subroutine read_inp (ierr) integer*4 LLm,Lm,MMm,Mm,N, LLm0,MMm0 parameter (LLm0=159, MMm0=209, N=32) parameter (LLm=LLm0, MMm=MMm0) integer*4 Lmmpi,Mmmpi,iminmpi,imaxmpi,jminmpi,jmaxmpi common /comm_setup_mpi1/ Lmmpi,Mmmpi common /comm_setup_mpi2/ iminmpi,imaxmpi,jminmpi,jmaxmpi integer*4 NSUB_X, NSUB_E, NPP integer*4 NP_XI, NP_ETA, NNODES parameter (NP_XI=2, NP_ETA=2, NNODES=NP_XI*NP_ETA) parameter (NPP=1) parameter (NSUB_X=1, NSUB_E=1) integer*4 NWEIGHT parameter (NWEIGHT=1000) integer*4 stdout, Np, padd_X,padd_E common /stdout/stdout parameter (Np=N+1) parameter (Lm=(LLm+NP_XI-1)/NP_XI, Mm=(MMm+NP_ETA-1)/NP_ETA) parameter (padd_X=(Lm+2)/2-(Lm+1)/2) parameter (padd_E=(Mm+2)/2-(Mm+1)/2) integer*4 NSA, N2d,N3d, size_XI,size_ETA integer*4 se,sse, sz,ssz parameter (NSA=28) parameter (size_XI=7+(Lm+NSUB_X-1)/NSUB_X) parameter (size_ETA=7+(Mm+NSUB_E-1)/NSUB_E) parameter (sse=size_ETA/Np, ssz=Np/size_ETA) parameter (se=sse/(sse+ssz), sz=1-se) parameter (N2d=size_XI*(se*size_ETA+sz*Np)) parameter (N3d=size_XI*size_ETA*Np) real Vtransform parameter (Vtransform=2) integer*4 NT, NTA, itemp, NTot integer*4 ntrc_temp, ntrc_salt, ntrc_pas, ntrc_bio, ntrc_sed integer*4 ntrc_subs, ntrc_substot parameter (itemp=1) parameter (ntrc_temp=1) parameter (ntrc_salt=1) parameter (ntrc_pas=0) parameter (ntrc_bio=0) parameter (ntrc_subs=0, ntrc_substot=0) parameter (ntrc_sed=0) parameter (NTA=itemp+ntrc_salt) parameter (NT=itemp+ntrc_salt+ntrc_pas+ntrc_bio+ntrc_sed) parameter (NTot=NT) integer*4 ntrc_diats, ntrc_diauv, ntrc_diabio integer*4 ntrc_diavrt, ntrc_diaek, ntrc_diapv integer*4 ntrc_diaeddy, ntrc_surf & , isalt parameter (isalt=itemp+1) parameter (ntrc_diabio=0) parameter (ntrc_diats=0) parameter (ntrc_diauv=0) parameter (ntrc_diavrt=0) parameter (ntrc_diaek=0) parameter (ntrc_diapv=0) parameter (ntrc_diaeddy=0) parameter (ntrc_surf=0) real dt, dtfast, time, time2, time_start, tdays, start_time integer*4 ndtfast, iic, kstp, krhs, knew, next_kstp & , iif, nstp, nrhs, nnew, nbstep3d logical PREDICTOR_2D_STEP common /time_indices/ dt,dtfast, time, time2,time_start, tdays, & ndtfast, iic, kstp, krhs, knew, next_kstp, & start_time, & iif, nstp, nrhs, nnew, nbstep3d, & PREDICTOR_2D_STEP real time_avg, time2_avg, rho0 & , rdrg, rdrg2, Cdb_min, Cdb_max, Zobt & , xl, el, visc2, visc4, gamma2 real theta_s, theta_b, Tcline, hc real sc_w(0:N), Cs_w(0:N), sc_r(N), Cs_r(N) real rx0, rx1 real tnu2(NT),tnu4(NT) real weight(6,0:NWEIGHT) real x_sponge, v_sponge real tauT_in, tauT_out, tauM_in, tauM_out integer*4 numthreads, ntstart, ntimes, ninfo & , nfast, nrrec, nrst, nwrt & , ntsavg, navg logical ldefhis logical got_tini(NT) common /scalars_main/ & time_avg, time2_avg, rho0, rdrg, rdrg2 & , Zobt, Cdb_min, Cdb_max & , xl, el, visc2, visc4, gamma2 & , theta_s, theta_b, Tcline, hc & , sc_w, Cs_w, sc_r, Cs_r & , rx0, rx1 & , tnu2, tnu4 & , weight & , x_sponge, v_sponge & , tauT_in, tauT_out, tauM_in, tauM_out & , numthreads, ntstart, ntimes, ninfo & , nfast, nrrec, nrst, nwrt & , ntsavg, navg & , got_tini & , ldefhis logical synchro_flag common /sync_flag/ synchro_flag integer*4 may_day_flag integer*4 tile_count, first_time, bc_count common /communicators_i/ & may_day_flag, tile_count, first_time, bc_count real hmin, hmax, grdmin, grdmax, Cu_min, Cu_max common /communicators_r/ & hmin, hmax, grdmin, grdmax, Cu_min, Cu_max real lonmin, lonmax, latmin, latmax common /communicators_lonlat/ & lonmin, lonmax, latmin, latmax real*8 Cu_Adv3d, Cu_W, Cu_Nbq_X, Cu_Nbq_Y, Cu_Nbq_Z integer*4 i_cx_max, j_cx_max, k_cx_max common /diag_vars/ Cu_Adv3d, Cu_W, & i_cx_max, j_cx_max, k_cx_max real*8 volume, avgke, avgpe, avgkp, bc_crss common /communicators_rq/ & volume, avgke, avgpe, avgkp, bc_crss real*4 CPU_time(0:31,0:NPP) integer*4 proc(0:31,0:NPP),trd_count common /timers_roms/CPU_time,proc,trd_count logical EAST_INTER2, WEST_INTER2, NORTH_INTER2, SOUTH_INTER2 logical EAST_INTER, WEST_INTER, NORTH_INTER, SOUTH_INTER logical CORNER_SW,CORNER_NW,CORNER_NE,CORNER_SE integer*4 mynode, mynode2, ii,jj, p_W,p_E,p_S,p_N, p_SW,p_SE, & p_NW,p_NE,NNODES2 common /comm_setup/ mynode, mynode2, ii,jj, p_W,p_E,p_S,p_N, & p_SW,p_SE, p_NW,p_NE, EAST_INTER, WEST_INTER, NORTH_INTER, & SOUTH_INTER, EAST_INTER2, WEST_INTER2, NORTH_INTER2, & SOUTH_INTER2, & CORNER_SW,CORNER_NW,CORNER_NE,CORNER_SE,NNODES2 real pi, deg2rad, rad2deg parameter (pi=3.14159265358979323846D0, deg2rad=pi/180.D0, & rad2deg=180.D0/pi) real Eradius, Erotation, g, day2sec,sec2day, jul_off, & year2day,day2year parameter (Eradius=6371315.0D0, Erotation=7.292115090D-5, & day2sec=86400.D0, sec2day=1.D0/86400.D0, & year2day=365.25D0, day2year=1.D0/365.25D0, & jul_off=2440000.D0) parameter (g=9.81D0) real Cp parameter (Cp=3985.0D0) real vonKar parameter (vonKar=0.41D0) real spval parameter (spval=-999.0D0) logical mask_val parameter (mask_val = .true.) integer*4 filetype_his, filetype_avg & ,filetype_dia, filetype_dia_avg & ,filetype_diaM, filetype_diaM_avg & ,filetype_diags_vrt, filetype_diags_vrt_avg & ,filetype_diags_ek, filetype_diags_ek_avg & ,filetype_diags_pv, filetype_diags_pv_avg & ,filetype_diags_eddy_avg & ,filetype_surf, filetype_surf_avg & ,filetype_diabio, filetype_diabio_avg parameter (filetype_his=1, filetype_avg=2, & filetype_dia=3, filetype_dia_avg=4, & filetype_diaM=5, filetype_diaM_avg=6, & filetype_diags_vrt=7, filetype_diags_vrt_avg=8, & filetype_diags_ek=9, filetype_diags_ek_avg=10, & filetype_diags_pv=11, filetype_diags_pv_avg=12, & filetype_diags_eddy_avg=17, & filetype_surf=13, filetype_surf_avg=14, & filetype_diabio=15,filetype_diabio_avg=16) integer*4 iloop, indextemp integer*4 indxTime, indxZ, indxUb, indxVb parameter (indxTime=1, indxZ=2, indxUb=3, indxVb=4) integer*4 indxU, indxV parameter (indxU=6, indxV=7) integer*4 indxT parameter (indxT=indxV+1) integer*4 indxS parameter (indxS=indxV+ntrc_temp+1) integer*4 indxBSD, indxBSS parameter (indxBSD=indxV+ntrc_temp+ntrc_salt+ntrc_pas+ntrc_bio+1, & indxBSS=101) integer*4 indxO, indxW, indxR, indxVisc, indxDiff, indxAkv, & indxAkt parameter (indxO=indxV+ntrc_temp+ntrc_salt+ntrc_pas+ntrc_bio & +ntrc_sed+ntrc_substot & +ntrc_diats+ntrc_diauv+ntrc_diavrt+ntrc_diaek & +ntrc_diapv+ntrc_diaeddy+ntrc_surf+ntrc_diabio+1, & indxW=indxO+1, indxR=indxO+2, indxVisc=indxO+3, & indxDiff=indxO+4,indxAkv=indxO+5, indxAkt=indxO+6) integer*4 indxAks parameter (indxAks=indxAkv+ntrc_temp+4) integer*4 indxHbl parameter (indxHbl=indxAkv+ntrc_temp+5) integer*4 indxHbbl parameter (indxHbbl=indxAkv+ntrc_temp+6) integer*4 indxSSH parameter (indxSSH=indxAkv+ntrc_temp+12) integer*4 indxbvf parameter (indxbvf=indxSSH+1) integer*4 indxSUSTR, indxSVSTR parameter (indxSUSTR=indxSSH+2, indxSVSTR=indxSSH+3) integer*4 indxTime2 parameter (indxTime2=indxSSH+4) integer*4 indxShflx, indxShflx_rsw parameter (indxShflx=indxSUSTR+5) integer*4 indxSwflx parameter (indxSwflx=indxShflx+1, indxShflx_rsw=indxShflx+2) integer*4 indxSST, indxdQdSST parameter (indxSST=indxShflx_rsw+1, indxdQdSST=indxShflx_rsw+2) integer*4 indxWstr parameter (indxWstr=indxSUSTR+23) integer*4 indxUWstr parameter (indxUWstr=indxSUSTR+24) integer*4 indxVWstr parameter (indxVWstr=indxSUSTR+25) integer*4 indxBostr parameter (indxBostr=indxSUSTR+26) integer*4 indxBustr, indxBvstr parameter (indxBustr=indxSUSTR+27, indxBvstr=indxBustr+1) integer*4 indxWWA,indxWWD,indxWWP,indxWEB,indxWED,indxWER parameter (indxWWA=indxSUSTR+42, indxWWD=indxWWA+1, & indxWWP=indxWWA+2 & ) integer*4 r2dvar, u2dvar, v2dvar, p2dvar, r3dvar, & u3dvar, v3dvar, p3dvar, w3dvar, & pw3dvar, b3dvar parameter (r2dvar=0, u2dvar=1, v2dvar=2, p2dvar=3, & r3dvar=4, u3dvar=5, v3dvar=6, p3dvar=7, w3dvar=8, & pw3dvar=11, b3dvar=12) integer*4 xi_rho,xi_u, eta_rho,eta_v parameter (xi_rho=LLm+2, xi_u=xi_rho-1, & eta_rho=MMm+2, eta_v=eta_rho-1) integer*4 ncidfrc, ncidbulk, ncidclm, ntsms & , ncidqbar, ncidbtf & , ntsrf, ntssh, ntsst, ntsss, ntuclm & , ntbulk, ntqbar, ntww integer*4 nttclm(NT), ntstf(NT), nttsrc(NT) & , ntbtf(NT) integer*4 ncidrst, nrecrst, nrpfrst & , rstTime, rstTime2, rstTstep, rstZ, rstUb, rstVb & , rstU, rstV integer*4 rstT(NT) integer*4 rstHbl integer*4 rstHbbl integer*4 ncidhis, nrechis, nrpfhis & , hisTime, hisTime2, hisTstep, hisZ, hisUb, hisVb & , hisBostr, hisWstr, hisUWstr, hisVWstr & , hisBustr, hisBvstr & , hisShflx, hisSwflx, hisShflx_rsw, hisBhflx, hisBwflx & , hisU, hisV, hisR, hisHbl, hisHbbl & , hisO, hisW, hisVisc, hisDiff & , hisAkv, hisAkt, hisAks & , hisbvf integer*4 hisT(NT) integer*4 ncidavg, nrecavg, nrpfavg & , avgTime, avgTime2, avgTstep, avgZ, avgUb, avgVb & , avgBostr, avgWstr, avgUwstr, avgVwstr & , avgBustr, avgBvstr & , avgShflx, avgSwflx, avgShflx_rsw, avgBhflx, avgBwflx & , avgU, avgV, avgR, avgHbl, avgHbbl & , avgO, avgW, avgVisc, avgDiff & , avgAkv, avgAkt, avgAks & , avgbvf integer*4 avgT(NT) logical wrthis(800+NT) & , wrtavg(800+NT) common/incscrum/ & ncidfrc, ncidbulk,ncidclm, ncidqbar, ncidbtf & , ntsms, ntsrf, ntssh, ntsst & , ntuclm, ntsss, ntbulk, ntqbar, ntww & , nttclm, ntstf, nttsrc, ntbtf & , ncidrst, nrecrst, nrpfrst & , rstTime, rstTime2, rstTstep, rstZ, rstUb, rstVb & , rstU, rstV & , rstT & , rstHbl & , rstHbbl & , ncidhis, nrechis, nrpfhis & , hisTime, hisTime2, hisTstep, hisZ, hisUb, hisVb & , hisBostr, hisWstr, hisUWstr, hisVWstr & , hisBustr, hisBvstr & , hisShflx, hisSwflx, hisShflx_rsw & , hisBhflx, hisBwflx & , hisU, hisV, hisT, hisR & , hisO, hisW, hisVisc, hisDiff & , hisAkv, hisAkt, hisAks & , hisHbl, hisHbbl & , hisbvf & , ncidavg, nrecavg, nrpfavg & , avgTime, avgTime2, avgTstep, avgZ, avgUb, avgVb & , avgBostr, avgWstr, avgUWstr, avgVWstr & , avgBustr, avgBvstr & , avgShflx, avgSwflx, avgShflx_rsw & , avgBhflx, avgBwflx & , avgU, avgV & , avgT & , avgR & , avgO, avgW, avgVisc, avgDiff & , avgAkv, avgAkt, avgAks & , avgHbl, avgHbbl & , avgbvf & , wrthis & , wrtavg character*80 date_str, title character*80 origin_date, start_date_run, xios_origin_date