module swan_input !----- GPL --------------------------------------------------------------------- ! ! Copyright (C) Stichting Deltares, 2011-2014. ! ! This program is free software: you can redistribute it and/or modify ! it under the terms of the GNU General Public License as published by ! the Free Software Foundation version 3. ! ! This program is distributed in the hope that it will be useful, ! but WITHOUT ANY WARRANTY; without even the implied warranty of ! MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the ! GNU General Public License for more details. ! ! You should have received a copy of the GNU General Public License ! along with this program. If not, see . ! ! contact: delft3d.support@deltares.nl ! Stichting Deltares ! P.O. Box 177 ! 2600 MH Delft, The Netherlands ! ! All indications and logos of, and references to, "Delft3D" and "Deltares" ! are registered trademarks of Stichting Deltares, and remain the property of ! Stichting Deltares. All rights reserved. ! !------------------------------------------------------------------------------- ! $Id$ ! $HeadURL$ !!--description----------------------------------------------------------------- ! ! WAVE-GUI version number dependencies: ! 4.87.00 (Older than) : not supported ! ! ! NOTHING ! ...... ! NOTHING ! ...... ! * Level of test output, debug level, Y/N compute waves ! 0 0 1 ! 4.88.08 (Newer than or equal to) : ! * Reflection (0/1), specular or diffuse (1/2), reflection coefficient [0-1] ! 0 1 0.0000000e+000 ! ...... ! * Diffraction, smoothing coefficient, smoothing steps, adaptation of propagation ! * - interactions: 0 = de-activated, 1 = activated ! 1 0.2 1 1 ! ...... ! * Level of test output, debug level, Y/N compute waves, Y/N activate hotstart file ! 0 0 1 0 ! ! ! * Number of tidal time points ! 39 ! 4.89.05 (Newer than or equal to) : ! * Number of tidal time points, Reference date ! 39 2006-02-07 ! ! ! * Water level correction ! 0.0000000e+000 ! 4.90.00 (Newer than or equal to) : ! * Water level correction, Extrapolate flow data on the last # grid(s) ! 0.0000000e+000 0 ! ! ! * Y/N Use bathmetry, use waterlevel, use current ! 0 0 0 ! ...... ! * Water level correction, Extend flow data on the last # grid(s), ! 0.0000000e+000 1 ! ...... ! * Level of test output, debug level, Y/N compute waves, Y/N activate hotstart file ! 0 0 1 0 ! 4.90.06 (Newer than or equal to) : ! * Y/N Use bathmetry, use waterlevel, use current, use wind ! 0 0 0 0 ! ...... ! * Water level correction, Extend flow data on the last # grid(s), ! * Extend bathymetry, water level, current, wind ! 0.0000000e+000 1 1 0 0 0 ! ...... ! * Level of test output, debug level, Y/N compute waves, Y/N activate hotstart file ! * Output time interval, Computational mode: 0 = stationary, 1 = non-stationary ! * Non-stationary interval, timestep ! 0 0 1 0 2.2000000e+001 0 6.00000+001 2.00000+000 ! ! ! '40.01' ! 4.91.00 (Newer than or equal to) : ! NOTHING ! !!--pseudo code and references-------------------------------------------------- ! NONE !!--declarations---------------------------------------------------------------- use wave_data use handles use table_handles use utilities use rdsec_module ! type swan_dom real :: freqmax ! maximum frequency real :: freqmin ! minimum frequency real :: enddir ! end direction for sector real :: startdir ! start direction for sector real :: veg_height ! vegetation height per layer real :: veg_diamtr ! vegetation diameter real :: veg_drag ! vegetation drag coefficient integer :: veg_nstems ! the number of plant stands per square meter integer :: curvibot integer :: dirspace ! 1: circle, 2: sector integer :: ndir ! number of directional bins integer :: nfreq ! number of frequency bins integer :: nestnr integer :: n_meteofiles_dom ! number of meteo input files integer :: mxb integer :: myb integer :: mxc integer :: myc integer :: vegetation integer , dimension(4) :: qextnd ! 0: not used, 1: used and not extended, 2: used and extended integer :: flowVelocityType = FVT_DEPTH_AVERAGED ! Possible values: ! FVT_SURFACE_LAYER : use FLOW velocity at surface ! FVT_DEPTH_AVERAGED (default): use depth averaged FLOW velocity ! FVT_WAVE_DEPENDENT : use FLOW velocity, averaged in a wave dependent way logical :: cgnum character(256) :: botfil character(256) :: curlif character(256) :: depfil character(256) :: nesfil character(37) :: vegfil character(20) :: nesnam ! dummy character(80), dimension(:), allocatable :: meteofile_dom end type swan_dom ! type swan_bnd integer :: parread ! 1 = from-file, 2 = parametric integer :: sshape ! 1 = Jonswap, 2 = Pierson-Moskowitz, 3 = Gauss integer :: periodtype ! 1 = Peak, 2 = Mean integer :: dsprtype ! 1 = Power, 2 = Degrees integer :: bndtyp ! 1 = orientation, 2 = grid-coordinates, 3 = xy-coordinates integer :: orient ! 1 = N, 2 = NW, 3 = W, 4 = SW, 5 = S, 6 = SE, 7 = E, 8 = NE integer :: turn ! 0 = clockwise, 1 = counterclockwise (distance measurement along boundary) integer :: convar ! 1 = uniform, 2 = space-varying integer :: nsect ! previously swani(iindx+9) integer , dimension(4) :: bndcrd_mn real , dimension(4) :: bndcrd_xy real :: gamma0 real :: sigfr ! integer , dimension(4) :: ts_hs integer , dimension(4) :: ts_tp integer , dimension(4) :: ts_wd integer , dimension(4) :: ts_ds ! real , dimension(:), pointer :: distance real , dimension(:), pointer :: waveheight real , dimension(:), pointer :: period real , dimension(:), pointer :: direction real , dimension(:), pointer :: dirspread character(20) :: name character(37) , dimension(:), pointer :: spectrum end type swan_bnd ! type swan integer :: maxbound integer :: maxcurv integer :: maxnest integer :: maxobst integer :: maxpoints integer , dimension(:), pointer :: maxsect integer :: maxsteps ! integer :: diffraction integer :: diffr_smsteps integer :: diffr_adapt_propag integer :: error integer :: frictype integer :: genmode integer :: inrhog integer :: itermx integer :: itest integer :: itrace integer :: modsim ! 0: stationary, 2: non-stationary input, 3: non-stationary input and calculation ! modsim = 1 may not be used: is replaced by hotfile ! stationary: modsim is set to 2 (0 is not used anymore) integer :: mxr integer :: mxw integer :: myr integer :: myw integer :: nbound integer :: ncrp integer :: ncrv integer :: ncurv integer :: n_meteofiles_gen integer :: nnest integer :: nobst integer :: npoints integer :: nscr integer :: nttide integer :: refjulday integer :: whitecap ! 0: off, 1: on, 2: westhuysen integer :: nloc integer :: swdis ! integer , dimension(4) :: ts_wl integer , dimension(4) :: ts_xv integer , dimension(4) :: ts_yv integer , dimension(4) :: ts_ws integer , dimension(4) :: ts_wd ! integer , dimension(:), pointer :: reflection integer , dimension(:), pointer :: refl_type ! 1: specular, 2: diffuse integer , dimension(:), pointer :: nclin integer , dimension(:), pointer :: nlin ! logical :: append_com logical :: breaking logical :: checkVersionNumber = .true. logical :: compmode logical :: corht logical :: curvi logical :: curviwind logical :: fshift logical :: hotfile logical :: nautconv logical :: output_points logical :: output_pnt_file logical :: output_spec1d logical :: output_spec2d logical :: output_table logical :: quadruplets logical :: refraction logical :: setup logical :: sferic logical :: swbot logical :: swflux logical :: swmor logical :: swuvi logical :: swuvt logical :: swwindt logical :: swwav logical :: swwlt logical :: timedependent logical :: triads logical :: useflowdata ! true when FLOW data is used logical :: varwin logical :: varfri logical :: windgrowth ! real :: alpw real :: cdd real :: cfbr1 real :: cfbr2 real :: cftriad1 real :: cftriad2 real :: css real :: deltc ! used when modsim = 3: Time step in non-stat SWAN runs real :: deltcom ! used when modsim = 3: Interval of communication FLOW-WAVE real :: inthotf real :: depmin real :: dh_abs real :: diffr_coeff real :: drel real :: dt_abs real :: dxw real :: dyw real :: excval real :: frcof real :: gamma0 ! Default gamma0, having a realistic value even if no boundaries are modelled. If boundaries are present gamma0 = bnd(1)%gamma0 real :: grav real :: northdir real :: percwet real :: rho real :: rhomud real :: viscmud real :: xw real :: yw real :: wavm_write_interval real :: int2keephotfile real :: veg_height real :: veg_diamtr integer :: veg_nstems integer :: maxerr = 2 ! Corresponds to maxerr in SWAN: maximum level of errors with which the calculation will continue real :: veg_drag ! real :: wlevelcorr ! Overall water level correction; see Time frame input in GUI real , dimension(:), pointer :: timwav real , dimension(:), pointer :: zeta ! Default water level of a selected time point (when running stand-alone); see Time frame input in GUI real , dimension(:), pointer :: ux0 real , dimension(:), pointer :: uy0 real , dimension(:), pointer :: wdir real , dimension(:), pointer :: wvel ! real , dimension(:), pointer :: f real , dimension(:), pointer :: obet real , dimension(:), pointer :: ogam real , dimension(:), pointer :: refl_coeff real , dimension(:), pointer :: trane real , dimension(:), pointer :: xpcu real , dimension(:), pointer :: xpob real , dimension(:), pointer :: ypcu real , dimension(:), pointer :: ypob real , dimension(:,:), pointer :: xyloc ! character(4) :: prnumb character(7) , dimension(:), allocatable :: add_out_names character(80), dimension(:), allocatable :: meteofile_gen character(20) :: versionNumberOK = '40.51a' ! No capitals!!! character(16) :: prname character(37) :: rgfout character(37) :: wfil character(37) :: ffil character(37) :: curvefil character(37) :: pntfil character(72) :: title1 character(72) :: title2 character(72) :: title3 character(256) :: casl character(256) :: filcom character(256) :: filnam character(256) :: specfile character(15) :: usehottime = '00000000.000000' ! Time in the name of the hotfile that has to be used by SWAN character(15) :: writehottime = '00000000.000000' ! Time in the name of the hotfile that has to be written by SWAN character(15) :: keephottime = '00000000.000000' ! Time in the name of the hotfile that should not be deleted character(20), dimension(:), allocatable :: pntfilnam ! type(handletype) :: tseriesfile ! type(swan_bnd), dimension(:), pointer :: bnd type(swan_dom), dimension(:), pointer :: dom end type swan ! type (swan),save :: swan_run ! integer, parameter :: q_bath = 1 ! used as index in array qextnd integer, parameter :: q_wl = 2 ! used as index in array qextnd integer, parameter :: q_cur = 3 ! used as index in array qextnd integer, parameter :: q_wind = 4 ! used as index in array qextnd contains ! ! !============================================================================== subroutine alloc_swan(sr) implicit none ! type (swan) :: sr integer :: i ! allocate (sr%timwav (sr%maxsteps )) allocate (sr%zeta (sr%maxsteps )) allocate (sr%ux0 (sr%maxsteps )) allocate (sr%uy0 (sr%maxsteps )) allocate (sr%wvel (sr%maxsteps )) allocate (sr%wdir (sr%maxsteps )) ! allocate (sr%nclin (sr%maxcurv)) allocate (sr%nlin (sr%maxobst)) allocate (sr%f (sr%maxobst)) allocate (sr%obet (sr%maxobst)) allocate (sr%ogam (sr%maxobst)) allocate (sr%trane (sr%maxobst)) allocate (sr%xpcu (sr%maxcurv)) allocate (sr%xpob (sr%maxobst)) allocate (sr%ypcu (sr%maxcurv)) allocate (sr%ypob (sr%maxobst)) ! ! Only allocate the array below if output to locations has been defined ! in the mdw file ! if (sr%output_points .and. .not. sr%output_pnt_file) & allocate (sr%xyloc (2,sr%maxpoints)) allocate (sr%reflection (sr%maxobst)) allocate (sr%refl_type (sr%maxobst)) allocate (sr%refl_coeff (sr%maxobst)) allocate (sr%bnd (sr%maxbound )) do i = 1, sr%maxbound allocate (sr%bnd(i)%distance (sr%maxsect(i))) allocate (sr%bnd(i)%waveheight(sr%maxsect(i))) allocate (sr%bnd(i)%period (sr%maxsect(i))) allocate (sr%bnd(i)%direction (sr%maxsect(i))) allocate (sr%bnd(i)%dirspread (sr%maxsect(i))) allocate (sr%bnd(i)%spectrum (sr%maxsect(i))) enddo allocate (sr%dom (sr%maxnest )) sr%dom(:)%n_meteofiles_dom = 0 end subroutine alloc_swan ! ! !============================================================================== subroutine read_swan (filnam, sr, wavedata) implicit none ! character(256) :: filnam type(swan) :: sr type(wave_data_type) :: wavedata ! integer :: ind integer :: iuntim integer :: istat integer :: it01 integer, external :: new_lun real :: tscale logical :: ex logical :: keywbased character(256) :: line ! sr%filnam = filnam sr%prname = '' sr%prnumb = '' sr%title1 = '' sr%title2 = '' sr%title3 = '' sr%useflowdata = .false. sr%swmor = .false. sr%swwlt = .false. sr%swuvt = .false. sr%swwindt = .false. sr%timedependent = .false. ! keywbased = .false. call read_keyw_mdw(sr, wavedata, keywbased) if (.not.keywbased) then ! ! The following select case is copied from waves_main to here and to the keyword reading version ! to enable "online" activation via the keyword based mdw-file ! select case (wavedata%mode) case (stand_alone) write(*,'(a)') '*** MESSAGE: Delft3D-WAVE runs stand alone' case (flow_online) write(*,'(a)') '*** MESSAGE: Delft3D-WAVE runs online with Delft3D-FLOW' case (flow_mud_online) write(*,'(a)') '*** MESSAGE: Delft3D-WAVE runs online with Delft3D-FLOW, including MUD' end select ! ! overcome the problem of fixed array sizes by first scanning the mdw file ! call scan_mdw(sr) ! ! Return to main code if scan routine gave errors ! if ( sr%error /= 0 ) return ! ! default memory allocation for old files ! call alloc_swan(swan_run) ! ! The following if part is moved from wave_init to here ! to avoid "waves_alone" reading when the mdw-file is keyword based ! if (wavedata%mode == stand_alone) then ! ! Old way of running stand alone: ! File with name 'waves_alone', containing tscale and it01 ! New way of running stand alone: ! Read it01 from mdw-file (see file swan_input.f90) ! inquire (file = 'waves_alone', exist = ex) if (ex) then iuntim = new_lun() open (iuntim, file = 'waves_alone', status = 'old', iostat = istat) if (istat /= 0) goto 999 ! read (iuntim, "(A)", iostat = istat) line if (istat /= 0) goto 999 read (line, * ,iostat = istat) tscale if (istat /= 0) goto 999 call settscale(wavedata%time, tscale) ! read (iuntim, "(A)", iostat = istat) line if (istat /= 0) goto 999 read (line, * ,iostat = istat) it01 if (istat /= 0) goto 999 call setrefdate(wavedata%time, it01) ! close (iuntim) write (*,'(a)') ' File ''waves_alone'' read.' endif endif call read_swan_mdw(sr%casl ,wavedata , & & sr%swmor ,sr%swwlt ,sr%swuvt , & & sr%swwav ,sr%swuvi ,sr%corht ,sr%curvi , & & sr%swbot ,sr%swflux ,sr%filcom ,sr%rgfout ,sr%prname , & & sr%prnumb ,sr%title1 ,sr%title2 ,sr%title3 , & & sr%nnest ,sr%nttide ,sr%itest ,sr%itrace , & & sr%zeta ,sr%ux0 ,sr%uy0 ,sr%css ,sr%cdd , & & sr%grav ,sr%rho , & & sr%timwav ,sr%wfil ,sr%nobst ,sr%nscr , & & sr%xw ,sr%yw ,sr%alpw ,sr%mxw ,sr%myw , & & sr%dxw ,sr%dyw ,sr%trane ,sr%f ,sr%ogam , & & sr%obet ,sr%xpob ,sr%ypob ,sr%nlin ,sr%varwin , & & sr%ncurv ,sr%ncrv ,sr%nclin ,sr%xpcu ,sr%ypcu , & & sr%ncrp ,sr%filnam ,sr%error ,sr%inrhog , & & sr%mxr ,sr%myr ,sr%ffil , & & sr%maxsteps ,sr%maxobst ,sr%maxcurv ,sr ) endif ind=index(filnam,'.mdw') sr%casl=filnam(1:ind-1) return 999 continue write (*,'(a)') '*** ERROR: While reading file ''waves_alone''.' stop end subroutine read_swan ! ! !