subroutine mom_tbt_def (fname, imt, jmt, km, nt, xt, yt &, calendar, expnam, runstamp, mapt) #if defined O_mom && defined O_mom_tbt !======================================================================= ! definition routine for ocean time averages ! inputs: ! fname = file name ! imt, jmt ... = global array dimensions ! xt, yt ... = global axes ! calendar = calendar ! expnam = experiment name ! runstamp = run stamp ! mapt = tracer map !======================================================================= implicit none integer iou, j, n, imt, jmt, km, nt, igs, ige, ig, jgs, jge integer jg, kgs, kge, kg, it(10), iu(10), id_time integer id_xt, id_xu, id_yt, id_yu, id_zt, id_zw, id_xt_e integer id_xu_e, id_yt_e, id_yu_e, id_zt_e, id_zw_e character(*) :: fname, calendar, expnam, runstamp character(3) :: a3 character(10) :: mapt(nt) real xt(imt), yt(jmt) real c0, c1, c100, c500, c1e3, c1e4, c1e6, c1e20 c0 = 0. c1 = 1. c100 = 100. c500 = 500. c1e3 = 1.e3 c1e4 = 1.e4 c1e6 = 1.e6 c1e20 = 1.e20 !----------------------------------------------------------------------- ! open file !----------------------------------------------------------------------- call openfile (fname, iou) !----------------------------------------------------------------------- ! global write domain size (may be less than global domain) !----------------------------------------------------------------------- igs = 1 ige = imt if (xt(1) + 360. lt. xt(imt)) then ! assume cyclic boundary igs = 2 ige = imt-1 endif ig = ige-igs+1 jgs = 1 jge = jmt do j=2,jmt if (yt(j-1) .lt. -90. .and. yt(j) .gt. -90.) jgs = j if (yt(j-1) .lt. 90. .and. yt(j) .gt. 90.) jge = j-1 enddo jg = jge-jgs+1 kgs = 1 kge = km kg = kge-kgs+1 !----------------------------------------------------------------------- ! start definitions !----------------------------------------------------------------------- call redef (iou) !----------------------------------------------------------------------- ! write global atributes !----------------------------------------------------------------------- call putatttext (iou, 'global', 'Conventions', 'CF-1.0') call putatttext (iou, 'global', 'experiment_name', expnam) call putatttext (iou, 'global', 'run_stamp', runstamp) !----------------------------------------------------------------------- ! define dimensions !----------------------------------------------------------------------- call defdim ('time', iou, 0, id_time) call defdim ('longitude', iou, ig, id_xt) call defdim ('latitude', iou, jg, id_yt) call defdim ('depth', iou, kg, id_zt) call defdim ('longitude_V', iou, ig, id_xu) call defdim ('latitude_V', iou, jg, id_yu) call defdim ('depth_W', iou, kg, id_zw) call defdim ('longitude_edges', iou, ig+1, id_xt_e) call defdim ('latitude_edges', iou, jg+1, id_yt_e) call defdim ('depth_edges', iou, kg+1, id_zt_e) call defdim ('longitude_V_edges', iou, ig+1, id_xu_e) call defdim ('latitude_V_edges', iou, jg+1, id_yu_e) call defdim ('depth_W_edges', iou, kg+1, id_zw_e) !----------------------------------------------------------------------- ! define 1d data (t) !