.2,':',1x,a) 190 FORMAT (1p,e11.4,2x,a,'(',i2.2,')',t32,a,/,t34,a,i2.2,':',1x,a) 195 FORMAT (1p,e11.4,2x,a,t32,a,i2.2,':',1x,a) 200 FORMAT (1p,e11.4,2x,a,t32,a) 210 FORMAT (1p,e11.4,2x,a,t32,a,/,t34,a) 220 FORMAT (/,' Output/Input Files:',/) 230 FORMAT (2x,a,a) 240 FORMAT (/,' Generic User Parameters:',/) 250 FORMAT (1p,e11.4,2x,'user(',i2.2,')',t32, & & 'User parameter ',i2.2,'.') 260 FORMAT (/,' READ_PHYPAR - Invalid input parameter, ',a, & & i4,/,15x,a) ! Hernan - it wanted a logical character here, not an integer 261 FORMAT (/,' READ_PHYPAR - Invalid input parameter, ',a, & & a4,/,15x,a) 265 FORMAT (/,' READ_PHYPAR - Invalid input parameter, ',a, & & 1p,e11.4,/,15x,a) 280 FORMAT (/,' READ_PHYPAR - Variable index not yet loaded, ', a) 290 FORMAT (/,' READ_PHYPAR - Invalid dimension parameter, ',a,i0, & & /,15x,a) 300 FORMAT (/,' READ_PHYPAR - Invalid dimension parameter, ',a,'(', & & i2.2,')',/,15x,a) 310 FORMAT (2x,a,i2.2,a,a) 320 FORMAT (/,' READ_PHYPAR - Could not find input parameter: ', a, & & /,15x,'in ROMS standard input script.',/,15x,a) 330 FORMAT (/,' READ_PHYPAR - Invalid input parameter, ',a,i4,/,15x,a) 340 FORMAT (/,' READ_PHYPAR - Inconsistent time-stepping period:', & & /,15x,'Grid ',i2.2,':',f14.1,' (sec)',2x,f14.2,' (days)', & & /,15x,'Grid ',i2.2,':',f14.1,' (sec)',2x,f14.2,' (days)', & & /,15x,'Adjust standard input parameter NTIMES in ', & & '''roms.in''.'/) 350 FORMAT (/,' READ_PHYPAR - Invalid input parameter, ',a,i0, & & ', for grid ',i2.2,/,15x,a,i0,', ',a,i0,/,15x,a,/,15x,a) RETURN END SUBROUTINE read_PhyPar