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GEOS-Chem-adjoint-v35-note/code/modified/dao_mod.f
Xuesong (Steve) cffebb9cd6 Add files via upload
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! $Id: dao_mod.f,v 1.4 2012/03/01 22:00:26 daven Exp $
MODULE DAO_MOD
!
!******************************************************************************
! Module DAO_MOD contains both arrays that hold DAO met fields, as well as
! subroutines that compute, interpolate, or otherwise process DAO met field
! data. (bmy, 6/27/00, 6/11/08)
!
! Module Variables:
! ============================================================================
! (1 ) ALBD1 (REAL*8 ) : Sfc albedo at start of 6h step [unitless]
! (2 ) ALBD2 (REAL*8 ) : Sfc albedo at end of 6h step [unitless]
! (3 ) ALBD (REAL*8 ) : Interpolated surface albedo [unitless]
! (4 ) LWI (REAL*8 ) : Land-Water flags [unitless]
! (5 ) PS1 (REAL*8 ) : Sfc pressure at start of 6h step [hPa]
! (6 ) PS2 (REAL*8 ) : Sfc pressure at end of 6h step [hPa]
! (7 ) PSC2 (REAL*8 ) : Sfc pressure at end of dyn step [hPa]
! (8 ) SLP (REAL*8 ) : Sea level pressure (GEOS-3) [hPa]
! (9 ) SPHU1 (REAL*8 ) : Spec. Humidity at start of 6h step [g H2O/kg air]
! (10) SPHU2 (REAL*8 ) : Spec. Humidity at end of 6h step [g H2O/kg air]
! (11) SPHU (REAL*8 ) : Interpolated specific humidity [g H2O/kg air]
! (12) TMPU1 (REAL*8 ) : Temperature at start of 6h step [K]
! (13) TMPU2 (REAL*8 ) : Temperature at end of 6h step [K]
! (14) T (REAL*8 ) : Interpolated temperature [K]
! (15) TROPP1 (REAL*8 ) : Tropopause pressure at start [hPa]
! (16) TROPP2 (REAL*8 ) : Tropopause pressure at end of step [hPa]
! (17) TROPP (REAL*8 ) : Interpolated tropopause pressure [hPa]
! (18) UWND1 (REAL*8 ) : Zonal wind at start of 6h step [m/s]
! (19) UWND2 (REAL*8 ) : Zonal wind at end of 6h step [m/s]
! (20) UWND (REAL*8 ) : Interpolated zonal wind [m/s]
! (21) VWND1 (REAL*8 ) : Meridional wind at start of 6h step [m/s]
! (22) VWND2 (REAL*8 ) : Meridional wind at end of 6h step [m/s]
! (23) VWND (REAL*8 ) : Interpolated meridional wind [m/s]
! (24) CLDTOPS (INTEGER) : Cloud top height level [unitless]
! (25) CLDMAS (REAL*8 ) : Cloud mass flux [kg/m2/600s]
! (26) DTRAIN (REAL*8 ) : Cloud detrainment [kg/m2/600s]
! (27) HKBETA (REAL*8 ) : GEOS-4 Hack overshoot parameter [unitless]
! (28) HKETA (REAL*8 ) : GEOS-4 Hack convective mass flux [kg/m2/s]
! (29) MOISTQ (REAL*8 ) : Tendency of SPHU field [g H2O/kg air/day]
! (30) CLMOSW (REAL*8 ) : GEOS-1 max overlap cloud fraction [unitless]
! (31) CLROSW (REAL*8 ) : GEOS-1 random overlap cloud frac. [unitless]
! (32) CLDF (REAL*8 ) : Total 3-D cloud fraction [unitless]
! (33) OPTDEP (REAL*8 ) : GEOS-3 grid box optical depth [unitless]
! (34) OPTD (REAL*8 ) : Grid box optical depth (all grids) [unitless]
! (35) ZMEU (REAL*8 ) : GEOS-4 Z&M updraft entrainment [Pa/s]
! (36) ZMMD (REAL*8 ) : GEOS-4 Z&M downdraft mass flux [Pa/s]
! (37) ZMMU (REAL*8 ) : GEOS-4 Z&M updraft mass flux [Pa/s]
! (38) GWETTOP (REAL*8 ) : GEOS-4 topsoil wetness
! (39) HFLUX (REAL*8 ) : Sensible heat flux [W/m2]
! (40) PARDF (REAL*8 ) : Photosyn active diffuse radiation [W/m2]
! (41) PARDR (REAL*8 ) : Photosyn active direct radiation [W/m2]
! (42) PBL (REAL*8 ) : Mixed layer depth [hPa]
! (43) PREACC (REAL*8 ) : Total precip at the ground [mm H2O/day]
! (44) PRECON (REAL*8 ) : Convective precip at the ground [mm H2O/day]
! (45) RADLWG (REAL*8 ) : Net upward LW rad at the ground [W/m2]
! (46) RADSWG (REAL*8 ) : Net downward SW rad at the ground [W/m2]
! (47) SNOW (REAL*8 ) : Snow cover (H2O equivalent) [mm H2O]
! (48) TS (REAL*8 ) : Surface air temperature [K]
! (49) TSKIN (REAL*8 ) : Surface ground/sea surface temp [K]
! (50) U10M (REAL*8 ) : Zonal wind at 10 m altitude [m/s]
! (51) USTAR (REAL*8 ) : Friction velocity [m/s]
! (52) V10M (REAL*8 ) : Meridional wind at 10 m altitude [m/s]
! (53) Z0 (REAL*8 ) : Roughness height [m]
! (52) DETRAINE (REAL*8) : Detrainment flux (entr. plume)
! (53) DETRAINN (REAL*8) : Detrainment flux (non-entr. plume)
! (54) DNDE (REAL*8) : Downdraft (entraining plume)
! (55) DNDN (REAL*8) : Downdraft (non-entraining plume)
! (56) ENTRAIN (REAL*8) : Entrainment flux
! (57) LWI_GISS (REAL*8) : Fraction of land cover
! (58) MOLENGTH (REAL*8) : Monin-Obhukov length
! (59) OICE (REAL*8) : Ocean ice ??
! (60) SNICE (REAL*8) : Snow ice ??
! (61) UPDE (REAL*8) : Updraft (entraining plume)
! (62) UPDN (REAL*8) : Updraft (non-entraining plume)
! (63) AD (REAL*8 ) : Dry air mass [kg]
! (64) AIRVOL (REAL*8 ) : Volume of air in grid box [m3]
! (65) AIRDEN (REAL*8 ) : Density of air in grid box [kg/m3]
! (66) AVGW (REAL*8 ) : Mixing ratio of water vapor [v/v]
! (67) BXHEIGHT (REAL*8 ) : Grid box height [m]
! (68) DELP (REAL*8 ) : Pressure thickness of grid box [hPa]
! (69) OBK (REAL*8 ) : Monin-Obhukov length [m]
! (70) RH (REAL*8 ) : Relative humidity [%]
! (71) SUNCOS (REAL*8 ) : COSINE( solar zenith angle ) [unitless]
! (72) SUNCOSB (REAL*8 ) : COSINE( SZA ) at next chem time [unitless]
!
! Module Routines:
! ============================================================================
! (1 ) AVGPOLE : computes average pressure for polar boxes
! (2 ) AIRQNT : computes air mass and related quantities
! (3 ) INTERP : interpolates I-6 fields to current timestep
! (4 ) IS_LAND : returns TRUE if (I,J) is a surface land box
! (5 ) IS_WATER : returns TRUE if (I,J) is a surface water box
! (6 ) MAKE_AVGW : computes AVGW [mixing ratio of H2O] from SPHU
! (7 ) MAKE_RH : computes relative humidity from SPHU and T
! (8 ) MAKE_WIND10M : makes the 10 m wind for GEOS-STRAT
! (9 ) MOLENGTH : computes the Monin-Obhukov length
! (10) COSSZA : computes the cosine of the solar zenith angle
! (11) CONVERT_UNITS : Converts STT tracer array to/from [kg] and [v/v]
! (12) COPY_I6_FIELDS : Copies I-6 fields from one 6-hr timestep to the next
! (13) INIT_DAO : allocates memory for all met field arrays
! (14) CLEANUP_DAO : deallocates memory for all met field arrays
!
! GEOS-CHEM modules referenced by dao_mod.f
! ============================================================================
! (1 ) diag_mod.f : Module containing GEOS-CHEM diagnostic arrays
! (2 ) error_mod.f : Module containing I/O error and NaN check routines
! (3 ) grid_mod.f : Module containing horizontal grid information
! (4 ) pressure_mod.f : Module containing routines to compute P(I,J,L)
! (5 ) time_mod.f : Module containing routines to compute date & time
!
! NOTES:
! (1 ) Added sea level pressure (SLP) met field for GEOS-3 (bmy, 10/10/00)
! (2 ) Moved MAKE_QQ to "wetscav_mod.f" (bmy, 10/12/00)
! (3 ) Now get LWI from ALBEDO for GEOS-3 in routines IS_LAND and
! IS_WATER (bmy, 4/4/01)
! (4 ) Define OPTDEP allocatable array for GEOS-3 -- this is the grid
! box optical depth and is now stored as a met field (bmy, 8/15/01)
! (5 ) Updated comments (bmy, 9/4/01)
! (6 ) Now make AVGW an allocatable module array. Also replace obsolete
! parameters {IJL}GCMPAR with IIPAR,JJPAR,LLPAR. (bmy, 9/27/01)
! (7 ) Remove arguments LMAKEPW, PW, and LM from AIRQNT (bmy, 10/3/01)
! (8 ) Remove obsolete code from 9/01 (bmy, 10/23/01)
! (9 ) Bug fixes in IS_LAND and IS_WATER. Also cosmetic changes and
! updated some comments. (mje, bmy, 1/9/02)
! (10) Now add additional array PSC2 in order to pass to TPCORE, which will
! fix the mixing ratio bug. Compute PSC2 in subroutine INTERP.
! Now bundle "convert_units.f" into "dao_mod.f". Updated comments.
! (bmy, 3/27/02)
! (11) Updated comments (bmy, 5/28/02)
! (12) Replaced all instances of IM with IIPAR and JM with JJPAR, in order
! to prevent namespace confusion for the new TPCORE (bmy, 6/25/02)
! (13) Eliminated PS, PSC arrays. Now reference "pressure_mod.f". Also
! updated AIRQNT for hybrid grid. Added routine MAKE_RH to this
! module. (dsa, bdf, bmy, 8/27/02)
! (14) Added arrays AD, BXHEIGHT, and T to "dao_mod.f". Also removed
! obsolete code from 8/02 from several module routines. Now
! references "error_mod.f". Remove all references to QQ, it is now
! declared in "wetscav_mod.f". (bmy, 11/8/02)
! (15) Now references "grid_mod.f". Also added PHIS field, which was
! formerly stored as PALTD in "CMN". Added bug fix in routine
! AVGPOLE for 1x1 nested grid. (bmy, 3/11/03)
! (16) Added SUNCOSB array for SMVGEAR II. Also removed KZZ array, since
! that is now obsolete. (bmy, 4/28/03)
! (17) Now moved MAKE_CLDFRC into "a6_read_mod.f". Added HKBETA, HKETA,
! TSKIN, GWETTOP, ZMEU, ZMMD, ZMMU, PARDF, PARDR fields for
! GEOS-4/fvDAS. (bmy, 6/25/03)
! (18) Added CLDFRC, RADSWG, RADLWG, SNOW arrays (bmy, 12/9/03)
! (19) Added routine COPY_I6_FIELDS w/ parallel DO-loops (bmy, 4/13/04)
! (20) Now also allocate AVGW for offline aerosol simulation (bmy, 9/28/04)
! (21) AVGPOLE now uses NESTED_CH and NESTED_NA cpp switches (bmy, 12/1/04)
! (22) Now modified for GEOS-5 and GCAP met fields (swu, bmy, 5/25/05)
! (23) Now allocate SNOW and GWET for GCAP (bmy, 8/17/05)
! (24) Now also add TSKIN for GEOS-3 (tmf, bmy, 10/20/05)
! (25) Modifications for near-land formulation (ltm, bmy, 5/16/06)
! (26) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
! (27) Modified for variable tropopause (phs, bdf, 9/14/06)
! (28) Add in extra fields for GEOS-5. Updated COSSZA. Now cap var trop
! at 200hPa near poles in INTERP (bmy, phs, 9/18/07)
! (29) Bug fix in INIT_DAO for CMFMC array (bmy, jaf, 6/11/08)
! (30) Add fractions of land and water, FRLAND, FROCEAN, FRLANDIC, FRLAKE
! for methane (kjw, 8/18/09, adj32_023)
!******************************************************************************
!