----------------------------------------------------------------------- it(1) = id_time call defvar ('time', iou, 1, it, c0, c0, 'T', 'D' # if defined O_units_time_years # if !defined O_save_time_relyear0 &, 'time', 'time', 'years since 1-1-1') # else &, 'time', 'time', 'years since 0-1-1') # endif # else # if !defined O_save_time_relyear0 &, 'time', 'time', 'days since 1-1-1') # else &, 'time', 'time', 'days since 0-1-1') # endif # endif call putatttext (iou, 'time', 'calendar', calendar) call defvar ('T_avgper', iou, 1, it, c0, c0, ' ', 'F' &, 'averaging period', ' ','day') !----------------------------------------------------------------------- ! define 1d data (x, y or z) !----------------------------------------------------------------------- it(1) = id_xt call defvar ('longitude', iou, 1, it, c0, c0, 'X', 'D' &, 'longitude', 'longitude', 'degrees_east') call defvar ('G_dxt', iou, 1, it, c0, c0, ' ', 'D' &, 'width t grid', ' ', 'm') it(1) = id_yt call defvar ('latitude', iou, 1, it, c0, c0, 'Y', 'D' &, 'latitude', 'latitude', 'degrees_north') call defvar ('G_dyt', iou, 1, it, c0, c0, ' ', 'D' &, 'height t grid', ' ', 'm') it(1) = id_xu call defvar ('longitude_V', iou, 1, it, c0, c0, 'X', 'D' &, 'longitude', 'longitude', 'degrees_east') call defvar ('G_dxu', iou, 1, it, c0, c0, ' ', 'D' &, 'width u grid', ' ', 'm') it(1) = id_yu call defvar ('latitude_V', iou, 1, it, c0, c0, 'Y', 'D' &, 'latitude', 'latitude', 'degrees_north') call defvar ('G_dyu', iou, 1, it, c0, c0, ' ', 'D' &, 'height u grid', ' ', 'm') it(1) = id_zt call defvar ('depth', iou, 1, it, c0, c0, 'Z', 'D' &, 'depth', 'depth', 'm') call defvar ('G_dzt', iou, 1, it, c0, c0, ' ', 'D' &, 'thickness t grid', ' ', 'm') it(1) = id_zw call defvar ('depth_W', iou, 1, it, c0, c0, 'Z', 'D' &, 'depth', 'depth', 'm') it(1) = id_xt_e call defvar ('longitude_edges', iou, 1, it, c0, c0, 'X', 'D' &, 'longitude edges', 'longitude', 'degrees_east') it(1) = id_yt_e call defvar ('latitude_edges', iou, 1, it, c0, c0, 'Y', 'D' &, 'latitude edges', 'latitude, 'degrees_north') it(1) = id_xu_e call defvar ('longitude_V_edges', iou, 1, it, c0, c0, 'X', 'D' &, 'longitude edges', 'longitude', 'degrees_east') it(1) = id_yu_e call defvar ('latitude_V_edges', iou, 1, it, c0, c0, 'Y', 'D' &, 'latitude edges', 'latitude', 'degrees_north') it(1) = id_zt_e call defvar ('depth_edges', iou, 1, it, c0, c0, 'Z', 'D' &, 'depth edges', 'depth', 'm') it(1) = id_zw_e call defvar ('depth_W_edges', iou, 1, it, c0, c0, 'Z', 'D' &, 'depth of w grid edges', 'depth', 'm') !----------------------------------------------------------------------- ! define 2d data (x,y) !----------------------------------------------------------------------- it(1) = id_xt iu(1) = id_xu it(2) = id_yt iu(2) = id_yu call defvar ('G_kmt', iou, 2, it, c0, c1e6, ' ', 'I' &, 'ocean grid depth level', 'model_level_number' ,'1') call defvar ('G_mskhr', iou, 2, it, c0, c1e6, ' ', 'I' &, 'horizontal region mask', ' ' ,'1') call defvar ('G_latT', iou, 2, it, -c1e6, c1e6, ' ', 'F' &, 'tracer grid latitude', 'latitude', 'degrees_north') call defvar ('G_lonT', iou, 2, it, -c1e6, c1e6, ' ', 'F' &, 'tracer grid longitude', 'longitude', 'degrees_east') call defvar ('G_latU', iou, 2, iu, -c1e6, c1e6, ' ', 'F' &, 'velocity grid latitude', 'latitude', 'degrees_north') call defvar ('G_lonU', iou, 2, iu, -c1e6, c1e6, ' ', 'F' &, 'velocity grid longitude', 'longitude', 'degrees_east') !