============================================================================== subroutine scan_mdw(sr) ! implicit none ! ! Global variables ! type(swan) :: sr ! ! Local variables ! integer :: bndtyp integer :: convar integer :: cp integer :: cs integer :: error integer :: gridtype integer :: i, j integer :: ios integer :: ipfl integer :: irec integer :: iuni integer :: nclin integer :: ncurv integer :: nlin integer :: nnest_rec integer :: nttide_rec integer :: nwind_rec integer :: num integer :: obstyp integer :: parread integer :: pnts integer :: swmr integer :: swwt integer :: swut integer :: swwnd integer :: turn integer :: windtype integer, external :: new_lun integer, parameter :: NWIND = 7 integer, parameter :: NNEST = 8 integer, parameter :: NTTIDE = 14 real :: xpcu real :: ypcu character(len=256) :: line character(len=256) :: vers character(len=256) :: bndnam character(len=256) :: wfil ! ! Executable statements -------------------------------------------------------- ! num = 0 irec = 0 iuni = new_lun() open (iuni, file = sr%filnam, iostat = ios) if (ios /= 0) then write (*,'(a,a,a)') '*** ERROR: While opening file ''',trim(sr%filnam),''',' write (*,'(a,i5,a,a,a)') ' Error on Record ',irec, ' in file ''',trim(sr%filnam),'''.' sr%error = 1 return endif rewind (iuni, iostat = ios) if (ios /= 0) then write (*,'(a,a,a)') '*** ERROR: While reading file ''',trim(sr%filnam),''',' write (*,'(a,i5)') ' Record ',irec sr%error = 4 return endif read (iuni, '(a)', iostat = ios) line if (ios /= 0) then write (*,'(a,a,a)') '*** ERROR: While reading file ''',trim(sr%filnam),''',' write (*,'(a,i5)') ' Record ',irec sr%error = 4 return endif ! ! We need to know the swan version number before scanning the mdw file ! The code below takes care of that i = index (line,'version') read (line(i+8:),'(a)') vers ! ! Checking on versionnumber is done on character basis (as in WAVE-GUI) ! This can be disturbed when the strings contains trailing spaces ! Clean up the variable vers, such that it has the format '1.11.11' ! Do not bother about wrongly placed dots or digits ! vers = adjustl(vers) do j=1,len(vers) select case(vers(j:j)) case(' ') if (j==2 .or. j==5) then vers(j:j) = '.' else vers(j:j) = '0' endif case('.') ! nothing case('0':'9') ! nothing case default write (*,'(a)') '*** ERROR: Unable to read WAVE-GUI version number' write (*,'(a,a,a)') '*** ERROR: While reading file ''',trim(sr%filnam),''',' write (*,'(a,i5)') ' Record ',irec sr%error = 4 return end select enddo if (i==0 .or. llt(vers,'4.87.00')) then write (*,'(3a)') '*** ERROR: mdw_file created with WAVE-GUI version ', & & trim(vers), ' is not supported.' write (*,'(a,a,a)') '*** ERROR: While reading file ''',trim(sr%filnam),''',' write (*,'(a,i5)') ' Record ',irec sr%error = 4 endif !------SWAN version number--------------------------------------- ! The records within the mdw file shift a single line when there ! is no SWAN version number anymore in the newer versions if (lge(vers, '4.91.00')) then ! ! SWAN version number is removed ! irec = 0 else read (iuni, '(a)', iostat = ios) line irec = irec + 1 endif ! ! This is the record for checking wind use nwind_rec = NWIND + irec ! This is the record for the number of computational grids nnest_rec = NNEST + irec ! This is the record for the number of tidal points nttide_rec = NTTIDE + irec ! ! Now scan the file to obtain the maxbound, maxnest, maxpoints, and maxsteps values ! to be able to allocate the arrays dynamically in the alloc_swan routine ! do while ( ios == 0 ) if ( line(1:1) /= '*' ) then ! ! This is a 'true' record so increase irec irec = irec + 1 ! Fixed lines in the input file contain the wanted information so obtain them ! using the correct record indices if (irec == nwind_rec) then swmr = 0 swwt = 0 swut = 0 swwnd = 0 if (lge(vers, '4.90.06')) then read (line, *, iostat = ios) swmr, swwt, swut, swwnd if (swwnd == 1) sr%swwindt = .true. else sr%swwindt = .false. endif elseif (irec == nnest_rec) then ! This is the record that contains the number of computational grids read (line, *, iostat = ios) sr%maxnest elseif (irec == (nttide_rec + (sr%maxnest - 1)*5)) then ! Obtain the number of tidal points to be able to find the correct line ! for the boundaries read (line, *, iostat = ios) sr%maxsteps elseif (irec == (nttide_rec + ((sr%maxnest - 1)*5) + sr%maxsteps + 2)) then ! This is the record that contains the number of boundaries read (line, *, iostat = ios) sr%maxbound elseif (irec == (nttide_rec + ((sr%maxnest - 1)*5) + sr%maxsteps + 3)) then ! Here the records that contain information about sections within boundaries ! start, so allocate the memory for those sections (only if maxbound > 0) if (sr%maxbound > 0) allocate (sr%maxsect(sr%maxbound)) do i = 1, sr%maxbound ! Now scan the properties of the boundaries to find out the value of nsect ! Skip lines with unnecessary information and increase irec if ( line(1:1) /= '*' ) then ! This is the first boundary in the mdw file so line has already been read read (line, *, iostat = ios) bndnam, parread, bndtyp, convar else ! This is not the first boundary so read parameters from file and increase irec do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo read (line, *, iostat = ios) bndnam, parread, bndtyp, convar irec = irec + 1 endif ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 if (parread==2) then ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 endif if (convar==1) then sr%maxsect(i) = 1 ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 else ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo read (line, *, iostat = ios) sr%maxsect(i), turn irec = irec + 1 do j = 1, sr%maxsect(i) ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 enddo endif line = '*' enddo ! At this point we are sure that we are at the location where the obstacles are defined ! Again skip the lines that start with a '*' if ( line(1:1) == '*' ) then do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 endif ! This is the record that contains the number of obstacles read (line, *, iostat = ios) sr%maxobst cp = 0 if (sr%maxobst>0) then ! Loop over all obstacles to find out the amount of corner points (cp) ! Then make sure maxobst has the size of the amount of cornerpoints for ! allocation purposes do i = 1, sr%maxobst ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo read (line, *, iostat = ios) obstyp irec = irec + 1 if (obstyp==1) then ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 elseif (obstyp==2) then ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 endif if (lge(vers, '4.88.08')) then ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 endif ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo read (line, *, iostat = ios) nlin irec = irec + 1 do j = 1, nlin cp = cp + 1 ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 enddo enddo sr%maxobst = cp endif ! Continue scanning the file until (finally) we've reached the curves part ! Again skip the lines that start with a '*' ! Gravity etc. do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! Convention, setup, forces do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Wind, only when not using FLOW wind ! if (.not. sr%swwindt) then ! If wind info is present, read it ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 read (line, *, iostat = ios) windtype if (windtype == 1) then ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 elseif (windtype == 2) then ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 read (line, *, iostat = ios) gridtype, wfil if (gridtype==2) then ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 endif else write (*,'(a,a,a)') '*** ERROR: Wrong wind type in file ''',trim(sr%filnam),''',' write (*,'(a,a,a)') '*** ERROR: While reading file ''',trim(sr%filnam),''',' write (*,'(a,i5)') ' Record ',irec sr%error = 4 return endif endif ! ! Type of formulations ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Depth induced breaking, alpha, gamma ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Bottom friction, friction coefficient ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Non-linear triad interactions, alpha, beta ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Diffraction, smoothing coefficient, smoothing steps, adaptation of propagation ! Again skip the lines that start with a '*' if (lge(vers, '4.88.08')) then do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 endif ! ! Y/N windgrowth, white-capping, quadruplets, refraction, frequency shift ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Directional space, frequency space ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Hs-Tm01, Hs, Tm01, percentage of wet grid points, maximum number of iterations ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Finally we've reached the point where we can determine sr%maxcurv! ! Loop over all curves to find out the amount of curve segments (cs) ! Then make sure maxcurv has the size of the amount of curve segments for ! allocation purposes ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 read (line, *, iostat = ios) ncurv cs = 0 if (ncurv>0) then do i = 1, ncurv cs = cs + 1 ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 read (line, *, iostat = ios) nclin, xpcu, ypcu nclin = nclin + 1 do j = 2, nclin cs = cs + 1 ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 read (line, *, iostat = ios) nclin, xpcu, ypcu enddo enddo endif sr%maxcurv = cs ! ! Level of test output, debug level, Y/N compute waves, Y/N activate hotstart file ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Y/N output to Flow grid; filename of Flow grid ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 ! ! Y/N output to locations, this is the place to find the maxpoints number to ! dynamically allocate sr%xyloc within the alloc_swan routine ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 read (line, *, iostat = ios) pnts if (pnts == 1) then sr%output_points = .true. ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 read (line, *, iostat = ios) ipfl if (ipfl == 1) then sr%output_pnt_file = .true. ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 else sr%output_pnt_file = .false. ! Here the number of locations are defined, which ! define maxpoints ! Again skip the lines that start with a '*' do read (iuni, '(a)', iostat = ios) line if ( line(1:1) /= '*' ) exit enddo irec = irec + 1 read (line, *, iostat = ios) sr%maxpoints endif endif endif endif ! ! Read the next line ! read (iuni, '(a)', iostat = ios, end = 100) line enddo if (ios /= 0) then ! An error during the reading of the file, no eof found yet write (*,'(a,a,a)') '*** ERROR: While reading file ''',trim(sr%filnam),''',' write (*,'(a,i5)') ' Record ',irec sr%error = 4 return endif 100 continue ! The maxbound variable may not be zero, since it will lead to an error within ! the read_swan_mdw routine. Change it here to not disturb the scanning of the file ! Also allocate sr%maxsect since it has not been done within the loop since maxbound = 0 if (sr%maxbound == 0) then sr%maxbound = 1 allocate (sr%maxsect(sr%maxbound)) sr%maxsect = 0 endif close(iuni, iostat = ios) if (ios /= 0) then write (*,'(a,a,a)') '*** ERROR: While closing file ''',trim(sr%filnam),''',' write (*,'(a,i5,a,a,a)') ' Error on Record ',irec, ' in file ''',trim(sr%filnam),'''.' sr%error = 2 return endif end subroutine scan_mdw ! ! !============================================================================== subroutine read_keyw_mdw(sr ,wavedata ,keywbased ) use properties use read_grids implicit none ! type(swan) :: sr type(wave_data_type) :: wavedata logical :: keywbased ! type(tree_data) , pointer :: mdw_ptr type(tree_data) , pointer :: gen_ptr type(tree_data) , pointer :: out_ptr type(tree_data) , pointer :: node_ptr type(tree_data) , pointer :: obst_ptr type(tree_data) , pointer :: pol_ptr type(tree_data) , pointer :: bnd_ptr type(tree_data) , pointer :: dom_ptr type(tree_data) , pointer :: tmp_ptr integer :: boundnr integer :: def_dirspace integer :: def_ndir integer :: def_nfreq integer :: domainnr integer :: i integer :: ii integer :: io integer :: istat integer :: j integer :: nbound integer :: nlocc integer :: jj integer :: ndomains integer :: nobst integer :: nobstpnt integer :: nsect integer :: ntimes integer :: obstnr integer :: obstpnt integer :: refdate integer :: sectnr integer :: timenr integer :: timetable integer :: iter integer :: n_outpars integer :: par integer, dimension(4) :: def_ts_hs integer, dimension(4) :: def_ts_tp integer, dimension(4) :: def_ts_wd integer, dimension(4) :: def_ts_ds logical :: flag logical :: success real :: def_startdir real :: def_enddir real :: def_freqmin real :: def_freqmax real :: tscale real, dimension(2) :: xy character(10) :: versionstring character(37) :: obstfil character(37) :: tseriesfilename character(37) :: polylinefile character(80) :: parname character(256) :: errorstring character(80),dimension(:), allocatable :: tmp_add_out_names character(80),dimension(:), allocatable :: tmp_meteofile character(1), dimension(:), pointer :: data_ptr type(swan_bnd) , pointer :: bnd type(swan_dom) , pointer :: dom ! ! Try opening wave file as keyword based file ! nullify(mdw_ptr) call tree_create('Delft3D-WAVE input', mdw_ptr) istat = 0 call prop_file('ini', trim(sr%filnam), mdw_ptr, istat) if (istat /= 0) then select case (istat) case(1) write(*,*) '*** ERROR File: '//trim(sr%filnam)//' not found' case(3) write(*,*) '*** ERROR Premature EOF in file: '//trim(sr%filnam) case default write(*,*) '*** ERROR Read error from file: '//trim(sr%filnam) endselect stop endif ! ! Check version number of wave input file ! versionstring = '' call prop_get_string(mdw_ptr, 'WaveFileInformation', 'FileVersion', versionstring) if (trim(versionstring) /= '02.00') return keywbased = .true. ! ! gen_ptr is used later on ! call tree_get_node_by_name( mdw_ptr, 'General', gen_ptr ) ! ! From here on we know that we read the input data from a keyword based ! mdw file. ! call prop_get_string (mdw_ptr, 'General', 'Projectname' , sr%prname) call prop_get_string (mdw_ptr, 'General', 'Projectnr' , sr%prnumb) call prop_get_string (mdw_ptr, 'General', 'Description1' , sr%title1) call prop_get_string (mdw_ptr, 'General', 'Description2' , sr%title2) call prop_get_string (mdw_ptr, 'General', 'Description3' , sr%title3) call prop_get_logical(mdw_ptr, 'General', 'OnlyInputVerify', flag) sr%compmode = .not. flag ! sr%deltc = -999.0 parname = '' call prop_get_string (mdw_ptr, 'General', 'SimMode', parname) select case (parname) case ('stationary') ! ! Use modsim = 2 also for stationary input ! sr%modsim = 2 case ('quasi-stationary') sr%modsim = 2 case ('non-stationary') sr%modsim = 3 call prop_get_real (mdw_ptr, 'General', 'TimeStep', sr%deltc) if (sr%deltc < 0.0) then write(*,*) 'SWAN_INPUT: missing or invalid non-stationary time step' goto 999 endif case default write(*,*) 'SWAN_INPUT: missing or invalid simulation mode' goto 999 end select ! parname = '' call prop_get_string (mdw_ptr, 'General', 'FlowFile', parname) if (parname /= ' ') then call setmode(wavedata, flow_online) parname = '' call prop_get_string (mdw_ptr, 'General', 'FlowMudFile', parname) if (parname /= ' ') then call setmode(wavedata, flow_mud_online) endif endif select case (wavedata%mode) case (stand_alone) write(*,'(a)') '*** MESSAGE: Delft3D-WAVE runs stand alone' case (flow_online) write(*,'(a)') '*** MESSAGE: Delft3D-WAVE runs online with Delft3D-FLOW' case (flow_mud_online) write(*,'(a)') '*** MESSAGE: Delft3D-WAVE runs online with Delft3D-FLOW, including MUD' end select ! parname = '' call prop_get_string (mdw_ptr, 'General', 'DirConvention', parname) call lowercase(parname, len(parname)) select case (parname) case ('nautical') sr%nautconv = .true. case ('cartesian') sr%nautconv = .false. case default write(*,*) 'SWAN_INPUT: missing or invalid direction convention' goto 999 end select obstfil = '' call prop_get_string (mdw_ptr, 'General', 'ObstacleFile', obstfil) ! ! Determine reference date. Date string converted from YYYY-MM-DD ! to YYYYMMDD. ! parname = '' call prop_get_string (mdw_ptr, 'General', 'ReferenceDate', parname) parname(5:6) = parname(6:7) parname(7:8) = parname(9:10) parname(9:) = ' ' read(parname,*,iostat=istat) refdate if (istat /= 0) then write(*,*) 'SWAN_INPUT: missing or invalid reference date' goto 999 endif call setrefdate(wavedata%time,refdate) call juldat(refdate ,sr%refjulday) ! tscale = 60.0 call prop_get_real (mdw_ptr, 'General', 'TScale', tscale) call settscale(wavedata%time, tscale) ! tseriesfilename = '' call prop_get_string (mdw_ptr, 'General', 'TSeriesFile', tseriesfilename) if (tseriesfilename /= ' ') then sr%timedependent = .true. call readtable(sr%tseriesfile, newlun(), tseriesfilename, sr%refjulday, errorstring) if (errorstring /= ' ') then write(*,'(A)') trim(errorstring) goto 999 endif endif ! ! Time points ! timetable = -999 if (sr%timedependent) then call prop_get_integer(mdw_ptr, 'General', 'TimePntBlock', timetable) endif if (timetable > 0) then ! ! time points from TSeriesFile ! ntimes = gettablentimes(sr%tseriesfile, timetable, errorstring) if (errorstring /= ' ') then write(*,'(A)') trim(errorstring) goto 999 endif else ! ! Count number of time points ! ntimes = 0 do i = 1, size(mdw_ptr%child_nodes) tmp_ptr => mdw_ptr%child_nodes(i)%node_ptr parname = tree_get_name( tmp_ptr ) if (parname == 'timepoint') ntimes = ntimes + 1 enddo ! endif ntimes = max(ntimes,1) sr%nttide = ntimes ! istat = 0 allocate (sr%timwav (ntimes ), stat = istat) if (istat==0) allocate (sr%zeta (ntimes ), stat = istat) if (istat==0) allocate (sr%ux0 (ntimes ), stat = istat) if (istat==0) allocate (sr%uy0 (ntimes ), stat = istat) if (istat==0) allocate (sr%wdir (ntimes ), stat = istat) if (istat==0) allocate (sr%wvel (ntimes ), stat = istat) ! if (istat/=0) then write(*,*) 'SWAN_INPUT: memory alloc error (ntimes)' goto 999 endif ! sr%timwav = -999.0 sr%zeta = 0.0 sr%ux0 = 0.0 sr%uy0 = 0.0 sr%wvel = 0.0 sr%wdir = 0.0 sr%swuvi = .true. ! ! Get default values for time-varying quantities ! call prop_get_real (mdw_ptr, 'General', 'WaterLevel', sr%zeta(1)) sr%zeta = sr%zeta(1) ! call prop_get_real (mdw_ptr, 'General', 'XVeloc' , sr%ux0(1)) sr%ux0 = sr%ux0(1) ! call prop_get_real (mdw_ptr, 'General', 'YVeloc' , sr%uy0(1)) sr%uy0 = sr%uy0(1) ! call prop_get_real (mdw_ptr, 'General', 'WindSpeed' , sr%wvel(1)) sr%wvel = sr%wvel(1) ! call prop_get_real (mdw_ptr, 'General', 'WindDir' , sr%wdir(1)) sr%wdir = sr%wdir(1) if (timetable > 0) then ! ! Times obtained from table module are in hours ! call gettabletimes(sr%tseriesfile, timetable, sr%timwav, sr%refjulday, & & errorstring) sr%timwav = sr%timwav * 60.0 else timenr = 0 i = 1 do j = 1, size(mdw_ptr%child_nodes) tmp_ptr => mdw_ptr%child_nodes(j)%node_ptr parname = tree_get_name( tmp_ptr ) select case (parname) case ('timepoint') timenr = timenr + 1 i = timenr call prop_get_real (tmp_ptr, '*', 'Time' , sr%timwav(timenr)) call prop_get_real (tmp_ptr, '*', 'WaterLevel', sr%zeta(i)) if (timenr==0) sr%zeta = sr%zeta(1) call prop_get_real (tmp_ptr, '*', 'XVeloc' , sr%ux0(i)) if (timenr==0) sr%ux0 = sr%ux0(1) call prop_get_real (tmp_ptr, '*', 'YVeloc' , sr%uy0(i)) if (timenr==0) sr%uy0 = sr%uy0(1) call prop_get_real (tmp_ptr, '*', 'WindSpeed' , sr%wvel(i)) if (timenr==0) sr%wvel = sr%wvel(1) call prop_get_real (tmp_ptr, '*', 'WindDir' , sr%wdir(i)) if (timenr==0) sr%wdir = sr%wdir(1) case default ! ! nothing ! end select enddo endif ! ! The following if statement is added to compare with old version ! if (sr%ux0(1) == 0.0 .and. sr%uy0(1) == 0.0 ) then sr%swuvi = .false. endif ! ! ! Optionally find these general quantities in the tables ! if (sr%timedependent) then call gettable(sr%tseriesfile, 'General', 'WaterLevel', sr%ts_wl, & & 0 , errorstring) if (sr%ts_wl(3) > 1) then write(*,*) 'SWAN_INPUT: too many WaterLevel entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, 'General', 'XVeloc', sr%ts_xv, & & 0 , errorstring) if (sr%ts_xv(3) > 1) then write(*,*) 'SWAN_INPUT: too many XVeloc entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, 'General', 'YVeloc', sr%ts_yv, & & 0 , errorstring) if (sr%ts_yv(3) > 1) then write(*,*) 'SWAN_INPUT: too many YVeloc entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, 'General', 'WindSpeed', sr%ts_ws, & & 0 , errorstring) if (sr%ts_ws(3) > 1) then write(*,*) 'SWAN_INPUT: too many WindSpeed entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, 'General', 'WindDir', sr%ts_wd, & & 0 , errorstring) if (sr%ts_wd(3) > 1) then write(*,*) 'SWAN_INPUT: too many WindDir entries in TSeriesFile' goto 999 endif endif ! ! Default settings for domains ! parname = '' call prop_get_string (mdw_ptr, 'General', 'DirSpace', parname) call lowercase(parname, len(parname)) def_dirspace = -999 select case (parname) case ('circle') def_dirspace = 1 case ('sector') def_dirspace = 2 case default if (parname /= '') then write(*,*) 'SWAN_INPUT: unknown General/DirSpace: ', parname goto 999 endif end select def_ndir = -999 def_startdir = -999.0 def_enddir = -999.0 def_nfreq = -999 def_freqmin = -999.0 def_freqmax = -999.0 call prop_get_integer(mdw_ptr, 'General', 'NDir' , def_ndir) call prop_get_real (mdw_ptr, 'General', 'StartDir', def_startdir) call prop_get_real (mdw_ptr, 'General', 'EndDir' , def_enddir) call prop_get_integer(mdw_ptr, 'General', 'NFreq' , def_nfreq) call prop_get_real (mdw_ptr, 'General', 'FreqMin' , def_freqmin) call prop_get_real (mdw_ptr, 'General', 'FreqMax' , def_freqmax) ! ! Count number of meteofiles in group General ! call count_occurrences(mdw_ptr, 'General', 'meteofile', sr%n_meteofiles_gen) if (sr%n_meteofiles_gen > 0) then ! ! Allocate temporary array for meteofiles ! allocate(tmp_meteofile(sr%n_meteofiles_gen), stat = istat) tmp_meteofile = '' ! ! The input can be read ! par = 0 call tree_get_node_by_name(mdw_ptr, 'General', tmp_ptr) do j = 1, size(tmp_ptr%child_nodes) ! ! Does tmp_ptr contain one or more children with name MeteoFile? ! node_ptr => tmp_ptr%child_nodes(j)%node_ptr ! parname = '' call prop_get_string(node_ptr, '*', 'meteofile', parname) if ( parname /= '') then par = par + 1 ! ! Read value for keyword meteofile ! call tree_get_data_string(node_ptr, parname, success) ! ! Check double occurrences ! do i = 1, par if (tmp_meteofile(i) == parname) then write(*,'(a,a,a)') 'SWAN input: Group General: MeteoFile ', trim(parname), ' has already been read' par = par - 1 sr%n_meteofiles_gen = sr%n_meteofiles_gen - 1 exit endif enddo ! if (tmp_meteofile(par) == '') then ! ! Array location for MeteoFile empty, so store the read item in the temporary meteofile array ! tmp_meteofile(par) = trim(parname) endif if (par == sr%n_meteofiles_gen) then ! ! Correct number of meteofiles read ! exit endif endif enddo ! ! Allocate array for meteofiles in group General ! allocate (sr%meteofile_gen(sr%n_meteofiles_gen), stat = istat) ! ! Fill the array with meteofiles in group General ! sr%meteofile_gen(1:sr%n_meteofiles_gen) = tmp_meteofile(1:sr%n_meteofiles_gen) sr%swwindt = .true. ! deallocate(tmp_meteofile) ! endif ! ! Constants ! sr%grav = 9.81 sr%rho = 1025.0 sr%northdir = 90.0 sr%depmin = 0.05 sr%inrhog = 1 sr%wlevelcorr = 0.0 sr%maxerr = 2 call prop_get_real (mdw_ptr, 'Constants', 'Gravity' , sr%grav) call prop_get_real (mdw_ptr, 'Constants', 'WaterDensity' , sr%rho) call prop_get_real (mdw_ptr, 'Constants', 'NorthDir' , sr%northdir) call prop_get_real (mdw_ptr, 'Constants', 'MinimumDepth' , sr%depmin) call prop_get_real (mdw_ptr, 'Constants', 'WaterLevelCorrection', sr%wlevelcorr) call prop_get_integer(mdw_ptr, 'Constants', 'MaxErrorLevel' , sr%maxerr) ! ! Processes ! sr%genmode = -999 sr%setup = .false. sr%breaking = .true. sr%cfbr1 = 1.0 sr%cfbr2 = 0.73 sr%triads = .false. sr%cftriad1 = 0.1 sr%cftriad2 = 2.2 sr%frictype = 1 sr%frcof = 0.067 sr%diffr_coeff = 0.2 sr%diffr_smsteps = 5 sr%windgrowth = .true. sr%whitecap = 1 sr%quadruplets = .false. sr%refraction = .true. sr%fshift = .true. ! call prop_get_integer(mdw_ptr, 'Processes', 'GenModePhys', sr%genmode) if (sr%genmode < 0 .or. sr%genmode > 3) then write(*,*) 'SWAN_INPUT: missing or invalid generation mode' goto 999 endif ! call prop_get_logical(mdw_ptr, 'Processes', 'WaveSetup' , sr%setup) call prop_get_logical(mdw_ptr, 'Processes', 'Breaking' , sr%breaking) if (sr%breaking) then call prop_get_real (mdw_ptr, 'Processes', 'BreakAlpha', sr%cfbr1) call prop_get_real (mdw_ptr, 'Processes', 'BreakGamma', sr%cfbr2) endif call prop_get_logical(mdw_ptr, 'Processes', 'Triads' , sr%triads) if (sr%triads) then call prop_get_real (mdw_ptr, 'Processes', 'TriadsAlpha', sr%cftriad1) call prop_get_real (mdw_ptr, 'Processes', 'TriadsBeta' , sr%cftriad2) endif ! parname = '' call prop_get_string (mdw_ptr, 'Processes', 'BedFriction', parname) call lowercase(parname,len(parname)) select case (parname) case ('none', ' ') sr%frictype = 0 sr%frcof = 0.0 case ('jonswap') sr%frictype = 1 sr%frcof = 0.067 case ('collins') sr%frictype = 2 sr%frcof = 0.015 case ('madsen et al.') sr%frictype = 3 sr%frcof = 0.05 case default write(*,*) 'SWAN_INPUT: invalid bed friction type' goto 999 end select if (sr%frictype > 0) then call prop_get_real (mdw_ptr, 'Processes', 'BedFricCoef', sr%frcof) endif ! flag = .true. sr%diffraction = 1 call prop_get_logical(mdw_ptr, 'Processes', 'Diffraction', flag) if (.not. flag) sr%diffraction = 0 if (sr%diffraction == 1) then call prop_get_real (mdw_ptr, 'Processes', 'DiffracCoef' , sr%diffr_coeff) call prop_get_integer(mdw_ptr, 'Processes', 'DiffracSteps', sr%diffr_smsteps) ! flag = .true. sr%diffr_adapt_propag = 1 call prop_get_logical(mdw_ptr, 'Processes', 'DiffracProp' , flag) if (.not. flag) sr%diffr_adapt_propag = 0 endif ! call prop_get_logical(mdw_ptr, 'Processes', 'WindGrowth' , sr%windgrowth) parname = '' call prop_get_string (mdw_ptr, 'Processes', 'WhiteCapping', parname) call lowercase(parname, len(parname)) select case (parname) case ('off') sr%whitecap = WC_OFF case ('komen',' ') sr%whitecap = WC_KOMEN case ('westhuysen') sr%whitecap = WC_WESTHUYSEN if (sr%genmode /= 3) then write (*,'(2a,i0)') 'SWAN_INPUT: WhiteCapping=Westhuysen can not be', & & ' combined with formulations of generation ',sr%genmode goto 999 endif case default write(*,*) 'SWAN_INPUT: [Processes] WhiteCapping: invalid input:',trim(parname) goto 999 end select call prop_get_logical(mdw_ptr, 'Processes', 'Quadruplets', sr%quadruplets) call prop_get_logical(mdw_ptr, 'Processes', 'Refraction' , sr%refraction) call prop_get_logical(mdw_ptr, 'Processes', 'FreqShift' , sr%fshift) ! parname = '' call prop_get_string (mdw_ptr, 'Processes', 'WaveForces', parname) call lowercase(parname, len(parname)) select case (parname) case ('radiation stresses <2013') sr%swdis = 1 case ('radiation stresses',' ') write(*,*) 'SWAN_INPUT: [Processes] WaveForces is set to "dissipation 3d"' write(*,*) 'To switch on radiation stresses: "WaveForces = radiation stresses <2013"' sr%swdis = 3 case ('dissipation') sr%swdis = 2 case ('dissipation 3d') sr%swdis = 3 case default write(*,*) 'SWAN_INPUT: invalid method to compute wave forces' goto 999 end select ! ! Numerics ! sr%cdd = 0.5 sr%css = 0.5 sr%drel = 0.02 sr%dh_abs = 0.02 sr%dt_abs = 0.02 sr%percwet = 98.0 sr%itermx = 15 sr%gamma0 = 3.3 ! call prop_get_real (mdw_ptr, 'Numerics', 'DirSpaceCDD' , sr%cdd) call prop_get_real (mdw_ptr, 'Numerics', 'FreqSpaceCSS' , sr%css) call prop_get_real (mdw_ptr, 'Numerics', 'RChHsTm01' , sr%drel) call prop_get_real (mdw_ptr, 'Numerics', 'RChMeanHs' , sr%dh_abs) call prop_get_real (mdw_ptr, 'Numerics', 'RChMeanTm01' , sr%dt_abs) call prop_get_real (mdw_ptr, 'Numerics', 'PercWet' , sr%percwet) call prop_get_integer(mdw_ptr, 'Numerics', 'MaxIter' , sr%itermx) ! ! General output options ! sr%itest = 0 sr%itrace = 0 sr%hotfile = .false. sr%wavm_write_interval = 0.0 sr%swwav = .false. sr%deltcom = 0.0 sr%append_com = .false. sr%output_points = .false. sr%output_pnt_file = .false. sr%pntfil = ' ' sr%curvefil = ' ' sr%swflux = .true. ! ! Standard output options ! call prop_get_integer(mdw_ptr, 'Output', 'TestOutputLevel' , sr%itest) call prop_get_logical(mdw_ptr, 'Output', 'TraceCalls' , flag) if (flag) sr%itrace = 1 call prop_get_logical(mdw_ptr, 'Output', 'UseHotFile' , sr%hotfile) call prop_get_real (mdw_ptr, 'Output', 'MapWriteInterval', sr%wavm_write_interval) call prop_get_logical(mdw_ptr, 'Output', 'WriteCOM' , sr%swwav) call prop_get_logical(mdw_ptr, 'Output', 'MassFluxToCOM' , sr%swflux) call prop_get_real (mdw_ptr, 'Output', 'COMWriteInterval', sr%deltcom) call prop_get_logical(mdw_ptr, 'Output', 'AppendCOM' , sr%append_com) ! ! determine the number of location files ! nlocc = 0 call tree_get_node_by_name( mdw_ptr, 'Output', out_ptr ) do jj = 1,size(out_ptr%child_nodes) tmp_ptr => out_ptr%child_nodes(jj)%node_ptr parname = tree_get_name( tmp_ptr ) if (parname == 'locationfile') then nlocc = nlocc+1 endif enddo if (nlocc > 0) then sr%output_points = .true. sr%output_pnt_file = .true. allocate (sr%pntfilnam(nlocc), stat = istat) if (istat/=0) then write(*,*) 'SWAN_INPUT: memory alloc error (pntfilnam)' goto 999 endif endif ! ! read the location files ! nlocc = 0 call tree_get_node_by_name( mdw_ptr, 'Output', out_ptr ) do jj = 1,size(out_ptr%child_nodes) tmp_ptr => out_ptr%child_nodes(jj)%node_ptr parname = tree_get_name( tmp_ptr ) if (parname == 'locationfile') then nlocc = nlocc+1 call prop_get_string(tmp_ptr, '*', 'locationfile' ,sr%pntfilnam(nlocc)) endif enddo sr%nloc = nlocc sr%output_table = .false. sr%output_spec1d = .false. sr%output_spec2d = .false. if (sr%output_pnt_file) then call prop_get_logical(mdw_ptr, 'Output', 'WriteTable' , sr%output_table) call prop_get_logical(mdw_ptr, 'Output', 'WriteSpec1D' , sr%output_spec1d) call prop_get_logical(mdw_ptr, 'Output', 'WriteSpec2D' , sr%output_spec2d) endif call prop_get_string (mdw_ptr, 'Output', 'CurveFile', sr%curvefil) if (sr%curvefil /= ' ') then ! ! unknown number of output curves defined in a Tekal file ! use ncurv = -1 to flag this ! sr%ncurv = -1 endif ! ! Additional keywords? Count the number of occurrences ! n_outpars = 0 call count_occurrences(mdw_ptr, 'output', 'additionaloutput', n_outpars) if (n_outpars > 0) then ! ! Allocate temporary array for additional output parameters ! allocate (tmp_add_out_names(n_outpars), stat = istat) ! ! Initialize array ! tmp_add_out_names = ' ' ! ! The input can be read ! par = 0 ! call tree_get_node_by_name(mdw_ptr, 'output', out_ptr) do j = 1, size(out_ptr%child_nodes) ! ! Does out_ptr contain one or more children with name AdditionalOutput? ! node_ptr => out_ptr%child_nodes(j)%node_ptr ! parname = '' call prop_get_string(node_ptr, '*', 'AdditionalOutput', parname) if ( parname /= '') then par = par + 1 ! ! Read the additional output parameter ! call tree_get_data_string(node_ptr, parname, success) do i = 1, par if (tmp_add_out_names(i) == parname) then write(*,'(3a)') 'SWAN input: Additional output parameter ', trim(parname), ' has already been read' par = par - 1 n_outpars = n_outpars - 1 exit endif enddo ! if (tmp_add_out_names(par) == ' ') then tmp_add_out_names(par) = trim(parname) endif if (par == n_outpars) then exit endif endif enddo ! ! Allocate array for additional output parameters ! allocate (sr%add_out_names(n_outpars), stat = istat) ! ! Fill the array with additional output names ! sr%add_out_names(1:n_outpars) = tmp_add_out_names(1:n_outpars) ! deallocate(tmp_add_out_names) ! endif ! ! Interval to keep the hotfile ! sr%int2keephotfile = 0.0 call prop_get_real(mdw_ptr, 'Output', 'Int2KeepHotfile', sr%int2keephotfile) ! ! Determine the number of domains ! ndomains = 0 do i = 1, size(mdw_ptr%child_nodes) tmp_ptr => mdw_ptr%child_nodes(i)%node_ptr parname = tree_get_name( tmp_ptr ) if ( parname == 'domain') ndomains = ndomains + 1 enddo if (ndomains == 0) then write(*,*) 'SWAN_INPUT: no domains found!' goto 999 endif sr%nnest = ndomains ! istat = 0 allocate (sr%dom(ndomains ), stat = istat) ! if (istat /= 0) then write(*,*) 'SWAN_INPUT: memory alloc error (ndomains)' goto 999 endif ! sr%dom(1)%qextnd = 0 sr%dom(1)%flowVelocityType = FVT_DEPTH_AVERAGED ! ! Put general FLOW mapping flags in dom(1) ! if (wavedata%mode /= stand_alone) then call prop_get_integer(mdw_ptr, 'General', 'FlowBedLevel' , sr%dom(1)%qextnd(q_bath)) call prop_get_integer(mdw_ptr, 'General', 'FlowWaterLevel', sr%dom(1)%qextnd(q_wl) ) call prop_get_integer(mdw_ptr, 'General', 'FlowVelocity' , sr%dom(1)%qextnd(q_cur) ) call prop_get_integer(mdw_ptr, 'General', 'FlowWind' , sr%dom(1)%qextnd(q_wind)) parname = '' call prop_get_string (mdw_ptr, 'General', 'FlowVelocityType', parname) call lowercase(parname, len(parname)) select