IMPLICIT NONE
!=================================================================
! MODULE VARIABLES
!=================================================================
! Arrays
! REAL*8, ALLOCATABLE :: AD(:,:,:)
! REAL*8, ALLOCATABLE :: AIRDEN(:,:,:)
! REAL*8, ALLOCATABLE :: AIRVOL(:,:,:)
REAL*8, ALLOCATABLE, TARGET :: AD(:,:,:)
REAL*8, ALLOCATABLE, TARGET :: AIRDEN(:,:,:)
REAL*8, ALLOCATABLE, TARGET :: AIRVOL(:,:,:)
REAL*8, ALLOCATABLE :: ALBD1(:,:)
REAL*8, ALLOCATABLE :: ALBD2(:,:)
REAL*8, ALLOCATABLE :: ALBD (:,:)
REAL*8, ALLOCATABLE :: AVGW(:,:,:)
! REAL*8, ALLOCATABLE :: BXHEIGHT(:,:,:)
REAL*8, ALLOCATABLE, TARGET :: BXHEIGHT(:,:,:)
INTEGER, ALLOCATABLE :: CLDTOPS(:,:)
REAL*8, ALLOCATABLE :: CLDF(:,:,:)
REAL*8, ALLOCATABLE :: CLDMAS(:,:,:)
REAL*8, ALLOCATABLE :: CLDFRC(:,:)
! REAL*8, ALLOCATABLE :: CMFMC(:,:,:)
REAL*8, ALLOCATABLE, TARGET :: CMFMC(:,:,:)
REAL*8, ALLOCATABLE :: DELP(:,:,:)
REAL*8, ALLOCATABLE :: DETRAINE(:,:,:)
REAL*8, ALLOCATABLE :: DETRAINN(:,:,:)
REAL*8, ALLOCATABLE :: DNDE(:,:,:)
REAL*8, ALLOCATABLE :: DNDN(:,:,:)
REAL*8, ALLOCATABLE :: DQIDTMST(:,:,:)
REAL*8, ALLOCATABLE :: DQLDTMST(:,:,:)
REAL*8, ALLOCATABLE :: DQRCON(:,:,:)
REAL*8, ALLOCATABLE :: DQRLSC(:,:,:)
REAL*8, ALLOCATABLE :: DQVDTMST(:,:,:)
! REAL*8, ALLOCATABLE :: DTRAIN(:,:,:)
REAL*8, ALLOCATABLE, TARGET :: DTRAIN(:,:,:)
REAL*8, ALLOCATABLE :: ENTRAIN(:,:,:)
REAL*8, ALLOCATABLE :: EVAP(:,:)
REAL*8, ALLOCATABLE :: FRLAND(:,:)
REAL*8, ALLOCATABLE :: FROCEAN(:,:)
REAL*8, ALLOCATABLE :: FRLANDIC(:,:)
REAL*8, ALLOCATABLE :: FRLAKE(:,:)
REAL*8, ALLOCATABLE :: GRN(:,:)
REAL*8, ALLOCATABLE :: GWETROOT(:,:)
REAL*8, ALLOCATABLE :: GWETTOP(:,:)
REAL*8, ALLOCATABLE :: HFLUX(:,:)
REAL*8, ALLOCATABLE :: HKBETA(:,:,:)
REAL*8, ALLOCATABLE :: HKETA(:,:,:)
REAL*8, ALLOCATABLE :: LAI(:,:)
REAL*8, ALLOCATABLE :: LWI_GISS(:,:)
REAL*8, ALLOCATABLE :: LWI(:,:)
REAL*8, ALLOCATABLE :: MFXC(:,:,:)
REAL*8, ALLOCATABLE :: MFYC(:,:,:)
REAL*8, ALLOCATABLE :: MFZ(:,:,:)
REAL*8, ALLOCATABLE :: MOISTQ(:,:,:)
REAL*8, ALLOCATABLE :: MOLENGTH(:,:)
REAL*8, ALLOCATABLE :: OICE(:,:)
REAL*8, ALLOCATABLE :: OPTDEP(:,:,:)
REAL*8, ALLOCATABLE :: OPTD(:,:,:)
REAL*8, ALLOCATABLE :: PARDF(:,:)
REAL*8, ALLOCATABLE :: PARDR(:,:)
REAL*8, ALLOCATABLE :: PBL(:,:)
REAL*8, ALLOCATABLE :: PHIS(:,:)
REAL*8, ALLOCATABLE :: PREACC(:,:)
REAL*8, ALLOCATABLE :: PRECON(:,:)
REAL*8, ALLOCATABLE :: PRECSNO(:,:)
REAL*8, ALLOCATABLE :: PS1(:,:)
REAL*8, ALLOCATABLE :: PS2(:,:)
REAL*8, ALLOCATABLE :: PSC2(:,:)
REAL*8, ALLOCATABLE :: PV(:,:,:)
REAL*8, ALLOCATABLE :: QI(:,:,:)
REAL*8, ALLOCATABLE :: QL(:,:,:)
REAL*8, ALLOCATABLE :: RADLWG(:,:)
REAL*8, ALLOCATABLE :: RADSWG(:,:)
REAL*8, ALLOCATABLE :: RH(:,:,:)
REAL*8, ALLOCATABLE :: SLP(:,:)
REAL*8, ALLOCATABLE :: SNICE(:,:)
REAL*8, ALLOCATABLE :: SNODP(:,:)
REAL*8, ALLOCATABLE :: SNOMAS(:,:)
REAL*8, ALLOCATABLE :: SNOW(:,:)
REAL*8, ALLOCATABLE :: SPHU1(:,:,:)
REAL*8, ALLOCATABLE :: SPHU2(:,:,:)
REAL*8, ALLOCATABLE :: SPHU (:,:,:)
REAL*8, ALLOCATABLE :: SUNCOS(:)
REAL*8, ALLOCATABLE :: SUNCOS_5hr(:)
REAL*8, ALLOCATABLE :: SUNCOSB(:)
! REAL*8, ALLOCATABLE :: T(:,:,:)
REAL*8, ALLOCATABLE, TARGET :: T(:,:,:)
REAL*8, ALLOCATABLE :: TAUCLI(:,:,:)
REAL*8, ALLOCATABLE :: TAUCLW(:,:,:)
REAL*8, ALLOCATABLE :: TO3(:,:)
REAL*8, ALLOCATABLE :: TTO3(:,:)
REAL*8, ALLOCATABLE :: TMPU1(:,:,:)
REAL*8, ALLOCATABLE :: TMPU2(:,:,:)
REAL*8, ALLOCATABLE :: TROPP1(:,:)
REAL*8, ALLOCATABLE :: TROPP2(:,:)
REAL*8, ALLOCATABLE :: TROPP(:,:)
REAL*8, ALLOCATABLE :: TS(:,:)
REAL*8, ALLOCATABLE :: TSKIN(:,:)
REAL*8, ALLOCATABLE :: U10M(:,:)
REAL*8, ALLOCATABLE :: UPDE(:,:,:)
REAL*8, ALLOCATABLE :: UPDN(:,:,:)
REAL*8, ALLOCATABLE :: USTAR(:,:)
REAL*8, ALLOCATABLE :: UWND1(:,:,:)
REAL*8, ALLOCATABLE :: UWND2(:,:,:)
REAL*8, ALLOCATABLE :: UWND(:,:,:)
REAL*8, ALLOCATABLE :: V10M(:,:)
REAL*8, ALLOCATABLE :: VWND1(:,:,:)
REAL*8, ALLOCATABLE :: VWND2(:,:,:)
REAL*8, ALLOCATABLE :: VWND(:,:,:)
REAL*8, ALLOCATABLE :: Z0(:,:)
REAL*8, ALLOCATABLE :: ZMEU(:,:,:)
REAL*8, ALLOCATABLE :: ZMMD(:,:,:)
REAL*8, ALLOCATABLE :: ZMMU(:,:,:)
! adj_group (dkh, 06/16/09)
REAL*8, ALLOCATABLE :: SLP_TMP(:,:)
REAL*8, ALLOCATABLE :: LWI_TMP(:,:)
REAL*8, ALLOCATABLE :: TO3_TMP(:,:)
REAL*8, ALLOCATABLE :: TTO3_TMP(:,:)
! (lzh, 04/10/2014) add geos_fp
REAL*8, ALLOCATABLE :: EFLUX (:,: )
REAL*8, ALLOCATABLE :: FRSEAICE (:,: )
REAL*8, ALLOCATABLE :: FRSNO (:,: )
REAL*8, ALLOCATABLE :: SEAICE00 (:,: )
REAL*8, ALLOCATABLE :: SEAICE10 (:,: )
REAL*8, ALLOCATABLE :: SEAICE20 (:,: )
REAL*8, ALLOCATABLE :: SEAICE30 (:,: )
REAL*8, ALLOCATABLE :: SEAICE40 (:,: )
REAL*8, ALLOCATABLE :: SEAICE50 (:,: )
REAL*8, ALLOCATABLE :: SEAICE60 (:,: )
REAL*8, ALLOCATABLE :: SEAICE70 (:,: )
REAL*8, ALLOCATABLE :: SEAICE80 (:,: )
REAL*8, ALLOCATABLE :: SEAICE90 (:,: )
REAL*8, ALLOCATABLE :: PREANV (:,: )
REAL*8, ALLOCATABLE :: PRELSC (:,: )
REAL*8, ALLOCATABLE, TARGET :: DQRCU (:,:,:)
REAL*8, ALLOCATABLE, TARGET :: DQRLSAN (:,:,:)
REAL*8, ALLOCATABLE, TARGET :: REEVAPCN (:,:,:)
REAL*8, ALLOCATABLE, TARGET :: REEVAPLS (:,:,:)
REAL*8, ALLOCATABLE, TARGET :: PFICU (:,:,:)
REAL*8, ALLOCATABLE, TARGET :: PFILSAN (:,:,:)
REAL*8, ALLOCATABLE, TARGET :: PFLCU (:,:,:)
REAL*8, ALLOCATABLE, TARGET :: PFLLSAN (:,:,:)
!=================================================================
! MODULE ROUTINES -- follow below the "CONTAINS" statement
!=================================================================
CONTAINS
!------------------------------------------------------------------------------
SUBROUTINE AVGPOLE( Z )
!
!******************************************************************************
! Subroutine AVGPOLE computes average quantity near polar caps, defined
! by (J = 1, 2) and (J = JJPAR-1, JJPAR). (bmy, 1/30/98, 12/1/04)
!
! Arguments as Input:
! ===========================================================================
! (1 ) Z (REAL*8) : Quantity to be averaged over the pole (usually PS)
!
! NOTES:
! (1 ) AVGPOLE is written in Fixed-Form Fortran 90. Use F90 syntax
! for declarations, etc (bmy, 4/14/99)
! (2 ) MAIN now passes the Harvard CTM variable for surface area of
! a gridbox, DXYP(JGLOB), to AVGPOLE. Use window offset
! J+J0 when accessing DXYP. Add JGLOB to the parameter list.
! (3 ) Added this routine to "dao_mod.f" (bmy, 6/27/00)
! (4 ) Updated comments (bmy, 4/4/01)
! (5 ) Now replaced DXYP(J) with routine GET_AREA_M2 of "grid_mod.f"
! Now also return immediately if GRID1x1 is selected. (bmy, 3/11/03)
! (6 ) Now use cpp switches NESTED_CH and NESTED_NA to denote nested
! grids...GRID1x1 can now also denote a global grid (bmy, 12/1/04)
!******************************************************************************
!
! References to F90 modules
USE GRID_MOD, ONLY : GET_AREA_M2
# include "CMN_SIZE"
! Arguments
REAL*8, INTENT(INOUT) :: Z(IIPAR,JJPAR)
! Local varaibles
INTEGER :: I, J
REAL*8 :: TOTAL_Z1, TOTAL_Z2, TOTAL_Z3, TOTAL_Z4
REAL*8 :: TOTAL_A1, TOTAL_A2, TOTAL_A3, TOTAL_A4
!=================================================================
! AVGPOLE begins here!
!=================================================================
!!!#if defined( GRID1x1 )
!!!#if defined( NESTED_CH ) || defined( NESTED_NA )
!! (lzh, 11/01/2014)
#if defined( GRID1x1 ) || defined( GRID05x0666 ) || defined( GRID025x03125 )
#if defined( NESTED_CH ) || defined( NESTED_NA ) || defined( NESTED_EU )
! NOTE: Only do this for 1x1 nested grids (bmy, 12/1/04)
! 1x1 window grid does not extend to poles
RETURN
#endif
#endif
TOTAL_Z1 = 0.
TOTAL_Z2 = 0.
TOTAL_Z3 = 0.
TOTAL_Z4 = 0.
TOTAL_A1 = 0.
TOTAL_A2 = 0.
TOTAL_A3 = 0.
TOTAL_A4 = 0.
DO I = 1, IIPAR
TOTAL_Z1 = TOTAL_Z1 + GET_AREA_M2( 1 ) * Z(I, 1)
TOTAL_Z2 = TOTAL_Z2 + GET_AREA_M2( 2 ) * Z(I, 2)
TOTAL_Z3 = TOTAL_Z3 + GET_AREA_M2( JJPAR-1 ) * Z(I,JJPAR-1)
TOTAL_Z4 = TOTAL_Z4 + GET_AREA_M2( JJPAR ) * Z(I,JJPAR )
TOTAL_A1 = TOTAL_A1 + GET_AREA_M2( 1 )
TOTAL_A2 = TOTAL_A2 + GET_AREA_M2( 2 )
TOTAL_A3 = TOTAL_A3 + GET_AREA_M2( JJPAR-1 )
TOTAL_A4 = TOTAL_A4 + GET_AREA_M2( JJPAR )
ENDDO
DO I = 1, IIPAR
Z(I, 1) = (TOTAL_Z1 + TOTAL_Z2) / (TOTAL_A1 + TOTAL_A2)
Z(I, 2) = Z(I,1)
Z(I,JJPAR-1) = (TOTAL_Z3 + TOTAL_Z4) / (TOTAL_A3 + TOTAL_A4)
Z(I,JJPAR ) = Z(I,JJPAR-1)
ENDDO
! Return to calling program
END SUBROUTINE AVGPOLE
!------------------------------------------------------------------------------
SUBROUTINE AIRQNT
!
!******************************************************************************
! Subroutine AIRQNT calculates the volume [m^3 and cm^3], mass [kg], density,
! [kg/m^3], and pressure thickness [hPa] of air for each grid box (I,J,L).
! The quantity (surface pressure - PTOP) [hPa] at each surface grid box (I,J)
! is also computed. (bmy, 1/30/98, 3/11/03)
!
! DAO met fields updated by AIRQNT:
! ========================================================================
! (1 ) BXHEIGHT (REAL*8 ) : Vertical extent of a grid box [m ]
! (2 ) DELP (REAL*8 ) : Delta-P extent of a grid box [mb ]
! (3 ) AIRVOL (REAL*8 ) : Volume of air in a grid box [m^3 ]
! (4 ) AD (REAL*8 ) : Mass of air in a grid box [kg ]
! (5 ) AIRDEN (REAL*8 ) : Density of air in a grid box [kg/m^3 ]
!
! NOTES:
! (1 ) AIRQNT is written in Fixed-Form Fortran 90. Use F90 syntax
! for declarations etc. (bmy, 4/14/99)
! (2 ) AIRQNT can now compute PW from PS (if LMAKEPW=T) or PS from PW.
! (3 ) AIRQNT should also be called after TPCORE, since TPCORE changes
! the PW values. AIRQNT must then be called to compute the post-TPCORE
! values of AD, BXHEIGHT, AIRVOL, and AIRDEN.
! (4 ) The AIRDEN and DELP arrays are now dimensioned as (LLPAR,IIPAR,JJPAR)
! for better efficiency when processing a whole (I,J) column layer by
! layer. In FORTRAN, the best efficiency is obtained when the leftmost
! array index corresponds to the innermost loop.
! (5 ) Remove PTOP from the arg list. PTOP is now a parameter in
! "CMN_SIZE". Also updated comments. (bmy, 2/22/00)
! (6 ) Replace IM, JM, LM with IIPAR, JJPAR, LLPAR as loop boundaries.
! This ensures that all quantities get defined up to the top of
! the atmosphere. (bmy, 6/15/00)
! (7 ) Added to "dao_mod.f" (bmy, 6/26/00)
! (8 ) Updated comments (bmy, 4/4/01)
! (9 ) P(IREF,JREF) is now P(I,J). T(IREF,JREF,L) is now T(I,J,L). Also
! removed LM from the arg list, it is obsolete. Also updated
! comments. (bmy, 9/26/01)
! (10) Remove PW -- it is now obsolete. Also make PW a local variable,
! we need to preserve the way it computes P so as to avoid numerical
! drift. (bmy, 10/4/01)
! (11) Removed obsolete code from 9/01 and 10/01 (bmy, 10/23/01)
! (12) Removed LMAKEPW from arg list. Added parallel DO loops (bmy, 11/15/01)
! (13) Removed obsolete code from 11/01 (bmy, 1/9/02)
! (14) Now rename G_SIGE to SIGE, and dimension it (1:LLPAR+1). Updated
! comments, cosmetic changes. (bmy, 4/4/02)
! (15) Removed obsolete, commented-out code (bmy, 6/25/02)
! (16) Removed PS, P, SIGE from the arg list for hybrid grid. Now reference
! routines GET_PEDGE and GET_BP from "pressure_mod.f". Removed
! obsolete, commented-out code. (dsa, bdf, bmy, 8/27/02)
! (17) Now only pass DXYP via the arg list -- the other arguments are actually
! are already contained within "dao_mod.f" (bmy, 11/15/02)
! (18) Now replace DXYP(JREF) with routine GET_AREA_M2 of "grid_mod.f".
! (bmy, 3/11/03)
! (19) Now move computation of DELP into main loop. Also remove P, LOGP,
! JREF, DSIG variables -- these are obsolete for fvDAS. (bmy, 6/19/03)
!******************************************************************************
!