----------------------------------------------------------------------- ! define 3d data (x,y,t) !----------------------------------------------------------------------- it(1) = id_xt iu(1) = id_xu it(2) = id_yt iu(2) = id_yu it(3) = id_time iu(3) = id_time do n=1,nt if (n .lt. 1000) write(a3,'(i3)') n if (n .lt. 100) write(a3,'(i2)') n if (n .lt. 10) write(a3,'(i1)') n call defvar ('F_flux_'//trim(a3), iou ,3, it, -c1e6, c1e6, ' ' &, 'F', 'flux tracer '//trim(a3), ' ', '?') enddo !----------------------------------------------------------------------- ! define time dependent 4d data (x,y,z,t) !----------------------------------------------------------------------- it(1) = id_xt iu(1) = id_xu it(2) = id_yt iu(2) = id_yu it(3) = id_zt iu(3) = id_zt it(4) = id_time iu(4) = id_time do n=1,nt if (n .lt. 1000) write(a3,'(i3)') n if (n .lt. 100) write(a3,'(i2)') n if (n .lt. 10) write(a3,'(i1)') n call defvar ('O_tracer_'//trim(a3), iou ,4, it, -c1e6, c1e6 &, ' ', 'F', 'tracer '//trim(a3), ' ', '?') call defvar ('O_dt_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', 'change in time tracer '//trim(a3),' ', '?') call defvar ('O_advX_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F','-zonal advection tracer '//trim(a3), ' ', '?') call defvar ('O_advY_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', '-meridional advection tracer '//trim(a3), ' ', '?') call defvar ('O_advZ_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', '-vertical advection tracer '//trim(a3), ' ', '?') call defvar ('O_diffX_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', 'zonal diffusion tracer '//trim(a3), ' ', '?') call defvar ('O_diffY_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', 'meridional diffusion tracer '//trim(a3), ' ', '?') call defvar ('O_diffZ_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', 'vertical diffusion tracer '//trim(a3), ' ', '?') # if defined O_source_term || defined O_npzd || defined O_carbon_14 call defvar ('O_source_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', 'change due to sources'//trim(a3), ' ', '?') # endif call defvar ('O_convect_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', 'change due to convection tracer '//trim(a3), ' ' &, '?') # if defined O_fourfil || defined O_firfil call defvar ('O_filter_'//trim(a3), iou, 4, it, -c1e6, c1e6 &, ' ', 'F', 'change due to filtering tracer '//trim(a3), ' ' &, '?') # endif enddo !----------------------------------------------------------------------- ! end definitions !----------------------------------------------------------------------- call enddef (iou) return end subroutine mom_tbt_out (fname, ids, ide, jds, jde, imt, jmt, km &, nt, xt, yt, zt, xu, yu, zw, dxt, dyt, dzt &, dxu, dyu, dzw, avgper, time, stamp, mapt &, tbt, stf, tlat, tlon, ulat, ulon, kmt &, mskhr, tm) !