integer*4 start_day, start_month, start_year & , start_hour, start_minute, start_second & , origin_day, origin_month, origin_year & , origin_hour, origin_minute, origin_second REAL(kind=8) :: origin_date_in_sec, xios_origin_date_in_sec character*180 ininame, grdname, hisname & , rstname, frcname, bulkname, usrname & , qbarname, tsrcname & , btfname & , avgname & , bry_file character*75 vname(20, 800) common /cncscrum/ date_str, title & , origin_date, start_date_run & , xios_origin_date & , ininame, grdname, hisname & , rstname, frcname, bulkname, usrname & , qbarname, tsrcname & , btfname, origin_date_in_sec & , xios_origin_date_in_sec & , start_day, start_month, start_year & , start_hour, start_minute, start_second & , origin_day, origin_month, origin_year & , origin_hour, origin_minute, origin_second & , avgname & , bry_file & , vname include 'mpif.h' !$AGRIF_DO_NOT_TREAT INTEGER*4 :: ocean_grid_comm common /cpl_comm/ ocean_grid_comm !$AGRIF_END_DO_NOT_TREAT INTEGER*4 :: comp_id CHARACTER(len=6) :: comp_name = 'crocox' INTEGER*4 :: comp_ierror INTEGER*4 :: oasis_part_id INTEGER*4 :: oasis_var_nodims(2) INTEGER*4 :: oasis_var_shape(4) INTEGER*4 :: oasis_var_type INTEGER*4 , dimension(5) :: oasis_ig_paral INTEGER*4, PARAMETER :: nmaxfld = 60 INTEGER*4, PARAMETER :: nmaxatm = 5 CHARACTER(len = 64), DIMENSION(nmaxfld) :: srcv_clname, & ssnd_clname INTEGER*4, DIMENSION(0:nmaxatm, nmaxfld) :: srcv_nid , ssnd_nid common /exchange_fields_oasis3/ srcv_clname,ssnd_clname, & srcv_nid ,ssnd_nid INTEGER*4 :: oasis_time, oasis_runtime common /exchange_times_oasis3/ oasis_time, oasis_runtime REAL cplmsk(-1:Lm+2+padd_X,-1:Mm+2+padd_E,0:nmaxatm) common /coupling_mask/cplmsk integer*4 kwsize, testunit, input parameter (kwsize=32, testunit=40, input=15) character end_signal*3, keyword*32, fname*180 parameter (end_signal='end') integer*4 ierr, iargc, is,ie, kwlen, lstr, lenstr & , itrc logical dumboolean fname='croco.in' if (mynode.eq.0 .and. iargc().GT.0) call getarg(1,fname) call MPI_Bcast(fname,64,MPI_BYTE, 0, ocean_grid_comm,ierr) if (mynode.eq.0) stdout=80 if(mynode.eq.0) then open (stdout,file='croco.log', & status='REPLACE',form='formatted',err=98) else stdout=6 endif wrthis(indxTime)=.false. wrtavg(indxTime)=.false. ierr=0 call setup_kwds (ierr) open (input,file=fname,status='old',form='formatted',err=97) 1 keyword=' ' read(input,'(A)',err=1,end=99) keyword if (ichar(keyword(1:1)).eq.33) goto 1 is=1 2 if (is.eq.kwsize) then goto 1 elseif (keyword(is:is).eq.' ') then is=is+1 goto 2 endif ie=is 3 if (keyword(ie:ie).eq.':') then keyword(ie:ie)=' ' goto 4 elseif (keyword(ie:ie).ne.' ' .and. ie.lt.kwsize) then ie=ie+1 goto 3 endif goto 1 4 kwlen=ie-is if (is.gt.1) keyword(1:kwlen)=keyword(is:is+kwlen-1) if (keyword(1:kwlen).eq.'title') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,'(A)',err=95) title lstr=lenstr(title) if (mynode.eq.0) write(stdout,'(/1x,A)') title(1:lstr) elseif (keyword(1:kwlen).eq.'time_stepping') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) ntimes,dt,ndtfast, ninfo if (mynode.eq.0) write(stdout, & '(I10,2x,A,1x,A /F10.2,2x,A,2(/I10,2x,A,1x,A)/F10.4,2x,A)') & ntimes, 'ntimes Total number of timesteps for', & '3D equations.', & dt, 'dt Timestep [sec] for 3D equations', & ndtfast, 'ndtfast Number of 2D timesteps within each', & '3D step.', & ninfo, 'ninfo Number of timesteps between', & 'runtime diagnostics.' dtfast=dt/float(ndtfast) if (NWEIGHT.lt.