! References to F90 modules
USE GRID_MOD, ONLY : GET_AREA_M2
USE PRESSURE_MOD, ONLY : GET_BP, GET_PEDGE
# include "CMN_SIZE" ! Size parameters
# include "CMN_GCTM" ! Physical constants
! Local variables
INTEGER :: I, J, L
REAL*8 :: P1, P2, AREA_M2
!=================================================================
! AIRQNT begins here!
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L, AREA_M2, P1, P2 )
DO L = 1, LLPAR
DO J = 1, JJPAR
! Grid box surface area [m2]
AREA_M2 = GET_AREA_M2( J )
DO I = 1, IIPAR
! Pressure at bottom edge of grid box [hPa]
P1 = GET_PEDGE(I,J,L)
! Pressure at top edge of grid box [hPa]
P2 = GET_PEDGE(I,J,L+1)
! Pressure difference between top & bottom edges [hPa]
DELP(L,I,J) = P1 - P2
!===========================================================
! BXHEIGHT is the height (Delta-Z) of grid box (I,J,L)
! in meters.
!
! The formula for BXHEIGHT is just the hydrostatic eqn.
! Rd = 287 J/K/kg is the value for the ideal gas constant
! R for air (M.W = 0.02897 kg/mol), or
! Rd = 8.31 J/(mol*K) / 0.02897 kg/mol.
!===========================================================
BXHEIGHT(I,J,L) = Rdg0 * T(I,J,L) * LOG( P1 / P2 )
!===========================================================
! AIRVOL is the volume of grid box (I,J,L) in meters^3
!
! AREA_M2 is the Delta-X * Delta-Y surface area of grid
! boxes (I,J,L=1), that is, at the earth's surface.
!
! Since the thickness of the atmosphere is much smaller
! than the radius of the earth, we can make the "thin
! atmosphere" approximation, namely:
!
! (Rearth + h) ~ Rearth
!
! Therefore, the Delta-X * Delta-Y surface area of grid
! boxes that are above the earth's surface will be
! approx. the same as AREA_M2. Thus we are justified
! in using AREA_M2 for grid boxes (I, J, L > 1)
!===========================================================
AIRVOL(I,J,L) = BXHEIGHT(I,J,L) * AREA_M2
!===========================================================
! AD = (dry) mass of air in grid box (I,J,L) in kg,
! given by:
!
! Mass Pressure 100 1 Surface area
! = difference * --- * --- * of grid box
! in grid box 1 g AREA_M2
!
! kg mb Pa s^2 m^2
! ---- = ---- * ---- * ----- * -----
! 1 1 mb m 1
!===========================================================
AD(I,J,L) = DELP(L,I,J) * G0_100 * AREA_M2
!===========================================================
! AIRDEN = density of air (AD / AIRVOL) in kg / m^3
!===========================================================
AIRDEN(L,I,J) = AD(I,J,L) / AIRVOL(I,J,L)
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
! Return to calling program
END SUBROUTINE AIRQNT
!------------------------------------------------------------------------------
SUBROUTINE INTERP( NTIME0, NTIME1, NTDT )
!
!******************************************************************************
! Subroutine INTERP linearly interpolates GEOS-CHEM I-6 fields (winds,
! surface pressure, temperature, surface albedo, specific humidity) to the
! current dynamic timestep. (bdf, bmy, 1/30/98, 9/18/07)
!
! Arguments as Input:
! ============================================================================
! (1 ) NTIME0 (INTEGER) : elapsed time [s] at the start of the 6-hr timestep.
! (2 ) NTIME1 (INTEGER) : elapsed time [s] at current time
! (3 ) NTDT (INTEGER) : length of dynamic timestep [s]
!
! NOTES:
! (1 ) INTERP is written in Fixed-Form Fortran 90.
! (2 ) Subtract PINT from PSC since the only subroutine that uses PSC
! is TPCORE. This prevents having to subtract and add PINT to PSC
! before and after each call of TPCORE.
! (3 ) Pass the Harvard CTM temperature variable T(IGCMPAR,JGCMPAR,LGCMPAR)
! to INTERP via the argument list (instead of including file CMN).
! It is computationally inefficient to keep two large arrays for
! the same quantity. Use the proper window offsets with T.
! (4 ) Added to "dao_mod.f" (bmy, 6/26/00)
! (5 ) Updated comments (bmy, 4/4/01)
! (6 ) Replaced {IJL}GCMPAR w/ IIPAR,JJPAR,LLPAR. Also now use parallel
! DO-loop for interpolation. Updated comments. (bmy, 9/26/01)
! (7 ) Removed obsolete code from 9/01 (bmy, 10/23/01)
! (8 ) Add PSC2 as the surface pressure at the end of the dynamic timestep.
! This needs to be passed to TPCORE and AIRQNT so that the mixing ratio
! can be converted to mass properly. Removed PINT from the arg list,
! since we don't need it anymore. Also updated comments and made
! some cosmetic changes. (bmy, 3/27/02)
! (9 ) Removed obsolete, commented-out code (bmy, 6/25/02)
! (10) Eliminated PS, PSC from the arg list, for floating-pressure fix.
! (dsa, bdf, bmy, 8/27/02)
! (11) Met field arrays are module variables, so we don't need to pass them
! as arguments. (bmy, 11/20/02)
! (12) Removed NDT from the arg list since that is always 21600. For GEOS-4
! met fields, only interpolate PSC2; the other fields are 6-h averages.
! Eliminate TC variable, it's obsolete. Now use double precision to
! compute TM and TC2 values. Renamed NTIME to NTIME1 and NTIME1 to
! NTIME0. Updated comments. (bmy, 6/19/03)
! (13) Now modified for GEOS-5 and GCAP met fields. (swu, bmy, 5/25/05)
! (14) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
! (15) Now interpolate TROPP, only if variable tropopause is used
! (phs, 9/12/06)
! (16) Don't interpolate TROPP for GEOS-5 (bmy, 1/17/07)
! (17) Now limit tropopause pressure to 200 mbar at latitudes above 60deg
! (phs, 9/18/07)
!******************************************************************************
!
! References to F90 modules
USE GRID_MOD, ONLY : GET_YEDGE
USE LOGICAL_MOD, ONLY : LVARTROP
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: NTIME0, NTIME1, NTDT
! Local variables
INTEGER :: I, J, L
REAL*8 :: D_NTIME0, D_NTIME1, D_NDT
REAL*8 :: D_NTDT, TM, TC2
REAL*8 :: YSOUTH, YNORTH
!=================================================================
! INTERP begins here!
!=================================================================
! Convert time variables from FLOAT to DBLE
D_NTIME0 = DBLE( NTIME0 )
D_NTIME1 = DBLE( NTIME1 )
D_NTDT = DBLE( NTDT )
! D_NDT = 21600d0
! (lzh, 04/20/2014)
#if defined( GEOS_FP )
D_NDT = 10800d0 ! For 3-hr instantaneous fields
#else
D_NDT = 21600d0 ! For 6-hr instantaneous fields
#endif
! Fraction of 6h timestep elapsed at mid point of this dyn timestep
TM = ( D_NTIME1 + D_NTDT/2d0 - D_NTIME0 ) / D_NDT
! Fraction of 6h timestep elapsed at the end of this dyn timestep
TC2 = ( D_NTIME1 + D_NTDT - D_NTIME0 ) / D_NDT
#if defined( GEOS_3 )
!=================================================================
! For GEOS-1, GEOS-S, GEOS-3 met fields:
! Interpolate PSC2, UWND, VWND, ALBD, T, SPHU
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
! 2D variables
IF ( L == 1 ) THEN
! Pressures: at start, midpt, and end of dyn timestep
PSC2(I,J) = PS1(I,J) + ( PS2(I,J) - PS1(I,J) ) * TC2
! Albedo: at midpt of dyn timestep
ALBD(I,J) = ALBD1(I,J) + ( ALBD2(I,J) - ALBD1(I,J) ) * TM
! Tropopause pressure at midpt
IF ( LVARTROP ) THEN
TROPP(I,J) = TROPP1(I,J)
& + ( TROPP2(I,J) - TROPP1(I,J) ) * TM
ENDIF
ENDIF
! 3D Variables: at midpt of dyn timestep
UWND(I,J,L) = UWND1(I,J,L) + (UWND2(I,J,L) - UWND1(I,J,L)) * TM
VWND(I,J,L) = VWND1(I,J,L) + (VWND2(I,J,L) - VWND1(I,J,L)) * TM
SPHU(I,J,L) = SPHU1(I,J,L) + (SPHU2(I,J,L) - SPHU1(I,J,L)) * TM
T(I,J,L) = TMPU1(I,J,L) + (TMPU2(I,J,L) - TMPU1(I,J,L)) * TM
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
#else
!=================================================================
! For GEOS-4, GEOS-5, GCAP met fields:
!
! (1) Interpolate PSC2 (pressure at end of dyn timestep)
! (2) Interpolate TROPP (GEOS-4, GCAP only)
! (3) Cap TROPP at 200 hPa in polar regions
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, YSOUTH, YNORTH )
DO J = 1, JJPAR
! North & south edges of box
YSOUTH = GET_YEDGE( J )
YNORTH = GET_YEDGE( J+1 )
DO I = 1, IIPAR
! Pressure at end of dynamic timestep [hPa]
PSC2(I,J) = PS1(I,J) + ( PS2(I,J) - PS1(I,J) ) * TC2
! Test if we are using the variable tropopause
IF ( LVARTROP ) THEN
#if !defined( GEOS_5 ) && !defined( GEOS_FP )
! GEOS-5 has 3-hr avg tropopause, so we don't need to
! interpolate it (only do this for GEOS-3, GEOS-4)
TROPP(I,J) = TROPP1(I,J)
& + ( TROPP2(I,J) - TROPP1(I,J) ) * TM
#endif
! However, we still need to make sure to cap TROPP in the
! polar regions (if the entire box is outside 60S-60N)
! so that we don't do chemistry at an abnormally high
! altitude. Set TROPP in the polar regions to 200 hPa.
! (jal, phs, bmy, 9/18/07)
IF ( YSOUTH >= 60d0 .or. YNORTH <= -60d0 ) THEN
TROPP(I,J) = MAX( TROPP(I,J), 200d0 )
ENDIF
ENDIF
ENDDO
ENDDO
!$OMP END PARALLEL DO
#endif
!!! (lzh, 04/09/2014)
#if defined( GEOS_FP )
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
! 3D Variables: at midpt of dyn timestep
SPHU(I,J,L) = SPHU1(I,J,L) + (SPHU2(I,J,L) - SPHU1(I,J,L)) * TM
T(I,J,L) = TMPU1(I,J,L) + (TMPU2(I,J,L) - TMPU1(I,J,L)) * TM
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
#endif
! Return to calling program
END SUBROUTINE INTERP
!------------------------------------------------------------------------------
FUNCTION IS_LAND( I, J ) RESULT ( LAND )
!
!******************************************************************************
! Function IS_LAND returns TRUE if surface grid box (I,J) is a land box.
! (bmy, 6/26/00, 8/4/06)
!
! Arguments as Input
! ===========================================================================
! (1-2) I, J : Longitude and latitude indices of the grid box
!
! NOTES:
! (1 ) Now use ALBEDO field to determine land or land ice boxes for GEOS-3.
! (bmy, 4/4/01)
! (2 ) For 4x5 data, regridded albedo field can cause small inaccuracies
! near the poles (bmy, 4/4/01)
! (3 ) Add references to CMN_SIZE and CMN, so that we can use the JYEAR
! variable to get the current year. Also, for 1998, we need to compute
! if is a land box or not from the surface albedo, since for this
! year the LWI/SURFTYPE field is not given. For other years than 1998,
! we use LWI(I,J) < 50 as our land box criterion. Deleted obsolete
! code and updated comments.(mje, bmy, 1/9/02)
! (4 ) Deleted GEOS-2 #ifdef statement. GEOS-2 met fields never really
! materialized, we use GEOS-3 instead. (bmy, 9/18/02)
! (5 ) Now uses function GET_YEAR from "time_mod.f". Removed reference
! to CMN header file. (bmy, 3/11/03)
! (6 ) Added code to determine land boxes for GEOS-4 (bmy, 6/18/03)
! (7 ) Now modified for GEOS-5 and GCAP met fields (swu, bmy, 5/25/05)
! (8 ) Now return TRUE only for land boxes (w/ no ice) (bmy, 8/10/05)
! (9 ) Now use NINT to round LWI for GEOS-4/GEOS-5 (ltm, bmy, 5/9/06)
! (10) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
!******************************************************************************
!
! References to F90 modules
USE TIME_MOD, ONLY : GET_YEAR
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: I, J
! Return variable
LOGICAL :: LAND
!=================================================================
! IS_LAND begins here!
!=================================================================
#if defined( GEOS_3 )
!---------------------
! GEOS-3
!---------------------
IF ( GET_YEAR() == 1998 ) THEN
! Fields for 1998 don't have LWI/SURFTYPE flags, so use albedo
! as a proxy for land coverage instead: 0.08 < ALBEDO < 0.55
LAND = ( ALBD(I,J) > 0.08d0 .and. ALBD(I,J) < 0.55d0 )
ELSE
! Otherwise LWI < 50 and ALBEDO less than 69.5% is a water box
LAND = ( LWI(I,J) < 50 .and. ALBD(I,J) < 0.695d0 )
ENDIF
#elif defined( GEOS_4 ) || defined( GEOS_5 ) || defined(GEOS_FP )
!---------------------
! GEOS-4 & GEOS-5
!---------------------
! LWI=1 and ALBEDO less than 69.5% is a LAND box
LAND = ( NINT( LWI(I,J) ) == 1 .and. ALBD(I,J) < 0.695d0 )
#elif defined( GCAP )
!-----------------------
! GCAP
!-----------------------
! It's a land box if 50% or more of the box is covered by
! land and less than 50% of the box is covered by ice
LAND = ( LWI_GISS(I,J) >= 0.5d0 .and. SNICE(I,J) < 0.5d0 )
#endif
! Return to calling program
END FUNCTION IS_LAND
!------------------------------------------------------------------------------
FUNCTION IS_WATER( I, J ) RESULT ( WATER )
!
!******************************************************************************
! Function IS_WATER returns TRUE if surface grid box (I,J) is an ocean
! or an ocean-ice box. (bmy, 6/26/00, 8/4/06)
!
! Arguments as Input
! ===========================================================================
! (1-2) I, J : Longitude and latitude indices of the grid box
!
! NOTES:
! (1 ) Now use ALBEDO field to determine water or water ice boxes for GEOS-3.
! (bmy, 4/4/01)
! (2 ) For 4x5 data, regridded albedo field can cause small inaccuracies
! near the poles (bmy, 4/4/01)
! (3 ) Add references to CMN_SIZE and CMN, so that we can use the JYEAR
! variable to get the current year. Also, for 1998, we need to compute
! if is an ocean box or not from the surface albedo, since for this
! year the LWI/SURFTYPE field is not given. For other years than 1998,
! we use LWI(I,J) >= 50 as our ocean box criterion. Deleted obsolete
! code and updated comments. (mje, bmy, 1/9/02)
! (4 ) Deleted GEOS-2 #ifdef statement. GEOS-2 met fields never really
! materialized, we use GEOS-3 instead. (bmy, 9/18/02)
! (5 ) Now uses function GET_YEAR from "time_mod.f". Removed reference
! to CMN header file. (bmy, 3/11/03)
! (6 ) Added code to determine water boxes for GEOS-4 (bmy, 6/18/03)
! (7 ) Now modified for GEOS-5 and GCAP met fields (swu, bmy, 5/25/05)
! (8 ) Now remove test for sea ice (bmy, 8/10/05)
! (9 ) Now use NINT to round LWI for GEOS-4/GEOS-5 (ltm, bmy, 5/9/06)
! (10) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
!******************************************************************************
!
