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GEOS-Chem-adjoint-v35-note/code/dust_dead_mod.f
Xuesong (Steve) e17feeaad3 Add files via upload
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! $Id: dust_dead_mod.f,v 1.2 2012/03/01 22:00:26 daven Exp $
MODULE DUST_DEAD_MOD
!
!******************************************************************************
! Module DUST_DEAD_MOD contains routines and variables from Charlie Zender's
! DEAD dust mobilization model. Most routines are from Charlie Zender, but
! have been modified and/or cleaned up for inclusion into GEOS-Chem.
! (tdf, rjp, bmy, 4/6/04, 8/13/10)
!
! %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
! %%% NOTE: The current [dust] code was validated at 2 x 2.5 resolution. %%%
! %%% We have found that running at 4x5 we get much lower (~50%) dust %%%
! %%% emissions than at 2x2.5. Recommend we either find a way to scale %%%
! %%% the U* computed in the dust module, or run a 1x1 and store the the %%%
! %%% dust emissions, with which to drive lower resolution runs. %%%
! %%% -- Duncan Fairlie, 1/25/07 %%%
! %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
! %%% NOTE: [We'll] implement the [dust] code in the standard [GEOS-Chem] %%%
! %%% model and put a warning about expected low bias when the simulation %%%
! %%% is run at 4x5. Whoever is interested in running dust at 4x5 in the %%%
! %%% future can deal with making the fix. %%%
! %%% -- Daniel Jacob, 1/25/07 %%%
! %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
!
! Module Variables:
! ============================================================================
! (1 ) GAS_CNST_UNV (REAL*8 ) : Universal gas constant [J/mol/K ]
! (2 ) MMW_H2O (REAL*8 ) : Mean mol wt (MMW) of water [kg/mol ]
! (3 ) MMW_DRY_AIR (REAL*8 ) : Mean mol wt (MMW) of dry air [kg/mol ]
! (4 ) CST_VON_KRM (REAL*8 ) : Von Karman constant [fraction]
! (5 ) GRV_SFC (REAL*8 ) : Acceleration due to gravity [m/s2 ]
! (6 ) GAS_CST_DRY_AIR (REAL*8 ) : Gas constant of dry air [J/kg/K ]
! (7 ) RDS_EARTH (REAL*8 ) : Equivalent earth radius [m ]
! (8 ) GAS_CST_H2O (REAL*8 ) : Gas constant of H2O [J/kg/K ]
! (9 ) SPC_HEAT_DRY_AIR (REAL*8 ) : Specific heat of dry air, Cp [J/kg/K ]
! (10) TPT_FRZ_PNT (REAL*8) : Freezing point of water [K ]
! (11) GRV_SFC_RCP (REAL*8) : 1/GRV_SFC [s2/m ]
! (12) CST_VON_KRM_RCP (REAL*8) : 1/CST_VON_KRM [fraction]
! (13) EPS_H2O (REAL*8) : MMW(H2O) / MMW(dry air) [fraction]
! (14) EPS_H2O_RCP_M1 (REAL*8) : Constant for virtual temp. [fraction]
! (15) KAPPA_DRY_AIR (REAL*8) : R/Cp (const. for pot. temp) [fraction]
! (16) DST_SRC_NBR (INTEGER) : # of size distributions in source soil
! (17) MVT (INTEGER) :
! (18) ERD_FCT_GEO (REAL*8 ) : Geomorphic erodibility
! (19) ERD_FCT_HYDRO (REAL*8 ) : Hydrologic erodibility
! (20) ERD_FCT_TOPO (REAL*8 ) : Topographic erodibility (Ginoux)
! (21) ERD_FCT_UNITY (REAL*8 ) : Uniform erodibility
! (22) MBL_BSN_FCT (REAL*8 ) : Overall erodibility factor
! (23) LND_FRC_DRY (REAL*8 ) : Dry Land Fraction [fraction]
! (24) MSS_FRC_CACO3 (REAL*8 ) : Mass Fraction of soil CaCO3 [fraction]
! (25) MSS_FRC_CLY (REAL*8 ) : Mass fraction of clay [fraction]
! (26) MSS_FRC_SND (REAL*8 ) : Mass fraction of sand [fraction]
! (27) SFC_TYP (INTEGER) : Surface type index (0..28) [unitless]
! (28) FLX_LW_DWN_SFC (REAL*8 ) : Downward Longwave flux at sfc [W/m2 ]
! (29) FLX_SW_ABS_SFC (REAL*8 ) : Solar flux absorbed by ground [W/m2 ]
! (30) TPT_GND (REAL*8 ) : Ground temperature [K ]
! (31) TPT_SOI (REAL*8 ) : Soil temperature [K ]
! (32) VWC_SFC (REAL*8 ) : Volumetric water content [m3/m3 ]
! (33) VAI_DST (REAL*8 ) : Vegetation area index [m2/m2 ]
! (34) VAI_DST_BND (REAL*8 ) : Vegetation area index-boundary [m2/m2 ]
! (35) SRC_STR (REAL*8 ) : Source strength [fraction]
! (36) SRC_STR_BND (REAL*8 ) : Source strength-boundary data [fraction]
! (37) PLN_TYP (INTEGER) : LSM plant type index (1-14) [number ]
! (38) PLN_FRC (REAL*8 ) : Plant type weights (sums to 1) [unitless]
! (39) TAI (REAL*8 ) : monthly LAI + Stem Area Index [fraction]
! (40) DMT_VWR (REAL*8 ) : Mass weighted diameter resolved[m ]
! (41) DNS_AER (REAL*8 ) : Particle density [kg/m3 ]
! (42) OVR_SRC_SNK_FRC (REAL*8 ) : Mass Overlap fraction (Mij p5) [fraction]
! (43) OVR_SRC_SNK_MSS (REAL*8 ) : Mass fraction [fraction]
! (44) OROGRAPHY (INTEGER) : 0=ocean; 1=land; 2=ice [unitless]
! (45) DMT_MIN (REAL*8 ) : Bin diameter -- minimums [m ]
! (46) DMT_MAX (REAL*8 ) : Bin diameter -- maximums [m ]
! (47) DMT_VMA_SRC (REAL*8 ) : D'Almeida's (1987) bkgr modes [m ]
! (48) GSD_ANL_SRC (REAL*8 ) : Geometric std deviation [fraction]
! (49) MSS_FRC_SRC (REAL*8 ) : Mass fraction BSM96 p.73 [fraction]
! (50) SRCE_FUNC (REAL*8 ) : GOCART source function [fraction]
!
! Module Routines:
! ============================================================================
! (1 ) DST_MBL : Driver routine for dust mobilization
! (2 ) SOI_TXT_GET : Gets latitude slice of soil texture
! (3 ) SFC_TYP_GET : Gets latitude slice of surface type
! (4 ) TPT_GND_SOI_GET : Gets latitude slice of soil & gnd tmp
! (5 ) VWC_SFC_GET : Gets latitude slice of VWC
! (6 ) DSVPDT_H2O_LQD_PRK78_FST_SCL : Gets deriv of vapor pressure over water
! (7 ) DSVPDT_H2O_ICE_PRK78_FST_SCL : Gets deriv of vapor pressure over ice
! (8 ) SVP_H2O_LQD_PRK78_FST_SCL : Gets saturation vapor press. over water
! (9 ) SVP_H2O_ICE_PRK78_FST_SCL : Gets saturation vapor press. over ice
! (10) TPT_BND_CLS_GET : Gets temperature in C (-50 < T < 50 C)
! (11) GET_ORO : Gets 2-D orography array
! (12) HYD_PRP_GET : Gets hydrologic properties of soil
! (13) CND_TRM_SOI_GET : Gets thermal properties of soil
! (14) TRN_FSH_VPR_SOI_ATM_GET : Gets factor of transfer from soil->atm
! (15) BLM_MBL : Gets boundary-layer exchange properties
! (16) ORO_IS_OCN : Returns TRUE for ocean grid boxes
! (17) ORO_IS_LND : Returns TRUE for land grid boxes
! (18) ORO_IS_ICE : Returns TRUE for ice grid boxes
! (19) MNO_STB_CRC_HEAT_UNS_GET : Returns M-O stab corr factor for heat
! (20) MNO_STB_CRC_MMN_UNS_GET : Returns M-0 stab corr factor for mom.
! (21) XCH_CFF_MMN_OCN_NTR_GET : Returns neutral 10m drag coefficient
! (22) RGH_MMN_GET : Sets the roughness length
! (23) SNW_FRC_GET : Converts LW snow depth to snow cover
! (24) WND_RFR_GET : Interpolates wind speed to ref. hght
! (25) WND_FRC_THR_SLT_GET : Gets dry friction vel. for saltation
! (26) WND_RFR_THR_SLT_GET : Gets threshold U-wind for saltation
! (27) VWC2GWC : Converts VWC to GWC
! (28) FRC_THR_NCR_WTR_GET : Gets factor: soil moist. incr. USTAR
! (29) FRC_THR_NCR_DRG_GET : Gets factor: roughness incr. USTAR
! (30) WND_FRC_SLT_GET : Gets saltating fricton velocity
! (31) FLX_MSS_CACO3_MSK : Mask dust mass by CaCO3 mass fraction
! (32) FLX_MSS_HRZ_SLT_TTL_WHI79_GET : Gets vert int. streamwise mass flux
! (33) FLX_MSS_VRT_DST_TTL_MAB95_GET : Gets total vertical mass flux of dust
! (34) DST_PSD_MSS : Gets OVR_SRC_SNK_MSS mass overlap
! (35) FLX_MSS_VRT_DST_PRT : Partitions vert mass flux into bins
! (36) TM_2_IDX_WGT : Now deleted
! (37) LND_FRC_MBL_GET : Gets fraction of grid box for mobiliz.
! (38) DST_ADD_LON : Sums property w/in a dust bin
! (39) DST_TVBDS_GET : Gets a latitude slice of VAI data
! (40) OVR_SRC_SNK_FRC_GET : Gets overlap factors betwn src & sink
! (41) ERF : Driver for CALERF
! (42) CALERF : Platform independent erf(x)
! (43) PLN_TYP_GET : Returns info from land sfc model
! (44) GET_TIME_INVARIANT_DATA : Reads time-invariant fields from disk
! (45) GET_MONTHLY_DATA : Reads monthly fields from disk
! (46) INIT_DUST_DEAD : Allocates & zeroes module arrays
! (47) CLEANUP_DUST_DEAD : Deallocates
!
! GEOS-CHEM modules referenced by dust_dead_mod.f
! ============================================================================
! (1 ) bpch2_mod.f : Module containing routines for binary punch file I/O
! (2 ) dao_mod.f : Module containing arrays for GMAO met fields
! (3 ) directory_mod.f : Module containing GEOS-CHEM data & met field dirs
! (4 ) error_mod.f : Module containing I/O error and NaN check routines
! (5 ) grid_mod.f : Module containing horizontal grid information
! (6 ) time_mod.f : Module containing routines for computing time & date
! (7 ) transfer_mod.f : Module containing routines to cast & resize arrays
!
! NOTES:
! (1 ) Added parallel DO loop in GET_ORO (bmy, 4/14/04)
! (2 ) Now references "directory_mod.f" (bmy, 7/20/04)
! (3 ) Fixed typo in ORO_IS_LND for PGI compiler (bmy, 3/1/05)
! (4 ) Modified for GEOS-5 and GCAP met fields (swu, bmy, 8/16/05)
! (5 ) Now make sure all USE statements are USE, ONLY (bmy, 10/3/05)
! (6 ) Now uses GOCART source function (tdf, bmy, 1/25/07)
! (7 ) Modifications for 0.5 x 0.667 grid (yxw, dan, bmy, 11/6/08)
! (8 ) Updates for nested grids (amv, bmy, 12/18/09)
!******************************************************************************
!
IMPLICIT NONE
# include "define.h"
!=================================================================
! MODULE PRIVATE DECLARATIONS -- keep certain internal variables
! and routines from being seen outside "dust_dead_mod.f"
!=================================================================
! Make everything PRIVATE....