case (parname) case ('depth-averaged') sr%dom(1)%flowVelocityType = FVT_DEPTH_AVERAGED case ('surface-layer') sr%dom(1)%flowVelocityType = FVT_SURFACE_LAYER case ('wave-dependent') sr%dom(1)%flowVelocityType = FVT_WAVE_DEPENDENT case (' ') ! ! Default value used ! case default write(*,*) 'SWAN_INPUT: invalid option for [General], FlowVelocityType' goto 999 end select endif do i = 1, ndomains dom => sr%dom(i) dom%curvibot = -999 dom%dirspace = def_dirspace dom%ndir = def_ndir dom%nfreq = def_nfreq dom%nestnr = -999 dom%cgnum = .true. dom%botfil = '' dom%curlif = '' dom%depfil = '' dom%nesfil = '' dom%vegfil = '' dom%nesnam = '--DUMMY--' !!dummy dom%mxb = -999 dom%myb = -999 dom%mxc = -999 dom%myc = -999 dom%freqmin = def_freqmin dom%freqmax = def_freqmax dom%startdir = def_startdir dom%enddir = def_enddir dom%veg_height = -999.0 dom%veg_diamtr = -999.0 dom%veg_nstems = 1 dom%veg_drag = 1 dom%qextnd(q_bath) = sr%dom(1)%qextnd(q_bath) dom%qextnd(q_wl) = sr%dom(1)%qextnd(q_wl) dom%qextnd(q_cur) = sr%dom(1)%qextnd(q_cur) dom%qextnd(q_wind) = sr%dom(1)%qextnd(q_wind) dom%flowVelocityType = sr%dom(1)%flowVelocityType enddo ! domainnr = 0 do i = 1, size(mdw_ptr%child_nodes) tmp_ptr => mdw_ptr%child_nodes(i)%node_ptr parname = tree_get_name( tmp_ptr ) if ( parname /= 'domain') cycle domainnr = domainnr + 1 dom => sr%dom(domainnr) ! ! Read computational grid ! call prop_get_string(tmp_ptr, '*', 'Grid', dom%curlif) call readgriddims(dom%curlif, dom%mxc, dom%myc) if (dom%curlif == '') then write(*,*) 'SWAN_INPUT: grid not found for domain', domainnr goto 999 endif ! ! poles? No, fences! ! dom%mxc = dom%mxc - 1 dom%myc = dom%myc - 1 ! ! Read bathymetry ! dom%depfil = '' call prop_get_string(tmp_ptr, '*', 'BedLevelGrid', dom%depfil) if (dom%depfil /= '') then call readgriddims(dom%depfil, dom%mxb, dom%myb) ! ! poles? No, fences! ! dom%mxb = dom%mxb - 1 dom%myb = dom%myb - 1 dom%curvibot = 0 else dom%depfil = dom%curlif dom%mxb = dom%mxc dom%myb = dom%myc dom%curvibot = 1 endif call prop_get_string(tmp_ptr, '*', 'BedLevel', dom%botfil) if (dom%botfil == '') then write(*,*) 'SWAN_INPUT: bathymetry not found for domain', domainnr goto 999 endif ! flag = .false. dom%vegetation = 0 call prop_get_logical(tmp_ptr, '*', 'Vegetation', flag) if (flag) dom%vegetation = 1 if (dom%vegetation == 1) then call prop_get_real (tmp_ptr, '*', 'VegHeight' , dom%veg_height) call prop_get_real (tmp_ptr, '*', 'VegDiamtr' , dom%veg_diamtr) call prop_get_integer(tmp_ptr, '*', 'VegNstems' , dom%veg_nstems) call prop_get_real (tmp_ptr, '*', 'VegDrag' , dom%veg_drag) ! ! Read vegetation map ! call prop_get_string(tmp_ptr, '*', 'VegetationMap', dom%vegfil) if (dom%vegfil == '') then write(*,*) 'SWAN_INPUT: vegetation map not found for domain ', domainnr goto 999 endif endif ! ! Read directional space ! call prop_get_integer(tmp_ptr, '*', 'NDir', dom%ndir) if (dom%ndir < 1) then write(*,*) 'SWAN_INPUT: invalid number of directions: ', dom%ndir goto 999 endif parname = '' call prop_get_string(tmp_ptr, '*', 'DirSpace', parname) call lowercase(parname, len(parname)) select case (parname) case ('circle') dom%dirspace = 1 case ('sector') dom%dirspace = 2 case default if (parname /= '' .or. dom%dirspace < 0) then write(*,*) 'SWAN_INPUT: unknown DirSpace: ', parname goto 999 endif end select ! if (dom%dirspace == 2) then call prop_get_real(tmp_ptr, '*', 'StartDir', dom%startdir) call prop_get_real(tmp_ptr, '*', 'EndDir' , dom%enddir) endif ! ! Read modelled frequency range ! call prop_get_integer(tmp_ptr, '*', 'NFreq', dom%nfreq) if (dom%nfreq < 1) then write(*,*) 'SWAN_INPUT: invalid number of frequencies: ', dom%nfreq goto 999 endif call prop_get_real(tmp_ptr, '*', 'FreqMin', dom%freqmin) call prop_get_real(tmp_ptr, '*', 'FreqMax', dom%freqmax) ! ! Read in which domain this domain is nested ! call prop_get_integer(tmp_ptr, '*', 'NestedInDomain', dom%nestnr) if (domainnr > 1 .and. & & (dom%nestnr<1 .or. dom%nestnr>=domainnr)) then write(*,*) 'SWAN_INPUT: domain', domainnr, ' not nested in a valid domain' goto 999 endif dom%nesfil(1:4) = 'NEST' write(dom%nesfil(5:7),'(I3.3)') domainnr ! ! Verify whether quantities should be mapped and optionally be extended ! for the current grid. ! call prop_get_integer(tmp_ptr, '*', 'FlowBedLevel' , dom%qextnd(q_bath)) call prop_get_integer(tmp_ptr, '*', 'FlowWaterLevel', dom%qextnd(q_wl) ) call prop_get_integer(tmp_ptr, '*', 'FlowVelocity' , dom%qextnd(q_cur) ) call prop_get_integer(tmp_ptr, '*', 'FlowWind' , dom%qextnd(q_wind)) ! if (dom%qextnd(q_bath)>0) sr%swmor = .true. if (dom%qextnd(q_wl )>0) sr%swwlt = .true. if (dom%qextnd(q_cur )>0) sr%swuvt = .true. if (dom%qextnd(q_wind)>0) sr%swwindt = .true. ! if (sr%swuvt) then parname = '' call prop_get_string (tmp_ptr, '*', 'FlowVelocityType', parname) call lowercase(parname, len(parname)) select case (parname) case ('depth-averaged') dom%flowVelocityType = FVT_DEPTH_AVERAGED case ('surface-layer') dom%flowVelocityType = FVT_SURFACE_LAYER case ('wave-dependent') dom%flowVelocityType = FVT_WAVE_DEPENDENT case (' ') ! ! Default value used ! case default write(*,'(a,i0,a)') 'SWAN_INPUT: invalid option for [Domain ', domainnr, '], FlowVelocityType' goto 999 end select ! ! echo to screen ! select case(dom%flowVelocityType) case (FVT_DEPTH_AVERAGED) write(*,*) 'Domain ', domainnr, ' is using depth averaged flow velocity.' case (FVT_SURFACE_LAYER) write(*,*) 'Domain ', domainnr, ' is using surface layer flow velocity.' case (FVT_WAVE_DEPENDENT) write(*,*) 'Domain ', domainnr, ' is using wave dependent flow velocity.' case default ! nothing end select endif ! ! Verify whether output to wavm-file should be written for this domain ! (default true) ! call prop_get_logical(tmp_ptr, '*', 'Output', dom%cgnum) ! ! Count number of meteofiles in current group Domain ! dom%n_meteofiles_dom = 0 do ii = 1, size(tmp_ptr%child_nodes) dom_ptr => tmp_ptr%child_nodes(ii)%node_ptr parname = tree_get_name( dom_ptr ) if (parname == 'meteofile') then dom%n_meteofiles_dom = dom%n_meteofiles_dom + 1 endif enddo ! if (dom%n_meteofiles_dom > 0) then ! ! Allocate temporary array for meteofiles ! allocate(tmp_meteofile(dom%n_meteofiles_dom), stat = istat) tmp_meteofile = '' ! ! The input can be read ! par = 0 do j = 1, size(tmp_ptr%child_nodes) ! ! Does tmp_ptr contain one or more children with name MeteoFile? ! node_ptr => tmp_ptr%child_nodes(j)%node_ptr ! parname = '' call prop_get_string(node_ptr, '*', 'MeteoFile', parname) if ( parname /= '') then par = par + 1 ! ! Read value for keyword meteofile ! call tree_get_data_string(node_ptr, parname, success) ! ! Check double occurrences ! do ii = 1, par if (tmp_meteofile(ii) == parname) then write(*,'(a,a,a)') 'SWAN input: Group Domain: MeteoFile ', trim(parname), ' has already been read' par = par - 1 dom%n_meteofiles_dom = dom%n_meteofiles_dom - 1 exit endif enddo ! if (tmp_meteofile(par) == '') then ! ! Array location for MeteoFile empty, so store the read item in the temporary meteofile array ! tmp_meteofile(par) = trim(parname) endif if (par == dom%n_meteofiles_dom) then ! ! Correct number of meteofiles read ! exit endif endif enddo ! ! Allocate array for meteofiles in group Domain ! allocate (dom%meteofile_dom(dom%n_meteofiles_dom), stat = istat) ! ! Fill the array with meteofiles in group Domain ! dom%meteofile_dom(1:dom%n_meteofiles_dom) = tmp_meteofile(1:dom%n_meteofiles_dom) sr%swwindt = .true. ! deallocate(tmp_meteofile) ! endif ! ! Check whether also global meteofiles were provided. ! If so, the meteofile(s) specified in the DOMAIN group are used. ! if (sr%n_meteofiles_gen > 0 .and. dom%n_meteofiles_dom > 0) then write(*, '(a,i0)') 'SWAN_INPUT: Meteofiles specified in group Domain used instead of meteofiles specified in group General for domain ', domainnr elseif (sr%n_meteofiles_gen > 0 .and. dom%n_meteofiles_dom == 0) then ! ! Meteofiles specified in group general will be used for this domain ! dom%n_meteofiles_dom = sr%n_meteofiles_gen ! ! Allocate array for meteofiles in group Domain ! allocate (dom%meteofile_dom(dom%n_meteofiles_dom), stat = istat) ! ! Fill the array with meteofiles in group Domain ! dom%meteofile_dom = sr%meteofile_gen sr%swwindt = .true. write(*, '(a,i0)') 'SWAN_INPUT: Meteofiles specified in group General used for domain ', domainnr endif if (dom%n_meteofiles_dom > 0 .and. dom%qextnd(q_wind) > 0) then ! ! User specified wind to be read from COM-file (from FLOW simulation), ! but user also specified wind via one or more meteofiles. ! The wind from the meteofiles will be used. ! These will cover the whole WAVE domain for sure. ! write(*, '(a,i0)') 'SWAN_INPUT: Meteofiles specified in group Domain used instead of meteo input from FLOW for domain ', domainnr dom%qextnd(q_wind) = 0 endif ! enddo ! if (sr%swwindt) then ! ! switch on varying wind (varwin) on curvilinear grid (curviwind) ! set exclusion value on the default one (excval) ! sr%varwin = .true. sr%curviwind = .true. sr%excval = -999.0 endif ! ! determine whether flow data is used ! sr%useflowdata = sr%swmor .or. sr%swwlt .or. sr%swuvt .or. (sr%swwindt .and. dom%n_meteofiles_dom == 0) ! ! determine the number of boundaries ! nbound = 0 do i = 1, size(mdw_ptr%child_nodes) tmp_ptr => mdw_ptr%child_nodes(i)%node_ptr parname = tree_get_name( tmp_ptr ) if ( parname == 'boundary') nbound = nbound + 1 enddo sr%nbound = nbound ! istat = 0 allocate (sr%bnd(nbound ), stat = istat) if (istat /= 0) then write(*,*) 'SWAN_INPUT: memory alloc error (nbound)' goto 999 endif ! do i = 1, nbound bnd => sr%bnd(i) ! bnd%parread = -999 bnd%sshape = -999 bnd%periodtype = -999 bnd%dsprtype = -999 bnd%bndtyp = -999 bnd%orient = -999 bnd%turn = -999 bnd%convar = -999 bnd%nsect = -999 bnd%bndcrd_mn = -999 bnd%bndcrd_xy = -999.0 bnd%gamma0 = 3.3 bnd%sigfr = -999.0 bnd%name = ' ' sr%specfile = ' ' nullify(bnd%distance) nullify(bnd%waveheight) nullify(bnd%period) nullify(bnd%direction) nullify(bnd%dirspread) enddo ! ! Optionally find these general quantities in the tables ! if (sr%timedependent) then call gettable(sr%tseriesfile, 'General', 'WaveHeight', def_ts_hs, & & 0 , errorstring) if (def_ts_hs(3) > 1) then write(*,*) 'SWAN_INPUT: too many WaveHeight entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, 'General', 'Period', def_ts_tp, & & 0 , errorstring) if (def_ts_tp(3) > 1) then write(*,*) 'SWAN_INPUT: too many Period entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, 'General', 'Direction', def_ts_wd, & & 0 , errorstring) if (def_ts_wd(3) > 1) then write(*,*) 'SWAN_INPUT: too many Direction entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, 'General', 'DirSpreading', def_ts_ds, & & 0 , errorstring) if (def_ts_ds(3) > 1) then write(*,*) 'SWAN_INPUT: too many DirSpreading entries in TSeriesFile' goto 999 endif ! endif ! boundnr = 0 do i = 1, size(mdw_ptr%child_nodes) bnd_ptr => mdw_ptr%child_nodes(i)%node_ptr parname = tree_get_name( bnd_ptr ) if ( parname /= 'boundary') cycle boundnr = boundnr + 1 bnd => sr%bnd(boundnr) ! call prop_get_string(bnd_ptr, '*', 'Name', bnd%name) ! parname = '' call prop_get_string(bnd_ptr, '*', 'Definition', parname) call lowercase(parname,len(parname)) select case (parname) case ('orientation') bnd%bndtyp = 1 ! parname = '' call prop_get_string(bnd_ptr, '*', 'Orientation' , parname) call lowercase(parname,len(parname)) select case (parname) case ('n','north') bnd%orient = 1 case ('nw','northwest') bnd%orient = 2 case ('w','west') bnd%orient = 3 case ('sw','southwest') bnd%orient = 4 case ('s','south') bnd%orient = 5 case ('se','southeast') bnd%orient = 6 case ('e','east') bnd%orient = 7 case ('ne','northeast') bnd%orient = 8 case default write(*,*) 'SWAN_INPUT: missing or invalid boundary orientation' goto 999 end select bnd%turn = 1 ! parname = '' call prop_get_string(bnd_ptr, '*', 'DistanceDir' , parname) call lowercase(parname,len(parname)) select case (parname) case ('clockwise') bnd%turn = 0 case ('counter','counter-clockwise',' ') bnd%turn = 1 case default write(*,*) 'SWAN_INPUT: invalid distance measurement direction' goto 999 end select ! case ('grid','grid-coordinates') bnd%bndtyp = 2 ! call prop_get_integer(bnd_ptr, '*', 'StartCoordM' , bnd%bndcrd_mn(1)) call prop_get_integer(bnd_ptr, '*', 'StartCoordN' , bnd%bndcrd_mn(2)) call prop_get_integer(bnd_ptr, '*', 'EndCoordM' , bnd%bndcrd_mn(3)) call prop_get_integer(bnd_ptr, '*', 'EndCoordN' , bnd%bndcrd_mn(4)) ! case ('xy','xy-coordinates') bnd%bndtyp = 3 ! call prop_get_real(bnd_ptr, '*', 'StartCoordX' , bnd%bndcrd_xy(1)) call prop_get_real(bnd_ptr, '*', 'StartCoordY' , bnd%bndcrd_xy(2)) call prop_get_real(bnd_ptr, '*', 'EndCoordX' , bnd%bndcrd_xy(3)) call prop_get_real(bnd_ptr, '*', 'EndCoordY' , bnd%bndcrd_xy(4)) ! case ('fromsp2file') bnd%bndtyp = 4 ! call prop_get_string(bnd_ptr, '*', 'OverallSpecfile' , sr%specfile) write(*,*) 'Boundary conditions from overall 2D spectra file' cycle ! case ('fromwwfile') bnd%bndtyp = 5 ! call prop_get_string(bnd_ptr, '*', 'WWspecfile' , sr%specfile) write(*,*) 'Boundary conditions from WAVEWATCH III spectra file' cycle ! case default write(*,*) 'SWAN_INPUT: missing or invalid boundary orientation definition type' goto 999 end select ! parname = '' call prop_get_string(bnd_ptr, '*', 'SpectrumSpec' , parname) call lowercase(parname,len(parname)) select case (parname) case ('from file') bnd%parread = 1 ! bnd%sshape = 1 ! jonswap bnd%periodtype= 1 ! peak bnd%dsprtype = 1 ! power case ('parametric') bnd%parread = 2 ! parname = '' call prop_get_string(bnd_ptr, '*', 'SpShapeType' , parname) call lowercase(parname,len(parname)) select case (parname) case ('jonswap') bnd%sshape = 1 case ('pm','pierson-moskowitz') bnd%sshape = 2 case ('gauss') bnd%sshape = 3 case default write(*,*) 'SWAN_INPUT: missing or invalid boundary spectrum shape type' goto 999 end select ! parname = '' call prop_get_string(bnd_ptr, '*', 'PeriodType' , parname) call lowercase(parname,len(parname)) select case (parname) case ('peak') bnd%periodtype = 1 case ('mean') bnd%periodtype = 2 case default write(*,*) 'SWAN_INPUT: missing or invalid boundary spectrum period type' goto 999 end select ! parname = '' call prop_get_string(bnd_ptr, '*', 'DirSpreadType' , parname) call lowercase(parname,len(parname)) select case (parname) case ('power') bnd%dsprtype = 1 case ('degrees') bnd%dsprtype = 2 case default write(*,*) 'SWAN_INPUT: missing or invalid boundary spectrum directional spreading type' goto 999 end select ! case default write(*,*) 'SWAN_INPUT: missing or invalid boundary spectrum specification type' goto 999 end select ! select case (bnd%sshape) case (1) ! jonswap call prop_get_real(bnd_ptr, '*', 'PeakEnhanceFac' , bnd%gamma0) if (boundnr == 1) then ! use this gamm0 instead of the default value sr%gamma0 = bnd%gamma0 endif case (3) ! gauss call prop_get_real(bnd_ptr, '*', 'GaussSpread' , bnd%sigfr) end select ! ! Determine the number of boundary sections ! nsect = 0 do j = 1,size(bnd_ptr%child_nodes) tmp_ptr => bnd_ptr%child_nodes(j)%node_ptr parname = tree_get_name( tmp_ptr ) if ( parname == 'condspecatdist') nsect = nsect+1 enddo bnd%nsect = nsect bnd%convar = 2 if (nsect==0) then ! ! uniform condition ! nsect = nsect+1 bnd%convar = 1 endif ! istat = 0 allocate (bnd%distance (nsect ), stat = istat) if (istat==0) allocate (bnd%waveheight(nsect ), stat = istat) if (istat==0) allocate (bnd%period (nsect ), stat = istat) if (istat==0) allocate (bnd%direction (nsect ), stat = istat) if (istat==0) allocate (bnd%dirspread (nsect ), stat = istat) if (istat==0) allocate (bnd%spectrum (nsect ), stat = istat) if (istat/=0) then write(*,*) 'SWAN_INPUT: memory alloc error (nsect)' goto 999 endif bnd%distance = -999.0 bnd%waveheight= -999.0 bnd%period = -999.0 bnd%direction = -999.0 bnd%dirspread = -999.0 bnd%spectrum = ' ' ! sectnr = 0 if (bnd%nsect==0) then ! ! uniform condition ! sectnr = 1 endif do j = 1,size(bnd_ptr%child_nodes) tmp_ptr => bnd_ptr%child_nodes(j)%node_ptr parname = tree_get_name( tmp_ptr ) select case (parname) case ('condspecatdist') sectnr = sectnr+1 call prop_get_real(tmp_ptr, '*', 'CondSpecAtDist', bnd%distance(sectnr)) case ('waveheight') if (sectnr==0) then write(*,*) 'SWAN_INPUT: premature wave height specification at ',trim(bnd%name) goto 999 endif call prop_get_real(tmp_ptr, '*', 'WaveHeight', bnd%waveheight(sectnr)) case ('period') if (sectnr==0) then write(*,*) 'SWAN_INPUT: premature period specification at ',trim(bnd%name) goto 999 endif call prop_get_real(tmp_ptr, '*', 'Period', bnd%period(sectnr)) case ('direction') if (sectnr==0) then write(*,*) 'SWAN_INPUT: premature direction specification at ',trim(bnd%name) goto 999 endif call prop_get_real(tmp_ptr, '*', 'Direction', bnd%direction(sectnr)) case ('dirspreading') if (sectnr==0) then write(*,*) 'SWAN_INPUT: premature direction spreading specification at ',trim(bnd%name) goto 999 endif call prop_get_real(tmp_ptr, '*', 'DirSpreading', bnd%dirspread(sectnr)) case ('spectrum') if (sectnr==0) then write(*,*) 'SWAN_INPUT: premature spectrum file specification at ',trim(bnd%name) goto 999 endif call prop_get_string(tmp_ptr, '*', 'Spectrum', bnd%spectrum(sectnr)) end select enddo ! ! Optionally find these general quantities in the tables ! if (sr%timedependent) then call gettable(sr%tseriesfile, bnd%name, 'WaveHeight', bnd%ts_hs, & & 0 , errorstring) if (bnd%ts_hs(1)<0) bnd%ts_hs = def_ts_hs if (bnd%ts_hs(3)>1 .and. bnd%ts_hs(3)/=bnd%nsect) then write(*,*) 'SWAN_INPUT: invalid number of WaveHeight entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, bnd%name, 'Period', bnd%ts_tp, & & 0 , errorstring) if (bnd%ts_tp(1)<0) bnd%ts_tp = def_ts_tp if (bnd%ts_tp(3)>1 .and. bnd%ts_tp(3)/=bnd%nsect) then write(*,*) 'SWAN_INPUT: invalid number of Period entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, bnd%name, 'Direction', bnd%ts_wd, & & 0 , errorstring) if (bnd%ts_wd(1)<0) bnd%ts_wd = def_ts_wd if (bnd%ts_wd(3)>1 .and. bnd%ts_wd(3)/=bnd%nsect) then write(*,*) 'SWAN_INPUT: invalid number of Direction entries in TSeriesFile' goto 999 endif ! call gettable(sr%tseriesfile, bnd%name, 'DirSpreading', bnd%ts_ds, & & 0 , errorstring) if (bnd%ts_ds(1)<0) bnd%ts_ds = def_ts_ds if (bnd%ts_ds(3)>1 .and. bnd%ts_ds(3)/=bnd%nsect) then write(*,*) 'SWAN_INPUT: invalid number of DirSpreading entries in TSeriesFile' goto 999 endif ! endif ! enddo ! ! Determine the number of obstacles ! if (obstfil /= ' ') then call tree_create_node( mdw_ptr, 'Obstacle Input', obst_ptr ) call tree_put_data( obst_ptr, transfer(trim(obstfil),node_value), 'STRING' ) call prop_file('ini',trim(obstfil),obst_ptr,istat) if (istat /= 0) then write(*,*) 'SWAN_INPUT: error reading obstacle file ''', trim(obstfil), '''' goto 999 endif ! call tree_get_node_by_name( obst_ptr, 'ObstacleFileInformation', tmp_ptr ) call tree_get_node_by_name( tmp_ptr, 'PolylineFile', pol_ptr ) if (.not.associated (pol_ptr)) then write(*,*) 'SWAN_INPUT: missing PolylineFile keyword in obstacle file' goto 999 endif call tree_get_data_string(pol_ptr,polylinefile,flag) call prop_file('tekal',polylinefile,pol_ptr,istat) if (istat /= 0) then write(*,*) 'SWAN_INPUT: error reading obstacle polygon file ''', trim(polylinefile), '''' goto 999 endif ! nobst = 0 nobstpnt = 0 do i = 1, size(obst_ptr%child_nodes) tmp_ptr => obst_ptr%child_nodes(i)%node_ptr parname = tree_get_name( tmp_ptr ) if ( parname /= 'obstacle') cycle ! nobst = nobst + 1 parname = '' call prop_get_string (tmp_ptr, '*', 'Name' , parname) call tree_get_node_by_name(pol_ptr, parname, tmp_ptr ) if ( .not. associated(tmp_ptr) ) then write(*,*) 'SWAN_INPUT: obstacle polygon ''', trim(parname), ''' not found' goto 999 endif ! call tree_get_data_ptr( tmp_ptr, data_ptr, parname) nobstpnt = nobstpnt + transfer( data_ptr, nobstpnt ) enddo ! else nobst = 0 nobstpnt = 0 endif sr%nobst = nobst sr%nscr = nobstpnt ! istat = 0 allocate (sr%trane (nobst ), stat = istat) if (istat==0) allocate (sr%f (nobst ), stat = istat) if (istat==0) allocate (sr%obet (nobst ), stat = istat) if (istat==0) allocate (sr%ogam (nobst ), stat = istat) if (istat==0) allocate (sr%reflection(nobst ), stat = istat) if (istat==0) allocate (sr%refl_type (nobst ), stat = istat) if (istat==0) allocate (sr%refl_coeff(nobst ), stat = istat) if (istat==0) allocate (sr%nlin (nobst ), stat = istat) if (istat==0) allocate (sr%xpob (nobstpnt), stat = istat) if (istat==0) allocate (sr%ypob (nobstpnt), stat = istat) ! if (istat/=0) then write(*,*) 'SWAN_INPUT: memory alloc error (nobst)' goto 999 endif ! if (nobst > 0) then obstnr = 0 obstpnt = 0 do i = 1, size(obst_ptr%child_nodes) tmp_ptr => obst_ptr%child_nodes(i)%node_ptr parname = tree_get_name( tmp_ptr ) if ( parname /= 'obstacle') cycle obstnr = obstnr + 1 ! parname = '' call prop_get_string (tmp_ptr, '*', 'Type' , parname) call lowercase(parname,len(parname)) select case (parname) case ('sheet') call prop_get_real(tmp_ptr, '*', 'TransmCoef' , sr%trane(obstnr)) case ('dam') sr%trane(obstnr) = 999.9 call prop_get_real(tmp_ptr, '*', 'Height' , sr%f(obstnr)) call prop_get_real(tmp_ptr, '*', 'Alpha' , sr%ogam(obstnr)) call prop_get_real(tmp_ptr, '*', 'Beta' , sr%obet(obstnr)) end select ! parname = '' call prop_get_string (tmp_ptr, '*', 'Reflections' , parname) call lowercase(parname,len(parname)) select case (parname) case ('no') sr%reflection(obstnr) = 0 sr%refl_type(obstnr) = 0 case ('specular') sr%reflection(obstnr) = 1 sr%refl_type(obstnr) = 1 case ('diffuse') sr%reflection(obstnr) = 1 sr%refl_type(obstnr) = 2 end select ! if (sr%refl_type(obstnr)>0) then call prop_get_real(tmp_ptr, '*', 'ReflecCoef' , sr%refl_coeff(obstnr)) endif ! parname = '' call prop_get_string (tmp_ptr, '*', 'Name' , parname) call tree_get_node_by_name(pol_ptr, parname, tmp_ptr ) if ( .not. associated(tmp_ptr) ) then write(*,*) 'SWAN_INPUT: obstacle polygon not found' goto 999 endif ! ! get x,y coordinates ... ! call tree_get_data_ptr( tmp_ptr, data_ptr, parname) sr%nlin(obstnr) = transfer( data_ptr, nobstpnt ) ! do io = 1, sr%nlin(obstnr) obstpnt = obstpnt+1 write (parname,'(a,i0)')'row_',io call tree_get_node_by_name( tmp_ptr, parname, node_ptr ) call tree_get_data_ptr( node_ptr, data_ptr, parname ) ! xy = transfer( data_ptr, xy(1), 2 ) sr%xpob(obstpnt) = xy(1) sr%ypob(obstpnt) = xy(2) enddo enddo endif ! write(*,*) 'Done reading input' ! return 999 continue stop end subroutine read_keyw_mdw ! ! !============================================================================== subroutine read_swan_mdw(casl ,wavedata , & & swmor ,swwlt ,swuvt , & & swwav ,swuvi ,corht ,curvi , & & swbot ,swflux ,filcom ,rgfout ,prname , & & prnumb ,title1 ,title2 ,title3 , & & nnest ,nttide ,itest ,itrace , & & zeta ,ux0 ,uy0 ,css ,cdd , & & grav ,rho , & & timwav ,wfil ,nobst ,nscr , & & xw ,yw ,alpw ,mxw ,myw , & & dxw ,dyw ,trane ,f ,ogam , & & obet ,xpob ,ypob ,nlin ,varwin , & & ncurv ,ncrv ,nclin ,xpcu ,ypcu , & & ncrp ,filnam ,error ,inrhog , & & mxr ,myr ,ffil , & & maxsteps ,maxobst ,maxcurv ,sr ) use read_grids ! implicit none ! ! Global variables ! integer :: maxsteps integer :: maxobst integer :: maxcurv integer :: error integer ,intent(out) :: inrhog integer ,intent(out) :: itest integer ,intent(out) :: itrace integer ,intent(out) :: mxw integer ,intent(out) :: myw integer ,intent(out) :: mxr integer ,intent(out) :: myr integer :: ncrp integer ,intent(out) :: ncrv integer :: ncurv integer :: nnest integer :: nobst integer ,intent(out) :: nscr integer :: nttide integer, dimension(maxcurv) :: nclin integer, dimension(maxobst) :: nlin logical ,intent(out) :: corht logical ,intent(out) :: curvi logical ,intent(out) :: swbot logical ,intent(out) :: swflux logical ,intent(out) :: swmor logical ,intent(out) :: swuvi logical ,intent(out) :: swuvt logical ,intent(out) :: swwav logical ,intent(out) :: swwlt logical :: varwin real ,intent(out) :: alpw real ,intent(out) :: cdd real ,intent(out) :: css real ,intent(out) :: dxw real ,intent(out) :: dyw real :: grav real ,intent(out) :: rho real ,intent(out) :: xw real ,intent(out) :: yw real, dimension(maxobst) ,intent(out) :: f real, dimension(maxobst) ,intent(out) :: obet real, dimension(maxobst) ,intent(out) :: ogam real, dimension(maxsteps) ,intent(out) :: zeta real, dimension(maxsteps) ,intent(out) :: timwav real, dimension(maxobst) ,intent(out) :: trane real, dimension(maxsteps) ,intent(out) :: ux0 real, dimension(maxsteps) ,intent(out) :: uy0 real, dimension(maxcurv) ,intent(out) :: xpcu real, dimension(maxobst) ,intent(out) :: xpob real, dimension(maxcurv) ,intent(out) :: ypcu real, dimension(maxobst) ,intent(out) :: ypob character(*) :: casl character(4) ,intent(out) :: prnumb character(16) ,intent(out) :: prname character(*) ,intent(out) :: filcom character(37) ,intent(out) :: rgfout character(37) :: wfil character(37) :: ffil character(72) ,intent(out) :: title1 character(72) ,intent(out) :: title2 character(72) ,intent(out) :: title3 character(*) ,intent(in) :: filnam type(swan) :: sr type(wave_data_type) :: wavedata ! ! Local variables ! integer :: bndtyp integer :: breaking integer :: carn integer :: cindx integer :: compmode integer :: convar integer :: fshift integer :: gridtype integer :: hotfile integer :: i integer :: ierr integer :: in integer :: ind integer :: ipfl integer :: it integer :: iuni integer :: j integer :: k integer :: l integer :: lunsm integer :: nbound integer :: nextnd integer :: non_stationary ! read from mdw-file: 0: stationary, 1: non-stationary integer :: npoints integer :: nsect integer :: obstyp integer :: orient integer :: parread integer :: pnts integer :: quad integer :: rccnt integer :: refdate integer :: refrac integer :: rindx integer :: setup integer :: spec1d integer :: spec2d integer :: swdiss integer :: swmr integer :: swou integer :: swut integer :: swwt integer :: swwv integer :: swwnd integer :: table integer :: triads integer :: windgrowth integer :: windtype integer, external :: new_lun integer, external :: skcomc logical :: exists character(7) :: vers character(20) :: bndnam character(120) :: line character(256) :: message type(swan_bnd), pointer :: bnd type(swan_dom), pointer :: dom ! !! executable statements ------------------------------------------------------- ! error = 0 rccnt = 0 vers = ' ' iuni = new_lun() message = filnam open (iuni, file = filnam, status = 'old', err = 1001) rewind (iuni, err = 1002) ! ! General information ! ! Switches ! ! SWMOR bottom from MORFO ! SWBOT bottom/current from BOTTOM/CURREN file(s) ! SWWLT water level from TRISU ! SWUVT velocity from TRISU ! SWUVI velocity from input (constant over field) ! SWWINDT wind field from TRISU ! SWWAV wave data to WAVE ! SWDIS wave forces from dissipation ! CORHT correction HISWA wave height, period (CORRHT) ! SWOUT store HISWA output ! CURVI curvi linear FLOW grid ! rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------version number WAVE-GUI------------------------------- read (iuni,'(A)') line i = index (line,'version') read (line(i+8:),'(a)') vers ! ! Checking on versionnumber is done on character base (as in WAVE-GUI) ! This can be disturbed when the strings contains trailing spaces ! Clean up vers, such that it has the format '1.11.11' ! Do not bother about wrongly placed dots or digits ! vers = adjustl(vers) do j=1,len(vers) select case(vers(j:j)) case(' ') if (j==2 .or. j==5) then vers(j:j) = '.' else vers(j:j) = '0' endif case('.') ! nothing case('0':'9') ! nothing case default write (*,'(a)') '*** ERROR: Unable to read WAVE-GUI version number' goto 1002 end select enddo if (i==0 .or. llt(vers,'4.87.00')) then write (*,'(3a)') '*** ERROR: mdw_file created with WAVE-GUI version ', & & trim(vers), ' is not supported.' goto 1002 endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------SWAN version number------------------------------------ if (lge(vers, '4.91.00')) then ! ! SWAN version number is removed ! else read (iuni,'(1X)') rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 endif !------General project data----------------------------------- read (iuni, *, err = 1002, end = 1009) prname rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) prnumb rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) title1 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) title2 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) title3 ! rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---Parameters from FLOW: bathymetry, waterlevel, current, wind--- swmr = 0 swwt = 0 swut = 0 swwnd = 0 if (lge(vers, '4.90.06')) then read (iuni, *, err = 1002, end = 1009) swmr, swwt, swut, swwnd else read (iuni, *, err = 1002, end = 1009) swmr, swwt, swut endif swbot = .true. swmor = .false. swwlt = .false. swuvt = .false. sr%swwindt = .false. swuvi = .true. swflux = .true. corht = .false. curvi = .true. if (swmr == 1) swmor = .true. if (swwt == 1) swwlt = .true. if (swut == 1) swuvt = .true. if (swwnd == 1) then sr%swwindt = .true. ! ! switch on varying wind (varwin) on curvilinear grid (curviwind) ! set exclusion value on the default one (excval) ! varwin = .true. sr%curviwind = .true. sr%excval = -999.0 endif if (swmor .or. swwlt .or. swuvt .or. sr%swwindt) then ! ! FLOW data is used ! sr%useflowdata = .true. else sr%useflowdata = .false. endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---number of nested computations, including first one-------- read (iuni, *, err = 1002, end = 1009) nnest mxr = 0 myr = 0 do in = 1, nnest dom => sr%dom(in) rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------filename comp. grid------------------------------------ read (iuni, *, err =1002, end = 1009) dom%curlif call readgriddims(dom%curlif, dom%mxc, dom%myc) if (dom%mxc * dom%myc> mxr*myr) then mxr = dom%mxc myr = dom%myc endif ! ! poles? no, fences! ! dom%mxc = dom%mxc-1 dom%myc = dom%myc-1 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------depth comp. gird-file name bottom grid---------------- read (iuni, *, err =1002, end = 1009) dom%curvibot,line if (dom%curvibot==1) then dom%mxb = dom%mxc dom%myb = dom%myc dom%depfil = dom%curlif else if (swmor) then write (*,'(a)') '*** ERROR: Bathymetry specified on rectilinear grid' write (*,'(11x,a,i5)') 'Line ',rccnt write (*,'(11x,a)') 'This option is only supported when ''Bathymetry from FLOW'' is not used' close(iuni) stop endif read(line,*, err =1002, end = 1009) dom%depfil call readgriddims(dom%depfil, dom%mxb, dom%myb) ! ! poles? no, fences! ! dom%mxb = dom%mxb-1 dom%myb = dom%myb-1 endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------filename depth file------------------------------------ dom%botfil = ' ' read (iuni, *, err =1002, end = 1009) dom%botfil if (dom%botfil == ' ') then write (*,'(3a)') '*** ERROR: Bathymetry file not specified in file ''',trim(filnam),''',' write (*,'(a,i5)') ' Line ',rccnt error = 4 goto 1010 endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------directional space(c/s)--numb. of dir.--start,end dir.-- read (iuni, *, err = 1002, end = 1009) dom%dirspace, & & dom%ndir, dom%startdir, dom%enddir rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------flow--fhigh--numb. of freq.--nesting grid number-output read (iuni, *, err = 1002, end =1009) dom%freqmin, & & dom%freqmax, dom%nfreq, dom%nestnr, swou dom%nesnam = ' ' dom%nesnam(1:4) = 'NEST' write (dom%nesnam(5:7),'(I3.3)') in dom%nesfil = dom%nesnam if (swou>0) then dom%cgnum = .true. else dom%cgnum = .false. endif ! dom%qextnd = 0 enddo !---tidal information rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---number of tide steps ntide--reference date---------------- if (lge(vers, '4.89.05')) then read (iuni, *, err = 1002, end = 1009) nttide, line ! ! line contains reference date in the format yyyy-mm-dd ! Convert it to yyyymmdd and put it in wavetime ! line = adjustl(line) line(5:5) = line(6:6) line(6:6) = line(7:7) line(7:7) = line(9:9) line(8:8) = line(10:10) line(9:) = ' ' read (line, *, err = 1002, end = 1009) refdate call setrefdate(wavedata%time, refdate) else read (iuni, *, err = 1002, end = 1009) nttide endif !