(2*ndtfast-1)) then write(stdout,'(a,i3)') & ' Error - Number of 2D timesteps (2*ndtfast-1): ', & 2*ndtfast-1 write(stdout,'(a,i3)') & ' exceeds barotopic weight dimension: ',NWEIGHT goto 95 endif elseif (keyword(1:kwlen).eq.'S-coord') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) theta_s, theta_b, Tcline if (mynode.eq.0) write(stdout, & '(3(1pe10.3,2x,A,1x,A/),32x,A)') & theta_s, 'theta_s S-coordinate surface control', & 'parameter.', & theta_b, 'theta_b S-coordinate bottom control', & 'parameter.', & Tcline, 'Tcline S-coordinate surface/bottom layer', & 'width used in', 'vertical coordinate stretching, meters.' elseif (keyword(1:kwlen).eq.'initial') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) nrrec read(input,'(A)',err=95) fname lstr=lenstr(fname) open (testunit, file=fname(1:lstr), status='old', err=97) close(testunit) ininame=fname(1:lstr) if (mynode.eq.0) write(stdout,'(1x,A,2x,A,4x,A,I3)') & 'Initial State File:', ininame(1:lstr), 'Record:',nrrec elseif (keyword(1:kwlen).eq.'grid') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,'(A)',err=95) fname lstr=lenstr(fname) open(testunit,file=fname(1:lstr), status='old', err=97) close(testunit) grdname=fname(1:lstr) if (mynode.eq.0) write(stdout,'(10x,A,2x,A)') & 'Grid File:', grdname(1:lstr) elseif (keyword(1:kwlen).eq.'boundary') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,'(A)',err=95) fname lstr=lenstr(fname) open (testunit, file=fname(1:lstr), status='old', err=97) close(testunit) bry_file=fname(1:lstr) if (mynode.eq.0) write(stdout,'(6x,A,2x,A)') & 'Boundary File:', bry_file(1:lstr) elseif (keyword(1:kwlen).eq.'restart') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) nrst, nrpfrst read(input,'(A)',err=95) fname lstr=lenstr(fname) rstname=fname(1:lstr) if (mynode.eq.0) write(stdout, & '(7x,A,2x,A,4x,A,I6,4x,A,I4)') & 'Restart File:', rstname(1:lstr), & 'nrst =', nrst, 'rec/file: ', nrpfrst elseif (keyword(1:kwlen).eq.'history') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) ldefhis, nwrt, nrpfhis read(input,'(A)',err=95) fname lstr=lenstr(fname) hisname=fname(1:lstr) if (mynode.eq.0) write(stdout, & '(7x,A,2x,A,2x,A,1x,L1,2x,A,I4,2x,A,I3)') & 'History File:', hisname(1:lstr), 'Create new:', & ldefhis, 'nwrt =', nwrt, 'rec/file =', nrpfhis elseif (keyword(1:kwlen).eq.'averages') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) ntsavg, navg, nrpfavg read(input,'(A)',err=95) fname lstr=lenstr(fname) avgname=fname(1:lstr) if (mynode.eq.0) write(stdout, & '(2(I10,2x,A,1x,A/32x,A/),6x,A,2x,A,1x,A,I3)') & ntsavg, 'ntsavg Starting timestep for the', & 'accumulation of output', 'time-averaged data.', & navg, 'navg Number of timesteps between', & 'writing of time-averaged','data into averages file.', & 'Averages File:', avgname(1:lstr), & 'rec/file =', nrpfavg elseif (keyword(1:kwlen).eq.'primary_history_fields') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) wrthis(indxZ), wrthis(indxUb) & , wrthis(indxVb) & , wrthis(indxU), wrthis(indxV) & , (wrthis(itrc), itrc=indxV+1,indxV+NT) if ( wrthis(indxZ) .or. wrthis(indxUb) .or. wrthis(indxVb) & .or. wrthis(indxU) .or. wrthis(indxV) & ) wrthis(indxTime)=.true. if (mynode.eq.0) write(stdout,'(/1x,A,5(/6x,l1,2x,A,1x,A))') & 'Fields to be saved in history file: (T/F)' & , wrthis(indxZ), 'write zeta ', 'free-surface.' & , wrthis(indxUb), 'write UBAR ', '2D U-momentum component.' & , wrthis(indxVb), 'write VBAR ', '2D V-momentum component.' & , wrthis(indxU), 'write U ', '3D U-momentum component.' & , wrthis(indxV), 'write V ', '3D V-momentum component.' do itrc=1,NT if (wrthis(indxV+itrc)) wrthis(indxTime)=.true. if (mynode.eq.0) write(stdout, '(6x,L1,2x,A,I2,A,I2,A)') & wrthis(indxV+itrc), 'write T(', itrc, & ') Tracer of index', itrc,'.' enddo elseif (keyword(1:kwlen).eq.'auxiliary_history_fields') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) & wrthis(indxR) & , wrthis(indxO) & , wrthis(indxW) & , wrthis(indxAkv) & , wrthis(indxAkt) & , wrthis(indxAks) & , wrthis(indxbvf) & , dumboolean & , wrthis(indxDiff) & , wrthis(indxHbl) & , wrthis(indxHbbl) & , wrthis(indxBostr) & , wrthis(indxBustr) & , wrthis(indxBvstr) & , wrthis(indxWstr) & , wrthis(indxUWstr) & , wrthis(indxVWstr) & , wrthis(indxShflx) & , wrthis(indxSwflx) & , wrthis(indxShflx_rsw) & , dumboolean & , dumboolean & , dumboolean & , dumboolean & , dumboolean & , dumboolean if ( wrthis(indxR) & .or. wrthis(indxO) & .or. wrthis(indxW) & .or. wrthis(indxAkv) & .or. wrthis(indxAkt) & .or. wrthis(indxAks) & .or. wrthis(indxbvf) & .or. wrthis(indxDiff) & .or. wrthis(indxHbl) & .or. wrthis(indxHbbl) & .or. wrthis(indxBostr) & .or. wrthis(indxBustr) & .or. wrthis(indxBvstr) & .or. wrthis(indxWstr) & .or. wrthis(indxUWstr) & .or. wrthis(indxVWstr) & .or. wrthis(indxShflx) & .or. wrthis(indxSwflx) & .or. wrthis(indxShflx_rsw) & ) wrthis(indxTime)=.true. if (mynode.eq.0) write(stdout,'(8(/6x,l1,2x,A,1x,A))') & wrthis(indxR), 'write RHO ', 'Density anomaly.' & , wrthis(indxO), 'write Omega', 'Omega vertical velocity.' & , wrthis(indxW), 'write W ', 'True vertical velocity.' & , wrthis(indxAkv), 'write Akv ', 'Vertical viscosity.' & , wrthis(indxAkt), 'write Akt ', & 'Vertical diffusivity for temperature.' & , wrthis(indxAks), 'write Aks ', & 'Vertical diffusivity for salinity.' & , wrthis(indxbvf), 'write bvf ', & 'Brunt Vaisala Frequency.' & , wrthis(indxDiff), 'write Visc3d', 'Horizontal diffusivity.' & , wrthis(indxHbl), 'write Hbl ', & 'Depth of model boundary layer.' & , wrthis(indxHbbl), 'write Hbbl ', & 'Depth of bottom planetary boundary layer.' & , wrthis(indxBostr), 'write Bostr', 'Bottom Stress.' & , wrthis(indxBustr), 'write Bustr', 'U-Bottom Stress.' & , wrthis(indxBvstr), 'write Bvstr', 'V-Bottom Stress.' & , wrthis(indxWstr), 'write Wstress', 'Wind Stress.' & , wrthis(indxUWstr), 'write U-Wstress comp.', 'U-Wind Stress.' & , wrthis(indxVWstr), 'write V-Wstress comp.', 'V-Wind Stress.' & , wrthis(indxShflx), 'write Shflx [W/m2]', & 'Surface net heat flux' & , wrthis(indxSwflx), 'write Swflx [cm/day]', & 'Surface freshwater flux (E-P)' & , wrthis(indxShflx_rsw),'write Shflx_rsw [W/m2]', & 'Short-wave surface radiation' elseif (keyword(1:kwlen).eq.'primary_averages') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) wrtavg(indxZ), wrtavg(indxUb) & , wrtavg(indxVb) & , wrtavg(indxU), wrtavg(indxV) & , (wrtavg(itrc), itrc=indxV+1,indxV+NT) if ( wrtavg(indxZ) .or. wrtavg(indxUb) .or. wrtavg(indxVb) & .or. wrtavg(indxU) .or. wrtavg(indxV) & ) wrtavg(indxTime)=.true. if (mynode.eq.0) write(stdout,'(/1x,A,5(/6x,l1,2x,A,1x,A))') & 'Fields to be saved in averages file: (T/F)' & , wrtavg(indxZ), 'write zeta ', 'free-surface.' & , wrtavg(indxUb), 'write UBAR ', '2D U-momentum component.' & , wrtavg(indxVb), 'write VBAR ', '2D V-momentum component.' & , wrtavg(indxU), 'write U ', '3D U-momentum component.' & , wrtavg(indxV), 'write V ', '3D V-momentum component.' do itrc=1,NT if (wrtavg(indxV+itrc)) wrtavg(indxTime)=.true. if (mynode.eq.0) write(stdout, & '(6x,L1,2x,A,I2,A,2x,A,I2,A)') & wrtavg(indxV+itrc), 'write T(', & itrc,')', 'Tracer of index', itrc,'.' enddo elseif (keyword(1:kwlen).eq.'auxiliary_averages') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) wrtavg(indxR), wrtavg(indxO) & , wrtavg(indxW), wrtavg(indxAkv) & , wrtavg(indxAkt) & , wrtavg(indxAks) & , wrtavg(indxbvf) & , dumboolean & , wrtavg(indxDiff) & , wrtavg(indxHbl) & , wrtavg(indxHbbl) & , wrtavg(indxBostr) & , wrtavg(indxBustr) & , wrtavg(indxBvstr) & , wrtavg(indxWstr) & , wrtavg(indxUWstr) & , wrtavg(indxVWstr) & , wrtavg(indxShflx) & , wrtavg(indxSwflx) & , wrtavg(indxShflx_rsw) & , dumboolean & , dumboolean & , dumboolean & , dumboolean & , dumboolean & , dumboolean if ( wrtavg(indxR) .or. wrtavg(indxO) .or. wrtavg(indxW) & .or. wrtavg(indxAkv) & .or. wrtavg(indxAkt) & .or. wrtavg(indxAks) & .or. wrtavg(indxbvf) & .or. wrtavg(indxDiff) & .or. wrtavg(indxHbl) & .or. wrtavg(indxHbbl) & .or. wrtavg(indxBostr) & .or. wrtavg(indxBustr) & .or. wrtavg(indxBvstr) & .or. wrtavg(indxWstr) & .or. wrtavg(indxUWstr) & .or. wrtavg(indxVWstr) & .or. wrtavg(indxShflx) & .or. wrtavg(indxSwflx) & .or. wrtavg(indxShflx_rsw) & ) wrtavg(indxTime)=.true. if (mynode.eq.0) write(stdout,'(8(/6x,l1,2x,A,1x,A))') & wrtavg(indxR), 'write RHO ', 'Density anomaly' & , wrtavg(indxO), 'write Omega', 'Omega vertical velocity.' & , wrtavg(indxW), 'write W ', 'True vertical velocity.' & , wrtavg(indxAkv), 'write Akv ', 'Vertical viscosity' & , wrtavg(indxAkt), 'write Akt ', & 'Vertical diffusivity for temperature.' & , wrtavg(indxAks), 'write Aks ', & 'Vertical diffusivity for salinity.' & , wrtavg(indxbvf), 'write bvf ', & 'Brunt Vaisala Frequency.' & , wrtavg(indxDiff),'write diff3d', 'Horizontal diffusivity' & , wrtavg(indxHbl), 'write Hbl ', & 'Depth of model boundary layer' & , wrtavg(indxHbbl), 'write Hbbl ', & 'Depth of the bottom planetary boundary layer' & , wrtavg(indxBostr),'write Bostr', 'Bottom Stress.' & , wrtavg(indxBustr),'write Bustr', 'U-Bottom Stress.' & , wrtavg(indxBvstr),'write Bvstr', 'V-Bottom Stress.' & , wrtavg(indxWstr), 'write Wstr', 'Wind Stress.' & , wrtavg(indxUWstr),'write U-Wstress comp.', 'U-Wind Stress.' & , wrtavg(indxVWstr),'write V-Wstress comp.', 'V-Wind Stress.' & , wrtavg(indxShflx),'write Shflx [W/m2]', & 'Surface net heat flux.' & , wrtavg(indxSwflx),'write Swflx [cm/day]', & 'Surface freshwater flux (E-P)' & , wrtavg(indxShflx_rsw),'write Shflx_rsw [W/m2]', & 'Short-wave surface radiation.' elseif (keyword(1:kwlen).eq.'rho0') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) rho0 if (mynode.eq.0) write(stdout,'(F10.4,2x,A,1x,A)') & rho0, 'rho0 Boussinesq approximation', & 'mean density, kg/m3.' elseif (keyword(1:kwlen).eq.'lateral_visc') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) visc2, visc4 if (mynode.eq.0) write(stdout,9) visc2 9 format(1pe10.3,2x,'visc2 Horizontal Laplacian ', & 'mixing coefficient [m2/s]',/,32x,'for momentum.') elseif (keyword(1:kwlen).eq.'bottom_drag') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) rdrg, rdrg2, Zobt, Cdb_min, Cdb_max if (mynode.eq.0) write(stdout,'(5(1pe10.3,2x,A/))') & rdrg, 'rdrg Linear bottom drag coefficient (m/si).', & rdrg2, 'rdrg2 Quadratic bottom drag coefficient.', & Zobt, 'Zobt Bottom roughness for logarithmic law (m).', & Cdb_min, 'Cdb_min Minimum bottom drag coefficient.', & Cdb_max, 'Cdb_max Maximum bottom drag coefficient.' elseif (keyword(1:kwlen).eq.'gamma2') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) gamma2 if (mynode.eq.0) write(stdout,'(f10.2,2x,A,1x,A)') & gamma2, 'gamma2 Slipperiness parameter:', & 'free-slip +1, or no-slip -1.' elseif (keyword(1:kwlen).eq.'tracer_diff2') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) (tnu2(itrc),itrc=1,NT) do itrc=1,NT if (mynode.eq.0) write(stdout,7) tnu2(itrc), itrc, itrc 7 format(1pe10.3,' tnu2(',i2,') Horizontal Laplacian ' & ,'mixing coefficient (m2/s)',/,32x,'for tracer ',i2,'.') enddo elseif (keyword(1:kwlen).eq.'tracer_diff4') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) (tnu4(itrc),itrc=1,NT) do itrc=1,NT if (mynode.eq.0) write(stdout,8) tnu4(itrc), itrc, itrc 8 format(1pe10.3,' tnu4(',i2,') Horizontal biharmonic' & ,' mixing coefficient [m4/s]',/,32x,'for tracer ',i2,'.') enddo elseif (keyword(1:kwlen).eq.'sponge') then call cancel_kwd (keyword(1:kwlen), ierr) if (mynode.eq.0) write(stdout,'(/,1x,A,/,25x,A/)') & 'SPONGE_GRID is defined: x_sponge parameter in sponge/nudging', & 'layer is set generically in set_nudgcof.F routine' elseif (keyword(1:kwlen).eq.'nudg_cof') then call cancel_kwd (keyword(1:kwlen), ierr) read(input,*,err=95) tauT_in,tauT_out,tauM_in,tauM_out tauT_in =1.D0/(tauT_in *86400.D0) tauT_out=1.D0/(tauT_out*86400.D0) tauM_in =1.D0/(tauM_in *86400.D0) tauM_out=1.D0/(tauM_out*86400.D0) if (mynode.eq.0) write(stdout,'(1pe10.3,2x,A)') & tauT_in,'tauT_in Nudging coefficients [sec^-1]' if (mynode.eq.0) write(stdout,'(1pe10.3,2x,A)') & tauT_out,'tauT_out Nudging coefficients [sec^-1]' if (mynode.eq.0) write(stdout,'(1pe10.3,2x,A)') & tauM_in,'tauM_in Nudging coefficients [sec^-1]' if (mynode.eq.0) write(stdout,'(1pe10.3,2x,A/)') & tauM_out,'tauM_out Nudging coefficients [sec^-1]' else if (mynode.eq.0) write(stdout,'(/3(1x,A)/)') & 'WARNING: Unrecognized keyword:', & keyword(1:kwlen),' --> DISREGARDED.' endif if (keyword(1:kwlen) .eq. end_signal) goto 99 goto 1 95 write(stdout,'(/1x,4A/)') 'READ_INP ERROR while reading block', & ' with keyword ''', keyword(1:kwlen), '''.' ierr=ierr+1 goto 99 97 write(stdout,'(/1x,4A/)') 'READ_INP ERROR: Cannot find input ', & 'file ''', fname(1:lstr), '''.' 98 write(6,'(/1x,4A/)') 'READ_INP ERROR: Cannot open log file ', & 'file , croco.log', '''.' ierr=ierr+1 99 close (input) if (ierr.eq.0) then call check_kwds (ierr) call check_srcs call check_switches1 (ierr) call check_switches2 (ierr) endif if (ierr.ne.0) then write(stdout,'(/1x,2A,I3,1x,A/)') 'READ_INP ERROR: ', & 'A total of', ierr, 'configuration errors discovered.' return endif return end