PRIVATE
! Except these routines
PUBLIC :: DST_MBL
PUBLIC :: CLEANUP_DUST_DEAD
PUBLIC :: GET_ORO
PUBLIC :: GET_TIME_INVARIANT_DATA
PUBLIC :: GET_MONTHLY_DATA
!=================================================================
! MODULE VARIABLES
!=================================================================
! Fundamental physical constants
REAL*8, PARAMETER :: GAS_CST_UNV = 8.31441d0
REAL*8, PARAMETER :: MMW_H2O = 1.8015259d-02
REAL*8, PARAMETER :: MMW_DRY_AIR = 28.9644d-3
REAL*8, PARAMETER :: CST_VON_KRM = 0.4d0
REAL*8, PARAMETER :: GRV_SFC = 9.80616d0
REAL*8, PARAMETER :: GAS_CST_DRY_AIR = 287.05d0
REAL*8, PARAMETER :: RDS_EARTH = 6.37122d+6
REAL*8, PARAMETER :: GAS_CST_H2O = 461.65D0
REAL*8, PARAMETER :: SPC_HEAT_DRY_AIR = 1005.0d0
REAL*8, PARAMETER :: TPT_FRZ_PNT = 273.15d0
! Derived quantities
REAL*8, PARAMETER :: GRV_SFC_RCP = 1.0d0 / GRV_SFC
REAL*8, PARAMETER :: CST_VON_KRM_RCP = 1.0d0 / CST_VON_KRM
REAL*8, PARAMETER :: EPS_H2O = MMW_H2O / MMW_DRY_AIR
REAL*8, PARAMETER :: EPS_H2O_RCP_M1 = -1.0d0 + MMW_DRY_AIR
& / MMW_H2O
REAL*8, PARAMETER :: KAPPA_DRY_AIR = GAS_CST_DRY_AIR
& / SPC_HEAT_DRY_AIR
! Fixed-size grid information
INTEGER, PARAMETER :: DST_SRC_NBR = 3
INTEGER, PARAMETER :: MVT = 14
! Time-invariant fields
REAL*8, ALLOCATABLE :: ERD_FCT_GEO(:,:)
REAL*8, ALLOCATABLE :: ERD_FCT_HYDRO(:,:)
REAL*8, ALLOCATABLE :: ERD_FCT_TOPO(:,:)
REAL*8, ALLOCATABLE :: ERD_FCT_UNITY(:,:)
REAL*8, ALLOCATABLE :: MBL_BSN_FCT(:,:)
! GOCART source function (tdf, bmy, 1/25/07)
REAL*8, ALLOCATABLE :: SRCE_FUNC(:,:)
! Land surface that is not lake or wetland (by area)
REAL*8, ALLOCATABLE :: LND_FRC_DRY(:,:)
REAL*8, ALLOCATABLE :: MSS_FRC_CACO3(:,:)
REAL*8, ALLOCATABLE :: MSS_FRC_CLY(:,:)
REAL*8, ALLOCATABLE :: MSS_FRC_SND(:,:)
INTEGER, ALLOCATABLE :: SFC_TYP(:,:)
! Time-varying surface info from CTM
REAL*8, ALLOCATABLE :: FLX_LW_DWN_SFC(:,:)
REAL*8, ALLOCATABLE :: FLX_SW_ABS_SFC(:,:)
REAL*8, ALLOCATABLE :: TPT_GND(:,:)
REAL*8, ALLOCATABLE :: TPT_SOI(:,:)
REAL*8, ALLOCATABLE :: VWC_SFC(:,:)
! Variables initialized in dst_tvbds_ntp() and dst_tvbds_ini()
REAL*8, ALLOCATABLE :: VAI_DST(:,:)
REAL*8, ALLOCATABLE :: SRC_STR(:,:)
! LSM plant type, 28 land surface types plus 0 for ocean
! Also account for 3 different land types in each grid box
INTEGER, ALLOCATABLE :: PLN_TYP(:,:)
REAL*8, ALLOCATABLE :: PLN_FRC(:,:)
REAL*8, ALLOCATABLE :: TAI(:,:)
! Other fields
REAL*8, ALLOCATABLE :: DMT_VWR(:)
REAL*8, ALLOCATABLE :: DNS_AER(:)
REAL*8, ALLOCATABLE :: OVR_SRC_SNK_FRC(:,:)
REAL*8, ALLOCATABLE :: OVR_SRC_SNK_MSS(:,:)
INTEGER, ALLOCATABLE :: OROGRAPHY(:,:)
REAL*8, ALLOCATABLE :: DMT_MIN(:)
REAL*8, ALLOCATABLE :: DMT_MAX(:)
REAL*8, ALLOCATABLE :: DMT_VMA_SRC(:)
REAL*8, ALLOCATABLE :: GSD_ANL_SRC(:)
REAL*8, ALLOCATABLE :: MSS_FRC_SRC(:)
!=================================================================
! MODULE ROUTINES -- follow below the "CONTAINS" statement
!=================================================================
CONTAINS
!------------------------------------------------------------------------------
SUBROUTINE DST_MBL( DOY, HGT_MDP, LAT_IDX,
& LAT_RDN, ORO, PRS_DLT,
& PRS_MDP, Q_H2O_VPR, DSRC,
& SNW_HGT_LQD, TM_ADJ, TPT_MDP,
& TPT_PTN_MDP, WND_MRD_MDP, WND_ZNL_MDP,
& FIRST, NSTEP )
!
!******************************************************************************
! Subroutine DST_MBL is the driver for aerosol mobilization (DEAD model).
! It is designed to require only single layer surface fields, allowing for
! easier implementation. DST_MBL is called once per latitude. Modified
! for GEOS-CHEM by Duncan Fairlie and Bob Yantosca.
! (tdf, bmy, 1/25/07, 12/18/09)
!
! Arguments as Input:
! ============================================================================
! (1 ) DOY (REAL*8 ) : Day of year [1.0..366.0) [unitless]
! (2 ) HGT_MDP (REAL*8 ) : Midpoint height above surface [m ]
! (3 ) LAT_IDX (INTEGER) : Model latitude index [unitless]
! (4 ) LAT_RDN (REAL*8 ) : Model latitude [radians ]
! (5 ) ORO (REAL*8 ) : Orography [fraction]
! (6 ) PRS_DLT (REAL*8 ) : Pressure thickness of grid box [Pa ]
! (7 ) PRS_MDP (REAL*8 ) : Pressure @ midpoint of grid box [Pa ]
! (8 ) Q_H2O_VPR, (REAL*8 ) : Water vapor mixing ratio [kg/kg ]
! (9 ) SNW_HGT_LQD (REAL*8 ) : Equivalent liquid water snow depth [m ]
! (10) TM_ADJ, (REAL*8 ) : Adjustment timestep [s ]
! (11) TPT_MDP, (REAL*8 ) : Temperature [K ]
! (12) TPT_PTN_MDP (REAL*8 ) : Midlayer local potential temp. [K ]
! (13) WND_MRD_MDP (REAL*8 ) : Meridional wind component (V-wind) [m/s ]
! (14) WND_ZNL_MDP (REAL*8 ) : Zonal wind component (U-wind) [m/s ]
! (15) FIRST, (LOGICAL) : Logical used ot open output dataset [unitless]
! (16) NSTEP (INTEGER) : Iteration counter [unitless]
!
! Arguments as Output:
! ============================================================================
! (10) DSRC ! O [kg kg-1] Dust mixing ratio increment
!
! NOTES:
! (1 ) Cleaned up and added comments. Also force double precision with
! "D" exponents. (bmy, 3/30/04)
! (2 ) Now get GOCART source function. (tdf, bmy, 1/25/07)
! (3 ) Tune nested-domain emissions dust to the same as 2x2.5 simulation
! Also tune GEOS-3 1x1 N. America nested-grid dust emissions to
! the 4x5 totals from the GEOS-5 4x5 v8-01-01-Run0 benchmark.
! (yxw, bmy, dan, 11/6/08)
! (4 ) New scale parameter for 2x2.5 GEOS-5 (tdf, jaf, phs, 10/30/09)
! (5 ) Defined FLX_MSS_FDG_FCT for GEOS_4 2x2.5, GEOS_5 2x2.5, NESTED_NA and
! NESTED_EU. Redefined FLX_MSS_FDG_FCT for NESTED_CH, based upon above
! changes. (amv, bmy, 12/18/09)
! (6 ) For now treat MERRA like GEOS-5 (bmy, 8/13/10)
! 29 Oct 2010 - T. D. Fairlie, R. Yantosca - Retune dust for MERRA 4x5
!******************************************************************************
!
! References to F90 modules
USE DAO_MOD, ONLY : USTAR, Z0
USE GRID_MOD, ONLY : GET_AREA_M2
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: LAT_IDX
REAL*8, INTENT(IN) :: DOY
REAL*8, INTENT(IN) :: HGT_MDP(IIPAR)
REAL*8, INTENT(IN) :: LAT_RDN
REAL*8, INTENT(IN) :: ORO(IIPAR)
REAL*8, INTENT(IN) :: PRS_DLT(IIPAR)
REAL*8, INTENT(IN) :: PRS_MDP(IIPAR)
REAL*8, INTENT(IN) :: Q_H2O_VPR(IIPAR)
REAL*8, INTENT(IN) :: SNW_HGT_LQD(IIPAR)
REAL*8, INTENT(IN) :: TM_ADJ
REAL*8, INTENT(IN) :: TPT_MDP(IIPAR)
REAL*8, INTENT(IN) :: TPT_PTN_MDP(IIPAR)
REAL*8, INTENT(IN) :: WND_MRD_MDP(IIPAR)
REAL*8, INTENT(IN) :: WND_ZNL_MDP(IIPAR)
INTEGER, INTENT(IN) :: NSTEP
LOGICAL, INTENT(IN) :: FIRST
REAL*8, INTENT(INOUT) :: DSRC(IIPAR,NDSTBIN)
!--------------
! Parameters
!--------------
! Global mass flux tuning factor (a posteriori) [frc]
#if defined( GEOS_5 ) && defined( GRID05x0666 )
#if defined(NESTED_CH)
! retuned based upon updated GEOS-4 tuning (amv, Nov 9, 2009)
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 3.23d-4
#elif defined(NESTED_EU)
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 4.54d-4
#elif defined(NESTED_NA)
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 2.16d-4
#endif
#elif defined( GEOS_4 ) && defined( GRID2x25 )
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 3.5d-4
#elif defined( GEOS_5 ) && defined( GRID2x25 )
! retuned based upon updated GEOS-4 tuning (amv, Nov 9, 2009)
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 4.9d-4
#elif defined( MERRA ) && defined( GRID2x25 )
!%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
!%%% NOTE: RETUNING FOR MERRA 1x25 IS NEEDED ONCE MET IS AVAILABLE %%%
!%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 4.9d-4
#elif defined( MERRA ) && defined( GRID4x5 )
!----------------------------------------------------------------
! Based on results from MERRA 4x5 for years 2004-2005:
!
! (GEOS-5 - MERRA)/GEOS-5 * 100 is 26.9% in each size bin.
!
! We need to scale to the parameter FLX_MSS_FDG_FCT to make the
! dust emissions consistent. Consequently, to bring MERRA 4x5
! dust emissions up to GEOS-5 levels, we need to DIVIDE the
! FLX_MSS_FDG_FCT used for GEOS-5 by (1. - 0.269) = 0.731.
!