======================================================================= ! output routine for ocean tracer balances ! data may be sized differently in x and y from the global fields. ! fields may be written with or without a time dimension. data ! should be defined with the routine defvar and written with putvar. ! if no time dimension, then data is only written once per file. ! make sure the it, iu, ib, and ic arrays and are defining the ! correct dimensions. ln may also need to be recalculated. ! inputs: ! fname = file name ! ids, ide ... = start and end index for data domain ! imt, jmt ... = global array dimensions ! xt, yt ... = global axes ! dxt, dyt ... = grid widths ! avgper = length of averaging period ! time = time in years ! tbt, ... = data to be written ! local variables ! igs, ige, jgs, jge = global write domain start and end indicies ! ig, jg = global write domain size ! ils, ile, jls, jle = local domain start and end indicies ! it = t grid axis definitions (x,y,t default) ! iu = u grid axis definitions (x,y,t default) ! is = start for write on each axis (x,y,t default) ! ic = count for write on each axis (x,y,t default) ! id_... = id's for axis (used for it, iu or defvar) ! iou = io unit (ncid) ! ln = length of data to be written !======================================================================= implicit none integer iou, j, ln, n, ntrec, imt, jmt, km, nt, ids, ide integer jds, jde, igs, ige, ig, jgs, jge, jg, kgs, kge, kg integer ils, ile, jls, jle, kls, kle, lls, lle, ib(10) integer ic(10), kmt(ids:ide,jds:jde), mskhr(ids:ide,jds:jde) integer nyear, nmonth, nday, nhour, nmin, nsec character(*) :: fname, stamp character(3) :: a3 character(10) :: mapt(nt) real xt(imt), xu(imt), yt(jmt), yu(jmt), zt(km), zw(km), avgper real dxt(imt), dxu(imt), dyt(jmt), dyu(jmt), dzt(km), dzw(km) real tbt(ids:ide,jds:jde,km,nt,11), stf(ids:ide,jds:jde,nt) real tlat(ids:ide,jds:jde), tlon(ids:ide,jds:jde) real ulat(ids:ide,jds:jde), ulon(ids:ide,jds:jde) real tm(ids:ide,jds:jde,km), um(ids:ide,jds:jde,km) real time, tmp, xt_e(imt+1), xu_e(imt+1), yt_e(jmt+1) real yu_e(jmt+1), zt_e(km+1), zw_e(km+1), c0, c1, c10, c100 real c1e3, c1e4, c1e5, c1e6, p1, p001, p035, cal2J real, allocatable :: tmpij(:,:), tmpijm(:,:) real, allocatable :: tmpijk(:,:,:), tmpijkm(:,:,:) real, allocatable :: tmpijl(:,:,:), tmpijlm(:,:,:) real, allocatable :: tmpi(:), tmpj(:), tmpk(:), tmpl(:) real, allocatable :: tmpie(:), tmpje(:), tmpke(:), tmple(:) c0 = 0. c1 = 1. c10 = 10. c100 = 100. c1e3 = 1.e3 c1e4 = 1.e4 c1e5 = 1.e5 c1e6 = 1.e6 p1 = 0.1 p001 = 0.001 p035 = 0.035 cal2J = 2.389e-05 !----------------------------------------------------------------------- ! open file and get latest record number !----------------------------------------------------------------------- call opennext (fname, time, ntrec, iou) if (ntrec .le. 0) ntrec = 1 !----------------------------------------------------------------------- ! global write domain size (may be less than global domain) !----------------------------------------------------------------------- igs = 1 ige = imt if (xt(1) + 360. lt. xt(imt)) then ! assume cyclic boundary igs = 2 ige = imt-1 endif ig = ige-igs+1 jgs = 1 jge = jmt do j=2,jmt if (yt(j-1) .lt. -90. .and. yt(j) .gt. -90.) jgs = j if (yt(j-1) .lt. 90. .and. yt(j) .gt. 90.) jge = j-1 enddo jg = jge-jgs+1 kgs = 1 kge = km kg = kge-kgs+1 !----------------------------------------------------------------------- ! local domain size (minimum of data domain and global write domain) !