! References to F90 modules
USE TIME_MOD, ONLY : GET_YEAR
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: I, J
! Return variable
LOGICAL :: WATER
!=================================================================
! IS_WATER begins here!
!=================================================================
#if defined( GEOS_3 )
!---------------------
! GEOS-3
!---------------------
IF ( GET_YEAR() == 1998 ) THEN
! 1998 fields don't have LWI/SURFTYPE flags, so use albedo as
! a proxy for water coverage: 55% < ALBEDO < 69.5%
WATER = ( ALBD(I,J) > 0.55d0 .and. ALBD(I,J) < 0.695d0 )
ELSE
! Otherwise LWI >= 50 and ALBEDO less than 69.5% is a water box
WATER = ( LWI(I,J) >= 50 .and. ALBD(I,J) < 0.695d0 )
ENDIF
#elif defined( GEOS_4 ) || defined( GEOS_5 ) || defined(GEOS_FP )
!----------------------
! GEOS-4 and GEOS-5
!----------------------
! LWI=0 and ALBEDO less than 69.5% is a water box
WATER = ( NINT( LWI(I,J) ) == 0 .and. ALBD(I,J) < 0.695d0 )
#elif defined( GCAP )
!-----------------------
! GCAP
!-----------------------
! It's a water box if less than 50% of the box is
! covered by land and less than 50% is covered by ice
WATER = ( LWI_GISS(I,J) < 0.5d0 .and. SNICE(I,J) < 0.5d0 )
#endif
! Return to calling program
END FUNCTION IS_WATER
!------------------------------------------------------------------------------
FUNCTION IS_ICE( I, J ) RESULT ( ICE )
!
!******************************************************************************
! Function IS_ICE returns TRUE if surface grid box (I,J) contains either
! land-ice or sea-ice. (bmy, 8/9/05, 8/4/06)
!
! Arguments as Input
! ===========================================================================
! (1-2) I, J : Longitude and latitude indices of the grid box
!
! NOTES:
! (1 ) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
!******************************************************************************
!
! References to F90 modules
USE TIME_MOD, ONLY : GET_YEAR
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: I, J
! Return variable
LOGICAL :: ICE
!=================================================================
! IS_WATER begins here!
!=================================================================
#if defined( GEOS_3 )
!---------------------
! GEOS-3
!---------------------
! Fields for 1998 don't have LWI/SURFTYPE flags, so use albedo
! as a proxy for water coverage instead: ALBEDO > 0.695
ICE = ( ALBD(I,J) >= 0.695d0 )
#elif defined( GEOS_4 ) || defined( GEOS_5 ) || defined(GEOS_FP )
!---------------------
! GEOS-4 & GEOS-5
!---------------------
! LWI=2 or ALBEDO > 69.5% is ice
ICE = ( NINT( LWI(I,J) ) == 2 .or. ALBD(I,J) >= 0.695d0 )
#elif defined( GCAP )
!-----------------------
! GCAP
!-----------------------
! It's an ice box if 50% or more of the box is covered by ice
ICE = ( SNICE(I,J) >= 0.5d0 )
#endif
! Return to calling program
END FUNCTION IS_ICE
!------------------------------------------------------------------------------
FUNCTION IS_NEAR( I, J, THRESH, NEIGHBOR ) RESULT ( NEAR )
!
!******************************************************************************
! Function IS_NEAR returns TRUE if surface grid box (I,J) contains any land
! above a certain threshold (THRESH) or any of the adjacent boxes up to
! NEIGHBOR boxes away contain land. (rch, ltm, bmy, 5/9/06, 8/4/06)
!
! Typical values for:
! GCAP : THRESH = 0.2, NEIGHBOR = 1
! GEOS-3 : THRESH = 80.0, NEIGHBOR = 1
! GEOS-4 : THRESH = 0.2, NEIGHBOR = 1
! GEOS-5 : THRESH = 0.2, NEIGHBOR = 1
!
! Arguments as Input:
! ============================================================================
! (1 ) I (INTEGER) : GEOS-Chem longitude index
! (2 ) J (INTEGER) : GEOS-Chem latitude index
! (3 ) THRESH (REAL*8 ) : LWI threshold for near-land
! (4 ) NEIGHBOR (INTEGER) : # of neighbor boxes on each side to consider
!
! NOTES:
! (1 ) Modified for GCAP and GEOS-3 met fields (bmy, 5/16/06)
! (2 ) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: I, J, NEIGHBOR
REAL*8, INTENT(IN) :: THRESH
! Return variable
LOGICAL :: NEAR
! Local variables
INTEGER :: NS, EW, LONGI, LATJ
!=================================================================
! IS_NEAR begins here!
!=================================================================
! Initialize
NEAR = .FALSE.
! Loop over neighbor lat positions
DO NS = -NEIGHBOR, NEIGHBOR
! Lat index of neighbor box
LATJ = J + NS
! Special handling near poles
IF ( LATJ < 1 .or. LATJ > JJPAR ) CYCLE
! Loop over neighbor lon positions
DO EW = -NEIGHBOR, NEIGHBOR
! Lon index of neighbor box
LONGI = I + EW
! Special handling near date line
IF ( LONGI < 1 ) LONGI = LONGI + IIPAR
IF ( LONGI > IIPAR ) LONGI = LONGI - IIPAR
! If it's an ice box, skip to next neighbor
IF ( IS_ICE( LONGI, LATJ ) ) CYCLE
#if defined( GCAP )
!---------------------------------------------------
! GCAP met fields
!
! LWI_GISS = 0.0 means that the box is all water
! LWI_GISS = 1.0 means that the box is all land
!
! with fractional values at land-water boundaries
!
! It's near-land if THRESH <= LWI_GISS <= 1.0
!---------------------------------------------------
IF ( LWI_GISS(LONGI,LATJ) > THRESH .and.
& LWI_GISS(LONGI,LATJ) <= 1.0d0 ) THEN
#elif defined( GEOS_3 )
!---------------------------------------------------
! GEOS-3 met fields
!
! LWI < 10 is land
! LWI = 101 is water
!
! with fractional values at land-water boundaries
!
! Therefore if you pick a threshold value such
! as 80, then everything with LWI < THRESH is
! sure to be a land box.
!
! It's near land if LWI < THRESH.
!---------------------------------------------------
IF ( LWI(LONGI,LATJ) < THRESH ) THEN
#elif defined( GEOS_4 ) || defined( GEOS_5 ) || defined(GEOS_FP )
!---------------------------------------------------
! GEOS-4 or GEOS-5 met fields
!
! LWI = 0.0 is ocean
! LWI = 1.0 is land
! LWI = 2.0 is ice
!
! with fractional values at land-water, land-ice,
! and water-ice boundaries.
!
! It's near-land if THRESH <= LWI <= 1.0
!---------------------------------------------------
IF ( LWI(LONGI,LATJ) > THRESH .and.
& LWI(LONGI,LATJ) <= 1d0 ) THEN
#endif
! We are in a near-land box
NEAR = .TRUE.
! Break out of loop
GOTO 999
ENDIF
ENDDO
ENDDO
! Exit
999 CONTINUE
! Return to calling program
END FUNCTION IS_NEAR
!------------------------------------------------------------------------------
SUBROUTINE MAKE_AVGW
!
!******************************************************************************
! Subroutine MAKE_AVGW converts DAO specific humidity SPHU to AVGW, which
! is the mixing ratio of water vapor. (bmy, 1/30/98, 11/15/02)
!
! NOTES:
! (1 ) AVGW was originally indexed by (L,I,J). Reorder the indexing to
! (I,J,L) to take advantage of the way FORTRAN stores by columns.
! An (L,I,J) ordering can lead to excessive disk swapping.
! (2 ) Now dimension AVGW as (IIPAR,JJPAR,LLPAR). Also use parallel
! DO-loop to compute AVGW. Updated comments. (bmy, 9/24/01)
! (3 ) Removed obsolete code from 9/01 (bmy, 10/23/01)
! (4 ) SPHU and AVGW are declared w/in "dao_mod.f", so we don't need to pass
! these as arguments anymore (bmy, 11/15/02)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
! Local Variables
INTEGER :: I, IREF, J, JREF, L
! Conversion factor
REAL*8, PARAMETER :: HCONV = 28.97d-3 / 18.0d0
!=================================================================
! MAKE_AVGW begins here!
!
! In the original Harvard/GISS/Irvine CTM subroutines,
! AVGW = log10( mixing ratio of water vapor ).
!
! In order to avoid costly log and exponentiation operations,
! redefine AVGW, so that AVGW is the actual mixing ratio of water
! vapor, and not the log10 of the mixing ratio.
!
! The conversion from SPHU [g H2O/kg air] to [v/v] mixing ratio is:
!
! g H2O | mol H2O | 28.97e-3 kg air mol H2O vol H2O
! ---------+----------+---------------- = --------- = ---------
! kg air | 18 g H2O | mol air mol air vol air
!
! thus AVGW (V/V) = SPHU (g/kg) * HCONV,
!
! where HCONV = the conversion factor ( 28.97e-3 / 18.0 ),
! which is defined as a parameter at the top of this routine.
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
AVGW(I,J,L) = HCONV * SPHU(I,J,L)
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
! Return to calling program
END SUBROUTINE MAKE_AVGW
!------------------------------------------------------------------------------
SUBROUTINE MAKE_RH
!
!******************************************************************************
! Subroutine MAKE_RH computes relative humidity from specific humidity and
! temperature. (bmy, 10/13/99, 9/18/02)
!
! Module variables used:
! ===========================================================================
! (1 ) SPHU (REAL*8) : Array containing 3-D specific humidity [g H2O/kg air]
! (2 ) TMPU (REAL*8) : Array containing 3-D temperature field [K]
! (3 ) RH (REAL*8) : Output array for relative humidity [%]
!
! NOTES:
! (1 ) Use F90 syntax for declarations, etc.
! (2 ) Cosmetic changes (bmy, 10/12/99)
! (3 ) Now use GET_PCENTER from "pressure_mod.f" to compute the pressure
! at the midpoint of grid box (I,J,L). Updated comments, cosmetic
! changes. Added parallel DO-loops. Remove reference to "CMN"
! header file. Added to "dao_mod.f" (dsa, bdf, bmy, 8/27/02)
! (4 ) Removed obsolete code from 8/02 (bmy, 9/18/02)
! (5 ) Now remove SPHU, TMPU, RH from the arg list, since these are now
! all contained w/in this dao_mod.f as module variables. (bmy, 9/23/02)
!******************************************************************************
!
! References to F90 modules
USE PRESSURE_MOD, ONLY : GET_PCENTER
IMPLICIT NONE
# include "CMN_SIZE" ! Size parameters
! Local variables
REAL*8, PARAMETER :: A = 23.5518d0
REAL*8, PARAMETER :: B = 2937.4d0
REAL*8, PARAMETER :: C = -4.9283d0
REAL*8 :: ESAT, SHMB, PRES, TEMP
INTEGER :: I, J, L
!=================================================================
! MAKE_RH begins here!
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L, PRES, TEMP, ESAT, SHMB )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
! Pressure at midpoint of box (I,J,L)
PRES = GET_PCENTER(I,J,L)
! Temperature at grid box (I,J,L)
TEMP = T(I,J,L)
! Saturation water vapor pressure in mbar
! (from NASA GTE PEM-Tropics handbook)
ESAT = ( 10d0**( A - ( B / TEMP ) ) ) * ( TEMP**C )
! Specific humidity in mb
SHMB = SPHU(I,J,L) * 1.6072d-3 * PRES
! Relative humidity as a percentage
RH(I,J,L) = ( SHMB / ESAT ) * 100d0
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
! Return to calling program
END SUBROUTINE MAKE_RH
!------------------------------------------------------------------------------
FUNCTION GET_OBK( I, J ) RESULT( OBK )
!
!******************************************************************************
! Function GET_OBK returns the Monin-Obhukov length at a grid box (I,J)
! (bmy, 5/25/05)
!
! Arguments as Input:
! ============================================================================
! (1-2) I, J (INTEGER) : GEOS-CHEM longitude & latitude indices
!
! NOTES:
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
# include "CMN_GCTM" ! Physical constants
! Arguments
INTEGER, INTENT(IN) :: I, J
! Function value
REAL*8 :: OBK
#if defined( GCAP )
!=================================================================
! For GCAP met fields (based on GISS model)
!=================================================================
! Monin-Obhukov length is a GCAP met field
OBK = MOLENGTH(I,J)
#else
!=================================================================
! For all GEOS met fields:
!
! The direct computation of the Monin-Obhukov length is:
!
! - Air density * Cp * T(surface air) * Ustar^3
! OBK = -----------------------------------------------
! Kappa * g * Sensible Heat flux
!
! Cp = 1000 J / kg / K = specific heat of air at constant P
! Kappa = 0.4 = Von Karman's constant
!
!
! Also test the denominator in order to prevent div by zero.
!=================================================================
! Local variables
REAL*8 :: NUM, DEN
! Parameters
REAL*8, PARAMETER :: KAPPA = 0.4d0
REAL*8, PARAMETER :: CP = 1000.0d0
! Numerator
NUM = -AIRDEN(1,I,J) * CP * TS(I,J) *
& USTAR(I,J) * USTAR(I,J) * USTAR(I,J)
! Denominator
DEN = KAPPA * g0 * HFLUX(I,J)
! Prevent div by zero
IF ( ABS( DEN ) > 0d0 ) THEN
OBK = NUM / DEN
ELSE
OBK = 1.0d5
ENDIF
#endif
! Return to calling program
END FUNCTION GET_OBK
!------------------------------------------------------------------------------
SUBROUTINE COSSZA( JDAY, SUNCOS, FIVE_HR )
!
!******************************************************************************
! COSSZA computes the cosine of the solar zenith angle. (bmy 1/21/98, 2/13/07)
!
! Arguments as input:
! ============================================================================
! (1 ) JDAY (INTEGER) : The current day of the year (0-365 or 0-366)
!
! Arguments as output:
! ===========================================================================
! (2 ) SUNCOS (REAL*8 ) : 1D Array of cos(SZA) for each grid box (in radians)
!
! NOTES:
! (1 ) COSSZA is written in Fixed-Form Fortran 90.
! (2 ) Use IMPLICIT NONE to declare all variables explicitly.
! (3 ) Use C-preprocessor #include statement to include CMN_SIZE, which
! has IIPAR, JJPAR, LLPAR, IGLOB, JGLOB, LGLOB.
! (4 ) Use IM and JM (in CMN_SIZE) as loop limits.
! (5 ) Include Harvard CTM common blocks and rename variables where needed.
! (6 ) Use SUNCOS(MAXIJ) instead of a 2D array, in order for compatibility
! with the Harvard CTM subroutines. SUNCOS loops over J, then I.
! (7 ) Added DO WHILE loops to reduce TIMLOC into the range 0h - 24h.