! -- Duncan Fairlie (t.d.fairlie@nasa.gov), 29 Oct 2010
!----------------------------------------------------------------
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 7.0d-4 / 0.731d0
!! (lzh, 11/01/2014) add geos_fp
#elif defined( GEOS_FP ) && defined( GRID2x25 )
!%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
!%%% NOTE: RETUNING FOR MERRA 1x25 IS NEEDED ONCE MET IS AVAILABLE %%%
!%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 4.9d-4
#elif defined( GEOS_FP ) && defined( GRID4x5 )
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 7.0d-4 / 0.731d0
#elif defined( GEOS_3 ) && defined( GRID1x1 ) && defined( NESTED_NA )
! For the GEOS-3 1x1 N. America Nested grid (as used by the MIT/FAA-ULS
! project), we'll tune the global dust emissions to the same totals as
! the GEOS-5 4x5 1-year benchmark v8-01-01-Run0. (bmy, 11/10/08)
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 7.0d-4 / 9.57d0
#else
! Default value
REAL*8, PARAMETER :: FLX_MSS_FDG_FCT = 7.0d-4
#endif
! Reference height for mobilization processes [m]
REAL*8, PARAMETER :: HGT_RFR = 10.0d0
! Zero plane displacement for erodible surfaces [m]
REAL*8, PARAMETER :: HGT_ZPD_MBL = 0.0d0
! Set roughness length momentum for erodible surfaces, S&P, p. 858. [m]
REAL*8, PARAMETER :: RGH_MMN_MBL = 1.0d-3
! rgh_mmn_smt set to 33.3e-6 um, MaB95 p. 16426 recommend 10.0e-6
! Smooth roughness length MaB95 p. 16426, MaB97 p. 4392, GMB98 p. 6207
! [m] Z0,m,s
REAL*8, PARAMETER :: RGH_MMN_SMT = 33.3d-6
! Minimum windspeed used for mobilization [m/s]
REAL*8, PARAMETER :: WND_MIN_MBL = 1.0d0
!--------------
! Local Output
!--------------
REAL*8 DST_SLT_FLX_RAT_TTL(IIPAR) ! [m-1] Ratio of vertical dust flux to
! streamwise mass flux
REAL*8 FLX_MSS_HRZ_SLT_TTL(IIPAR) ! [kg/m/s] Vertically integrated
! streamwise mass flux
REAL*8 FLX_MSS_VRT_DST_TTL(IIPAR) ! [kg/m2/s] Total vertical mass
! flux of dust
REAL*8 FRC_THR_NCR_DRG(IIPAR) ! [frc] Threshold friction velocity
! increase from roughness
REAL*8 FRC_THR_NCR_WTR(IIPAR) ! [frc] Threshold friction velocity
! increase from moisture
REAL*8 FLX_MSS_VRT_DST(IIPAR,NDSTBIN) ! [kg/m2/s] Vertical mass flux
! of dust
REAL*8 HGT_ZPD(IIPAR) ! [m] Zero plane displacement
REAL*8 LND_FRC_MBL_SLICE(IIPAR) ! [frc] Bare ground fraction
REAL*8 MNO_LNG(IIPAR) ! [m] Monin-Obukhov length
REAL*8 WND_FRC(IIPAR) ! [m/s] Friction velocity
REAL*8 WND_FRC_GEOS(IIPAR) ! [m/s] Friction velocity
REAL*8 Z0_GEOS(IIPAR) ! [m] roughness height
REAL*8 SNW_FRC(IIPAR) ! [frc] Fraction of surface covered
! by snow
REAL*8 TRN_FSH_VPR_SOI_ATM(IIPAR) ! [frc] Transfer efficiency of vapor
! from soil to atmosphere
REAL*8 wnd_frc_slt(IIPAR) ! [m/s] Saltating friction velocity
REAL*8 WND_FRC_THR_SLT(IIPAR) ! [m/s] Threshold friction velocity
! for saltation
REAL*8 WND_MDP(IIPAR) ! [m/s] Surface layer mean wind speed
REAL*8 WND_RFR(IIPAR) ! [m/s] Wind speed at reference height
REAL*8 WND_RFR_THR_SLT(IIPAR) ! [m/s] Threshold 10 m wind speed for
! saltation
LOGICAL FLG_CACO3 ! [FLG] Activate CaCO3 tracer
LOGICAL FLG_MBL_SLICE(IIPAR) ! [flg] Mobilization candidates
CHARACTER(80) FL_OUT ! [sng] Name of netCDF output file
INTEGER I ! [idx] Counting index
INTEGER IJLOOP ! [idx] counting index
INTEGER M ! [idx] Counting index
INTEGER MBL_NBR ! [nbr] Number of mobilization candidates
INTEGER SFC_TYP_SLICE(IIPAR) ! [idx] LSM surface type lat slice (0..28)
REAL*8 CND_TRM_SOI(IIPAR) ! [W/m/K] Soil thermal conductivity
REAL*8 DNS_MDP(IIPAR) ! [kg/m3] Midlayer density
REAL*8 FLX_LW_DWN_SFC_SLICE(IIPAR) ! [W/m2] Longwave downwelling flux
! at surface
REAL*8 FLX_SW_ABS_SFC_SLICE(IIPAR) ! [W/m2] Solar flux absorbed by ground
REAL*8 LND_FRC_DRY_SLICE(IIPAR) ! [frc] Dry land fraction
REAL*8 MBL_BSN_FCT_SLICE(IIPAR) ! [frc] Erodibility factor
REAL*8 MSS_FRC_CACO3_SLICE(IIPAR) ! [frc] Mass fraction of CaCO3
REAL*8 MSS_FRC_CLY_SLICE(IIPAR) ! [frc] Mass fraction of clay
REAL*8 MSS_FRC_SND_SLICE(IIPAR) ! [frc] Mass fraction of sand
! GOCART source function (tdf, bmy, 1/25/07)
REAL*8 SRCE_FUNC_SLICE(IIPAR) ! GOCART source function
REAL*8 LVL_DLT(IIPAR) ! [m] Soil layer thickness
REAL*8 MPL_AIR(IIPAR) ! [kg/m2] Air mass path in layer
REAL*8 TM_DLT ! [s] Mobilization timestep
REAL*8 TPT_GND_SLICE(IIPAR) ! [K] Ground temperature
REAL*8 TPT_SOI_SLICE(IIPAR) ! [K] Soil temperature
REAL*8 TPT_SOI_FRZ ! [K] Temperature of frozen soil
REAL*8 TPT_VRT_MDP ! [K] Midlayer virtual temperature
REAL*8 VAI_DST_SLICE(IIPAR) ! [m2/m2] Vegetation area index,
! one-sided
REAL*8 VWC_DRY(IIPAR) ! [m3/s] Dry volumetric water content
! (no E-T)
REAL*8 VWC_OPT(IIPAR) ! [m3/m3] E-T optimal volumetric water
! content
REAL*8 VWC_SAT(IIPAR) ! [m3/m3] Saturated volumetric water
! content (sand-dependent)
REAL*8 VWC_SFC_SLICE(IIPAR) ! [m3/m3] Volumetric water content
REAL*8 GWC_SFC(IIPAR) ! [kg/kg] Gravimetric water content
REAL*8 RGH_MMN(IIPAR) ! [m] Roughness length momentum
REAL*8 W10M
! GCM diagnostics
! Dust tendency due to gravitational settling [kg/kg/s]
REAL*8 Q_DST_TND_MBL(IIPAR,NDSTBIN)
! Total dust tendency due to gravitational settling [kg/kg/s]
REAL*8 Q_DST_TND_MBL_TTL(IIPAR)
! External functions
REAL*8, EXTERNAL :: SFCWINDSQR
!=================================================================
! DST_MBL begins here!
!=================================================================
! Time step [s]
TM_DLT = TM_ADJ
! Freezing pt of soil [K] -- assume it's 0C
TPT_SOI_FRZ = TPT_FRZ_PNT
! Initialize output fluxes and tendencies
Q_DST_TND_MBL(:,:) = 0.0D0 ! [kg kg-1 s-1]
Q_DST_TND_MBL_TTL(:) = 0.0D0 ! [kg kg-1 s-1]
FLX_MSS_VRT_DST(:,:) = 0.0D0 ! [kg m-2 s-1]
FLX_MSS_VRT_DST_TTL(:) = 0.0D0 ! [kg m-2 s-1]
FRC_THR_NCR_WTR(:) = 0.0D0 ! [frc]
WND_RFR(:) = 0.0D0 ! [m s-1]
WND_FRC(:) = 0.0D0 ! [m s-1]
WND_FRC_SLT(:) = 0.0D0 ! [m s-1]
WND_FRC_THR_SLT(:) = 0.0D0 ! [m s-1]
WND_RFR_THR_SLT(:) = 0.0D0 ! [m s-1]
HGT_ZPD(:) = HGT_ZPD_MBL ! [m]
DSRC(:,:) = 0.0D0
!=================================================================
! Compute necessary derived fields
!=================================================================
DO I = 1, IIPAR
! Stop occasional haywire model runs
IF ( TPT_MDP(I) > 350.0d0 ) THEN
CALL ERROR_STOP( 'TPT_MDP(i) > 350.0',
& 'DST_MBL ("dust_dead_mod.f")' )
ENDIF
! Midlayer virtual temperature [K]
TPT_VRT_MDP = TPT_MDP(I)
& * (1.0d0 + EPS_H2O_RCP_M1 * Q_H2O_VPR(I))
! Density at center of gridbox [kg/m3]
DNS_MDP(I) = PRS_MDP(I)
& / (TPT_VRT_MDP * GAS_CST_DRY_AIR)
! Commented out
!cApproximate surface virtual temperature (uses midlayer moisture)
!c tpt_vrt_sfc=tpt_sfc(i)*(1.0+eps_H2O_rcp_m1*q_H2O_vpr(i)) ! [K]
!c
!c Surface density
!c dns_sfc(i)=prs_sfc(i)/(tpt_vrt_sfc*gas_cst_dry_air) ! [kg m-3]
! Mass of air currently in gridbox [kg/m2]
MPL_AIR(I) = PRS_DLT(I) * GRV_SFC_RCP
! Mean surface layer horizontal wind speed
WND_MDP(I) = SQRT( WND_ZNL_MDP(I)*WND_ZNL_MDP(I)
& + WND_MRD_MDP(I)*WND_MRD_MDP(I) )
ENDDO
!=================================================================
! Gather input variables from GEOS-CHEM modules etc.
!=================================================================
! Get LSM Surface type (0..28)
CALL SFC_TYP_GET( LAT_IDX, SFC_TYP_SLICE )
! Get erodability and mass fractions
CALL SOI_TXT_GET(
& LAT_IDX, ! I [idx] Latitude index
& LND_FRC_DRY_SLICE, ! O [frc] Dry land fraction
& MBL_BSN_FCT_SLICE, ! O [frc] Erodibility factor
& MSS_FRC_CACO3_SLICE, ! O [frc] Mass fraction of CaCO3
& MSS_FRC_CLY_SLICE, ! O [frc] Mass fraction of clay
& MSS_FRC_SND_SLICE ) ! O [frc] Mass fraction of sand
! Get GOCART source function (tdf, bmy, 1/25/07)
CALL SRCE_FUNC_GET( ! GOCART source function
& LAT_IDX, ! I [idx] Latitude index
& SRCE_FUNC_SLICE ) ! O [frc] GOCART source function
! Get volumetric water content from GWET
CALL VWC_SFC_GET(
& LAT_IDX, ! I [idx] Latitude index
& VWC_SFC_SLICE ) ! O [m3 m-3] Volumetric water content
! Get surface and soil temperature
CALL TPT_GND_SOI_GET(
& LAT_IDX, ! I [idx] Latitude index!
& TPT_GND_SLICE, ! O [K] Ground temperature
& TPT_SOI_SLICE ) ! O [K] Soil temperature
! Get time-varying vegetation area index
CALL DST_TVBDS_GET(
& LAT_IDX, ! I [idx] Latitude index
& VAI_DST_SLICE) ! O [m2 m-2] Vegetation area index, one-sided
! Get fraction of surface covered by snow
CALL SNW_FRC_GET(
& SNW_HGT_LQD, ! I [m] Equivalent liquid water snow depth
& SNW_FRC ) ! O [frc] Fraction of surface covered by snow
!=================================================================
! Use the variables retrieved above to compute the fraction
! of each gridcell suitable for dust mobilization
!=================================================================
CALL LND_FRC_MBL_GET(
& DOY, ! I [day] Day of year [1.0..366.0)
& FLG_MBL_SLICE, ! O [flg] Mobilization candidate flag
& LAT_RDN, ! I [rdn] Latitude
& LND_FRC_DRY_SLICE, ! I [frc] Dry land fraction
& LND_FRC_MBL_SLICE, ! O [frc] Bare ground fraction
& MBL_NBR, ! O [flg] Number of mobilization candidates
& ORO, ! I [frc] Orography
& SFC_TYP_SLICE, ! I [idx] LSM surface type (0..28)
& SNW_FRC, ! I [frc] Fraction of surface covered by snow
& TPT_SOI_SLICE, ! I [K] Soil temperature
& TPT_SOI_FRZ, ! I [K] Temperature of frozen soil
& VAI_DST_SLICE) ! I [m2 m-2] Vegetation area index, one-sided
! Much ado about nothing
if (mbl_nbr == 0) then
ctdf print *,' no mobilisation candidates'
goto 737
endif
!=================================================================
! Compute time-invariant hydrologic properties
! NB flg_mbl IS time-dependent, so keep this in time loop.
!=================================================================
CALL HYD_PRP_GET( ! NB: These properties are time-invariant
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& MSS_FRC_CLY_SLICE, ! I [frc] Mass fraction clay
& MSS_FRC_SND_SLICE, ! I [frc] Mass fraction sand
& VWC_DRY, ! O [m3/m3] Dry vol'mtric water content (no E-T)
& VWC_OPT, ! O [m3/m3] E-T optimal volumetric water content
& VWC_SAT) ! O [m3/m3] Saturated volumetric water content
CND_TRM_SOI(:) = 0.0D0
LVL_DLT(:) = 0.0D0
!=================================================================
! Get reference wind at 10m
!=================================================================
DO I = 1, IIPAR
W10M = SQRT( SFCWINDSQR( I, LAT_IDX ) )
! add mobilisation criterion flag
IF ( FLG_MBL_SLICE(I) ) THEN
WND_RFR(I) = W10M
ENDIF
ENDDO
!=================================================================
! Compute standard roughness length. This call is probably
! unnecessary, because we are only concerned with mobilisation
! candidates, for which roughness length is imposed in blm_mbl
!=================================================================
CALL RGH_MMN_GET( ! Set roughness length w/o zero plane displacement
& ORO, ! I [frc] Orography
& RGH_MMN, ! O [m] Roughness length momentum
& SFC_TYP_SLICE, ! I [idx] LSM surface type (0..28)
& SNW_FRC, ! I [frc] Fraction of surface covered by snow
& WND_RFR ) ! I [m s-1] 10 m wind speed
!=================================================================
! Introduce Ustar and Z0 from GEOS data
!=================================================================
DO I = 1, IIPAR
IJLOOP = (LAT_IDX-1)*IIPAR+I
! Just assign for flag mobilisation candidates
IF ( FLG_MBL_SLICE(I) ) THEN
WND_FRC_GEOS(I) = USTAR(I,LAT_IDX)
Z0_GEOS(I) = Z0(I,LAT_IDX)
ELSE
WND_FRC_GEOS(I) = 0.0D0
Z0_GEOS(I) = 0.0D0
ENDIF
ENDDO
!=================================================================
! Surface exchange properties over erodible surfaces
! DO NEED THIS: Compute Monin-Obukhov and Friction velocities
! appropriate for dust producing regions.