---time--water level--ux--uy--------------------------------- zeta = 0.0 ux0 = 0.0 uy0 = 0.0 nextnd = 0 do it = 1, nttide rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) & & timwav(it), zeta(it), ux0(it), uy0(it) ! ! Old way to switch on data extension (from FLOW to SWAN grid) ! If wl/ux/uy = -999.0, the value MUST be set to 0.0, ! because the way extension is performed has changed. ! if (zeta(it)<-998.9 .and. zeta(it)>-999.1) then nextnd = nnest do in = 1, nnest sr%dom(in)%qextnd = 1 enddo zeta(it) = 0.0 endif if (ux0(it)<-998.9 .and. ux0(it)>-999.1) then nextnd = nnest do in = 1, nnest sr%dom(in)%qextnd = 1 enddo ux0(it) = 0.0 endif if (uy0(it)<-998.9 .and. uy0(it)>-999.1) then nextnd = nnest do in = 1, nnest sr%dom(in)%qextnd = 1 enddo uy0(it) = 0.0 endif enddo ! if (ux0(1) == 0.0 .and. uy0(1) == 0.0 ) then swuvi = .false. endif ! if (wavedata%mode /= stand_alone .and. nttide > 1) then write(*,'(a)') ' Warning : number of tidal time points must be 1' write(*,'(a)') ' (when running online with Delft3D-FLOW)' write(*,'(a)') ' value is reset, time 0.0 is used' nttide = 1 timwav(1) = 0.0 endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---level--num grids to extend on--quantities to extend-- if (lge(vers, '4.90.06')) then ! ! Varying number of input values on the next line: ! - Read the line as character string ! - Read always present parameters from variable "line" ! - If additional parameters are present: ! Read always present parameters AND additional parameters from variable "line" ! read (iuni, '(a)', err = 1002, end = 1009) line read (line, *, err = 1002, end = 1009) sr%wlevelcorr, nextnd if (nextnd > 0) then read (line, *, err = 1002, end = 1009) sr%wlevelcorr, nextnd, & & sr%dom(nnest)%qextnd(q_bath), & & sr%dom(nnest)%qextnd(q_wl) , & & sr%dom(nnest)%qextnd(q_cur) , & & sr%dom(nnest)%qextnd(q_wind) do in = nnest-nextnd+1, nnest dom => sr%dom(in) dom%qextnd(q_bath) = sr%dom(nnest)%qextnd(q_bath) dom%qextnd(q_wl) = sr%dom(nnest)%qextnd(q_wl) dom%qextnd(q_cur) = sr%dom(nnest)%qextnd(q_cur) dom%qextnd(q_wind) = sr%dom(nnest)%qextnd(q_wind) enddo endif elseif (lge(vers, '4.90.00')) then read (iuni, *, err = 1002, end = 1009) sr%wlevelcorr, nextnd if (nextnd > 0) then do in = nnest-nextnd+1, nnest sr%dom(in)%qextnd = 1 enddo endif else read (iuni, *, err = 1002, end = 1009) sr%wlevelcorr endif ! ! By the code above, qextnd is set to ! 0 if it should not be extended ! 1 if it should be extended ! for the considered grid and quantity. ! ! qextnd should be 0 if not used ! 1 if used and not extended ! 2 if used and extended ! for the considered grid and quantity. ! transfer swmor/swwlt/swuvt/swwindt to qextnd. ! do in = 1, nnest dom => sr%dom(in) if (swmor) then dom%qextnd(q_bath) = dom%qextnd(q_bath) + 1 else dom%qextnd(q_bath) = 0 endif if (swwlt) then dom%qextnd(q_wl) = dom%qextnd(q_wl) + 1 else dom%qextnd(q_wl) = 0 endif if (swuvt) then dom%qextnd(q_cur) = dom%qextnd(q_cur) + 1 else dom%qextnd(q_cur) = 0 endif if (sr%swwindt) then dom%qextnd(q_wind) = dom%qextnd(q_wind) + 1 else dom%qextnd(q_wind) = 0 endif enddo ! ! option to overrule per grid and quantity ! call adjustinput(sr) ! ! update global flags that determine usage ! swmor = .false. swwlt = .false. swuvt = .false. sr%swwindt = .false. do in = 1, nnest dom => sr%dom(in) swmor = swmor .or. (dom%qextnd(q_bath)>0) swwlt = swwlt .or. (dom%qextnd(q_wl)>0) swuvt = swuvt .or. (dom%qextnd(q_cur)>0) sr%swwindt = sr%swwindt .or. (dom%qextnd(q_wind)>0) enddo !---read boundary conditions commands------------------------- rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---number of boundaries-------------------------------------- read (iuni, *, err = 1002, end = 1009) nbound rindx = 30 + 4*nnest cindx = 2 ! sr%gamma0 = 3.3 ! We need this even if the number of boundaries is 0! ! do i = 1, nbound bnd => sr%bnd(i) rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------bnd name--par/read--bndtyp--condition------------------ read (iuni, *, err = 1002, end = 1009) bndnam, parread,& & bndtyp, convar bnd%name = bndnam bnd%parread = parread bnd%bndtyp = bndtyp bnd%convar = convar bnd%sshape = 1 bnd%periodtype= 1 bnd%dsprtype = 1 bnd%gamma0 = 3.3 ! if (bndtyp==1) then ! Side rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------------orientation-------------------------------------- read (iuni, *, err = 1002, end = 1009) orient bnd%orient = orient bnd%turn = 1 elseif (bndtyp==2) then rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---------bndtyp=2 i,j------------------------------------------- read (iuni, *, err = 1002, end = 1009) & & bnd%bndcrd_mn(1), bnd%bndcrd_mn(2), & & bnd%bndcrd_mn(3), bnd%bndcrd_mn(4) rindx = rindx + 4 else rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---------bndtyp=3 x,y------------------------------------------- read (iuni, *, err = 1002, end = 1009) & & bnd%bndcrd_xy(1), bnd%bndcrd_xy(2), & & bnd%bndcrd_xy(3), bnd%bndcrd_xy(4) rindx = rindx + 4 endif if (parread==2) then rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---------shape--periodtype--dsprtype----------------------------- read (iuni, *, err = 1002, end = 1009) bnd%sshape, & & bnd%periodtype, bnd%dsprtype ,bnd%gamma0,bnd%sigfr if (i == 1) then sr%gamma0 = bnd%gamma0 endif endif ! read sections error = rdsec(iuni, parread, convar, nsect, & & bnd%distance ,bnd%waveheight, & & bnd%period ,bnd%direction , & & bnd%dirspread, & & bnd%spectrum , bnd%turn, rccnt) if (error/=0) goto 1002 bnd%nsect = nsect rindx = rindx + 5*nsect cindx = cindx + nsect enddo ! ! Obstacles ! nscr = 0 nobst = 0 ncrv = 0 ncrp = 0 ncurv = 0 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---number of obstacles---------------------------------------------- ! ! array trane must be initialized on 999.9 ! see usage in write_swan_inp ! trane = 999.9 sr%reflection = 0 sr%refl_type = 0 sr%refl_coeff = 999.9 read (iuni, *, err = 1002, end = 1009) nobst l = 0 if (nobst>0) then k = 0 do i = 1, nobst rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---------obstacle type---------------------------------------------- read (iuni, *, err = 1002, end = 1009) obstyp if (obstyp==1) then rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------------height--alfa--beta--(dam)-------------------------------------- read (iuni, *, err = 1002, end = 1009) & & f(i), ogam(i), obet(i) elseif (obstyp==2) then rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------------transm. coefficient--(sheet)----------------------------------- read (iuni, *, err = 1002, end = 1009) trane(i) else write (*,*) 'Wrong obstacle type' goto 1002 endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---------reflection---refl_type---refl_coeff------------------------------- if (lge(vers, '4.88.08')) then read (iuni, *, err = 1002, end = 1009) sr%reflection(i), & & sr%refl_type(i), sr%refl_coeff(i) rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 endif !---------numb. of corner pts---------------------------------------- read (iuni, *, err = 1002, end = 1009) nlin(i) k = k + nlin(i) do j = 1, nlin(i) l = l + 1 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------------x- y-coordinates---------------------------------------- read (iuni, *, err = 1002, end = 1009) xpob(l), ypob(l) enddo enddo nscr = l endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---grav.--rho--northdir--depmin------------------------------------- read (iuni, *, err = 1002, end = 1009) grav,rho,sr%northdir,sr%depmin rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---carnaut--setup--swdis-------------------------------------------- read (iuni, *, err = 1002, end = 1009) carn, setup, swdiss sr%nautconv = carn==1 sr%setup = setup/=0 sr%swdis = swdiss ! ! Wind, only when not using FLOW wind ! sr%wvel = 0.0 sr%wdir = 0.0 if (.not. sr%swwindt) then rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---wind type-------------------------------------------------------- read (iuni, *, err =1002, end = 1009) windtype if (windtype == 1) then rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------wind speed--wind direction--(constant)------------------------ read (iuni, *, err = 1002, end = 1009) sr%wvel(1), sr%wdir(1) sr%wvel = sr%wvel(1) sr%wdir = sr%wdir(1) varwin = .false. elseif (windtype == 2) then rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !------wind grid--file name wind--(variable)------------------------- read (iuni, *, err = 1002, end = 1009) gridtype,wfil varwin = .true. if (gridtype==2) then sr%curviwind = .false. call small(wfil, 37) rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---------wind grid spec.--(x0,y0,alpha,nx,ny,dx,dy)----------------- read (iuni, *, err = 1002, end = 1009) & & xw, yw, alpw, mxw, myw, dxw, dyw else sr%curviwind = .true. endif else write (*,'(3a)') '*** ERROR: Wrong wind type in file ''',trim(filnam),''',' write (*,'(a,i5)') ' Line ',rccnt goto 1002 endif endif ! ! *** read physics commands *** ! rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---genmode--------------------------------------------------------- read (iuni, *, err = 1002, end = 1009) sr%genmode rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---breaking--coefficients------------------------------------------ read (iuni, *, err = 1002, end = 1009) breaking, sr%cfbr1, sr%cfbr2 sr%breaking = breaking/=0 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---frictype--coefficient------------------------------------------- read (iuni, *, err = 1002, end = 1009) sr%frictype, line if (sr%frictype == 0) then sr%frcof = 0.0 else read (line, *, err = 1002, end = 1009) sr%frcof endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---triads--coefficients-------------------------------------------- read (iuni, *, err = 1002, end = 1009) triads, sr%cftriad1,sr%cftriad2 sr%triads = triads==1 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---Diffraction--diffr_coeff--diffr_smsteps--diffr_adapt_propag----- if (lge(vers, '4.88.08')) then read (iuni, *, err = 1002, end = 1009) sr%diffraction, & & sr%diffr_coeff, sr%diffr_smsteps, sr%diffr_adapt_propag rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 else sr%diffraction = 0 sr%diffr_smsteps = 0 sr%diffr_adapt_propag = 0 sr%diffr_coeff = 0.0 endif !---windgrowth--whitecap--quadruplets--refraction--fshift----------- read (iuni, *, err = 1002, end = 1009) windgrowth, sr%whitecap, quad, & & refrac, fshift sr%windgrowth = windgrowth /= 0 sr%quadruplets = quad == 1 sr%refraction = refrac == 1 sr%fshift = fshift /= 0 if (sr%whitecap==2 .and. sr%genmode/=3) then write (*,'(2a,i0)') '*** ERROR: wcap=2 (WESTHuysen) can not be', & & ' combined with formulations of generation ',sr%genmode goto 1002 endif ! ! *** read numerical accuracy commands *** ! rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---directional space--freq. space---------------------------------- read (iuni, *, err = 1002, end = 1009) cdd,css rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---drel--dh_abs--dt_abs--percwet--itermx--------------------------- read (iuni, *, err = 1002, end = 1009) & & sr%drel, sr%dh_abs, sr%dt_abs, sr%percwet, sr%itermx ! ! Output at curves ! rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---number of output curves----------------------------------------- read (iuni, *, err = 1002, end = 1009) ncurv l = 0 if (ncurv>0) then k = 0 do i = 1, ncurv l = l + 1 ncrp = ncrp + 1 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---------number of segments along curve--x- y-coordinate----------- read (iuni, *, err = 1002, end = 1009) nclin(l), & & xpcu(l), ypcu(l) nclin(l) = nclin(l) + 1 k = k + nclin(l) do j = 2, nclin(l) l = l + 1 rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) nclin(l), & & xpcu(l), ypcu(l) ncrp = ncrp + nclin(l) enddo enddo ncrv = l endif rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 !---itest--itrace--compmode--hotfile--wavm_write_int--non-stationary--- sr%modsim = 0 hotfile = 0 sr%wavm_write_interval = 0.0 if (lge(vers, '4.90.06')) then ! ! Varying number of input values on the next line: ! - Read the line as character string ! - Read always present parameters from variable "line" ! - If additional parameters are present: ! Read always present parameters AND additional parameters from variable "line" ! read (iuni, '(a)', err = 1002, end = 1009) line read (line, *, err = 1002, end = 1009) itest, itrace, compmode, & & hotfile, sr%wavm_write_interval, non_stationary if (non_stationary == 1) then !---------non-stationary: timeinterval--timestep------------------------- read (line, *, err = 1002, end = 1009) itest, itrace, compmode, & & hotfile, sr%wavm_write_interval, sr%modsim, & & sr%deltcom, sr%deltc ! ! non-stationary switched on: modsim = 3 ! sr%modsim = 3 else ! ! Always use modsim = 2 for all stationary and quasi-stationary calculations ! sr%modsim = 2 endif elseif (lge(vers, '4.88.08')) then read (iuni, *, err = 1002, end = 1009) itest, itrace, compmode, hotfile else read (iuni, *, err = 1002, end = 1009) itest, itrace, compmode endif sr%hotfile = hotfile>0 sr%compmode = compmode/=0 ! ! The modsim in file simulation_mode overrules the modsim read in mdw-file ! inquire (file = 'simulation_mode', exist = exists) if (exists) then lunsm = new_lun() open (lunsm, file = 'simulation_mode') ! ! modsim==2: quasi-stationary run; time-varying input ! modsim==3: non-stationary run with restart ! read (lunsm, *,iostat=ierr) sr%modsim if (ierr /= 0) then write(*,*)'*** ERROR: Unable to read modsim from file ''simulation_mode''' close (lunsm) stop endif read (lunsm, *,iostat=ierr) sr%deltc ! Time step in non-stat SWAN runs if (ierr /= 0 .and. sr%modsim == 3) then write(*,*)'*** ERROR: Unable to read deltc from file ''simulation_mode''' write(*,*)' Necessary when modsim =3' close (lunsm) stop endif if (ierr == 0) then read (lunsm, *,iostat=ierr) sr%deltcom ! Interval of communication FLOW-WAVE if (ierr /= 0 .and. sr%modsim == 3) then write(*,*)'*** ERROR: Unable to read deltcom from file ''simulation_mode''' write(*,*)' Necessary when modsim =3' close (lunsm) stop endif endif close (lunsm) endif !---flow grid-flow grid name--------------------------------------- rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) swwv,rgfout swwav = .false. if (swwv==1) then if (wavedata%mode == stand_alone) then write(*,'(a)') '*** WARNING : Assuming com-file is present to add wave information.' swwav = .true. else swwav = .true. endif endif !---output to locations-------------------------------------------- rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) pnts sr%output_points = pnts==1 if (sr%output_points) then rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) ipfl sr%output_pnt_file = ipfl==1 if (sr%output_pnt_file) then !---------file name output locations------------------------------ rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) sr%pntfil else !---------number of locations------------------------------------- rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) npoints do i = 1, npoints !------------x y coordinate of location--------------------------- rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) & & sr%xyloc(1,i), sr%xyloc(2,i) enddo endif !------table--spec1d--spec2d--------------------------------------- rccnt = rccnt + skcomc(iuni) rccnt = rccnt + 1 read (iuni, *, err = 1002, end = 1009) table, spec1d, spec2d sr%output_table = table==1 sr%output_spec1d = spec1d==1 sr%output_spec2d = spec2d==1 endif ! ! Communication file names; fill in dummy name if not required ! ! ! File md-wave is no longer accepted ! ind=index(filnam,'.mdw') casl=filnam(1:ind-1) filcom = ' ' filcom(1:4) = 'com-' filcom(5:) = casl inrhog = 1 sr%nbound = nbound ! number of boundaries sr%npoints = npoints goto 1010 1002 continue write (*,'(a,a,a)') '*** ERROR: While reading file ''',trim(filnam),''',' write (*,'(a,i5)') ' Line ',rccnt error = 4 ! read goto 1010 ! 