! (8 ) Cosmetic changes. Also use F90 declaration statements (bmy, 6/5/00)
! (9 ) Added to "dao_mod.f". Also updated comments. (bmy, 9/27/01)
! (10) Replaced all instances of IM with IIPAR and JM with JJPAR, in order
! to prevent namespace confusion for the new TPCORE (bmy, 6/25/02)
! (11) Deleted obsolete code from 6/02 (bmy, 8/21/02)
! (12) Removed RLAT and XLON from the arg list. Now compute these using
! functions from "grid_mod.f" (bmy, 2/3/03)
! (13) Now uses GET_LOCALTIME from "time_mod.f" to get the local time.
! Added parallel DO loop. Removed NHMSb, NSEC arguments. (bmy, 2/13/07)
!******************************************************************************
!
! References to F90 modules
USE GRID_MOD, ONLY : GET_YMID_R
USE TIME_MOD, ONLY : GET_LOCALTIME
# include "CMN_SIZE" ! Size parameters
# include "CMN_GCTM" ! Physical constants
! Arguments
INTEGER, INTENT(IN) :: JDAY
REAL*8, INTENT(OUT) :: SUNCOS(MAXIJ)
LOGICAL, INTENT(IN), OPTIONAL :: FIVE_HR
! Local variables
INTEGER :: I, IJLOOP, J
REAL*8 :: A0, A1, A2, A3, B1, B2, B3
REAL*8 :: R, AHR, DEC, TIMLOC, YMID_R
!=================================================================
! COSSZA begins here!
!=================================================================
! Coefficients for solar declination angle
A0 = 0.006918d0
A1 = 0.399912d0
A2 = 0.006758d0
A3 = 0.002697d0
B1 = 0.070257d0
B2 = 0.000907d0
B3 = 0.000148d0
! Path length of earth's orbit traversed since Jan 1 [radians]
R = ( 2d0 * PI / 365d0 ) * DBLE( JDAY - 1 )
! Solar declination angle (low precision formula)
DEC = A0 - A1*COS( R ) + B1*SIN( R )
& - A2*COS( 2d0*R ) + B2*SIN( 2d0*R )
& - A3*COS( 3d0*R ) + B3*SIN( 3d0*R )
!=================================================================
! Compute cosine of solar zenith angle
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, YMID_R, IJLOOP, TIMLOC, AHR )
! Loop over latitude
DO J = 1, JJPAR
! Latitude of grid box [radians]
YMID_R = GET_YMID_R( J )
! Loop over longitude
DO I = 1, IIPAR
! 1-D grid box index
IJLOOP = ( (J-1) * IIPAR ) + I
!===========================================================
! TIMLOC = Local Time in Hours
!
! Hour angle (AHR) is a function of longitude. AHR is
! zero at solar noon, and increases by 15 deg for every
! hour before or after solar noon.
!
! Hour angle can be thought of as the time in hours since
! the sun last passed the meridian (i.e. the time since the
! last local noon). Convert to radians for the COS below.
!===========================================================
! Local time at box (I,J) [hours]
TIMLOC = GET_LOCALTIME( I )
! Add 5hr ago needed by paranox (plume rise)
IF ( PRESENT(FIVE_HR) ) THEN
IF ( FIVE_HR ) THEN
TIMLOC = TIMLOC - 5
IF (TIMLOC .LT. 0 ) TIMLOC = TIMLOC + 24d0
ENDIF
ENDIF
! Hour angle at box (I,J) [radians]
AHR = ABS( TIMLOC - 12d0 ) * 15d0 * PI_180
!===========================================================
! The cosine of the solar zenith angle (SZA) is given by:
!
! cos(SZA) = sin(LAT)*sin(DEC) + cos(LAT)*cos(DEC)*cos(AHR)
!
! where LAT = the latitude angle,
! DEC = the solar declination angle,
! AHR = the hour angle, all in radians.
!
! If SUNCOS < 0, then the sun is below the horizon, and
! therefore does not contribute to any solar heating.
!===========================================================
! Compute cos(SZA) at box (I,J) [unitless]
SUNCOS(IJLOOP) = SIN( YMID_R ) * SIN( DEC ) +
& COS( YMID_R ) * COS( DEC ) * COS( AHR )
ENDDO
ENDDO
!$OMP END PARALLEL DO
! Return to calling program
END SUBROUTINE COSSZA
!------------------------------------------------------------------------------
SUBROUTINE CONVERT_UNITS( IFLAG, N_TRACERS, TCVV, AD, STT )
!
!******************************************************************************
! Subroutine CONVERT_UNITS converts the units of STT from [kg] to [v/v]
! mixing ratio, or vice versa. (bmy, 6/15/98, 10/15/02)
!
! Arguments as Input:
! ======================================================================
! (1 ) IFLAG (INTEGER) : =1 then convert from [kg ] --> [v/v]
! =2 then convert from [v/v] --> [kg ]
! (2 ) NTRACE (INTEGER) :
! (3 ) TCVV (REAL*8 ) : Array containing [Air MW / Tracer MW] for tracers
! (4 ) AD (REAL*8 ) : Array containing grid box air masses
!
! Arguments as Input/Output:
! ======================================================================
! (5 ) STT (REAL*8 ) : Array containing tracer conc. [kg] or [v/v]
!
! NOTES:
! (1 ) CONVERT_UNITS is written in Fixed-Form Fortran 90.
! (2 ) Cosmetic changes, updated comments (bmy, 4/19/00)
! (3 ) Now use SELECT CASE statement. Also added parallel DO-loops
! with the new Open-MP compiler directives. (bmy, 4/27/00)
! (4 ) Bundled into "dao_mod.f". Now pass NTRACE, TCVV, AD, STT as args.
! Now use explicit DO-loops for I-J-L w/in parallel loops. Updated
! comments, cosmetic changes. (bmy, 3/29/02)
! (5 ) Removed obsolete, commented-out code. Also now use F90 intrinsic
! REPEAT to write a line of "="'s to the screen. (bmy, 6/25/02)
! (6 ) Updated comments. Now reference ERROR_STOP from "error_mod.f"
! (bmy, 10/15/02)
! (7 ) Renamed NTRACE to N_TRACERS for consistency (bmy, 7/19/04)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: IFLAG
INTEGER, INTENT(IN) :: N_TRACERS
REAL*8, INTENT(IN) :: TCVV(N_TRACERS)
REAL*8, INTENT(IN) :: AD(IIPAR,JJPAR,LLPAR)
REAL*8, INTENT(INOUT) :: STT(IIPAR,JJPAR,LLPAR,N_TRACERS)
! Local Variables
INTEGER :: I, J, L, N
!=================================================================
! CONVERT_UNITS begins here!
!
! Most of the GEOS-CHEM subroutines require the tracer array
! STT to be in units of [kg]. However, the cloud convection
! (NFCLDMX), boundaryk layer mixing (TURBDAY), diffusion (DIFFUSE),
! and transport (TPCORE) routines require STT to be in volume
! mixing ratio [v/v].
!
! Therefore, before calling NFCLDMX, TURBDAY, DIFFUSE, or TPCORE,
! call subroutine CONVERT_UNITS to convert STT from [kg] to [v/v].
!
! Also call CONVERT_UNITS again after calling NFCLDMX, TURBDAY,
! DIFFUSE, or TPCORE to convert back from [v/v] to [kg].
!=================================================================
SELECT CASE ( IFLAG )
!==============================================================
! IFLAG = 1: Convert from [kg] -> [v/v]
!
! The conversion is as follows:
!
! kg tracer(N) 1 Air mol wt
! ----------- * -------- * -------------
! 1 kg air tracer mol wt
!
! moles tracer volume tracer
! = ------------ = -------------
! moles air volume air
!
! Since the volume of a gas depends on the number of moles.
! Therefore, with:
!
! TCMASS(N) = mol. wt. of tracer (AMU)
! TCVV(N) = 28.97 / TCMASS(N)
! = mol. wt. of air (AMU) / mol. wt. of tracer (AMU)
! AD(I,J,L) = mass of air (kg) in grid box (I,J,L)
!
! the conversion is:
!
! STT(I,J,L,N) [kg] * TCVV(N) / AD(I,J,L) = STT(I,J,L,N) [v/v]
!==============================================================
CASE ( 1 )
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L, N )
DO N = 1, N_TRACERS
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
STT(I,J,L,N) = STT(I,J,L,N) * TCVV(N) / AD(I,J,L)
ENDDO
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
!==============================================================
! IFLAG = 2: Convert from [v/v] -> [kg]
!
! From the above discussion, the reverse unit conversion
! is given by:
!
! STT(I,J,L,N) [v/v] * AD(I,J,L) / TCVV(N) = STT(I,J,L,N) [kg]
!==============================================================
CASE ( 2 )
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L, N )
DO N = 1, N_TRACERS
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
STT(I,J,L,N) = STT(I,J,L,N) * AD(I,J,L) / TCVV(N)
ENDDO
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
!==============================================================
! Otherwise halt with an error message
!==============================================================
CASE DEFAULT
CALL ERROR_STOP( 'Invalid IFLAG value (must be 1 or 2)!',
& 'CONVERT_UNITS (dao_mod.f)' )
END SELECT
! Return to calling program
END SUBROUTINE CONVERT_UNITS
SUBROUTINE CONVERT_UNITS_FORCING( IFLAG, N_TRACERS, N_TRACER_U,
& TCVV, AD,STT)
!
!******************************************************************************
! Subroutine CONVERT_UNITS_FORCING converts the units of STT from [kg] to [v/v]
! mixing ratio, or vice versa. (bmy, 6/15/98, 10/15/02)
! mkeller: adapted from CONVERT_UNITS to work with FORCE_U_FULLGRID
!
! Arguments as Input:
! ======================================================================
! (1 ) IFLAG (INTEGER) : =1 then convert from [kg ] --> [v/v]
! =2 then convert from [v/v] --> [kg ]
! (2 ) N_TRACERS
! (3 ) NTRACER_U (INTEGER) : which tracer is being forced
! (4 ) TCVV (REAL*8 ) : Array containing [Air MW / Tracer MW] for tracers
! (5 ) AD (REAL*8 ) : Array containing grid box air masses
!
! Arguments as Input/Output:
! ======================================================================
! (5 ) STT (REAL*8 ) : Array containing tracer conc. [kg] or [v/v]
!
! NOTES:
! (1 ) CONVERT_UNITS_FORCING is written in Fixed-Form Fortran 90.
! (2 ) Cosmetic changes, updated comments (bmy, 4/19/00)
! (3 ) Now use SELECT CASE statement. Also added parallel DO-loops
! with the new Open-MP compiler directives. (bmy, 4/27/00)
! (4 ) Bundled into "dao_mod.f". Now pass NTRACE, TCVV, AD, STT as args.
! Now use explicit DO-loops for I-J-L w/in parallel loops. Updated
! comments, cosmetic changes. (bmy, 3/29/02)
! (5 ) Removed obsolete, commented-out code. Also now use F90 intrinsic
! REPEAT to write a line of "="'s to the screen. (bmy, 6/25/02)
! (6 ) Updated comments. Now reference ERROR_STOP from "error_mod.f"
! (bmy, 10/15/02)
! (7 ) Renamed NTRACE to N_TRACERS for consistency (bmy, 7/19/04)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: IFLAG
INTEGER, INTENT(IN) :: N_TRACERS, N_TRACER_U
REAL*8, INTENT(IN) :: TCVV(N_TRACERS)
REAL*8, INTENT(IN) :: AD(IIPAR,JJPAR,LLPAR)
REAL*8, INTENT(INOUT) :: STT(IIPAR,JJPAR,LLPAR)
! Local Variables
INTEGER :: I, J, L, N
!=================================================================
! CONVERT_UNITS begins here!
!
! Most of the GEOS-CHEM subroutines require the tracer array
! STT to be in units of [kg]. However, the cloud convection
! (NFCLDMX), boundaryk layer mixing (TURBDAY), diffusion (DIFFUSE),
! and transport (TPCORE) routines require STT to be in volume
! mixing ratio [v/v].
!
! Therefore, before calling NFCLDMX, TURBDAY, DIFFUSE, or TPCORE,
! call subroutine CONVERT_UNITS to convert STT from [kg] to [v/v].
!
! Also call CONVERT_UNITS again after calling NFCLDMX, TURBDAY,
! DIFFUSE, or TPCORE to convert back from [v/v] to [kg].
!=================================================================
SELECT CASE ( IFLAG )
!==============================================================
! IFLAG = 1: Convert from [kg] -> [v/v]
!
! The conversion is as follows:
!
! kg tracer(N) 1 Air mol wt
! ----------- * -------- * -------------
! 1 kg air tracer mol wt
!
! moles tracer volume tracer
! = ------------ = -------------
! moles air volume air
!
! Since the volume of a gas depends on the number of moles.
! Therefore, with:
!
! TCMASS(N) = mol. wt. of tracer (AMU)
! TCVV(N) = 28.97 / TCMASS(N)
! = mol. wt. of air (AMU) / mol. wt. of tracer (AMU)
! AD(I,J,L) = mass of air (kg) in grid box (I,J,L)
!
! the conversion is:
!
! STT(I,J,L,N) [kg] * TCVV(N) / AD(I,J,L) = STT(I,J,L,N) [v/v]
!==============================================================
CASE ( 1 )
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
! DO N = 1, N_TRACERS
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
STT(I,J,L) = STT(I,J,L) * TCVV(N_TRACER_U) / AD(I,J,L)
ENDDO
ENDDO
ENDDO
! ENDDO
!$OMP END PARALLEL DO
!==============================================================
! IFLAG = 2: Convert from [v/v] -> [kg]
!
! From the above discussion, the reverse unit conversion
! is given by:
!
! STT(I,J,L,N) [v/v] * AD(I,J,L) / TCVV(N) = STT(I,J,L,N) [kg]
!==============================================================
CASE ( 2 )
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
! DO N = 1, N_TRACERS
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
STT(I,J,L) = STT(I,J,L) * AD(I,J,L) / TCVV(N_TRACER_U)
ENDDO
ENDDO
ENDDO
! ENDDO
!$OMP END PARALLEL DO
!==============================================================
! Otherwise halt with an error message
!==============================================================
CASE DEFAULT
CALL ERROR_STOP( 'Invalid IFLAG value (must be 1 or 2)!',
& 'CONVERT_UNITS (dao_mod.f)' )
END SELECT
! Return to calling program
END SUBROUTINE CONVERT_UNITS_FORCING
!------------------------------------------------------------------------------
SUBROUTINE COPY_I6_FIELDS
!
!******************************************************************************
! Subroutine COPY_I6_FIELDS copies the I-6 fields at the end of a 6-hr
! timestep. The I-6 fields at the end of a given 6-hr timestep become the
! fields at the beginning of the next 6-hr timestep. (bmy, 4/13/04, 1/17/07)
!
! NOTES:
! (1 ) Added parallel DO-loops (bmy, 4/13/04)
! (2 ) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
! (3 ) Added TROPP (phs 11/10/06)
! (4 ) Don't copy TROPP2 to TROPP1 for GEOS-5 (bmy, 1/17/07)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
! Local variables
INTEGER :: I, J, L
!=================================================================
! COPY_I6_FIELDS begins here!