!
! Now calling Stripped down (adiabatic) version tdf 10/27/2K3
! rgh_mmn_mbl parameter included directly in blm_mbl
!=================================================================
CALL BLM_MBL(
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& RGH_MMN, ! I [m] Roughness length momentum, Z0,m
& WND_RFR, ! I [m s-1] 10 m wind speed
& MNO_LNG, ! O [m] Monin-Obukhov length
& WND_FRC) ! O [m s-1] Surface friction velocity, U*
!=================================================================
! Factor by which surface roughness increases threshold friction
! velocity. The sink of atrmospheric momentum into non-erodible
! roughness elements Zender et al., expression (3)
!=================================================================
!-----------------------------------------------------------------------------
! Prior to 1/25/07:
! For now, instead of calling this routine to get FRC_THR_NCR_DRG, we will
! just set it to 1 (tdf, bmy, 1/25/07)
!
! %%%%% DO NOT DELETE -- LEAVE THIS CODE COMMENTED OUT %%%%%
!
! CALL FRC_THR_NCR_DRG_GET(
! & FRC_THR_NCR_DRG, ! O [frc] Factor increases thresh. fric. veloc.
! & FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
! & RGH_MMN_MBL, ! I [m] Rgh length momentum for erodible sfcs
! & RGH_MMN_SMT ) ! I [m] Smooth roughness length, Z0,m,s
!-----------------------------------------------------------------------------
! Now set roughness factor to 1.0 (tdf, bmy, 1/25/07)
FRC_THR_NCR_DRG(:) = 1.0d0
!=================================================================
! Convert volumetric water content to gravimetric water content
! NB: Owen effect included in wnd_frc_slt_get
!=================================================================
CALL VWC2GWC(
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& GWC_SFC, ! O [kg kg-1] Gravimetric water content
& VWC_SAT, ! I [m3 m-3] Saturated VWC (sand-dependent)
& VWC_SFC_SLICE ) ! I [m3 m-3] Volumetric water content
!=================================================================
! Factor by which soil moisture increases threshold friction
! velocity -- i.e. the inhibition of saltation by soil mositure,
! Zender et al., exp(5).
!=================================================================
CALL FRC_THR_NCR_WTR_GET(
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& FRC_THR_NCR_WTR, ! O [frc] Factor by which moisture increases
! threshold friction velocity
& MSS_FRC_CLY_SLICE, ! I [frc] Mass fraction of clay
& GWC_SFC) ! I [kg kg-1] Gravimetric water content
!=================================================================
! Now, compute basic threshold friction velocity for saltation
! over dry, bare, smooth ground. fxm: Use surface density not
! midlayer density
!=================================================================
CALL WND_FRC_THR_SLT_GET(
& FLG_MBL_SLICE, ! I mobilisation flag
& DNS_MDP, ! I [kg m-3] Midlayer density
& WND_FRC_THR_SLT ) ! O [m s-1] Threshold friction velocity
! Adjust threshold friction velocity to account
! for moisture and roughness
DO I = 1, IIPAR
WND_FRC_THR_SLT(I) = ! [m s-1] Threshold friction velocity
! for saltation
& WND_FRC_THR_SLT(i) ! [m s-1] Threshold for dry, flat ground
& * FRC_THR_NCR_WTR(i) ! [frc] Adjustment for moisture
& * FRC_THR_NCR_DRG(i) ! [frc] Adjustment for roughness
ENDDO
! Threshold saltation wind speed at reference height, 10m
DO I = 1, IIPAR
IF ( FLG_MBL_SLICE(I) ) THEN
WND_RFR_THR_SLT(I) = ! [m s-1] Threshold 10 m wind speed
! for saltation
& WND_RFR(I) * WND_FRC_THR_SLT(I) / WND_FRC(i)
ENDIF
ENDDO
!=================================================================
! Saltation increases friction speed by roughening surface
! i.e. Owen effect, Zender et al., expression (4)
!
! Compute the wind friction velocity due to saltation, U*,s
! accounting for the Owen effect.
!=================================================================
CALL WND_FRC_SLT_GET(
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& WND_FRC, ! I [m s-1] Surface friction velocity
& WND_FRC_SLT, ! O [m s-1] Saltating friction velocity
& WND_RFR, ! I [m s-1] Wind speed at reference height
& WND_RFR_THR_SLT ) ! I [m s-1] Thresh. 10 m wind speed for saltation
!=================================================================
! Compute horizontal streamwise mass flux, Zender et al., expr. (10)
!=================================================================
CALL FLX_MSS_HRZ_SLT_TTL_WHI79_GET(
& DNS_MDP, ! I [kg m-3] Midlayer density
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& FLX_MSS_HRZ_SLT_TTL, ! O [kg m-1 s-1] Vertically integrated
! streamwise mass flux
& WND_FRC_SLT, ! I [m s-1] Saltating friction velocity
& WND_FRC_THR_SLT ) ! I [m s-1] Threshold friction vel for saltation
!-----------------------------------------------------------------------------
! Prior to 1/25/07:
! We now multiply by the GOCART source function, and we will ignore
! the MBL_BSN_FCT_SLICE. (tdf, bmy, 1/25/07)
!
! %%%%% DO NOT DELETE -- LEAVE THIS CODE COMMENTED OUT %%%%%
!
!ctdf...prior to Apr/05/06
! ! Apply land surface and vegetation limitations
! ! and global tuning factor
! DO I = 1, IIPAR
! FLX_MSS_HRZ_SLT_TTL(I) = FLX_MSS_HRZ_SLT_TTL(I) ! [kg m-2 s-1]
! & * LND_FRC_MBL_SLICE(i) ! [frc] Bare ground fraction
! & * MBL_BSN_FCT_SLICE(i) ! [frc] Erodibility factor
! & * FLX_MSS_FDG_FCT ! [frc] Global mass flux tuning
! ! factor (empirical)
! ENDDO
!-----------------------------------------------------------------------------
! Now simply multiply by the GOCART source function.
! The vegetation effect has been eliminated in LND_FRC_MBL_GET
! and we also ignore MBL_BSN_FCT. (tdf, bmy, 1/25/07)
DO I = 1, IIPAR
FLX_MSS_HRZ_SLT_TTL(I) = FLX_MSS_HRZ_SLT_TTL(I) ! [kg m-2 s-1]
& * LND_FRC_MBL_SLICE(i) ! [frc] Bare ground fraction
& * FLX_MSS_FDG_FCT ! [frc] Global mass flux tuning
& * SRCE_FUNC_SLICE(I) ! GOCART source function
ENDDO
!=================================================================
! Compute vertical dust mass flux, see Zender et al., expr. (11).
!=================================================================
CALL FLX_MSS_VRT_DST_TTL_MAB95_GET(
& DST_SLT_FLX_RAT_TTL, ! O [m-1] Ratio of vertical dust flux to
! streamwise mass flux
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& FLX_MSS_HRZ_SLT_TTL, ! I [kg/m/s] Vertically integrated
! streamwise mass flux
& FLX_MSS_VRT_DST_TTL, ! O [kg/m2/s] Total vertical mass flux of dust
& MSS_FRC_CLY_SLICE ) ! I [frc] Mass fraction clay
!=================================================================
! Now, partition vertical dust mass flux into transport bins
!
! OVR_SRC_SNK_MSS needed in FLX_MSS_VRT_DST_PRT
! computed in DST_PSD_MSS, called from "dust_mod.f" (tdf, 3/30/04)
!=================================================================
CALL FLX_MSS_VRT_DST_PRT(
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& FLX_MSS_VRT_DST, ! O [kg m-2 s-1] Vertical mass flux of dust
& FLX_MSS_VRT_DST_TTL) ! I [kg m-2 s-1] Total vertical mass flux of dus
!=================================================================
! Mask dust mass flux by tracer mass fraction at source
!=================================================================
FLG_CACO3 = .FALSE. ! [flg] Activate CaCO3 tracer
IF ( FLG_CACO3 ) THEN
CALL FLX_MSS_CACO3_MSK(
& DMT_VWR, ! I [m] Mass weighted diameter resolved
& FLG_MBL_SLICE, ! I [flg] Mobilization candidate flag
& FLX_MSS_VRT_DST, ! I/O [kg m-2 s-1] Vert. mass flux of dust
& MSS_FRC_CACO3_SLICE, ! I [frc] Mass fraction of CaCO3
& MSS_FRC_CLY_SLICE, ! I [frc] Mass fraction of clay
& MSS_FRC_SND_SLICE ) ! I [frc] Mass fraction of sand
endif
! Now, flx_mss_vrt_dst has units of kg/m2/sec
! Fluxes are known, so adjust mixing ratios
DO I=1, IIPAR ! NB: Inefficient loop order
IF (FLG_MBL_SLICE(I)) THEN
! Loop over dust bins
DO M = 1, NDSTBIN
!========================================================
! Compute dust mobilisation tendency. Recognise that
! what GEOS-CHEM wants is an increment in kg...So,
! multiply by DXYP [m2] and tm_adj [sec]
!========================================================
! use get_area_m2 (Grid box surface area) [m2] instead of DXYP
Q_DST_TND_MBL(I,M) =
& FLX_MSS_VRT_DST(I,M) * GET_AREA_M2(LAT_IDX) ! [kg/sec]
! Introduce DSRC: dust mixing ratio increment 12/9/2K3
DSRC(I,M) = ! [kg]
& TM_ADJ * Q_DST_TND_MBL(I,M)
ENDDO
ENDIF
ENDDO
! Jump to here when no points are mobilization candidates
737 CONTINUE
! Return to calling program
END SUBROUTINE DST_MBL
!------------------------------------------------------------------------------
SUBROUTINE SRCE_FUNC_GET( LAT_IDX, SRCE_FUNC_OUT )
!
!******************************************************************************
! Subroutine SRCE_FUNC_GET returns a latitude slice of the GOCART source
! function. This routine is called by DST_MBL. (tdf, bmy, 1/25/07)
!
! Arguments as Input:
! ============================================================================
! (1 ) LAT_IDX (INTEGER) : GEOS-Chem latitude index
!
! Arguments as Output:
! ============================================================================
! (1 ) SRCE_FUNC_OUT (REAL*8 ) : GOCART source function [fraction]
!
! NOTES:
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: LAT_IDX
REAL*8, INTENT(OUT) :: SRCE_FUNC_OUT(IIPAR)
! Local variables
INTEGER :: LON_IDX
!=================================================================
! SRCE_FUNC_GET begins here!
!=================================================================
! Loop over longitudes
DO LON_IDX = 1, IIPAR
! Save latitude slice in SRCE_FUNC_OUT
SRCE_FUNC_OUT(LON_IDX) = SRCE_FUNC(LON_IDX,LAT_IDX)
ENDDO
! Return to calling program
END SUBROUTINE SRCE_FUNC_GET
!------------------------------------------------------------------------------
SUBROUTINE SOI_TXT_GET( J, LND_FRC_DRY_OUT,
& MBL_BSN_FCT_OUT, MSS_FRC_CACO3_OUT,
& MSS_FRC_CLY_OUT, MSS_FRC_SND_OUT )
!
!******************************************************************************
! Subroutine SOI_GET_TXT returns a latitude slice of soil texture to the
! calling program DST_MBL. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) J (INTEGER) : Grid box latitude index
!
! Arguments as Output:
! ============================================================================
! (2 ) lnd_frc_dry_out (REAL*8 ) : Dry land fraction [fraction]
! (3 ) mbl_bsn_fct_out (REAL*8 ) : Erodibility factor [fraction]
! (4 ) mss_frc_CaCO3_out (REAL*8 ) : Mass fraction of CaCO3 [fraction]
! (5 ) mss_frc_cly_out (REAL*8 ) : Mass fraction of clay [fraction]
! (6 ) mss_frc_snd_out (REAL*8 ) : Mass fraction of sand [fraction]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes (bmy, 3/30/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: J
REAL*8, INTENT(OUT) :: LND_FRC_DRY_OUT(IIPAR)
REAL*8, INTENT(OUT) :: MBL_BSN_FCT_OUT(IIPAR)
REAL*8, INTENT(OUT) :: MSS_FRC_CACO3_OUT(IIPAR)
REAL*8, INTENT(OUT) :: MSS_FRC_CLY_OUT(IIPAR)
REAL*8, INTENT(OUT) :: MSS_FRC_SND_OUT(IIPAR)
! Local variables
INTEGER :: I
! Ad hoc globally uniform clay mass fraction [kg/kg]
REAL*8, PARAMETER :: MSS_FRC_CLY_GLB = 0.20d0
!=================================================================
! SOI_GET_TXT begins here!