1009 continue write (*,'(a,a,a)') '*** ERROR: EOF While reading file ''',trim(filnam),''',' write (*,'(a,i5)') ' Line ',rccnt error = 6 ! eof ! 1010 continue message = filnam close (iuni, err = 1011) goto 1012 ! ! close 1011 continue error = 2 write (*,'(a,a,a)') '*** ERROR: While closing file ''',trim(message),''',' write (*,'(a,i5,a,a,a)') ' Error on Line ',rccnt, ' in file ''',trim(filnam),'''.' goto 1012 ! ! open 1001 continue write (*,'(a,a,a)') '*** ERROR: While opening file ''',trim(message),''',' write (*,'(a,i5,a,a,a)') ' Error on Line ',rccnt, ' in file ''',trim(filnam),'''.' error = 1 ! 1012 continue if (error /= 0) stop end subroutine read_swan_mdw ! ! !============================================================================== subroutine write_swan_input (sr, itide, outcnt, inest, wavedata) ! implicit none ! integer :: itide integer :: inest integer :: outcnt real :: wdir real :: wvel character(37) :: curlif type(swan) :: sr type(wave_data_type) :: wavedata ! curlif = sr%dom(inest)%curlif(1:37) wvel = sr%wvel(itide) wdir = sr%wdir(itide) ! call write_swan_inp (wavedata, outcnt, & & itide ,sr%nttide ,inest ,sr%nnest ,sr%swuvt , & & sr%swuvi ,sr%prname ,sr%prnumb ,sr%title1 ,sr%title2 , & & sr%title3 ,sr%itest ,sr%itrace , & & sr%inrhog ,wvel ,wdir , & & sr%wlevelcorr,sr%grav ,sr%rho ,sr%nobst ,sr%nscr , & & sr%wfil ,sr%ffil ,sr%xw , & & sr%yw ,sr%alpw ,sr%mxw ,sr%myw ,sr%dxw , & & sr%dyw ,sr%trane ,sr%f , & & sr%ogam ,sr%obet ,sr%xpob ,sr%ypob ,sr%nlin , & & sr%varwin ,sr%varfri ,sr%ncurv ,sr%ncrv ,sr%nclin , & & sr%xpcu ,sr%ypcu ,curlif ,sr%casl , & & sr%cdd ,sr%css ,sr%sferic ,sr ) end subroutine write_swan_input ! ! !============================================================================== subroutine write_swan_inp (wavedata, outcnt, & & itide ,nttide ,inest ,nnest ,swuvt , & & swuvi ,prname ,prnumb ,title1 ,title2 , & & title3 ,itest ,itrace , & & inrhog ,wvel ,wdir , & & wlevelcorr,grav ,rho ,nobst ,nscr , & & wfil ,ffil ,xw , & & yw ,alpw ,mxw ,myw ,dxw , & & dyw ,trane ,f , & & ogam ,obet ,xpob ,ypob ,nlin , & & varwin ,varfri ,ncurv ,ncrv ,nclin , & & xpcu ,ypcu ,curlif ,casl , & & cdd ,css ,sferic ,sr ) use properties use read_grids use wave_data ! implicit none ! ! Global variables ! integer , intent(in) :: inest integer , intent(in) :: inrhog integer , intent(in) :: itest integer , intent(in) :: itide integer , intent(in) :: itrace integer , intent(in) :: mxw integer , intent(in) :: myw integer , intent(in) :: ncrv integer , intent(in) :: ncurv integer , intent(in) :: nnest integer , intent(in) :: nobst integer , intent(in) :: nscr integer , intent(in) :: nttide integer , intent(in) :: outcnt integer , dimension(ncrv) , intent(in) :: nclin integer , dimension(nobst), intent(in) :: nlin logical , intent(in) :: sferic logical , intent(in) :: swuvi logical , intent(in) :: swuvt logical , intent(in) :: varfri logical , intent(in) :: varwin real , intent(in) :: alpw real , intent(in) :: cdd real , intent(in) :: css real , intent(in) :: dxw real , intent(in) :: dyw real , intent(in) :: grav real , intent(in) :: rho real , intent(in) :: wdir real , intent(in) :: wlevelcorr real , intent(in) :: wvel real , intent(in) :: xw real , intent(in) :: yw real , dimension(ncrv) , intent(in) :: xpcu real , dimension(ncrv) , intent(in) :: ypcu real , dimension(nobst), intent(in) :: f real , dimension(nobst), intent(in) :: obet real , dimension(nobst), intent(in) :: ogam real , dimension(nobst), intent(in) :: trane real , dimension(nscr) , intent(in) :: xpob real , dimension(nscr) , intent(in) :: ypob character(16) , intent(in) :: prname character(*) , intent(in) :: casl character(37) , intent(in) :: curlif character(37) , intent(in) :: ffil character(37) :: wfil character(4) , intent(in) :: prnumb character(72) , intent(in) :: title1 character(72) , intent(in) :: title2 character(72) , intent(in) :: title3 type(swan) :: sr type(wave_data_type) :: wavedata ! ! Local variables ! integer :: bound integer :: cindx integer :: convar integer :: cs integer :: dsprtype integer :: i integer :: ind integer :: j integer :: jendcrv integer :: k integer :: kst integer :: l integer :: lc integer :: lunhot integer :: luninp integer :: mdc1 integer :: msc integer :: mxfr integer :: myfr integer :: n integer :: nb integer :: npoints integer :: nsect integer :: orient integer :: parread integer :: periodtype integer :: rindx integer :: sect integer :: shape integer :: loc integer, external :: new_lun logical :: exists logical :: frame real :: alpb real :: alpfr real :: dir1 real :: dir2 real :: dxb real :: dyb real :: fhigh real :: flow real :: timsec real :: xlenfr real :: xpfr real :: xpb real :: ypb real :: ylenfr real :: ypfr real :: tal real :: tap character(6) :: oldhot character(7), dimension(20) :: varnam1 character(7), dimension(9) :: varnam2 character(8) :: casl_short character(15) :: tbegc character(15) :: tendc character(15), external :: datetime_to_string character(37) :: botfil character(37) :: curfil character(37) :: mudfil character(37) :: vegfil character(60) :: lijn character(79) :: line character(79) :: pointname character(256) :: fname type(swan_bnd), pointer :: bnd type(swan_dom), pointer :: dom ! ! Do not add more variables to varnam1 ! data varnam1/'HSIGN ', 'DIR ', 'TM01 ', 'DEPTH ', 'VELOC ', & & 'TRANSP ', 'DSPR ', 'DISSIP ', 'LEAK ', 'QB ', & & 'XP ', 'YP ', 'DIST ', 'UBOT ', 'STEEPW', & & 'WLENGTH', 'FORCES ', 'RTP ', 'PDIR ', 'WIND ' / data varnam2/'TPS ', 'TM02 ', 'TMM10 ', 'DHSIGN', 'DRTM01', & & 'SETUP ', 'DISSURF', 'DISWCAP', 'DISBOT' / ! !! executable statements ------------------------------------------------------- ! dom => sr%dom(inest) ! ! *** additional swan arrays *** ! botfil = 'BOTNOW' curfil = 'CURNOW' mudfil = 'MUDNOW' vegfil = 'VEGNOW' ! if (dom%qextnd(q_wind)>0 .or. dom%n_meteofiles_dom > 0) wfil = 'WNDNOW' nb = sr%nbound ! mxfr = 0 !swani(11) myfr = 0 !swani(12) npoints = sr%npoints ! msc = dom%nfreq mdc1 = dom%ndir cs = dom%dirspace ! xpfr = 0.0 !swanr(14) ypfr = 0.0 !swanr(15) alpfr = 0.0 !swanr(16) xlenfr = 0.0 !swanr(17) ylenfr = 0.0 !swanr(18) ! flow = dom%freqmin fhigh = dom%freqmax dir1 = dom%startdir dir2 = dom%enddir ! ! *** Swan file is written ***************************************** ! ! General project data of SWAN file ! lc = len_trim(casl) casl_short = casl(1:8) if (lc > 8) then write(*,'(5a)') '*** MESSAGE: ''',trim(casl),''' is truncated to ''',trim(casl_short),''' in SWAN input file' lc = len_trim(casl_short) endif luninp = new_lun() open (luninp, file = 'swan.inp') line(1:79) = ' ' line(1:72) = & & '$***************************** HEADING ************& &*********************' write (luninp, '(1X,A)') line line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:9) = 'PROJECT ' i = 10 line(i:i) = '''''' line(11:26) = prname line(27:30) = ''' ''' line(31:34) = prnumb i = 35 line(i:i) = '''''' line(36:79) = ' ' write (luninp, '(1X,A)') line(1:35) i = 1 line(i:i) = '''''' i = 74 line(i:i) = '''''' line(2:73) = title1 write (luninp, '(5X,A)') line(1:74) line(2:73) = title2 write (luninp, '(5X,A)') line(1:74) line(2:73) = title3 write (luninp, '(5X,A)') line(1:74) line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' line(1:72) = & & '$***************************** MODEL INPUT ********& &*********************' write (luninp, '(1X,A)') line line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! ! Coefficient settings ! line(1:22) = 'SET LEVEL = ' line(23:47) = 'NOR = DEPMIN = ' write (line(15:21), '(F6.2)') wlevelcorr write (line(29:34), '(F6.2)') sr%northdir write (line(48:53), '(F6.2)') sr%depmin line(54:55) = ' _' write (luninp, '(1X,A)') line if (sr%modsim > 0) then write(line,'(a,i0,a)') ' MAXMES = 1000 MAXERR = ', sr%maxerr, ' _' write (luninp, '(1X,A)') line endif line(1:79) = ' ' line(7:22) = 'GRAV = ' line(23:47) = 'RHO = INRHOG = ' write (line(15:21), '(F6.2)') grav write (line(29:36), '(F8.2)') rho write (line(48:53), '( I6)') inrhog line(54:55) = ' _' write (luninp, '(1X,A)') line line(1:79) = ' ' if (sr%nautconv) then line(7:11) = 'NAUT ' else line(7:11) = 'CART ' endif write (luninp, '(1X,A)') line !----------------------------------------------------------------------- line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! ! hotfile= .true.: use hotfile ! modsim = 2 : quasi-stationary ! modsim = 3 : non-stationary ! if (sr%modsim <= 1) then line(1:79) = ' ' line(1:10) = 'MODE STAT ' write (luninp, '(1X,A)') line elseif (sr%modsim > 1) then line(1:79) = ' ' line(1:10) = 'MODE NONST' write (luninp, '(1X,A)') line else endif if (sferic) then line(1:79) = ' ' line(1:11) = 'COORD SPHE ' write (luninp, '(1X,A)') line endif ! ! *** activate Setup in SWAN *** ! if (sr%setup) then line(1:79) = ' ' line(1:5) = 'SETUP' write (luninp, '(1X,A)') line endif ! ! Definition computation grid(s). Note: these definitions are ! also used in preparing NEST files. ! ! *** *** ! *** additional commands for CURVI-LINEAR grid *** ! *** *** ! line(1:79) = ' ' line(1:6) = 'CGRID ' line(7:11) = 'CURV ' write (line(12:21), '(2(I4,1X))') dom%mxc, dom%myc line(31:48) = 'EXCEPT 0.0 0.0' line(57:58) = ' _' write (luninp, '(1X,A)') line line(1:79) = ' ' if (cs==1) then line(7:22) = 'CIR ' elseif (cs==2) then line(7:11) = 'SEC ' write (line(12:32), '(F10.2,1X,F10.2)') dir1, dir2 else endif write (line(33:37), '(I4,1X)') mdc1 write (line(38:59), '(2(F10.2,1X))') flow, fhigh write (line(60:64), '(I4,1X)') msc write (luninp, '(1X,A)') line !----------------------------------------------------------------------- line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! ! READING of coordinates CURVILINEAR computational grid ! line(1:13) = 'READ COOR 1. ' ind = index(curlif, ' ') i = 14 line(i:i) = '''''' line(15:14 + ind) = curlif line(14 + ind:14 + ind) = '''''' line(15 + ind:16 + ind) = ' _' line(17 + ind:79) = ' ' write (luninp, '(1X,A)') line line(1:79) = ' ' line(1:) = ' 4 0 1 FREE' write (luninp, '(1X,A)') line line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line !----------------------------------------------------------------------- line(1:79) = ' ' ! ! Definition of bottom grid(s) ! lijn = 'INPGRID _' write (luninp, '(1X,A)') lijn if (dom%curvibot==1) then line(1:18) = 'BOTTOM CURV 0. 0. ' write (line(19:28), '(2(I4,1X))') dom%mxb, dom%myb write (luninp, '(1X,A)') line else fname = dom%depfil call readregulargrid(fname, sferic, xpb, ypb, alpb, & & dom%mxb, dom%myb, dxb, dyb) ! ! poles? no, fences! ! dom%mxb = dom%mxb - 1 dom%myb = dom%myb - 1 line(1:11) = 'BOTTOM REG ' write (line(12:74), & & '(2(F10.2,4X),F6.1,1X,2(I4,1X),2(F8.2,1X))') & & xpb, ypb, alpb, & & dom%mxb, dom%myb, dxb, dyb write (luninp, '(1X,A)') line botfil = dom%botfil(1:37) endif line(1:79) = ' ' ! ! File-name bottom depth (use temporary file) ! line(1:18) = 'READINP BOTTOM 1.0' ! Write (line(16:21),'(F5.1,1X)') fac ind = index(botfil, ' ') i = 22 line(i:i) = '''''' i = i+1 line(i:) = trim(botfil) i = i+(ind-1) line(i:i) = '''''' i = i+1 if (dom%curvibot==1) then line(i:) = ' 4' else line(i:) = ' 3' endif i = i+2 line(i:) = ' 0 FREE' write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' ! ! File-name current field (temporary file) ! if (dom%qextnd(q_cur)>0 .or. swuvi) then lijn = 'INPGRID _' line(1:18) = 'CURREN CURV 0. 0. ' write (line(19:28), '(2(I4,1X))') dom%mxc, dom%myc write (luninp, '(1X,A)') lijn write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' ! ! *** read current grid *** ! line(1:21) = 'READ CUR FAC= 1. _' line(22:79) = ' ' write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' ind = index(curfil, ' ') i = 1 line(i:i) = '''''' line(2:) = curfil line(ind + 1:ind + 1) = '''''' line(ind + 4:ind + 10) = 'IDLA=4 ' line(ind + 11:ind + 14) = 'FREE' line(ind + 15:79) = ' ' write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' endif !----------------------------------------------------------------------- line(1:79) = ' ' ! ! Fluid Mud ! if (wavedata%mode == flow_mud_online) then lijn = 'INPGRID _' line(1:18) = 'MUDL CURV 0. 0. ' write (line(19:28), '(2(I4,1X))') dom%mxc, dom%myc write (luninp, '(1X,A)') lijn write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' ! ! File-name mud depth (use temporary file) ! line(1:18) = 'READINP MUDL 1.0' ind = index(mudfil, ' ') i = 22 line(i:i) = '''''' i = i+1 line(i:) = trim(mudfil) i = i+(ind-1) line(i:i) = '''''' i = i+1 line(i:) = ' 4' i = i+2 line(i:) = ' 0 FREE' write (luninp, '(1X,A)') line(1:79) endif ! ! Vegetation map ! line(1:2) = '$ ' write (luninp, '(1X,A)') line if (dom%vegetation == 1) then lijn = 'INPGRID _' line(1:19) = 'NPLANTS CURV 0. 0. ' write (line(20:29), '(2(I4,1X))') dom%mxc, dom%myc write (luninp, '(1X,A)') lijn write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' ! ! File-name vegetation map ! line = 'READINP NPLANTS 1.0 ''' // trim(vegfil) // ''' 4 0 FREE' write (luninp, '(1X,A)') line(1:79) endif !----------------------------------------------------------------------- line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! ! diffraction ! if (sr%diffraction == 1) then line(1:7) = 'DIFFRAC' write (line( 9: 9), '(I1)' ) sr%diffraction write (line(11:20), '(F10.5)') sr%diffr_coeff write (line(22:25), '(I4)' ) sr%diffr_smsteps write (line(27:27), '(I1)' ) sr%diffr_adapt_propag write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' endif !----------------------------------------------------------------------- line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! ! definition of grid for wind field ! if (dom%qextnd(q_wind)>0 .or. dom%n_meteofiles_dom > 0) then ! *** definition of grid *** ! if (.not.sr%curviwind) then lijn = 'INPGRID _' line(1:79) = ' ' line(1:7) = 'WIND ' write (line(8:35), '(2(F10.2,4X))') xw, yw write (line(36:43), '( F7.1 ,1X) ') alpw write (line(44:53), '(2(I4 ,1X))') mxw, myw write (line(54:71), '(2(F8.2 ,1X))') dxw, dyw write (luninp, '(1X,A)') lijn write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' else lijn = 'INPGRID _' line(1:79) = ' ' line(1:18) = 'WIND CURV 0. 0. ' write (line(19:28), '(2(I4,1X))') dom%mxc, dom%myc if (sr%excval> - 998.99 .or. sr%excval< - 999.01) then line(29:37) = ' EXCVAL ' write (line(38:49), '(F12.4)') sr%excval line(50:79) = ' ' else line(29:79) = ' ' endif write (luninp, '(1X,A)') lijn write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' endif ! ! *** read wind grid *** ! line(1:20) = 'READ WIN FAC= 1. _' line(21:79) = ' ' write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' ind = index(wfil, ' ') i = 1 line(i:i) = '''''' line(2:) = wfil line(ind + 1:ind + 1) = '''''' line(ind + 4:ind + 10) = 'IDLA=4 ' line(ind + 11:ind + 14) = 'FREE' line(ind + 15:79) = ' ' write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' endif line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! ! Uniform wind velocity and direction ! if (.not.varwin .and. dom%n_meteofiles_dom == 0) then if (sr%genmode==0) then line(1:79) = ' ' write (luninp, '(1X,A)') line elseif (abs(wvel)>0.) then line(1:10) = 'WIND VEL=' write (line(11:20), '(F10.2)') wvel line(21:25) = ' DIR=' write (line(26:35), '(F10.2)') wdir line(36:79) = ' ' write (luninp, '(1X,A)') line else endif endif !----------------------------------------------------------------------- line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! ! definition of grid for friction field ! if (varfri) then lijn = 'INPGRID _' line(1:79) = ' ' line(1:18) = 'FRIC CURV 0. 0. ' write (line(19:28), '(2(I4,1X))') dom%mxc, dom%myc if (sr%excval> - 998.99 .or. sr%excval< - 999.01) then line(29:37) = ' EXCVAL ' write (line(38:49), '(F12.4)') sr%excval line(50:79) = ' ' else line(29:79) = ' ' endif write (luninp, '(1X,A)') lijn write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' line(1:20) = 'READ FRI FAC= 1. _' line(21:79) = ' ' write (luninp, '(1X,A)') line(1:79) ind = index(ffil, ' ') i = 1 line(i:i) = '''''' line(2:) = ffil line(ind + 1:ind + 1) = '''''' line(ind + 4:ind + 10) = 'IDLA=4 ' line(ind + 11:ind + 14) = 'FREE' line(ind + 15:79) = ' ' write (luninp, '(1X,A)') line(1:79) line(1:79) = ' ' endif !