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J )
DO J = 1, JJPAR
DO I = 1, IIPAR
! Copy surface pressure
PS1(I,J) = PS2(I,J)
#if !defined( GEOS_5 ) && !defined( GEOS_FP )
! Tropopause pressure (except for GEOS-5)
TROPP1(I,J) = TROPP2(I,J)
#endif
#if defined( GEOS_3 )
! Also copy surface albedo (GEOS-1, GEOS-S, GEOS-3 only)
ALBD1(I,J) = ALBD2(I,J)
#endif
ENDDO
ENDDO
!$OMP END PARALLEL DO
#if defined( GEOS_3 )
!=================================================================
! GEOS-1, GEOS-S, GEOS-3: UWND, VWND, SPHU, TMPU are I-6 fields
! so we need to copy these too. (These are A-6 in GEOS-4.)
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
UWND1(I,J,L) = UWND2(I,J,L)
VWND1(I,J,L) = VWND2(I,J,L)
TMPU1(I,J,L) = TMPU2(I,J,L)
SPHU1(I,J,L) = SPHU2(I,J,L)
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
#endif
!!! (lzh, 04/09/2014)
#if defined( GEOS_FP )
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
TMPU1(I,J,L) = TMPU2(I,J,L)
SPHU1(I,J,L) = SPHU2(I,J,L)
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
#endif
! Return to calling program
END SUBROUTINE COPY_I6_FIELDS
!------------------------------------------------------------------------------
SUBROUTINE COPY_I6_FIELDS_ADJ
!
!******************************************************************************
! Subroutine COPY_I6_FIELDS_ADJ copies the I-6 fields at the end of a 6-hr
! timestep. The I-6 fields at the end of a given 6-hr timestep become the
! fields at the beginning of the next 6-hr timestep. (bmy, 4/13/04, 1/17/07)
! Order of swapping is switched for adjoint (dkh, ks, mak, cs 06/12/09)
!
! NOTES:
! (1 ) Bsed on COPY_I6_FIELDS
!
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
! Local variables
INTEGER :: I, J, L
!=================================================================
! COPY_I6_FIELDS_ADJ begins here!
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J )
DO J = 1, JJPAR
DO I = 1, IIPAR
! Copy surface pressure
PS2(I,J) = PS1(I,J)
#if !defined( GEOS_5 ) && !defined( GEOS_FP )
! Tropopause pressure (except for GEOS-5)
TROPP2(I,J) = TROPP1(I,J)
#endif
#if defined( GEOS_3 )
! Also copy surface albedo (GEOS-1, GEOS-S, GEOS-3 only)
ALBD2(I,J) = ALBD1(I,J)
#endif
! adj_group: copy over from TMP fields
SLP(I,J) = SLP_TMP(I,J)
#if defined( GEOS_3 ) || defined( GEOS_4 ) || defined( GEOS_5 ) || defined(GEOS_FP)
LWI(I,J) = LWI_TMP(I,J)
#endif
#if defined( GEOS_5 ) || defined(GEOS_FP)
TO3(I,J) = TO3_TMP(I,J)
TTO3(I,J) = TTO3_TMP(I,J)
#endif
ENDDO
ENDDO
!$OMP END PARALLEL DO
#if defined( GEOS_3 )
!=================================================================
! GEOS-1, GEOS-S, GEOS-3: UWND, VWND, SPHU, TMPU are I-6 fields
! so we need to copy these too. (These are A-6 in GEOS-4.)
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
UWND2(I,J,L) = UWND1(I,J,L)
VWND2(I,J,L) = VWND1(I,J,L)
TMPU2(I,J,L) = TMPU1(I,J,L)
SPHU2(I,J,L) = SPHU1(I,J,L)
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
#endif
#if defined( GEOS_FP )
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
TMPU2(I,J,L) = TMPU1(I,J,L)
SPHU2(I,J,L) = SPHU1(I,J,L)
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
#endif
! Return to calling program
END SUBROUTINE COPY_I6_FIELDS_ADJ
!------------------------------------------------------------------------------
SUBROUTINE INTERP_ADJ( NTIME0, NTIME1, NTDT )
!
!******************************************************************************
! Subroutine INTERP_ADJ linearly interpolates GEOS-CHEM I-6 fields (winds,
! surface pressure, temperature, surface albedo, specific humidity) to the
! current dynamic timestep. (bdf, bmy, 1/30/98, 9/18/07)
!
! adj_group: modified for adjoint (dkh, ks, mak, cs 06/15/09)
!
! Arguments as Input:
! ============================================================================
! (1 ) NTIME0 (INTEGER) : elapsed time [s] at the start of the 6-hr timestep.
! (2 ) NTIME1 (INTEGER) : elapsed time [s] at current time
! (3 ) NTDT (INTEGER) : length of dynamic timestep [s]
!
! NOTES:
! (1 ) INTERP is written in Fixed-Form Fortran 90.
! (2 ) Subtract PINT from PSC since the only subroutine that uses PSC
! is TPCORE. This prevents having to subtract and add PINT to PSC
! before and after each call of TPCORE.
! (3 ) Pass the Harvard CTM temperature variable T(IGCMPAR,JGCMPAR,LGCMPAR)
! to INTERP via the argument list (instead of including file CMN).
! It is computationally inefficient to keep two large arrays for
! the same quantity. Use the proper window offsets with T.
! (4 ) Added to "dao_mod.f" (bmy, 6/26/00)
! (5 ) Updated comments (bmy, 4/4/01)
! (6 ) Replaced {IJL}GCMPAR w/ IIPAR,JJPAR,LLPAR. Also now use parallel
! DO-loop for interpolation. Updated comments. (bmy, 9/26/01)
! (7 ) Removed obsolete code from 9/01 (bmy, 10/23/01)
! (8 ) Add PSC2 as the surface pressure at the end of the dynamic timestep.
! This needs to be passed to TPCORE and AIRQNT so that the mixing ratio
! can be converted to mass properly. Removed PINT from the arg list,
! since we don't need it anymore. Also updated comments and made
! some cosmetic changes. (bmy, 3/27/02)
! (9 ) Removed obsolete, commented-out code (bmy, 6/25/02)
! (10) Eliminated PS, PSC from the arg list, for floating-pressure fix.
! (dsa, bdf, bmy, 8/27/02)
! (11) Met field arrays are module variables, so we don't need to pass them
! as arguments. (bmy, 11/20/02)
! (12) Removed NDT from the arg list since that is always 21600. For GEOS-4
! met fields, only interpolate PSC2; the other fields are 6-h averages.
! Eliminate TC variable, it's obsolete. Now use double precision to
! compute TM and TC2 values. Renamed NTIME to NTIME1 and NTIME1 to
! NTIME0. Updated comments. (bmy, 6/19/03)
! (13) Now modified for GEOS-5 and GCAP met fields. (swu, bmy, 5/25/05)
! (14) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
! (15) Now interpolate TROPP, only if variable tropopause is used
! (phs, 9/12/06)
! (16) Don't interpolate TROPP for GEOS-5 (bmy, 1/17/07)
! (17) Now limit tropopause pressure to 200 mbar at latitudes above 60deg
! (phs, 9/18/07)
!******************************************************************************
!
! References to F90 modules
USE GRID_MOD, ONLY : GET_YEDGE
USE LOGICAL_MOD, ONLY : LVARTROP
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: NTIME0, NTIME1, NTDT
! Local variables
INTEGER :: I, J, L
REAL*8 :: D_NTIME0, D_NTIME1, D_NDT
REAL*8 :: D_NTDT, TM, TC2
REAL*8 :: YSOUTH, YNORTH
!=================================================================
! INTERP_ADJ begins here!
!=================================================================
! Convert time variables from FLOAT to DBLE
D_NTIME0 = DBLE( NTIME0 )
D_NTIME1 = DBLE( NTIME1 )
D_NTDT = DBLE( NTDT )
! D_NDT = 21600d0
!! (lzh, 04/29/2014)
#if defined( GEOS_FP )
D_NDT = 10800d0 ! For 3-hr instantaneous fields
#else
D_NDT = 21600d0 ! For 6-hr instantaneous fields
#endif
! Fraction of 6h timestep elapsed at mid point of this dyn timestep
TM = ( D_NTIME1 + D_NTDT/2d0 - D_NTIME0 ) / D_NDT
! Fraction of 6h timestep elapsed at the end of this dyn timestep
! fwd:
!TC2 = ( D_NTIME1 + D_NTDT - D_NTIME0 ) / D_NDT
! adj:
TC2 = ( D_NTIME1 - D_NTIME0 ) / D_NDT
#if defined( GEOS_3 )
!=================================================================
! For GEOS-1, GEOS-S, GEOS-3 met fields:
! Interpolate PSC2, UWND, VWND, ALBD, T, SPHU
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
! 2D variables
IF ( L == 1 ) THEN
! Pressures: at start, midpt, and end of dyn timestep
PSC2(I,J) = PS1(I,J) + ( PS2(I,J) - PS1(I,J) ) * TC2
! Albedo: at midpt of dyn timestep
ALBD(I,J) = ALBD1(I,J) + ( ALBD2(I,J) - ALBD1(I,J) ) * TM
! Tropopause pressure at midpt
IF ( LVARTROP ) THEN
TROPP(I,J) = TROPP1(I,J)
& + ( TROPP2(I,J) - TROPP1(I,J) ) * TM
ENDIF
ENDIF
! 3D Variables: at midpt of dyn timestep
UWND(I,J,L) = UWND1(I,J,L) + (UWND2(I,J,L) - UWND1(I,J,L)) * TM
VWND(I,J,L) = VWND1(I,J,L) + (VWND2(I,J,L) - VWND1(I,J,L)) * TM
SPHU(I,J,L) = SPHU1(I,J,L) + (SPHU2(I,J,L) - SPHU1(I,J,L)) * TM
T(I,J,L) = TMPU1(I,J,L) + (TMPU2(I,J,L) - TMPU1(I,J,L)) * TM
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
#else
!=================================================================
! For GEOS-4, GEOS-5, GCAP met fields:
!
! (1) Interpolate PSC2 (pressure at end of dyn timestep)
! (2) Interpolate TROPP (GEOS-4, GCAP only)
! (3) Cap TROPP at 200 hPa in polar regions
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, YSOUTH, YNORTH )
DO J = 1, JJPAR
! North & south edges of box
YSOUTH = GET_YEDGE( J )
YNORTH = GET_YEDGE( J+1 )
DO I = 1, IIPAR
! Pressure at end of dynamic timestep [hPa]
PSC2(I,J) = PS1(I,J) + ( PS2(I,J) - PS1(I,J) ) * TC2
! Test if we are using the variable tropopause
IF ( LVARTROP ) THEN
#if !defined( GEOS_5 ) && !defined( GEOS_FP )
! GEOS-5 has 3-hr avg tropopause, so we don't need to
! interpolate it (only do this for GEOS-3, GEOS-4)
TROPP(I,J) = TROPP1(I,J)
& + ( TROPP2(I,J) - TROPP1(I,J) ) * TM
#endif
! However, we still need to make sure to cap TROPP in the
! polar regions (if the entire box is outside 60S-60N)
! so that we don't do chemistry at an abnormally high
! altitude. Set TROPP in the polar regions to 200 hPa.
! (jal, phs, bmy, 9/18/07)
IF ( YSOUTH >= 60d0 .or. YNORTH <= -60d0 ) THEN
TROPP(I,J) = MAX( TROPP(I,J), 200d0 )
ENDIF
ENDIF
ENDDO
ENDDO
!$OMP END PARALLEL DO
#endif
#if defined( GEOS_FP )
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J, L )
DO L = 1, LLPAR
DO J = 1, JJPAR
DO I = 1, IIPAR
! 3D Variables: at midpt of dyn timestep
SPHU(I,J,L) = SPHU1(I,J,L) + (SPHU2(I,J,L) - SPHU1(I,J,L)) * TM
T(I,J,L) = TMPU1(I,J,L) + (TMPU2(I,J,L) - TMPU1(I,J,L)) * TM
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
#endif
! Return to calling program
END SUBROUTINE INTERP_ADJ
!------------------------------------------------------------------------------
SUBROUTINE INIT_DAO
!
!******************************************************************************
! Subroutine INIT_DAO allocates memory for all allocatable module arrays.
! (bmy, 6/26/00, 6/11/08)
!
! NOTES:
! (1 ) Now allocate AVGW for either NSRCX == 3 or NSRCX == 5 (bmy, 9/24/01)
! (2 ) Removed obsolete code from 9/01 (bmy, 10/23/01)
! (3 ) Add PSC2 array for TPCORE mixing ratio fix. (bmy, 3/27/02)
! (4 ) Elimintated PS, PSC arrays for floating-pressure fix.
! (dsa, bdf, bmy, 8/20/02)
! (5 ) Added AD, BXHEIGHT, T to "dao_mod.f" as allocatable arrays, to remove
! historical baggage and centralize variables. Also remove GEOS_2
! flag from C-preprocessor statements. Also allocate RH array
! but only if we are doing a sulfate simulation. Now references
! ALLOC_ERR from "error_mod.f" (bmy, 10/15/02)
! (6 ) Now allocate PHIS array (bmy, 3/11/03)
! (7 ) Now allocate SUNCOSB array for SMVGEAR II. Also removed KZZ array,
! that is now obsolete. (bdf, bmy, 4/28/03)
! (8 ) Now order all arrays in alphabetical order. Also added new fields
! for GEOS-4/fvDAS: HKBETA, HKETA, ZMEU, ZMMD, ZMMU, TSKIN, PARDF,
! and PARDR. (bmy, 6/25/03)
! (9 ) Now allocate CLDFRC, RADLWG, RADSWG, SNOW arrays. USTAR, CLDFRC,
! and Z0 and RADSWG are now 2-D arrays. (bmy, 12/9/03)
! (10) Allocate RADLWG and SNOW for both GEOS-3 & GEOS-4 (bmy, 4/2/04)
! (11) Now reference inquiry functions from "tracer_mod.f". Now reference
! LWETD, LDRYD, LCHEM from "logical_mod.f". Now allocate RH regardless
! of simulation. (bmy, 7/20/04)
! (12) Now also allocate AVGW for offline aerosol simulations (bmy, 9/27/04)
! (13) Now modified for GCAP met fields. Removed references to CO-OH param
! simulation. Now allocate AVGW only for fullchem or offline aerosol
! simulations. (bmy, 6/24/05)
! (14) Now allocate SNOW and GWETTOP for GCAP (bmy, 8/17/05)
! (15) Now also add TSKIN for GEOS-3 (bmy, 10/20/05)
! (16) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
! (17) Reorganized for GEOS-5 met fields (bmy, 1/17/07)
! (18) Bug fix: should be CMFMC=0 after allocating CMFMC (jaf, bmy, 6/11/08)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ALLOC_ERR
USE LOGICAL_MOD, ONLY : LWETD, LDRYD, LCHEM
USE TRACER_MOD, ONLY : ITS_AN_AEROSOL_SIM, ITS_A_FULLCHEM_SIM
# include "CMN_SIZE" ! Size parameters
! Local variables
INTEGER :: AS
!=================================================================
! INIT_DAO begins here!