!=================================================================
DO I = 1, IIPAR
! Save dry land fraction slice
LND_FRC_DRY_OUT(I) = LND_FRC_DRY(I,J)
! Change surface source distribution to "geomorphic" tdf 12/12/2K3
MBL_BSN_FCT_OUT(I) = ERD_FCT_GEO(I,J)
!fxm: CaCO3 currently has missing value of
! 1.0e36 which causes problems
IF ( MSS_FRC_CACO3(I,J) <= 1.0D0 ) THEN
MSS_FRC_CACO3_OUT(I) = MSS_FRC_CACO3(I,J)
ELSE
MSS_FRC_CACO3_OUT(I) = 0.0D0
ENDIF
! fxm Temporarily set mss_frc_cly used in mobilization to globally
! uniform SGS value of 0.20, and put excess mass fraction
! into sand
MSS_FRC_CLY_OUT(I) = MSS_FRC_CLY_GLB
MSS_FRC_SND_OUT(I) = MSS_FRC_SND(I,J) +
& MSS_FRC_CLY(I,J) - MSS_FRC_CLY_GLB
ENDDO
! Return to calling program
END SUBROUTINE SOI_TXT_GET
!------------------------------------------------------------------------------
SUBROUTINE SFC_TYP_GET( J, SFC_TYP_OUT )
!
!******************************************************************************
! Subroutine SFC_TYP_GET returns a latitude slice of LSM surface type
! to the calling programs DST_MBL & DST_DPS_DRY. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) J (INTEGER) : Grid box latitude index
!
! Arguments as Output:
! ============================================================================
! (1 ) sfc_typ_out (REAL*8 ) : LSM surface type (0..28) [unitless]
!
! NOTES
! (1 ) Updated comments & cosmetic changes (bmy, 3/30/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! IIPAR
! Arguments
INTEGER, INTENT(IN) :: J
INTEGER, INTENT(OUT) :: SFC_TYP_OUT(IIPAR)
! Local variables
INTEGER :: I
!=================================================================
! SFC_TYP_GET begins here!
!=================================================================
DO I = 1, IIPAR
SFC_TYP_OUT(I) = SFC_TYP(I,J)
ENDDO
! Return to calling program
END SUBROUTINE SFC_TYP_GET ! end sfc_typ_get()
!------------------------------------------------------------------------------
SUBROUTINE TPT_GND_SOI_GET( J, TPT_GND_OUT, TPT_SOI_OUT )
!
!******************************************************************************
! Subroutine TPT_GND_SOI_GET returns a latitude slice of soil temperature and
! ground temperature to the calling program DST_MBL. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) J (INTEGER) : Grid box latitude index
!
! Arguments as Output:
! ============================================================================
! (2 ) TPT_GND_OUT (REAL*8 ) : Ground temperature array slice [K]
! (3 ) tpt_soi_out (REAL*8 ) : Soil temperature array slice [K]
!
! NOTES
! (1 ) Updated comments & cosmetic changes (bmy, 3/30/04)
!******************************************************************************
!
! References to F90 modules
USE DAO_MOD, ONLY : TS
# include "CMN_SIZE" ! Size parameters ! IIPAR
! Arguments
INTEGER, INTENT(IN) :: J
REAL*8, INTENT(OUT) :: TPT_GND_OUT(IIPAR)
REAL*8, INTENT(OUT) :: TPT_SOI_OUT(IIPAR)
! Local variables
INTEGER :: I
!=================================================================
! TPT_GND_SOI_GET begins here!
!=================================================================
! Use TS from GEOS-CHEM (tdf, 3/30/04)
DO I = 1, IIPAR
TPT_GND_OUT(I) = TS(I,J)
TPT_SOI_OUT(I) = TS(I,J)
ENDDO
! Return to calling program
END SUBROUTINE TPT_GND_SOI_GET
!------------------------------------------------------------------------------
SUBROUTINE VWC_SFC_GET( J, VWC_SFC_OUT )
!
!******************************************************************************
! Subroutine TPT_GND_SOI_GET returns a latitude slice of volumetric water
! content to the calling program DST_MBL. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) J (INTEGER) : Grid box latitude index
!
! Arguments as Output:
! ============================================================================
! VWC_SFC_OUT (REAL*8 ) : Volumetric water content [m3/m3]
!
! NOTES
! (1 ) Updated comments & cosmetic changes (bmy, 3/30/04)
!******************************************************************************
!
! References to F90 modules
USE DAO_MOD, ONLY : GWETTOP
# include "CMN_SIZE" ! Size parameters ! IIPAR
! Arguments
INTEGER, INTENT(IN) :: J
REAL*8, INTENT(OUT) :: VWC_SFC_OUT(IIPAR)
! Local variables
INTEGER :: I
!=================================================================
! VWC_SFC_GET begins here!
!=================================================================
DO I = 1, IIPAR
VWC_SFC_OUT(I) = GWETTOP(I,J)
ENDDO
! Return to calling program
END SUBROUTINE VWC_SFC_GET
!------------------------------------------------------------------------------
REAL*8 FUNCTION DSVPDT_H2O_LQD_PRK78_FST_SCL( TPT_CLS )
!
!******************************************************************************
! Function DSVPDT_H2O_LQD_PRK78_FST_SCL returns the derivative of saturation
! vapor pressure [Pa] over planar liquid water (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) TPT_CLS (REAL*8) : Temperature in Celsius [C]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now force double-precision
! with "D" exponents. (bmy, 3/30/04)
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: TPT_CLS
! Local variables
REAL*8, PARAMETER :: C0 = 4.438099984d-01
REAL*8, PARAMETER :: C1 = 2.857002636d-02
REAL*8, PARAMETER :: C2 = 7.938054040d-04
REAL*8, PARAMETER :: C3 = 1.215215065d-05
REAL*8, PARAMETER :: C4 = 1.036561403d-07
REAL*8, PARAMETER :: C5 = 3.532421810d-10
REAL*8, PARAMETER :: C6 =-7.090244804d-13
!=================================================================
! DSVPDT_H2O_LQD_PRK78_FST_SCL begins here!
!=================================================================
! Return deriv. of saturation vapor pressure [Pa]
DSVPDT_H2O_LQD_PRK78_FST_SCL = 100.0d0 * ( C0+TPT_CLS *
& ( C1+TPT_CLS *
& ( C2+TPT_CLS *
& ( C3+TPT_CLS *
& ( C4+TPT_CLS *
& ( C5+TPT_CLS * C6 ))))))
! Return to calling program
END FUNCTION DSVPDT_H2O_LQD_PRK78_FST_SCL
!------------------------------------------------------------------------------
REAL*8 FUNCTION DSVPDT_H2O_ICE_PRK78_FST_SCL( TPT_CLS )
!
!******************************************************************************
! Function DSVPDT_H2O_ICE_PRK78_FST_SCL returns the derivative of saturation
! vapor pressure [Pa] over planar ice water (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) TPT_CLS (REAL*8) : Temperature in Celsius [C]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now force double-precision
! with "D" exponents. (bmy, 3/30/04)
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: TPT_CLS
! Local variables
REAL*8, PARAMETER :: D0 = 5.030305237d-01
REAL*8, PARAMETER :: D1 = 3.773255020d-02
REAL*8, PARAMETER :: D2 = 1.267995369d-03
REAL*8, PARAMETER :: D3 = 2.477563108d-05
REAL*8, PARAMETER :: D4 = 3.005693132d-07
REAL*8, PARAMETER :: D5 = 2.158542548d-09
REAL*8, PARAMETER :: D6 = 7.131097725d-12
!=================================================================
! DSVPDT_H2O_ICE_PRK78_FST_SCL begins here!
!=================================================================
! Return deriv. of sat vapor pressure [Pa]
DSVPDT_H2O_ICE_PRK78_FST_SCL = 100.0D0 * ( D0+TPT_CLS *
& ( D1+TPT_CLS *
& ( D2+TPT_CLS *
& ( D3+TPT_CLS *
& ( D4+TPT_CLS *
& ( D5+TPT_CLS * D6 ))))))
! Return to calling program
END FUNCTION DSVPDT_H2O_ICE_PRK78_FST_SCL
!------------------------------------------------------------------------------
REAL*8 FUNCTION SVP_H2O_LQD_PRK78_FST_SCL( TPT_CLS )
!
!******************************************************************************
! Function SVP_H2O_LQD_PRK78_FST_SCL returns the saturation vapor pressure
! over planer liquid water [Pa] See Lowe and Ficke (1974) as reported in
! PrK78 p. 625. Range of validity is -50 C < T < 50 C. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) TPT_CLS (REAL*8) : Temperature in Celsius [C]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now force double-precision
! with "D" exponents. (bmy, 3/30/04)
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: TPT_CLS
! Local variables
REAL*8, PARAMETER :: A0 = 6.107799961d0
REAL*8, PARAMETER :: A1 = 4.436518521d-01
REAL*8, PARAMETER :: A2 = 1.428945805d-02
REAL*8, PARAMETER :: A3 = 2.650648471d-04
REAL*8, PARAMETER :: A4 = 3.031240396d-06
REAL*8, PARAMETER :: A5 = 2.034080948d-08
REAL*8, PARAMETER :: A6 = 6.136820929d-11
!=================================================================
! SVP_H2O_LQD_PRK78_FST_SCL begins here!
!=================================================================
! Return saturation vapor pressure over liquid water [Pa]
SVP_H2O_LQD_PRK78_FST_SCL = 100.0D0 * ( A0+TPT_CLS *
& ( A1+TPT_CLS *
& ( A2+TPT_CLS *
& ( A3+TPT_CLS *
& ( A4+TPT_CLS *
& ( A5+TPT_CLS * A6 ))))))
! Return to calling program
END FUNCTION SVP_H2O_LQD_PRK78_FST_SCL
!------------------------------------------------------------------------------
REAL*8 FUNCTION SVP_H2O_ICE_PRK78_FST_SCL( TPT_CLS )
!
!******************************************************************************
! Function SVP_H2O_ICE_PRK78_FST_SCL returns the saturation vapor pressure
! [Pa] over planar ice water (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) TPT_CLS (REAL*8) : Temperature in Celsius [C]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now force double-precision
! with "D" exponents. (bmy, 3/30/04)
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: TPT_CLS
! Local variables
REAL*8, PARAMETER :: B0 = 6.109177956d0
REAL*8, PARAMETER :: B1 = 5.034698970d-01
REAL*8, PARAMETER :: B2 = 1.886013408d-02
REAL*8, PARAMETER :: B3 = 4.176223716d-04
REAL*8, PARAMETER :: B4 = 5.824720280d-06
REAL*8, PARAMETER :: B5 = 4.838803174d-08
REAL*8, PARAMETER :: B6 = 1.838826904d-10
!=================================================================
! SVP_H2O_ICE_PRK78_FST_SCL begins here!
!=================================================================
! Return saturation vapor pressure over ice [Pa]
SVP_H2O_ICE_PRK78_FST_SCL = 100.0D0 * ( B0+TPT_CLS *
& ( B1+TPT_CLS *
& ( B2+TPT_CLS *
& ( B3+TPT_CLS *
& ( B4+TPT_CLS *
& ( B5+TPT_CLS * B6 ))))))
! Return to calling program
END FUNCTION SVP_H2O_ICE_PRK78_FST_SCL
!------------------------------------------------------------------------------
REAL*8 FUNCTION TPT_BND_CLS_GET( TPT )
!
!******************************************************************************
! Function TPT_BND_CLS_GET returns the bounded temperature in [C],
! (i.e., -50 < T [C] < 50 C), given the temperature in [K].
! (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) TPT (REAL*8) : Temperature in Kelvin [K]
!
! NOTES:
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: TPT
! Local variables
REAL*8, PARAMETER :: TPT_FRZ_PNT=273.15
!=================================================================
! TPT_BND_CLS_GET begins here!
!=================================================================
TPT_BND_CLS_GET = MIN( 50.0D0, MAX( -50.0D0, ( TPT-TPT_FRZ_PNT)) )
! Return to calling program
END FUNCTION TPT_BND_CLS_GET
!------------------------------------------------------------------------------
SUBROUTINE GET_ORO( OROGRAPHY )
!
!******************************************************************************
! Subroutine GET_ORO creates a 2D orography array, OROGRAPHY, from the
! GMAO LWI fields. Ocean= 0; Land=1; ice=2. (tdf, bmy, 3/30/04, 8/17/05)
!
! Arguments as Output:
! ============================================================================
! (1 ) OROGRAPHY (INTEGER) : Array for orography flags
!
! NOTES:
! (1 ) Added parallel DO-loop (bmy, 4/14/04)
! (2 ) Now modified for GCAP and GEOS-5 met fields (swu, bmy, 6/9/05)
! (3 ) Now use IS_LAND, IS_WATER, IS_ICE functions from "dao_mod.f"
! (bmy, 8/17/05)
!******************************************************************************
!