----------------------------------------------------------------------- ils = max(ids,igs) ile = min(ide,ige) jls = max(jds,jgs) jle = min(jde,jge) kls = max(1,kgs) kle = min(km,kge) allocate ( tmpij(ils:ile,jls:jle) ) allocate ( tmpijm(ils:ile,jls:jle) ) allocate ( tmpijk(ils:ile,jls:jle,kls:kle) ) allocate ( tmpijkm(ils:ile,jls:jle,kls:kle) ) !----------------------------------------------------------------------- ! write 1d data (t) !----------------------------------------------------------------------- call putvars ('time', iou, ntrec, time, c1, c0) call rdstmp (stamp, nyear, nmonth, nday, nhour, nmin, nsec) call putvars ('T_avgper', iou, ntrec, avgper, c1, c0) if (ntrec .eq. 1) then !----------------------------------------------------------------------- ! write 1d data (x, y or z) !----------------------------------------------------------------------- allocate ( tmpi(igs:ige) ) allocate ( tmpj(jgs:jge) ) allocate ( tmpk(kgs:kge) ) allocate ( tmpie(igs:ige+1) ) allocate ( tmpje(jgs:jge+1) ) allocate ( tmpke(kgs:kge+1) ) ib(1) = 1 ic(1) = ig tmpi(igs:ige) = xt(igs:ige) call putvara ('longitude', iou, ig, ib, ic, tmpi, c1, c0) tmpi(igs:ige) = dxt(igs:ige) call putvara ('G_dxt', iou, ig, ib, ic, tmpi, c100, c0) tmpi(igs:ige) = xu(igs:ige) call putvara ('longitude_V', iou, ig, ib, ic, tmpi, c1, c0) tmpi(igs:ige) = dxu(igs:ige) call putvara ('G_dxu', iou, ig, ib, ic, tmpi, c100, c0) ic(1) = jg tmpj(jgs:jge) = yt(jgs:jge) call putvara ('latitude', iou, jg, ib, ic, tmpj, c1, c0) tmpj(jgs:jge) = dyt(jgs:jge) call putvara ('G_dyt', iou, jg, ib, ic, tmpj, c100, c0) tmpj(jgs:jge) = yu(jgs:jge) call putvara ('latitude_V', iou, jg, ib, ic, tmpj, c1, c0) tmpj(jgs:jge) = dyu(jgs:jge) call putvara ('G_dyu', iou, jg, ib, ic, tmpj, c100, c0) ic(1) = kg tmpk(kgs:kge) = zt(kgs:kge) call putvara ('depth', iou, kg, ib, ic, tmpk, c100, c0) tmpk(kgs:kge) = dzt(kgs:kge) call putvara ('G_dzt', iou, kg, ib, ic, tmpk, c100, c0) tmpk(kgs:kge) = zw(kgs:kge) call putvara ('depth_W', iou, kg, ib, ic, tmpk, c100, c0) ic(1) = ig + 1 call edge_maker (1, xt_e, xt, dxt, xu, dxu, imt) tmpie(igs:ige+1) = xt_e(igs:ige+1) call putvara ('longitude_edges', iou, ig+1, ib, ic, tmpie &, c1, c0) call edge_maker (2, xu_e, xt, dxt, xu, dxu, imt) tmpie(igs:ige+1) = xu_e(igs:ige+1) call putvara ('longitude_V_edges', iou, ig+1, ib, ic, tmpie &, c1, c0) ic(1) = jg + 1 call edge_maker (1, yt_e, yt, dyt, yu, dyu, jmt) tmpje(jgs:jge+1) = yt_e(jgs:jge+1) call putvara ('latitude_edges', iou, jg+1, ib, ic, tmpje &, c1, c0) call edge_maker (2, yu_e, yt, dyt, yu, dyu, jmt) tmpje(jgs:jge+1) = yu_e(jgs:jge+1) call putvara ('latitude_V_edges', iou, jg+1, ib, ic, tmpje &, c1, c0) ic(1) = kg + 1 call edge_maker (1, zt_e, zt, dzt, zw, dzw, km) tmpke(kgs:kge+1) = zt_e(kgs:kge+1) call putvara ('depth_edges', iou, kg+1, ib, ic, tmpke &, c100, c0) call edge_maker (2, zw_e, zt, dzt, zw, dzw, km) tmpke(kgs:kge+1) = zw_e(kgs:kge+1) call putvara ('depth_W_edges', iou, kg+1, ib, ic, tmpke &, c100, c0) deallocate ( tmpi ) deallocate ( tmpj ) deallocate ( tmpk ) deallocate ( tmpie ) deallocate ( tmpje ) deallocate ( tmpke ) !----------------------------------------------------------------------- ! write 2d data (x,y) !