!=================================================================
!-----------------------------------------------------------------
! Allocate met field arrays that are used for all met fields
!-----------------------------------------------------------------
! Air mass
ALLOCATE( AD( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'AD' )
AD = 0d0
! Air density
ALLOCATE( AIRDEN( LLPAR, IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'AIRDEN' )
AIRDEN = 0d0
! Air volume
ALLOCATE( AIRVOL( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'AIRVOL' )
AIRVOL = 0d0
! Surface albedo
ALLOCATE( ALBD( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ALBD' )
ALBD = 0d0
! AVGW (mixing ratio of H2O) is only used for NOx-Ox-HC or aerosol sims
IF ( ITS_A_FULLCHEM_SIM() .or. ITS_AN_AEROSOL_SIM() ) THEN
ALLOCATE( AVGW( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'AVGW' )
AVGW = 0d0
ENDIF
! Grid box height
ALLOCATE( BXHEIGHT( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'BXHEIGHT' )
BXHEIGHT = 0d0
! 3-D Cloud fraction
ALLOCATE( CLDF( LLPAR, IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'CLDF' )
CLDF = 0d0
! 2-D column cloud fraction
ALLOCATE( CLDFRC( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'CLDFRC' )
CLDFRC = 0d0
! Cloud top level
ALLOCATE( CLDTOPS( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'CLDTOPS' )
CLDTOPS = 0
! Pressure difference between levels
ALLOCATE( DELP( LLPAR, IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DELP' )
DELP = 0d0
! Top soil wetness
ALLOCATE( GWETTOP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'GWETTOP' )
GWETTOP = 0d0
! Sensible heat flux
ALLOCATE( HFLUX( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'HFLUX' )
HFLUX = 0d0
! Tendency of specific humidity
ALLOCATE( MOISTQ( LLPAR, IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'MOISTQ' )
MOISTQ = 0d0
! Optical depth
ALLOCATE( OPTDEP( LLPAR, IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'OPTDEP' )
OPTDEP = 0d0
! Optical depth
ALLOCATE( OPTD( LLPAR, IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'OPTD' )
OPTD = 0d0
! Diffuse PAR
ALLOCATE( PARDF( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PARDF' )
PARDF = 0d0
! Direct PAR
ALLOCATE( PARDR( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PARDR' )
PARDR = 0d0
! Mixed layer depth
ALLOCATE( PBL( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PBL' )
PBL = 0d0
! Surface geopotential height
ALLOCATE( PHIS( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PHIS' )
PHIS = 0d0
! Total precip at ground
ALLOCATE( PREACC( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PREACC' )
PREACC = 0d0
! Convective precip at ground
ALLOCATE( PRECON( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PRECON' )
PRECON = 0d0
! Pressure at beginning of 6hr timestep
ALLOCATE( PS1( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PS1' )
PS1 = 0d0
! Pressure at end of 6hr timestep
ALLOCATE( PS2( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PS2' )
PS2 = 0d0
! Pressure at end of dynamic timestep
ALLOCATE( PSC2( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PSC2' )
PSC2 = 0d0
! Longwave rad at ground
! NOTE: this is a net radiation for GEOS-5 (LWGNET)
ALLOCATE( RADLWG( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'RADLWG' )
RADLWG = 0d0
! Shortwave rad at ground
! NOTE: this is a net radiation for GEOS-5 (SWGNET)
ALLOCATE( RADSWG( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'RADSWG' )
RADSWG = 0d0
! Relative humidity
ALLOCATE( RH( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'RH' )
RH = 0d0
! Sea level pressure
ALLOCATE( SLP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SLP' )
SLP = 0d0
! Specific humidity
ALLOCATE( SPHU( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SPHU' )
SPHU = 0d0
! Cosine of solar zenith angle
ALLOCATE( SUNCOS( MAXIJ ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SUNCOS' )
SUNCOS = 0d0
! Cosine of solar zenith angle
ALLOCATE( SUNCOS_5hr( MAXIJ ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SUNCOS_5hr' )
SUNCOS_5hr = 0d0
! Only allocate SUNCOSB for a full-chemistry run (bdf, bmy, 4/1/03)
IF ( LCHEM .and. ITS_A_FULLCHEM_SIM() ) THEN
ALLOCATE( SUNCOSB( MAXIJ ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SUNCOSB' )
SUNCOSB = 0d0
ENDIF
! Temperature
ALLOCATE( T( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'T' )
T = 0d0
! Tropopause pressure
ALLOCATE( TROPP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TROPP' )
TROPP = 0d0
! Surface temperature
ALLOCATE( TS( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TS' )
TS = 0d0
! Skin (aka ground) temperature
ALLOCATE( TSKIN( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TSKIN' )
TSKIN = 0d0
! 10m U-winds
ALLOCATE( U10M( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'U10M' )
U10M = 0d0
! Friction velocity
ALLOCATE( USTAR( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'USTAR' )
USTAR = 0d0
! U-wind
ALLOCATE( UWND( IIPAR, JJPAR, LLPAR), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'UWND' )
UWND = 0d0
! 10m V-wind
ALLOCATE( V10M( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'V10M' )
V10M = 0d0
! V-wind
ALLOCATE( VWND( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'VWND' )
VWND = 0d0
! Roughness height
ALLOCATE( Z0( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'Z0' )
Z0 = 0d0
!-----------------------------------------------------------------
! Allocate proper array for land/water/ice flags
!-----------------------------------------------------------------
#if defined( GCAP )
! Land/water flags have to be REAL*8 for GCAP
ALLOCATE( LWI_GISS( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'LWI_GISS' )
LWI_GISS = 0d0
#else
! Land/water flags have to be INTEGER for GEOS
ALLOCATE( LWI( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'LWI' )
LWI = 0
#endif
#if !defined( GEOS_5 ) && !defined( GEOS_FP )
!-----------------------------------------------------------------
! Allocate met field arrays for everything EXCEPT GEOS-5
!-----------------------------------------------------------------
! Snow depth for all other met fields
ALLOCATE( SNOW( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SNOW' )
SNOW = 0d0
! TROPP1 is only defined for GEOS-3, GEOS-4, or GCAP
ALLOCATE( TROPP1( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) C ALL ALLOC_ERR( 'TROPP1' )
TROPP1 = 0d0
! TROPP2 is only defined for GEOS-3, GEOS-4, or GCAP
ALLOCATE( TROPP2( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TROPP2' )
TROPP2 = 0d0
#endif
#if defined( GEOS_3 )
!-----------------------------------------------------------------
! Allocate met field arrays that are only used for GEOS-3
!-----------------------------------------------------------------
! Albedo at start of 6-hr interval
ALLOCATE( ALBD1( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ALBD1' )
ALBD1 = 0d0
! Albedo at end of 6-hr interval
ALLOCATE( ALBD2( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ALBD2' )
ALBD2 = 0d0
! GEOS-3 cloud mass flux
ALLOCATE( CLDMAS( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'CLDMAS' )
CLDMAS = 0d0
! GEOS-3 detrainment
ALLOCATE( DTRAIN( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DTRAIN' )
DTRAIN = 0d0
! Specific humidity at start of 6-hr interval
ALLOCATE( SPHU1( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SPHU1' )
SPHU1 = 0d0
! Specific humidity at end of 6-hr interval
ALLOCATE( SPHU2( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SPHU2' )
SPHU2 = 0d0
! Temperature at start of 6-hr interval
ALLOCATE( TMPU1( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TMPU1' )
TMPU1 = 0d0
! Temperature at end of 6-hr interval
ALLOCATE( TMPU2( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TMPU2' )
TMPU2 = 0d0
! U-wind at start of 6-hr interval
ALLOCATE( UWND1( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'UWND1' )
UWND1 = 0d0
! U-wind at end of 6-hr interval
ALLOCATE( UWND2( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'UWND2' )
UWND2 = 0d0
! V-wind at start of 6-hr interval
ALLOCATE( VWND1( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'VWND1' )
VWND1 = 0d0
! V-wind at end of 6-hr interval
ALLOCATE( VWND2( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'VWND2' )
VWND2 = 0d0
#elif defined( GEOS_4 )
!-----------------------------------------------------------------
! Allocate met field arrays that are only used for GEOS-4
!-----------------------------------------------------------------
! Hack convection overshoot parameter
ALLOCATE( HKBETA( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'HKBETA' )
HKBETA = 0d0
! Hack convection mass flux
ALLOCATE( HKETA( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'HKETA' )
HKETA = 0d0
! Z&M updraft entrainment flux
ALLOCATE( ZMEU( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ZMEU' )
ZMEU = 0d0
! Z&M downdraft mass flux
ALLOCATE( ZMMD( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ZMMD' )
ZMMD = 0d0
! Z&M updraft mass flux
ALLOCATE( ZMMU( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ZMMU' )
ZMMU = 0d0
#elif defined( GEOS_5 ) || defined( GEOS_FP )
!-----------------------------------------------------------------
! Allocate met field arrays that are only used for GEOS-5
!-----------------------------------------------------------------
! GEOS-5 cloud mass flux
ALLOCATE( CMFMC( IIPAR, JJPAR, LLPAR+1 ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'CMFMC' )
CMFMC = 0d0
! GEOS-5 tendency of ice in moist processes
ALLOCATE( DQIDTMST( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DQIDTMST' )
DQIDTMST = 0d0
! GEOS-5 tendency of ice in moist processes
ALLOCATE( DQLDTMST( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DQLDTMST' )
DQLDTMST = 0d0
! GEOS-5 convective rain production
ALLOCATE( DQRCON( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DQRCON' )
DQRCON = 0d0
! GEOS-5 convective rain production
ALLOCATE( DQRLSC( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DQRLSC' )
DQRLSC = 0d0
! GEOS-5 tendency of ice in moist processes
ALLOCATE( DQVDTMST( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DQVDTMST' )
DQVDTMST = 0d0
! GEOS-5 detrainment
ALLOCATE( DTRAIN( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DTRAIN' )
DTRAIN = 0d0
! GEOS-5 evapotranspiration flux
ALLOCATE( EVAP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'EVAP' )
EVAP = 0d0
! Fraction of grid box that is land
ALLOCATE( FRLAND( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'FRLAND' )
FRLAND = 0d0
! Fraction of grid box that is lakes
ALLOCATE( FRLAKE( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'FRLAKE' )
FRLAKE = 0d0
! Fraction of grid box that is ocean
ALLOCATE( FROCEAN( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'FROCEAN' )
FROCEAN = 0d0
! Fraction of grid box that is land ice
ALLOCATE( FRLANDIC( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'FRLANDIC' )
FRLANDIC = 0d0
! GEOS-5 greenness index
ALLOCATE( GRN( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'GRN' )
GRN = 0d0
! GEOS-5 root soil moisture
ALLOCATE( GWETROOT( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'GWETROOT' )
GWETROOT = 0d0
! GEOS-5 root soil moisture
ALLOCATE( LAI( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'LAI' )
LAI = 0d0
!------- activate these later ------------------------------
! GEOS-5 E-W mass flux (C-grid)
!ALLOCATE( MFXC( IIPAR, JJPAR, LLPAR ), STAT=AS )
!IF ( AS /= 0 ) CALL ALLOC_ERR( 'MFXC' )
!MFXC = 0d0
!
! GEOS-5 N-S mass flux (C-grid)
!ALLOCATE( MFYC( IIPAR, JJPAR, LLPAR ), STAT=AS )
!IF ( AS /= 0 ) CALL ALLOC_ERR( 'MFYC' )
!MFYC = 0d0
!
! GEOS-5 up/down mass flux (C-grid)
!ALLOCATE( MFZ( IIPAR, JJPAR, LLPAR+1 ), STAT=AS )
!IF ( AS /= 0 ) CALL ALLOC_ERR( 'MFZ' )
!MFZ = 0d0
!-----------------------------------------------------------
! GEOS-5 "snow" (i.e. frozen) precipitation
ALLOCATE( PRECSNO( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PRECSNO' )
PRECSNO = 0d0
! GEOS-5 potential vorticity
ALLOCATE( PV( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PV' )
PV = 0d0
! GEOS-5 ice mixing ratio
ALLOCATE( QI( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'QI' )
QI = 0d0
! GEOS-5 ice mixing ratio
ALLOCATE( QL( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'QL' )
QL = 0d0
! GEOS-5 snow depth (H2O equiv)
ALLOCATE( SNOMAS( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SNOMAS' )
SNOMAS = 0d0
! GEOS-5 snow depth (geometric)
ALLOCATE( SNODP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SNODP' )
SNODP = 0d0
! GEOS-5 ice path optical depth
ALLOCATE( TAUCLI( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TAUCLI' )
TAUCLI = 0d0
! GEOS-5 water path optical depth
ALLOCATE( TAUCLW( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TAUCLW' )
TAUCLW = 0d0
! GEOS-5 total column ozone
ALLOCATE( TO3( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TO3' )
TO3 = 0d0
! GEOS-5 total trop column ozone
ALLOCATE( TTO3( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TTO3' )
TTO3 = 0d0
#elif defined( GCAP )
!-----------------------------------------------------------------
! Allocate met field arrays that are only used for GCAP
!-----------------------------------------------------------------
! DTRAINE is only defined for GCAP
ALLOCATE( DETRAINE( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DETRAINE' )
DETRAINE = 0d0
! DETRAINN is only defined for GCAP
ALLOCATE( DETRAINN( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DETRAINN' )
DETRAINN = 0d0
! DNDE is only defined for GCAP
ALLOCATE( DNDE( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DNDE' )
DNDE = 0d0
! DNDN is only defined for GCAP
ALLOCATE( DNDN( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DNDN' )
DNDN = 0d0
! ENTRAIN is only defined for GCAP
ALLOCATE( ENTRAIN( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ENTRAIN' )
ENTRAIN = 0d0
! MOLENGTH is only defined for GCAP
ALLOCATE( MOLENGTH( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'MOLENGTH' )
MOLENGTH = 0d0
! OICE is only defined for GCAP
ALLOCATE( OICE( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'OICE' )
OICE = 0d0
! SNICE is only defined for GCAP
ALLOCATE( SNICE( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SNICE' )
SNICE = 0d0
! UPDE is only defined for GCAP
ALLOCATE( UPDE( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'UPDE' )
UPDE = 0d0
! UPDN is only defined for GCAP
ALLOCATE( UPDN( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'UPDN' )
UPDN = 0d0
#endif
#if defined( GEOS_FP )
! Specific humidity at start of 6-hr interval
ALLOCATE( SPHU1( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SPHU1' )
SPHU1 = 0d0
! Specific humidity at end of 6-hr interval
ALLOCATE( SPHU2( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SPHU2' )
SPHU2 = 0d0
! Temperature at start of 6-hr interval
ALLOCATE( TMPU1( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TMPU1' )
TMPU1 = 0d0
! Temperature at end of 6-hr interval
ALLOCATE( TMPU2( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TMPU2' )
TMPU2 = 0d0
ALLOCATE( EFLUX( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'EFLUX' )
EFLUX = 0d0
ALLOCATE( FRSEAICE( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'FRSEAICE' )
FRSEAICE = 0d0
ALLOCATE( FRSNO( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'FRSNO' )
FRSNO = 0d0
ALLOCATE( SEAICE00( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE00' )
SEAICE00 = 0d0
ALLOCATE( SEAICE10( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE10' )
SEAICE10 = 0d0
ALLOCATE( SEAICE20( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE20' )
SEAICE20 = 0d0
ALLOCATE( SEAICE30( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE30' )
SEAICE30 = 0d0
ALLOCATE( SEAICE40( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE40' )
SEAICE40 = 0d0
ALLOCATE( SEAICE50( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE50' )
SEAICE50 = 0d0
ALLOCATE( SEAICE60( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE60' )
SEAICE60 = 0d0
ALLOCATE( SEAICE70( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE70' )
SEAICE70 = 0d0
ALLOCATE( SEAICE80( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE80' )
SEAICE80 = 0d0
ALLOCATE( SEAICE90( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SEAICE90' )
SEAICE90 = 0d0
ALLOCATE( PREANV( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PREANV' )
PREANV = 0d0
ALLOCATE( PRELSC( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PRELSC' )
PRELSC = 0d0
ALLOCATE( DQRCU( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DQRCU' )
DQRCU = 0d0
ALLOCATE( DQRLSAN( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DQRLSAN' )
DQRLSAN = 0d0
ALLOCATE( REEVAPCN( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'REEVAPCN' )
REEVAPCN = 0d0
ALLOCATE( REEVAPLS( IIPAR, JJPAR, LLPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'REEVAPLS' )
REEVAPLS = 0d0
ALLOCATE( PFICU( IIPAR, JJPAR, LLPAR+1 ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PFICU' )
PFICU = 0d0
ALLOCATE( PFILSAN( IIPAR, JJPAR, LLPAR+1 ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PFILSAN' )
PFILSAN = 0d0
ALLOCATE( PFLCU( IIPAR, JJPAR, LLPAR+1 ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PFLCU' )
PFLCU = 0d0
ALLOCATE( PFLLSAN( IIPAR, JJPAR, LLPAR+1 ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PFLLSAN' )
PFLLSAN = 0d0
#endif
! adj_group: add TMP varaiables (dkh, 06/16/09)
ALLOCATE( SLP_TMP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SLP_TMP' )
SLP_TMP = 0d0
ALLOCATE( LWI_TMP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'LWI_TMP' )
LWI_TMP = 0d0
ALLOCATE( TO3_TMP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TO3_TMP' )
TO3_TMP = 0d0
ALLOCATE( TTO3_TMP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TTO3_TMP' )
TTO3_TMP = 0d0
! Return to calling program
END SUBROUTINE INIT_DAO
!------------------------------------------------------------------------------
SUBROUTINE CLEANUP_DAO
!