! References to F90 modules
USE DAO_MOD, ONLY : IS_LAND, IS_WATER, IS_ICE
# include "CMN_SIZE" ! Size parameters
! Arguments
INTEGER, INTENT(OUT) :: OROGRAPHY(IIPAR,JJPAR)
! Local variables
INTEGER :: I, J, TEMP
!=================================================================
! GET_ORO begins here!
!=================================================================
!$OMP PARALLEL DO
!$OMP+DEFAULT( SHARED )
!$OMP+PRIVATE( I, J )
DO J = 1, JJPAR
DO I = 1, IIPAR
! Ocean
IF ( IS_WATER( I, J ) ) OROGRAPHY(I,J) = 0
! Land
IF ( IS_LAND( I, J ) ) OROGRAPHY(I,J) = 1
! Ice
IF ( IS_ICE ( I, J ) ) OROGRAPHY(I,J) = 2
ENDDO
ENDDO
!$OMP END PARALLEL DO
! Return to calling program
END SUBROUTINE GET_ORO
!------------------------------------------------------------------------------
SUBROUTINE HYD_PRP_GET( FLG_MBL, MSS_FRC_CLY, MSS_FRC_SND,
& VWC_DRY, VWC_OPT, VWC_SAT )
!
!******************************************************************************
! Subroutine HYD_PRP_GET determines hydrologic properties from soil texture.
! (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) FLG_MBL (LOGICAL) : Mobilization candidate flag [unitless]
! (2 ) MSS_FRC_CLY (REAL*8 ) : Mass fraction clay [fraction]
! (3 ) MSS_FRC_SND (REAL*8 ) : Mass fraction sand [fraction]
!
! Arguments as Output:
! ============================================================================
! (4 ) VWC_DRY (REAL*8 ) : Dry volumetric water content (no E-T) [m3/m3]
! (5 ) VWC_OPT (REAL*8 ) : E-T optimal volumetric water content [m3/m3]
! (6 ) VWC_SAT (REAL*8 ) : Saturated volumetric water content [m3/m3]
!
! NOTES:
! (1 ) All I/O for this routine is time-invariant, thus, the hydrologic
! properties could be computed once at initialization. However,
! FLG_MBL is time-dependent, so we should keep this as-is.
! (tdf, 10/27/03)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! IIPAR
! Arguments
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: MSS_FRC_CLY(IIPAR)
REAL*8, INTENT(IN) :: MSS_FRC_SND(IIPAR)
REAL*8, INTENT(OUT) :: VWC_DRY(IIPAR)
REAL*8, INTENT(OUT) :: VWC_OPT(IIPAR)
REAL*8, INTENT(OUT) :: VWC_SAT(IIPAR)
! Local variables
INTEGER :: LON_IDX
! [frc] Exponent "b" for smp (clay-dependent)
REAL*8 :: SMP_XPN_B(IIPAR)
! [mm H2O] Saturated soil matric potential (sand-dependent)
REAL*8 :: SMP_SAT(IIPAR)
!=================================================================
! HYD_PRP_GET begins here
!=================================================================
! Initialize output values
VWC_DRY(:) = 0.0D0
VWC_OPT(:) = 0.0D0
VWC_SAT(:) = 0.0D0
! Time-invariant soil hydraulic properties
! See Bon96 p. 98, implemented in CCM:lsm/lsmtci()
DO LON_IDX = 1, IIPAR
IF ( FLG_MBL(LON_IDX) ) THEN
! Exponent "b" for smp (clay-dependent) [fraction]
SMP_XPN_B(LON_IDX) =
& 2.91D0 +0.159D0 * MSS_FRC_CLY(LON_IDX) * 100.0D0
! NB: Adopt convention that matric potential is positive definite
! Saturated soil matric potential (sand-dependent) [mm H2O]
SMP_SAT(LON_IDX) =
& 10.0D0 * (10.0D0**(1.88D0-0.0131D0
& * MSS_FRC_SND(LON_IDX)*100.0D0))
! Saturated volumetric water content (sand-dependent) ! [m3 m-3]
VWC_SAT(LON_IDX)=
& 0.489D0 - 0.00126D0 * MSS_FRC_SND(LON_IDX)*100.0D0
! [m3 m-3]
VWC_DRY(LON_IDX) =
! Dry volumetric water content (no E-T)
& VWC_SAT(LON_IDX)*(316230.0D0/SMP_SAT(LON_IDX))
& **(-1.0D0/SMP_XPN_B(LON_IDX))
! E-T optimal volumetric water content! [m3 m-3]
VWC_OPT(LON_IDX) =
& VWC_SAT(LON_IDX)*(158490.0D0/SMP_SAT(LON_IDX))
& **(-1.0D0/SMP_XPN_B(LON_IDX))
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE HYD_PRP_GET
!------------------------------------------------------------------------------
SUBROUTINE CND_TRM_SOI_GET( CND_TRM_SOI, FLG_MBL, LVL_DLT,
& MSS_FRC_CLY, MSS_FRC_SND, TPT_SOI,
& VWC_DRY, VWC_OPT, VWC_SAT,
& VWC_SFC )
!
!******************************************************************************
! Subroutine CND_TRM_SOI_GET gets thermal properties of soil. Currently this
! routine is optimized for ground without snow-cover. Although snow
! thickness is read in, it is not currently used. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (3 ) lvl_dlt (REAL*8 ) : Soil layer thickness [m ]
! (4 ) mss_frc_cly (REAL*8 ) : Mass fraction clay [frac.]
! (5 ) mss_frc_snd (REAL*8 ) : Mass fraction sand [frac.]
! (6 ) tpt_soi (REAL*8 ) : Soil temperature [K ]
! (7 ) vwc_dry (REAL*8 ) : Dry volumetric water content (no E-T) [m3/m3]
! (8 ) vwc_opt (REAL*8 ) : E-T optimal volumetric water content [m3/m3]
! (9 ) vwc_sat (REAL*8 ) : Saturated volumetric water content [m3/m3]
! (10) vwc_sfc (REAL*8 ) : Volumetric water content [m3/m3]
!
! Arguments as Output:
! ============================================================================
! (1 ) CND_TRM_SOI (REAL*8 ) : Soil thermal conductivity [W/m/K]
! (2 ) FLG_MBL (LOGICAL) : Mobilization candidate flag [flag ]
!
! NOTES:
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! IIPAR
! Arguments
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: MSS_FRC_CLY(IIPAR)
REAL*8, INTENT(IN) :: MSS_FRC_SND(IIPAR)
REAL*8, INTENT(IN) :: TPT_SOI(IIPAR)
REAL*8, INTENT(IN) :: VWC_DRY(IIPAR)
REAL*8, INTENT(IN) :: VWC_OPT(IIPAR)
REAL*8, INTENT(IN) :: VWC_SAT(IIPAR)
REAL*8, INTENT(IN) :: VWC_SFC(IIPAR)
REAL*8, INTENT(OUT) :: CND_TRM_SOI(IIPAR)
REAL*8, INTENT(OUT) :: LVL_DLT(IIPAR)
!------------
! Parameters
!------------
! Thermal conductivity of ice water [W m-1 K-1]
REAL*8, PARAMETER :: CND_TRM_H2O_ICE = 2.2d0
! Thermal conductivity of liquid water [W m-1 K-1]
REAL*8, PARAMETER :: CND_TRM_H2O_LQD = 0.6d0
! Thermal conductivity of snow Bon96 p. 77 [W m-1 K-1]
REAL*8, PARAMETER :: CND_TRM_SNW = 0.34d0
! Soil layer thickness, top layer! [m]
REAL*8, PARAMETER :: LVL_DLT_SFC = 0.1d0
! Temperature range of mixed phase soil [K]
REAL*8, PARAMETER :: TPT_DLT = 0.5d0
! Latent heat of fusion of H2O at 0 C, standard [J kg-1]
REAL*8, PARAMETER :: LTN_HEAT_FSN_H2O_STD = 0.3336d06
! Liquid water density [kg/m3]
REAL*8, PARAMETER :: DNS_H2O_LQD_STD = 1000.0d0
! Kelvin--Celsius scale offset Bol80 [K]
REAL*8, PARAMETER :: TPT_FRZ_PNT = 273.15d0
!-----------------
! Local variables
!-----------------
! Longitude index
INTEGER :: LON_IDX
! Thermal conductivity of dry soil [W m-1 K-1]
REAL*8 :: CND_TRM_SOI_DRY(IIPAR)
! Soil thermal conductivity, frozen [W m-1 K-1]
REAL*8 :: CND_TRM_SOI_FRZ(IIPAR)
! Thermal conductivity of soil solids [W m-1 K-1]
REAL*8 :: CND_TRM_SOI_SLD(IIPAR)
! Soil thermal conductivity, unfrozen [W m-1 K-1]
REAL*8 :: CND_TRM_SOI_WRM(IIPAR)
! Volumetric latent heat of fusion [J m-3]
REAL*8 :: LTN_HEAT_FSN_VLM(IIPAR)
! Bounded geometric bulk thickness of snow [m]
REAL*8 :: SNW_HGT_BND
!=================================================================
! CND_TRM_SOI_GET begins here!
!=================================================================
! [m] Soil layer thickness
LVL_DLT(:) = LVL_DLT_SFC
! [W m-1 K-1] Soil thermal conductivity
CND_TRM_SOI(:) = 0.0D0
! Loop over longitude
DO LON_IDX = 1, IIPAR
IF ( FLG_MBL(LON_IDX) ) THEN
! Volumetric latent heat of fusion [J m-3]
LTN_HEAT_FSN_VLM(LON_IDX) = VWC_SFC(LON_IDX)
& * LTN_HEAT_FSN_H2O_STD * DNS_H2O_LQD_STD
!Thermal conductivity of soil solids Bon96 p. 77 [W/m/K]
CND_TRM_SOI_SLD(LON_IDX) =
& ( 8.80D0 *MSS_FRC_SND(LON_IDX)
& + 2.92D0 *MSS_FRC_CLY(LON_IDX) )
& / (MSS_FRC_SND(LON_IDX)
& + MSS_FRC_CLY(LON_IDX))
! Thermal conductivity of dry soil Bon96 p. 77 [W/m/K]
cnd_trm_soi_dry(lon_idx) = 0.15D0
! Soil thermal conductivity, unfrozen [W/m/K]
CND_TRM_SOI_WRM(LON_IDX) =
& CND_TRM_SOI_DRY(LON_IDX)
& + ( CND_TRM_SOI_SLD(LON_IDX)
& ** (1.0D0-VWC_SAT(LON_IDX))
& * (CND_TRM_H2O_LQD ** VWC_SFC(LON_IDX) )
& - CND_TRM_SOI_DRY(LON_IDX) )
& * VWC_SFC(LON_IDX) / VWC_SAT(lon_idx)
! Soil thermal conductivity, frozen [W/m/K]
CND_TRM_SOI_FRZ(LON_IDX) =
& CND_TRM_SOI_DRY(LON_IDX)
& + ( CND_TRM_SOI_SLD(LON_IDX)
& ** (1.0D0-VWC_SAT(LON_IDX))
& * (CND_TRM_H2O_ICE ** VWC_SFC(LON_IDX) )
& - CND_TRM_SOI_DRY(LON_IDX) )
& * VWC_SFC(LON_IDX) / VWC_SAT(LON_IDX)
IF (TPT_SOI(LON_IDX) < TPT_FRZ_PNT-TPT_DLT) THEN
! Soil thermal conductivity [W/m/K]
CND_TRM_SOI(LON_IDX) = CND_TRM_SOI_FRZ(LON_IDX)
ENDIF
IF ( (TPT_SOI(LON_IDX) >= TPT_FRZ_PNT-TPT_DLT)
& .AND. (TPT_SOI(LON_IDX) <= TPT_FRZ_PNT+TPT_DLT) )
& THEN
! Soil thermal conductivity [W/m/K]
CND_TRM_SOI(LON_IDX) =
& CND_TRM_SOI_FRZ(LON_IDX)
& + (CND_TRM_SOI_FRZ(LON_IDX)
& - CND_TRM_SOI_WRM(LON_IDX) )
& * (TPT_SOI(LON_IDX)
& -TPT_FRZ_PNT+TPT_DLT)
& / (2.0D0*TPT_DLT)
ENDIF
IF (TPT_SOI(LON_IDX) > TPT_FRZ_PNT+TPT_DLT) THEN
! Soil thermal conductivity[W/m/K]
CND_TRM_SOI(LON_IDX)=CND_TRM_SOI_WRM(LON_IDX)
ENDIF
! Implement this later(??)
!cZ Blend snow into first soil layer
!cZ Snow is not allowed to cover dust mobilization regions
!cZ snw_hgt_bnd=min(snw_hgt(lon_idx),1.0D0) ! [m] Bounded geometric bulk thickness of snow
!cZ lvl_dlt_snw(lon_idx)=lvl_dlt(lon_idx)+snw_hgt_bnd ! O [m] Soil layer thickness
!cZ including snow Bon96 p. 77
!