----------------------------------------------------------------------- ib(1) = ils-igs+1 ic(1) = ile-ils+1 ib(2) = jls-jgs+1 ic(2) = jle-jls+1 ln = ic(1)*ic(2) tmpij(ils:ile,jls:jle) = kmt(ils:ile,jls:jle) call putvara ('G_kmt', iou, ln, ib, ic, tmpij, c1, c0) tmpij(ils:ile,jls:jle) = mskhr(ils:ile,jls:jle) call putvara ('G_mskhr', iou, ln, ib, ic, tmpij, c1, c0) tmpij(ils:ile,jls:jle) = tlat(ils:ile,jls:jle) call putvara ('G_latT', iou, ln, ib, ic, tmpij, c1, c0) tmpij(ils:ile,jls:jle) = tlon(ils:ile,jls:jle) call putvara ('G_lonT', iou, ln, ib, ic, tmpij, c1, c0) tmpij(ils:ile,jls:jle) = ulat(ils:ile,jls:jle) call putvara ('G_latU', iou, ln, ib, ic, tmpij, c1, c0) tmpij(ils:ile,jls:jle) = ulon(ils:ile,jls:jle) call putvara ('G_lonU', iou, ln, ib, ic, tmpij, c1, c0) endif !----------------------------------------------------------------------- ! write 3d data (x,y,t) !----------------------------------------------------------------------- ib(1) = ils-igs+1 ic(1) = ile-ils+1 ib(2) = jls-jgs+1 ic(2) = jle-jls+1 ib(3) = ntrec ic(3) = 1 ln = ic(1)*ic(2)*ic(3) tmpijm(ils:ile,jls:jle) = tm(ils:ile,jls:jle,1) do n=1,nt if (n .lt. 1000) write(a3, '(i3)') n if (n .lt. 100) write(a3, '(i2)') n if (n .lt. 10) write(a3, '(i1)') n tmpij(ils:ile,jls:jle) = stf(ils:ile,jls:jle,n) call putvaramsk('F_flux_'//trim(a3), iou, ln, ib, ic, tmpij &, tmpijm, c1, c0) enddo !----------------------------------------------------------------------- ! write 4d data (x,y,z,t) !----------------------------------------------------------------------- ib(1) = ils-igs+1 ic(1) = ile-ils+1 ib(2) = jls-jgs+1 ic(2) = jle-jls+1 ib(3) = kls-kgs+1 ic(3) = kle-kls+1 ib(4) = ntrec ic(4) = 1 ln = ic(1)*ic(2)*ic(3)*ic(4) tmpijkm(ils:ile,jls:jle,kls:kle) = tm(ils:ile,jls:jle,kls:kle) do n=1,nt if (n .lt. 1000) write(a3, '(i3)') n if (n .lt. 100) write(a3, '(i2)') n if (n .lt. 10) write(a3, '(i1)') n tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,1) call putvaramsk('O_dt_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,2) call putvaramsk('O_advX_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,3) call putvaramsk('O_advY_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,4) call putvaramsk('O_advZ_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,5) call putvaramsk('O_diffX_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,6) call putvaramsk('O_diffY_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,7) call putvaramsk('O_diffZ_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) # if defined O_source_term || defined O_npzd || defined O_carbon_14 tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,8) call putvaramsk('O_source_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) # endif tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,9) call putvaramsk('O_convect_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) # if defined O_fourfil || defined O_firfil tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,10) call putvaramsk('O_filter_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) # endif tmpijk(ils:ile,jls:jle,kls:kle) = & tbt(ils:ile,jls:jle,kls:kle,n,11) call putvaramsk('O_tracer_'//trim(a3), iou, ln, ib, ic, tmpijk &, tmpijkm, c1, c0) enddo deallocate (tmpij) deallocate (tmpijm) deallocate (tmpijk) deallocate (tmpijkm) #endif return end