!******************************************************************************
! Subroutine CLEANUP_DAO deallocates all met field arrays.
! (bmy, 6/26/00, 1/17/07)
!
! NOTES:
! (1 ) Now deallocate SLP met field for GEOS-3 (bmy, 10/10/00)
! (2 ) Now deallocate OPTDEP met field for GEOS-3 (bmy, 8/15/01)
! (3 ) Now deallocate AVGW (bmy, 9/24/01)
! (4 ) Remove TAUCLD deallocation -- it's obsolete (bmy, 10/23/01)
! (5 ) Add call to deallocate PSC2 array (bmy, 3/27/02)
! (6 ) Elimintated PS, PSC arrays for floating-pressure fix.
! (dsa, bdf, bmy, 8/20/02)
! (7 ) Now deallocate AD, BXHEIGHT, and T arrays (bmy, 9/18/02)
! (8 ) Now deallocate PHIS array (bmy, 3/11/03)
! (9 ) Now deallocate SUNCOSB array. Remove reference to KZZ, since
! that is now obsolete. (bmy, 4/28/03)
! (10) Now list all arrays in order. Now also deallocate new arrays
! for GEOS-4/fvDAS. (bmy, 6/25/03)
! (11) Now deallocate CLDFRC, RADLWG, RADSWG, SNOW arrays (bmy, 12/9/03)
! (12) Now deallocate GCAP met fields (bmy, 5/25/05)
! (13) Remove support for GEOS-1 and GEOS-STRAT met fields (bmy, 8/4/06)
! (14) Deallocate additional arrays for GEOS-5 (bmy, 1/17/07)
!******************************************************************************
!
!=================================================================
! CLEANUP_DAO begins here!
!=================================================================
IF ( ALLOCATED( AD ) ) DEALLOCATE( AD )
IF ( ALLOCATED( AIRDEN ) ) DEALLOCATE( AIRDEN )
IF ( ALLOCATED( AIRVOL ) ) DEALLOCATE( AIRVOL )
IF ( ALLOCATED( ALBD1 ) ) DEALLOCATE( ALBD1 )
IF ( ALLOCATED( ALBD2 ) ) DEALLOCATE( ALBD2 )
IF ( ALLOCATED( ALBD ) ) DEALLOCATE( ALBD )
IF ( ALLOCATED( AVGW ) ) DEALLOCATE( AVGW )
IF ( ALLOCATED( BXHEIGHT ) ) DEALLOCATE( BXHEIGHT )
IF ( ALLOCATED( CLDF ) ) DEALLOCATE( CLDF )
IF ( ALLOCATED( CLDFRC ) ) DEALLOCATE( CLDFRC )
IF ( ALLOCATED( CLDMAS ) ) DEALLOCATE( CLDMAS )
IF ( ALLOCATED( CLDTOPS ) ) DEALLOCATE( CLDTOPS )
IF ( ALLOCATED( CMFMC ) ) DEALLOCATE( CMFMC )
IF ( ALLOCATED( DELP ) ) DEALLOCATE( DELP )
IF ( ALLOCATED( DETRAINE ) ) DEALLOCATE( DETRAINE )
IF ( ALLOCATED( DETRAINN ) ) DEALLOCATE( DETRAINN )
IF ( ALLOCATED( DNDE ) ) DEALLOCATE( DNDE )
IF ( ALLOCATED( DNDN ) ) DEALLOCATE( DNDN )
IF ( ALLOCATED( DQIDTMST ) ) DEALLOCATE( DQIDTMST )
IF ( ALLOCATED( DQLDTMST ) ) DEALLOCATE( DQLDTMST )
IF ( ALLOCATED( DQRCON ) ) DEALLOCATE( DQRCON )
IF ( ALLOCATED( DQRLSC ) ) DEALLOCATE( DQRLSC )
IF ( ALLOCATED( DQVDTMST ) ) DEALLOCATE( DQVDTMST )
IF ( ALLOCATED( DTRAIN ) ) DEALLOCATE( DTRAIN )
IF ( ALLOCATED( ENTRAIN ) ) DEALLOCATE( ENTRAIN )
IF ( ALLOCATED( EVAP ) ) DEALLOCATE( EVAP )
IF ( ALLOCATED( FRLAND ) ) DEALLOCATE( FRLAND )
IF ( ALLOCATED( FRLAKE ) ) DEALLOCATE( FRLAKE )
IF ( ALLOCATED( FROCEAN ) ) DEALLOCATE( FROCEAN )
IF ( ALLOCATED( FRLANDIC ) ) DEALLOCATE( FRLANDIC )
IF ( ALLOCATED( GRN ) ) DEALLOCATE( GRN )
IF ( ALLOCATED( GWETROOT ) ) DEALLOCATE( GWETROOT )
IF ( ALLOCATED( GWETTOP ) ) DEALLOCATE( GWETTOP )
IF ( ALLOCATED( HFLUX ) ) DEALLOCATE( HFLUX )
IF ( ALLOCATED( HKBETA ) ) DEALLOCATE( HKBETA )
IF ( ALLOCATED( HKETA ) ) DEALLOCATE( HKETA )
IF ( ALLOCATED( LAI ) ) DEALLOCATE( LAI )
IF ( ALLOCATED( LWI ) ) DEALLOCATE( LWI )
IF ( ALLOCATED( LWI_GISS ) ) DEALLOCATE( LWI_GISS )
IF ( ALLOCATED( MFXC ) ) DEALLOCATE( MFXC )
IF ( ALLOCATED( MFYC ) ) DEALLOCATE( MFYC )
IF ( ALLOCATED( MFZ ) ) DEALLOCATE( MFZ )
IF ( ALLOCATED( MOLENGTH ) ) DEALLOCATE( MOLENGTH )
IF ( ALLOCATED( MOISTQ ) ) DEALLOCATE( MOISTQ )
IF ( ALLOCATED( OICE ) ) DEALLOCATE( OICE )
IF ( ALLOCATED( OPTD ) ) DEALLOCATE( OPTD )
IF ( ALLOCATED( OPTDEP ) ) DEALLOCATE( OPTDEP )
IF ( ALLOCATED( PARDF ) ) DEALLOCATE( PARDF )
IF ( ALLOCATED( PARDR ) ) DEALLOCATE( PARDR )
IF ( ALLOCATED( PBL ) ) DEALLOCATE( PBL )
IF ( ALLOCATED( PHIS ) ) DEALLOCATE( PHIS )
IF ( ALLOCATED( PREACC ) ) DEALLOCATE( PREACC )
IF ( ALLOCATED( PRECON ) ) DEALLOCATE( PRECON )
IF ( ALLOCATED( PRECSNO ) ) DEALLOCATE( PRECSNO )
IF ( ALLOCATED( PS1 ) ) DEALLOCATE( PS1 )
IF ( ALLOCATED( PS2 ) ) DEALLOCATE( PS2 )
IF ( ALLOCATED( PSC2 ) ) DEALLOCATE( PSC2 )
IF ( ALLOCATED( PV ) ) DEALLOCATE( PV )
IF ( ALLOCATED( QI ) ) DEALLOCATE( QI )
IF ( ALLOCATED( QL ) ) DEALLOCATE( QL )
IF ( ALLOCATED( RADLWG ) ) DEALLOCATE( RADLWG )
IF ( ALLOCATED( RADSWG ) ) DEALLOCATE( RADSWG )
IF ( ALLOCATED( RH ) ) DEALLOCATE( RH )
IF ( ALLOCATED( SLP ) ) DEALLOCATE( SLP )
IF ( ALLOCATED( SNICE ) ) DEALLOCATE( SNICE )
IF ( ALLOCATED( SNODP ) ) DEALLOCATE( SNODP )
IF ( ALLOCATED( SNOMAS ) ) DEALLOCATE( SNOMAS )
IF ( ALLOCATED( SNOW ) ) DEALLOCATE( SNOW )
IF ( ALLOCATED( SPHU1 ) ) DEALLOCATE( SPHU1 )
IF ( ALLOCATED( SPHU2 ) ) DEALLOCATE( SPHU2 )
IF ( ALLOCATED( SPHU ) ) DEALLOCATE( SPHU )
IF ( ALLOCATED( SUNCOS ) ) DEALLOCATE( SUNCOS )
IF ( ALLOCATED( SUNCOS_5hr ) ) DEALLOCATE( SUNCOS_5hr )
IF ( ALLOCATED( SUNCOSB ) ) DEALLOCATE( SUNCOSB )
IF ( ALLOCATED( T ) ) DEALLOCATE( T )
IF ( ALLOCATED( TAUCLI ) ) DEALLOCATE( TAUCLI )
IF ( ALLOCATED( TAUCLW ) ) DEALLOCATE( TAUCLW )
IF ( ALLOCATED( TO3 ) ) DEALLOCATE( TO3 )
IF ( ALLOCATED( TTO3 ) ) DEALLOCATE( TTO3 )
IF ( ALLOCATED( TMPU1 ) ) DEALLOCATE( TMPU1 )
IF ( ALLOCATED( TMPU2 ) ) DEALLOCATE( TMPU2 )
IF ( ALLOCATED( TROPP ) ) DEALLOCATE( TROPP )
IF ( ALLOCATED( TROPP1 ) ) DEALLOCATE( TROPP1 )
IF ( ALLOCATED( TROPP2 ) ) DEALLOCATE( TROPP2 )
IF ( ALLOCATED( TS ) ) DEALLOCATE( TS )
IF ( ALLOCATED( TSKIN ) ) DEALLOCATE( TSKIN )
IF ( ALLOCATED( U10M ) ) DEALLOCATE( U10M )
IF ( ALLOCATED( UPDE ) ) DEALLOCATE( UPDE )
IF ( ALLOCATED( UPDN ) ) DEALLOCATE( UPDN )
IF ( ALLOCATED( USTAR ) ) DEALLOCATE( USTAR )
IF ( ALLOCATED( UWND ) ) DEALLOCATE( UWND )
IF ( ALLOCATED( UWND1 ) ) DEALLOCATE( UWND1 )
IF ( ALLOCATED( UWND2 ) ) DEALLOCATE( UWND2 )
IF ( ALLOCATED( V10M ) ) DEALLOCATE( V10M )
IF ( ALLOCATED( VWND ) ) DEALLOCATE( VWND )
IF ( ALLOCATED( VWND1 ) ) DEALLOCATE( VWND1 )
IF ( ALLOCATED( VWND2 ) ) DEALLOCATE( VWND2 )
IF ( ALLOCATED( Z0 ) ) DEALLOCATE( Z0 )
IF ( ALLOCATED( ZMEU ) ) DEALLOCATE( ZMEU )
IF ( ALLOCATED( ZMMD ) ) DEALLOCATE( ZMMD )
IF ( ALLOCATED( ZMMU ) ) DEALLOCATE( ZMMU )
! adj_group (dkh, 06/16/09)
IF ( ALLOCATED( SLP_TMP ) ) DEALLOCATE( SLP_TMP )
IF ( ALLOCATED( LWI_TMP ) ) DEALLOCATE( LWI_TMP )
IF ( ALLOCATED( TO3_TMP ) ) DEALLOCATE( TO3_TMP )
IF ( ALLOCATED( TTO3_TMP ) ) DEALLOCATE( TTO3_TMP )
!!! (lzh, 04/10/2014) add geos_fp
IF ( ALLOCATED( EFLUX ) ) DEALLOCATE( EFLUX )
IF ( ALLOCATED( FRSEAICE ) ) DEALLOCATE( FRSEAICE )
IF ( ALLOCATED( FRSNO ) ) DEALLOCATE( FRSNO )
IF ( ALLOCATED( SEAICE00 ) ) DEALLOCATE( SEAICE00 )
IF ( ALLOCATED( SEAICE10 ) ) DEALLOCATE( SEAICE10 )
IF ( ALLOCATED( SEAICE20 ) ) DEALLOCATE( SEAICE20 )
IF ( ALLOCATED( SEAICE30 ) ) DEALLOCATE( SEAICE30 )
IF ( ALLOCATED( SEAICE40 ) ) DEALLOCATE( SEAICE40 )
IF ( ALLOCATED( SEAICE50 ) ) DEALLOCATE( SEAICE50 )
IF ( ALLOCATED( SEAICE60 ) ) DEALLOCATE( SEAICE60 )
IF ( ALLOCATED( SEAICE70 ) ) DEALLOCATE( SEAICE70 )
IF ( ALLOCATED( SEAICE80 ) ) DEALLOCATE( SEAICE80 )
IF ( ALLOCATED( SEAICE90 ) ) DEALLOCATE( SEAICE90 )
IF ( ALLOCATED( DQRCU ) ) DEALLOCATE( DQRCU )
IF ( ALLOCATED( DQRLSAN ) ) DEALLOCATE( DQRLSAN )
IF ( ALLOCATED( REEVAPCN ) ) DEALLOCATE( REEVAPCN )
IF ( ALLOCATED( REEVAPLS ) ) DEALLOCATE( REEVAPLS )
IF ( ALLOCATED( PFICU ) ) DEALLOCATE( PFICU )
IF ( ALLOCATED( PFILSAN ) ) DEALLOCATE( PFILSAN )
IF ( ALLOCATED( PFLCU ) ) DEALLOCATE( PFLCU )
IF ( ALLOCATED( PFLLSAN ) ) DEALLOCATE( PFLLSAN )
! Return to calling program
END SUBROUTINE CLEANUP_DAO
!------------------------------------------------------------------------------
! End of module
END MODULE DAO_MOD
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