!cZ cnd_trm_soi(lon_idx)= & ! [W m-1 K-1] Soil thermal conductivity Bon96 p. 77
!cZ cnd_trm_snw*cnd_trm_soi(lon_idx)*lvl_dlt_snw(lon_idx) &
!cZ /(cnd_trm_snw*lvl_dlt(lon_idx)+cnd_trm_soi(lon_idx)*snw_hgt_bnd)
ENDIF
ENDDO
END SUBROUTINE CND_TRM_SOI_GET
!------------------------------------------------------------------------------
SUBROUTINE TRN_FSH_VPR_SOI_ATM_GET( FLG_MBL,
& TPT_SOI,
& TPT_SOI_FRZ,
& TRN_FSH_VPR_SOI_ATM,
& VWC_DRY,
& VWC_OPT,
& VWC_SFC )
!
!******************************************************************************
! Subroutine TRN_FSH_VPR_SOI_ATM_GET computes the factor describing effects
! of soil texture and moisture on vapor transfer between soil and atmosphere.
! Taken from Bon96 p. 59, CCM:lsm/surphys. (tdf, bmy, 3/30/04)
!
! The TRN_FSH_VPR_SOI_ATM efficiency factor attempts to tie soil texture and
! moisture properties to the vapor conductance of the soil-atmosphere system.
! When the soil temperature is sub-freezing, the conductance describes the
! resistance to vapor sublimation (or deposition) and transport through the
! open soil pores to the atmosphere.
!
! For warm soils, vapor transfer is most efficient at the optimal VWC for E-T
! Thus when vwc_sfc = vwc_opt, soil vapor transfer is perfectly efficient
! (trn_fsh_vpr_soi_atm = 1.0) so the soil does not contribute any resistance
! to the surface vapor transfer.
!
! When vwc_sfc > vwc_opt, the soil has an excess of moisture and, again,
! vapor transfer is not limited by soil characteristics.
! In fact, according to Bon96 p. 98, vwc_dry is only slightly smaller than
! vwc_opt, so trn_fsh_vpr_soi_atm is usually either 0 or 1 and intermediate
! efficiencies occur over only a relatively small range of VWC.
!
! When vwc_sfc < vwc_dry, the soil matrix is subsaturated and acts as a
! one-way sink for vapor through osmotic and capillary potentials.
! In this case trn_fsh_vpr_soi_atm = 0, which would cause the surface
! resistance rss_vpr_sfc to blow up, but this is guarded against and
! rss_sfc_vpr is set to ~1.0e6*rss_aer_vpr instead.
!
! Note that this formulation does not seem to allow vapor transfer from
! the atmosphere to the soil when vwc_sfc < vwc_dry, even when
! e_atm > esat(Tg).
!
! Air at the apparent sink for moisture is has vapor pressure e_sfc
! e_atm = Vapor pressure of ambient air at z = hgt_mdp
! e_sfc = Vapor pressure at apparent sink for moisture at z = zpd + rgh_vpr
! e_gnd = Vapor pressure at air/ground interface temperature
! Air at the soil interface is assumed saturated, i.e., e_gnd = esat(Tg)
!
! Arguments as Input:
! ============================================================================
! (1 ) FLG_MBL (LOGICAL) : Mobilization candidate flag [unitless]
! (2 ) TPT_SOI (REAL*8 ) : Soil temperature [K ]
! (3 ) TPT_SOI_FRZ (REAL*8 ) : Temperature of frozen soil [K ]
! (5 ) VWC_DRY (REAL*8 ) : Dry volumetric WC (no E-T) [m3/m3 ]
! (6 ) VWC_OPT (REAL*8 ) : E-T optimal volumetric WC [m3/m3 ]
! (7 ) VWC_SFC (REAL*8 ) : Volumetric water content [m3/m3 ]
!
! Arguments as Output:
! ============================================================================
! (4 ) TRN_FSH_VPR_SOI_ATM (REAL*8 ) : Transfer efficiency of vapor from
! soil to atmosphere [fraction]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also force double-precision
! with "D" exponents. (tdf, bmy, 3/30/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! IIPAR
!----------------
! Arguments
!----------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: TPT_SOI(IIPAR)
REAL*8, INTENT(IN) :: TPT_SOI_FRZ
REAL*8, INTENT(IN) :: VWC_DRY(IIPAR)
REAL*8, INTENT(IN) :: VWC_OPT(IIPAR)
REAL*8, INTENT(IN) :: VWC_SFC(IIPAR)
REAL*8, INTENT(OUT) :: TRN_FSH_VPR_SOI_ATM(IIPAR)
!----------------
! Parameters
!----------------
! Transfer efficiency of vapor from frozen soil to
! atmosphere CCM:lsm/surphy() [fraction]
REAL*8, PARAMETER :: TRN_FSH_VPR_SOI_ATM_FRZ = 0.01D0
!-----------------
! Local variables
!-----------------
INTEGER :: LON_IDX
!=================================================================
! TRN_FSH_VPR_SOI_ATM_GET
!=================================================================
TRN_FSH_VPR_SOI_ATM(:) = 0.0D0
! Loop over longitudes
DO LON_IDX = 1, IIPAR
! If this is a mobilization candidate ...
IF ( FLG_MBL(LON_IDX) ) THEN
! ... and if the soil is above freezing ...
IF ( TPT_SOI(LON_IDX) > TPT_SOI_FRZ ) THEN
! Transfer efficiency of cvapor from soil to atmosphere [frac]
! CCM:lsm/surphys Bon96 p. 59
TRN_FSH_VPR_SOI_ATM(LON_IDX) =
& MIN ( MAX(VWC_SFC(LON_IDX)-VWC_DRY(LON_IDX), 0.0D0)
& /(VWC_OPT(LON_IDX)-VWC_DRY(LON_IDX)), 1.0D0)
ELSE
! [frc] Bon96 p. 59
TRN_FSH_VPR_SOI_ATM(LON_IDX) = TRN_FSH_VPR_SOI_ATM_FRZ
ENDIF
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE TRN_FSH_VPR_SOI_ATM_GET
!------------------------------------------------------------------------------
SUBROUTINE BLM_MBL( FLG_MBL, RGH_MMN, WND_10M, MNO_LNG, WND_FRC )
!
!******************************************************************************
! Subroutine BLM_MBL computes the boundary-layer exchange properties, given
! the meteorology at the GEOS-CHEM layer midpoint. This routine is optimized
! for dust source regions: dry, bare, uncovered land. Theory and algorithms:
! Bonan (1996) CCM:lsm/surtem(). Stripped down version, based on adiabatic
! approximation to U*. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) FLG_MBL (LOGICAL) : Mobilization candidate flag [unitless]
! (2 ) RGH_MMN (REAL*8 ) : Roughness length momentum [m ]
! (3 ) WND_10M (REAL*8 ) : 10 m wind speed [m/s ]
!
! Arguments as Output:
! ============================================================================
! (4 ) MNO_LNG (REAL*8 ) : Monin-Obukhov length [m ]
! (5 ) WND_FRC (REAL*8 ) : Surface friction velocity [m/s ]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also force double-precision with
! "D" exponents. (tdf, bmy, 3/30/04)
!******************************************************************************
!
! References to F90 modules
USE DAO_MOD, ONLY : USTAR
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters ! Size parameters
!-----------------
! Arguments
!-----------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: RGH_MMN(IIPAR)
REAL*8, INTENT(IN) :: WND_10M(IIPAR)
REAL*8, INTENT(OUT) :: MNO_LNG(IIPAR)
REAL*8, INTENT(OUT) :: WND_FRC(IIPAR)
!-----------------
! Parameters
!-----------------
! Prevents division by zero [unitless]
REAL*8, PARAMETER :: EPS_DBZ = 1.0d-6
! Minimum windspeed used for mobilization [m/s]
REAL*8, PARAMETER :: WND_MIN_MBL = 1.0d0
! Roughness length momentum for erodible surfaces [m]
! MaB95 p. 16420, GMB98 p. 6205
REAL*8, PARAMETER :: RGH_MMN_MBL = 100.0d-6
! Reference height for mobilization processes [m]
REAL*8, PARAMETER :: HGT_RFR = 10.0d0
!-----------------
! Local variables
!-----------------
! Counting index for lon
INTEGER :: LON_IDX
! Denominator of Monin-Obukhov length Bon96 p. 49
REAL*8 :: MNO_DNM
! Surface layer mean wind speed [m/s]
REAL*8 :: WND_MDP_BND(IIPAR)
! denominator for wind friction velocity
REAL*8 :: WND_FRC_DENOM
!=================================================================
! BLM_MBL begins here!
!=================================================================
! Initialize
MNO_LNG(:) = 0.0D0
WND_FRC(:) = 0.0D0
! Loop over longitudes
DO LON_IDX = 1, IIPAR
! Surface layer mean wind speed bounded [m/s]
WND_MDP_BND(LON_IDX) =
& MAX(WND_10M(LON_IDX), WND_MIN_MBL)
! Friction velocity (adiabatic approximation S&P equ. 16.57,
! tdf 10/27/2K3 -- Sanity check
IF ( RGH_MMN(LON_IDX) <= 0.0 ) THEN
CALL ERROR_STOP( 'RGH_MMN <= 0.0',
& 'BLM_MBL ("dust_dead_mod.f")' )
ENDIF
! Distinguish between mobilisation candidates and noncandidates
IF ( FLG_MBL(LON_IDX) ) THEN
WND_FRC_DENOM = HGT_RFR / RGH_MMN_MBL ! z = 10 m
ELSE
WND_FRC_DENOM = HGT_RFR / RGH_MMN(LON_IDX) ! z = 10 m
ENDIF
! Sanity check
IF ( WND_FRC_DENOM <= 0.0 ) THEN
CALL ERROR_STOP( 'wnd_frc_denom <= 0.0',
& 'BLM_MBL ("dust_dead_mod.f")' )
ENDIF
! Take natural LOG of WND_FRC_DENOM
WND_FRC_DENOM = LOG(WND_FRC_DENOM)
! Convert to [m/s]
WND_FRC(LON_IDX) = WND_MDP_BND(LON_IDX) * CST_VON_KRM
& / WND_FRC_DENOM
! Denominator of Monin-Obukhov length Bon96 p. 49
! Set denominator of Monin-Obukhov length to minimum value
MNO_DNM = EPS_DBZ
! Monin-Obukhov length Bon96 p. 49 [m]
MNO_LNG(LON_IDX) = -1.0D0 * (WND_FRC(LON_IDX)**3.0D0)
& /MNO_DNM
! Override for non mobilisation candidates
IF ( .NOT. FLG_MBL(LON_IDX) ) THEN
WND_FRC(LON_IDX) = 0.0D0
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE BLM_MBL
!------------------------------------------------------------------------------
LOGICAL FUNCTION ORO_IS_OCN( ORO_VAL )
!
!******************************************************************************
! Function ORO_IS_OCN returns TRUE if a grid box contains more than 50%
! ocean. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) ORO_VAL (REAL*8) : Orography at a grid box (0=ocean; 1=land; 2=ice)
!
! NOTES:
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: ORO_VAL
!=================================================================
! ORO_IS_OCN begins here!
!=================================================================
ORO_IS_OCN = ( NINT( ORO_VAL ) == 0 )
! Return to calling program
END FUNCTION ORO_IS_OCN
!------------------------------------------------------------------------------
LOGICAL FUNCTION ORO_IS_LND( ORO_VAL )
!
!******************************************************************************
! Function ORO_IS_LND returns TRUE if a grid box contains more than 50%
! land. (tdf, bmy, 3/30/04, 3/1/05)
!
! Arguments as Input:
! ============================================================================
! (1 ) ORO_VAL (REAL*8) : Orography at a grid box (0=ocean; 1=land; 2=ice)
!
! NOTES:
! (1 ) Bug fix: Replaced ": :" with "::" in order to prevent compile error
! on Linux w/ PGI compiler. (bmy, 3/1/05)
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: ORO_VAL
!=================================================================
! ORO_IS_OCN begins here!
!=================================================================
ORO_IS_LND = ( NINT( ORO_VAL ) == 1 )
! Return to calling program
END FUNCTION ORO_IS_LND
!------------------------------------------------------------------------------
LOGICAL FUNCTION ORO_IS_ICE( ORO_VAL )
!
!******************************************************************************
! Function ORO_IS_LND returns TRUE if a grid box contains more than 50%
! ice. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) ORO_VAL (REAL*8) : Orography at a grid box (0=ocean; 1=land; 2=ice)
!
! NOTES:
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: ORO_VAL
!=================================================================
! ORO_IS_ICE begins here!
!=================================================================
ORO_IS_ICE = ( NINT( ORO_VAL ) == 2 )
! Return to calling program
END FUNCTION ORO_IS_ICE
!------------------------------------------------------------------------------
REAL*8 FUNCTION MNO_STB_CRC_HEAT_UNS_GET( SML_FNC_MMN_UNS_RCP )
!