----------------------------------------------------------------------- line(1:2) = '$ ' write (luninp, '(1X,A)') line ! ! Input wave parameters: ! Note that different sides can be chosen (this in contrast with ! HISWA in which the boundary conditions are allways described ! at x=0 ! ! ! boundary condition: par/read ! also for nested runs side/segment ! xy/ij ! rindx = 30 + 4*nnest cindx = 2 if (inest==1) then do bound = 1, nb bnd => sr%bnd(bound) if (bnd%bndtyp==4) then line = ' ' line( 1:10) = 'BOUN NEST ' line(11:11) = '''''' ind = index(sr%specfile, ' ') - 1 line(12:12 + ind) = sr%specfile line(12+ind:12+ind) = '''''' line(12+ind+1:12+ind+7) = ' CLOSED' write(luninp, '(1X,A)') line cycle elseif (bnd%bndtyp==5) then line = ' ' line( 1:11) = 'BOUN WWIII ' line(12:12) = '''''' ind = index(sr%specfile, ' ') - 1 line(13:13 + ind) = sr%specfile line(13+ind:13+ind) = '''''' line(13+ind+1:13+ind+5) = ' OPEN' write(luninp, '(1X,A)') line cycle endif line(1:79) = ' ' parread = bnd%parread ! User specified conditions shape = bnd%sshape periodtype= bnd%periodtype dsprtype = bnd%dsprtype line(1:) = 'BOUN SHAPE' if (shape==1) then write (line(12:), '(A, 1X, F6.2)') 'JONSWAP', bnd%gamma0 elseif (shape==2) then line(12:) = 'PM' elseif (shape==3) then write (line(12:), '(A, 1X, F6.2)') 'GAUSS', bnd%sigfr else endif if (periodtype==1) then line(27:) = 'PEAK' else line(27:) = 'MEAN' endif if (dsprtype==1) then line(32:) = 'DSPR POWER' else line(32:) = 'DSPR DEGR' endif if (.not.(shape==1 .and. bnd%gamma0==0.0)) then ! something was actually defined write (luninp, '(1X,A)') line endif ! line(1:79) = ' ' line(1:) = 'BOUN' nsect = bnd%nsect convar = bnd%convar if (bnd%bndtyp==1) then ! Side line(6:) = 'SIDE' orient = bnd%orient if (orient==1) then line(11:) = 'N' elseif (orient==2) then line(11:) = 'NW' elseif (orient==3) then line(11:) = 'W' elseif (orient==4) then line(11:) = 'SW' elseif (orient==5) then line(11:) = 'S' elseif (orient==6) then line(11:) = 'SE' elseif (orient==7) then line(11:) = 'E' elseif (orient==8) then line(11:) = 'NE' else endif if (bnd%turn==1) then line(14:) = 'CCW' else line(14:) = 'CLOCKW' endif line(22:) = '_' write (luninp, '(1X,A)') line else ! ! Segment ! line(6:) = 'SEGM' if (bnd%bndtyp == 3) then line(11:) = 'XY' write (line(14:), '(4(F12.3,2X))') & & bnd%bndcrd_xy(1), bnd%bndcrd_xy(2), & & bnd%bndcrd_xy(3), bnd%bndcrd_xy(4) elseif (bnd%bndtyp == 2) then line(11:) = 'IJ' write (line(14:), '(4I10)') & & bnd%bndcrd_mn(1), bnd%bndcrd_mn(2), & & bnd%bndcrd_mn(3), bnd%bndcrd_mn(4) endif line(72:) = '&' write (luninp, '(1X,A)') line rindx = rindx + 4 endif line(1:79) = ' ' if (convar==1) then ! Constant conditions line(21:) = 'CON' if (parread==2) then ! User specified conditions write (line(26:), '(A,4F8.2)') 'PAR ', & & bnd%waveheight(1), bnd%period(1) , & & bnd%direction (1), bnd%dirspread(1) else ! Read conditions from file ind = index(bnd%spectrum(1), ' ') - 1 line(26:30) = 'FILE ' i = 31 line(i:i) = '''''' line(i + 1:i + ind) = bnd%spectrum(1) i = i + ind line(i + 1:i + 1) = '''''' line(i + 3:i + 4) = ' 1' endif write (luninp, '(1X,A)') line rindx = rindx + 5 cindx = cindx + 1 else ! Variable conditions line(21:) = 'VAR' if (parread==2) then ! User specified conditions line(25:) = 'PAR' do sect = 1, nsect write (line(29:), '(5F9.2)') bnd%distance(sect) , & & bnd%waveheight(sect), bnd%period(sect) , & & bnd%direction (sect), bnd%dirspread(sect) if (sect0) then l = 0 do i = 1, nobst line(1:79) = ' ' if (trane(i)<999.0) then line(1:11) = 'OBST TRANS ' write (line(12:17), '(F6.3)') trane(i) else line(1:9) = 'OBST DAM ' write (line(10:16), '(F6.2,1X)') f(i) write (line(17:23), '(F6.2,1X)') ogam(i) write (line(24:30), '(F6.2,1X)') obet(i) endif if (sr%reflection(i) == 1) then write (line(31:45), '(a,F9.6)') ' REFL ',sr%refl_coeff(i) if (sr%refl_type(i) == 1) then write (line(46:51), '(a)') ' RSPEC' elseif (sr%refl_type(i) == 2) then ! ! With SWAN version 40.51A, 'RDIFF 1 1 1' is replaced with 'RDIFF 1' ! Not backwards compatible! ! write (line(46:53), '(a)') ' RDIFF 1' else ! ! Wrong type indicator ! endif endif line(57:62) = ' LIN _' write (luninp, '(1X,A)') line line(1:79) = ' ' do j = 1, nlin(i) line(1:79) = ' ' l = l + 1 write (line(13:70), '(2(E25.17,4X))') xpob(l), ypob(l) if (j/=nlin(i)) line(72:72) = '_' write (luninp, '(1X,A)') line line(1:79) = ' ' enddo enddo endif line(1:2) = '$ ' write (luninp, '(1X,A)') line !----------------------------------------------------------------------- line(1:79) = ' ' line(1:72) = '$***************************** OUTPUT REQUEST **************************' write (luninp, '(1X,A)') line line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line do i=1, size(varnam1) write (luninp, '(1X,3A)') 'QUANTITY ',varnam1(i), ' excv=-999.0' enddo do i=1, size(varnam2) write (luninp, '(1X,3A)') 'QUANTITY ',varnam2(i), ' excv=-999.0' enddo if (allocated(sr%add_out_names)) then do i=1, size(sr%add_out_names) write (luninp, '(1X,3A)') 'QUANTITY ',sr%add_out_names(i), ' excv=-999.0' enddo endif write (luninp, '(1X,A)') '$ ' line(1:79) = ' ' ! ! *** output definitions *** ! ! definition of nested grid ! if (nnest>1) then if (inest 0) then k = 0 do i = 1, ncurv line(1:79) = ' ' line(1:7) = 'CURVE ' j = 8 line(j:j) = '''''' line(9:11) = 'cur' write (line(12:13), '(I2.2)') i write (line(14:15), '(I2.2)') inest j = 16 line(j:j) = '''''' k = k + 1 write (line(21:48), '(2(F10.2,4X))') xpcu(k), ypcu(k) line(49:49) = '_' write (luninp, '(1X,A)') line line(1:79) = ' ' jendcrv = nclin(k) do j = 2, jendcrv k = k + 1 line(1:79) = ' ' write (line(11:15), '(I5)') nclin(k) write (line(21:48), '(2(F10.2,4X))') xpcu(k), ypcu(k) ! Modification if (j/=jendcrv) line(50:50) = '_' write (luninp, '(1X,A)') line line(1:79) = ' ' enddo line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' line(1:7) = 'TABLE ' j = 8 line(j:j) = '''''' line(9:11) = 'cur' write (line(12:13), '(I2.2)') i write (line(14:15), '(I2.2)') inest j = 16 line(j:j) = '''''' line(21:26) = 'NOHEAD' line(31:31) = '''''' line(32:39) = 'SWANOUT_' line(40:47) = line(9:16) line(51:51) = '_' write (luninp, '(1X,A)') line line(1:79) = ' ' write (luninp, '(4(2X,A),A)') varnam1(11), varnam1(12), varnam1(13), & & varnam1(4), ' _' write (luninp, '(5(2X,A),A)') varnam1(1), varnam1(3), varnam1(2), & & varnam1(7), varnam1(8), ' _' write (luninp, '(2(2X,A))') varnam1(16), varnam1(5) line(1:79) = ' ' enddo elseif (ncurv == -1) then ! ! Output curves specified in a Tekal file ! Handle in a separate subroutine ! write(*,'(1X,A)') ' Output curves are specified in a polyline file' call outputCurvesFromFile endif line(1:2) = '$ ' write (luninp, '(1X,A)') line !----------------------------------------------------------------------- ! ! Output locations ! line(1:79) = ' ' ! ! loop over the location files ! if (sr%output_points) then do loc = 1, sr%nloc pointname = ' ' lc = len_trim(sr%pntfilnam(loc)) if (lc>8) then pointname(1:) = sr%pntfilnam(loc)(1:8) else pointname(1:) = sr%pntfilnam(loc) endif line(1:7) = 'POINTS ' i = 8 line(i:i) = '''''' line(i+1:) = pointname i = i+1+8 line(i:i) = '''''' line(i+1:) = ' _' write (luninp, '(1X,A)') line line(1:79) = ' ' if (sr%output_pnt_file) then line(1:5) = 'FILE ' i = 6 line(i:i) = '''''' line(7:) = sr%pntfilnam(loc) ind = index(sr%pntfilnam(loc), ' ') if (ind==0) ind = 8 i = ind - 1 + 7 line(i:i) = '''''' write (luninp, '(1X,A)') line line(1:79) = ' ' else do n = 1, npoints write (line(1:26), '(E25.17,1X)') sr%xyloc(1,n) write (line(27:52), '(E25.17,1X)') sr%xyloc(2,n) if (n1) then line(i:) = 'n' write (line(i+1:), '(I1)') inest i = i+2 endif if (nttide>1 .or. wavedata%mode /= stand_alone) then line(i:) = 't' if (nttide > 1) then write (line(i+1:), '(I6.6)') 100000*inest + itide else ! wavedata%mode /= stand_alone write (line(i+1:), '(I3.3)') outcnt endif i = i+7 endif line(i:) = '.tab' i = i+4 line(i:i) = '''''' line(i+1:) = ' XP YP DEP HS DIR RTP TM01 _' write (luninp, '(1X,A)') line line(1:79) = ' ' line(37:56) = 'DSPR UBOT WIND VEL ' write (luninp, '(1X,A)') line endif line(1:79) = ' ' if (sr%output_spec1d) then line(1:6) = 'SPEC ' i = 7 line(i:i) = '''''' line(i+1:) = pointname i = i+1+8 line(i:i) = '''''' line(i+1:) = ' ' line(i+2:) = 'SPEC1D ' i = i+9 line(i:i) = '''''' line(i+1:) = sr%pntfilnam(loc) i = i+1+lc if (nnest>1) then line(i:) = 'n' write (line(i+1:), '(I1)') inest i = i+2 endif ! ! Running online with Delft3D-FLOW: itide contains the output counter ! if (nttide>1 .or. wavedata%mode /= stand_alone) then line(i:) = 't' if (nttide > 1) then write (line(i+1:), '(I3.3)') itide else ! wavedata%mode /= stand_alone write (line(i+1:), '(I3.3)') outcnt endif i = i+4 endif line(i:) = '.sp1' i = i+4 line(i:i) = '''''' write (luninp, '(1X,A)') line line(1:79) = ' ' endif if (sr%output_spec2d) then line(1:6) = 'SPEC ' i = 7 line(i:i) = '''''' line(8:10 + lc) = pointname i = i+1+8 line(i:i) = '''''' line(i+1:) = ' ' line(i+2:) = 'SPEC2D ' i = i+9 line(i:i) = '''''' line(i+1:) = sr%pntfilnam(loc) i = i+1+8 if (nnest>1) then line(i:) = 'n' write (line(i+1:), '(I1)') inest i = i+2 endif ! ! Running online with Delft3D-FLOW: itide contains the output counter ! if (nttide>1 .or. wavedata%mode /= stand_alone) then line(i:) = 't' if (nttide > 1) then write (line(i+1:), '(I3.3)') itide else ! wavedata%mode /= stand_alone write (line(i+1:), '(I3.3)') outcnt endif i = i+4 endif line(i:) = '.sp2' i = i+4 line(i:i) = '''''' write (luninp, '(1X,A)') line line(1:79) = ' ' endif enddo endif line(1:2) = '$ ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! frame not set anywhere! frame = .false. if (frame) then line(1:5) = 'FRAME' line(6:6) = ' ' i = 7 line(i:i) = '''''' line(8:14) = 'clframe' i = 15 line(i:i) = '''''' line(16:16) = ' ' write (line(17:25), '(F8.2 ,1X)') xpfr write (line(26:34), '(F8.2 ,1X)') ypfr write (line(35:43), '(F8.2 ,1X)') alpfr write (line(44:54), '(F10.2,1X)') xlenfr write (line(55:65), '(F10.2,1X)') ylenfr line(66:67) = '_ ' write (luninp, '(1X,A)') line line(1:79) = ' ' write (line(1:9), '(I4,1X,I4)') mxfr, myfr write (luninp, '(1X,A)') line line(1:79) = ' ' endif line(1:79) = ' ' line(1:2) = '$ ' write (luninp, '(1X,A)') line !----------------------------------------------------------------------- ! ! Compute and test parameters ! line(1:79) = ' ' line(1:35) = 'TEST ITEST= ITRACE= ' write (line(14:16), '(I3)') itest write (line(27:29), '(I3)') itrace line(36:79) = ' ' write (luninp, '(1X,A)') line line(1:79) = ' ' ! ! Default: put current time in writehottime ! writehottime will be overwritten by tendc when quasi-/non-stationary ! sr%writehottime = datetime_to_string(wavedata%time%refdate, wavedata%time%timsec) ! ! if (.not.sr%compmode) then line(1:1) = '$' line(2:79) = ' ' else ! ! modsim = 2 : quasi-stationary ! modsim = 3 : non-stationary ! line(1:79) = ' ' if (sr%modsim <= 1) then ! ! stationary ! line(1:7) = 'COMPUTE' elseif (sr%modsim == 2) then tendc = datetime_to_string(wavedata%time%refdate, wavedata%time%timsec) write (line,'(A,1X,A)') 'COMPUTE STAT ',tendc sr%writehottime = tendc elseif (sr%modsim == 3) then ! ! non-stationary ! ! starttime ! tbegc = datetime_to_string(wavedata%time%refdate, wavedata%time%timsec) ! ! endtime ! tendc = datetime_to_string(wavedata%time%refdate, wavedata%time%timsec + sr%deltcom * 60.0) ! ! built line ! line(1:79) = ' ' line(1:16) = 'COMPUTE NONSTAT ' write (line(17:31), '(a)') tbegc write (line(33:40), '(f8.2)') sr%deltc line(41:44) = ' MIN' write (line(46:61), '(a)') tendc sr%writehottime = tendc else endif endif write (luninp, '(1X,A)') line ! ! hotstart: ! hotfile= true: use hotfile ! modsim = 2 : quasi-stationary ! modsim = 3 : non-stationary ! if (sr%hotfile) then ! ! line to ensure that SWAN is going to produce a hotfile ! write (fname,'(a,i0,2a)') 'hot_', inest, '_', trim(sr%writehottime) line = 'HOTF ''' // trim(fname) // '''' write (luninp, '(1X,A)') line endif ! line(1:79) = ' ' line(1:4) = 'STOP' line(5:79) = ' ' write (luninp, '(1X,A)') line line(1:79) = ' ' close (luninp) ! ! ! contains ! ! !=============================================================================== subroutine outputCurvesFromFile() use precision_basics integer :: i,j,istat real(sp) , dimension(1:2) :: inputvals character(1), pointer, dimension(:) :: data_ptr character(30) :: node_type character(30) :: parname character(80) :: curname character(80) :: line type(tree_data) , pointer :: cur_ptr type(tree_data) , pointer :: pol_ptr type(tree_data) , pointer :: tmp_ptr nullify(pol_ptr) call tree_create('Delft3D-WAVE output curves', pol_ptr) istat = 0 call prop_file('tekal',trim(sr%curvefil),pol_ptr,istat) if (istat /= 0) then select case (istat) case(1) write(*,*) '*** ERROR File: '//trim(sr%curvefil)//' not found' case(3) write(*,*) '*** ERROR Premature EOF in file: '//trim(sr%curvefil) case default write(*,*) '*** ERROR Read error from file: '//trim(sr%curvefil) endselect stop endif ! ! if no line exists in the polyline file ! if(.not. associated(pol_ptr%child_nodes) ) then write(*,'(1X,A)') ' Error! 0 output curve is specified in the polyline file!' stop endif do i = 1,size(pol_ptr%child_nodes) cur_ptr => pol_ptr%child_nodes(i)%node_ptr curname = tree_get_name(cur_ptr) write(luninp,'(1x,3a)') 'CURVE ''', trim(curname), ''' _' do j = 1,size(cur_ptr%child_nodes) tmp_ptr => cur_ptr%child_nodes(j)%node_ptr write (parname,'(a,i0)') 'row_', j ! call tree_get_node_by_name( polygon_ptr, parname, node_ptr ) call tree_get_data_ptr( tmp_ptr, data_ptr, node_type ) ! ! inputvals is of type real(fp) ! the data to be retrieved is in real(sp) ! call transfer with a real(sp) constant as second parameter ! inputvals = transfer( data_ptr, 0., 2 ) write(line,'(18x,2(f10.2,4x))') inputvals(1), inputvals(2) if (j /= 1) then line(14:14) = '1' endif if (j < size(cur_ptr%child_nodes)) then write(line,'(2a)') trim(line), ' _' endif write(luninp,'(a)') line enddo write(luninp,'(1x,a)') '$ ' write(luninp,'(1x,5a)') 'TABLE ''', trim(curname), ''' NOHEAD ''SWANOUT_', trim(curname), ''' _' write(luninp, '(4(2X,A),A)') varnam1(11), varnam1(12), varnam1(13), & & varnam1(4), ' _' write(luninp, '(5(2X,A),A)') varnam1(1), varnam1(3), varnam1(2), & & varnam1(7), varnam1(8), ' _' write(luninp, '(2(2X,A))') varnam1(16), varnam1(5) enddo end subroutine outputCurvesFromFile end subroutine write_swan_inp ! ! !=============================================================================== subroutine adjustinput(sr) use properties implicit none ! type(swan) :: sr ! character(256) :: filnam character(256) :: parname integer :: i integer :: in integer :: istat type(tree_data) , pointer :: domain_ptr type(tree_data) , pointer :: input_tree type(swan_dom) , pointer :: dom ! filnam = TRIM(sr%filnam) // '.opt' ! ! Create input tree ! call tree_create ( "Delft3D-WAVE input", input_tree ) istat = 0 call prop_file('ini',trim(filnam),input_tree,istat) if (istat /= 0) return ! sr%append_com = .false. call prop_get_logical(input_tree, '*', 'AppendCOM' , sr%append_com) call prop_get_logical(input_tree, '*', 'checkVersionNumber' , sr%checkVersionNumber) if (.not.sr%checkVersionNumber) then write(*,'(a)') '*** MESSAGE: The check on the SWAN version number is disabled' endif ! do i = 1,size(input_tree%child_nodes) ! ! Does input_tree contain a child with name 'domain'? ! domain_ptr => input_tree%child_nodes(i)%node_ptr parname = tree_get_name( domain_ptr ) if ( parname /= 'domain') cycle parname = '' call prop_get_string(domain_ptr, '*', 'Grid', parname) ! do in = 1, sr%nnest if (sr%dom(in)%curlif == parname) exit enddo if (in > sr%nnest) cycle dom => sr%dom(in) ! call prop_get_integer(domain_ptr, '*', 'FlowBedLevel' , dom%qextnd(q_bath)) call prop_get_integer(domain_ptr, '*', 'FlowWaterLevel', dom%qextnd(q_wl) ) call prop_get_integer(domain_ptr, '*', 'FlowVelocity' , dom%qextnd(q_cur) ) call prop_get_integer(domain_ptr, '*', 'FlowWind' , dom%qextnd(q_wind)) ! enddo ! end subroutine adjustinput end module swan_input