!******************************************************************************
! Function MNO_STB_CRC_HEAT_UNS_GET returns the stability correction factor
! for heat (usually called PSI), given the reciprocal of the Monin-Obukhov
! similarity function (usually called PHI) for momentum in an unstable
! atmosphere. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) sml_fnc_mmn_uns_rcp (REAL*8) : 1/(M-O similarity function) [fraction]
!
! References:
! ============================================================================
! References are Ary88 p. 167, Bru82 p. 71, SeP97 p. 869,
! Bon96 p. 52, BKL97 p. F1, LaP81 p. 325, LaP82 p. 466
! Currently this function is BFB with CCM:dom/flxoce()
!
! NOTES:
! (1 ) Updated comments, cosmetic changes (bmy, 3/30/04)
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: SML_FNC_MMN_UNS_RCP
!=================================================================
! MNO_STB_CRC_HEAT_UNS_GET
!=================================================================
MNO_STB_CRC_HEAT_UNS_GET = 2.0D0 *
& LOG( ( 1.0D0+SML_FNC_MMN_UNS_RCP * SML_FNC_MMN_UNS_RCP) / 2.0D0 )
! Return to calling program
END FUNCTION MNO_STB_CRC_HEAT_UNS_GET
!------------------------------------------------------------------------------
REAL*8 FUNCTION MNO_STB_CRC_MMN_UNS_GET( SML_FNC_MMN_UNS_RCP )
!
!******************************************************************************
! Function MNO_STB_CRC_MMN_UNS_GET returns the stability correction factor
! for momentum (usually called PSI), given the reciprocal of the
! Monin-Obukhov similarity function (usually called PHI), for momentum in
! an unstable atmosphere. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) SML_FNC_MMN_UNS_RCP (REAL*8) : 1/(M-O similarity function) [fraction]
!
! References:
! ============================================================================
! References are Ary88 p. 167, Bru82 p. 71, SeP97 p. 869,
! Bon96 p. 52, BKL97 p. F1, LaP81 p. 325, LaP82 p. 466
! Currently this function is BFB with CCM:dom/flxoce()
!
! NOTES:
! (1 ) Updated comments, cosmetic changes (bmy, 3/30/04)
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: SML_FNC_MMN_UNS_RCP
!=================================================================
! MNO_STB_CRC_MMN_UNS_GET begins here!
!=================================================================
MNO_STB_CRC_MMN_UNS_GET =
& LOG((1.0D0+SML_FNC_MMN_UNS_RCP*(2.0D0+SML_FNC_MMN_UNS_RCP))
& *(1.0D0+SML_FNC_MMN_UNS_RCP*SML_FNC_MMN_UNS_RCP)/8.0D0)
& -2.0D0*ATAN(SML_FNC_MMN_UNS_RCP)+1.571D0
! Return to calling program
END FUNCTION MNO_STB_CRC_MMN_UNS_GET
!------------------------------------------------------------------------------
REAL*8 FUNCTION XCH_CFF_MMN_OCN_NTR_GET( WND_10M_NTR )
!
!******************************************************************************
! Function XCH_CFF_MMN_OCN_NTR_GET returns the Neutral 10m drag coefficient
! over oceans. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) WIND_10M_NTR (REAL*8) : Wind speed @ 10 m[m/s]
!
! References:
! ============================================================================
! LaP82 CCM:dom/flxoce(), NOS97 p. I2
!
! NOTES:
! (1 ) Updated comments, cosmetic changes (bmy, 3/30/04)
!******************************************************************************
!
! Arguments
REAL*8, INTENT(IN) :: WND_10M_NTR
!=================================================================
! XCH_CFF_MMN_OCN_NTR_GET begins here!
!=================================================================
XCH_CFF_MMN_OCN_NTR_GET = 0.0027D0 / WND_10M_NTR + 0.000142D0
& + 0.0000764D0 * WND_10M_NTR
! REturn to calling program
END FUNCTION XCH_CFF_MMN_OCN_NTR_GET
!------------------------------------------------------------------------------
SUBROUTINE RGH_MMN_GET( ORO, RGH_MMN, SFC_TYP, SNW_FRC, WND_10M )
!
!******************************************************************************
! Subroutine RGH_MMN_GET sets the roughness length. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) ORO (INTEGER) : Orography (0=ocean; 1=land; 2=ice) [unitless]
! (3 ) SFC_TYP (REAL*8 ) : LSM surface type (0..28) [unitless]
! (4 ) SNW_FRC (REAL*8 ) : Fraction of surface covered by snow [fraction]
! (5 ) WND_10M (REAL*8 ) : 10 m wind speed [m/s ]
!
! Arguments as Output:
! ============================================================================
! (2 ) RGH_MMN (REAL*8 ) : Roughness length momentu [m ]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now force double-precision
! with "D" exponents (bmy, 3/30/04)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters ! Size parameters
!-----------------
! Arguments
!-----------------
INTEGER, INTENT(IN) :: SFC_TYP(IIPAR)
REAL*8, INTENT(IN) :: ORO(IIPAR)
REAL*8, INTENT(IN) :: SNW_FRC(IIPAR)
REAL*8, INTENT(IN) :: WND_10M(IIPAR)
REAL*8, INTENT(OUT) :: RGH_MMN(IIPAR)
!-----------------
! Parameters
!-----------------
! Roughness length over frozen lakes Bon96 p. 59 [m]
REAL*8, PARAMETER :: RGH_MMN_ICE_LAK = 0.04d0
! Roughness length over ice, bare ground, wetlands Bon96 p. 59 [m]
REAL*8, PARAMETER :: RGH_MMN_ICE_LND = 0.05d0
! Roughness length over sea ice BKL97 p. F-3 [m]
REAL*8, PARAMETER :: RGH_MMN_ICE_OCN = 0.0005d0
! Roughness length over unfrozen lakes Bon96 p. 59 [m]
REAL*8, PARAMETER :: RGH_MMN_LAK_WRM = 0.001d0
! Roughness length over snow Bon96 p. 59 CCM:lsm/snoconi.F ! [m]
REAL*8, PARAMETER :: RGH_MMN_SNW = 0.04d0
! Minimum windspeed for momentum exchange
REAL*8, PARAMETER :: WND_MIN_DPS = 1.0d0
!-----------------
! Local variables
!-----------------
! [idx] Longitude index array (sea ice)
INTEGER :: ICE_IDX(IIPAR)
! [nbr] Number of sea ice points
INTEGER :: ICE_NBR
! [Idx] Counting index
INTEGER :: IDX_IDX
! [idx] Longitude index array (land)
INTEGER :: LND_IDX(IIPAR)
! [nbr] Number of land points
INTEGER :: LND_NBR
! [idx] Counting index
INTEGER :: LON_IDX
! [idx] Longitude index array (ocean)
INTEGER :: OCN_IDX(IIPAR)
! [nbr] Number of ocean points
INTEGER :: OCN_NBR
! [idx] Plant type index
INTEGER :: PLN_TYP_IDX
! [idx] Surface type index
INTEGER :: SFC_TYP_IDX
! [idx] Surface sub-gridscale index
INTEGER :: SGS_IDX
! [m] Roughness length of current sub-gridscale
REAL*8 :: RLM_CRR
! [m s-1] Bounded wind speed at 10 m
REAL*8 :: WND_10M_BND
! [frc] Neutral 10 m drag coefficient over ocean
REAL*8 :: XCH_CFF_MMN_OCN_NTR
! Momentum roughness length [m]
REAL*8 :: Z0MVT(MVT) = (/ 0.94d0, 0.77d0, 2.62d0, 1.10d0, 0.99d0,
& 0.06d0, 0.06d0, 0.06d0, 0.06d0, 0.06d0,
& 0.06d0, 0.06d0, 0.06d0, 0.00d0 /)
! Displacement height (fn of plant type)
REAL*8 :: ZPDVT(MVT) = (/ 11.39d0, 9.38d0, 23.45d0, 13.40d0,
& 12.06d0, 0.34d0, 0.34d0, 0.34d0,
& 0.34d0, 0.34d0, 0.34d0, 0.34d0,
& 0.34d0, 0.00d0 /)
!=================================================================
! RGH_MMN_SET begins here
!=================================================================
RGH_MMN(:) = 0.0D0
! Count ocean grid boxes
OCN_NBR = 0
DO LON_IDX = 1, IIPAR
IF ( ORO_IS_OCN( ORO(LON_IDX) ) ) THEN
OCN_NBR = OCN_NBR + 1
OCN_IDX(OCN_NBR) = LON_IDX
ENDIF
ENDDO
! Count ice grid boxes
ICE_NBR = 0
DO LON_IDX = 1, IIPAR
IF ( ORO_IS_ICE( ORO(LON_IDX) ) ) THEN
ICE_NBR = ICE_NBR+1
ICE_IDX(ICE_NBR) = LON_IDX
ENDIF
ENDDO
! Count land grid boxes
LND_NBR = 0
DO LON_IDX = 1, IIPAR
IF ( ORO_IS_LND( ORO(LON_IDX) ) ) THEN
LND_NBR = LND_NBR + 1
LND_IDX(LND_NBR) = LON_IDX
ENDIF
ENDDO
!=================================================================
! Ocean points
!=================================================================
DO IDX_IDX = 1, OCN_NBR
! Longitude index of the ocean point
LON_IDX = OCN_IDX(IDX_IDX)
! Convert wind speed to roughness length over ocean [m/s]
WND_10M_BND = MAX( WND_MIN_DPS, WND_10M(LON_IDX) )
!Approximation: neutral 10 m wind speed unavailable,
! use 10 m wind speed [fraction]
XCH_CFF_MMN_OCN_NTR = XCH_CFF_MMN_OCN_NTR_GET(WND_10M_BND)
! BKL97 p. F-4, LaP81 p. 327 (14) Ocean Points [m]
RGH_MMN(LON_IDX)=10.0D0
& * EXP(-CST_VON_KRM / SQRT(XCH_CFF_MMN_OCN_NTR))
ENDDO
!=================================================================
! Sea ice points
!=================================================================
DO IDX_IDX = 1, ICE_NBR
LON_IDX = ICE_IDX(IDX_IDX)
RGH_MMN(LON_IDX) = SNW_FRC(LON_IDX) * RGH_MMN_SNW
& +(1.0D0-SNW_FRC(LON_IDX)) * RGH_MMN_ICE_OCN ! [m] Bon96 p. 59
ENDDO
!=================================================================
! Land points
!=================================================================
DO IDX_IDX = 1, LND_NBR
! Longitude
LON_IDX = LND_IDX(IDX_IDX)
! Store surface blend for current gridpoint, sfc_typ(lon_idx)
SFC_TYP_IDX = SFC_TYP(LON_IDX)
! Inland lakes
IF ( SFC_TYP_IDX == 0 ) THEN
!fxm: Add temperature input and so ability to discriminate warm
! from frozen lakes here [m] Bon96 p. 59
RGH_MMN(LON_IDX) = RGH_MMN_LAK_WRM
! Land ice
ELSE IF ( SFC_TYP_IDX == 1 ) THEN
! [m] Bon96 p. 59
RGH_MMN(LON_IDX) = SNW_FRC(LON_IDX)*RGH_MMN_SNW
& + (1.0D0-SNW_FRC(LON_IDX))*RGH_MMN_ICE_LND
! Normal land
ELSE
DO SGS_IDX = 1, 3
! Bare ground is pln_typ=14, ocean is pln_typ=0
PLN_TYP_IDX = PLN_TYP(SFC_TYP_IDX,SGS_IDX)
! Bare ground
IF ( PLN_TYP_IDX == 14 ) THEN
! Bon96 p. 59 (glacial ice is same as bare ground)
RLM_CRR = SNW_FRC(LON_IDX) * RGH_MMN_SNW
& + (1.0D0-SNW_FRC(LON_IDX)) * RGH_MMN_ICE_LND ! [m]
! Regular plant type
ELSE IF ( PLN_TYP_IDX > 0 ) THEN
RLM_CRR = SNW_FRC(LON_IDX) * RGH_MMN_SNW
& + (1.0D0-SNW_FRC(LON_IDX)) * Z0MVT(PLN_TYP_IDX)
! [m] Bon96 p. 59
! Presumably ocean snuck through
ELSE
CALL ERROR_STOP( 'pln_typ_idx == 0',
& 'RGH_MMN_GET ("dead_dust_mod.f")' )
ENDIF ! endif
! Roughness length for normal land
RGH_MMN(LON_IDX) = RGH_MMN(LON_IDX) ! [m]
& + PLN_FRC(SFC_TYP_IDX,SGS_IDX) ! [frc]
& * RLM_CRR ! [m]
ENDDO
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE RGH_MMN_GET
!------------------------------------------------------------------------------
SUBROUTINE SNW_FRC_GET( SNW_HGT_LQD, SNW_FRC )
!
!******************************************************************************
! Subroutine SNW_FRC_GET converts equivalent liquid water snow depth to
! fractional snow cover. Uses the snow thickness -> fraction algorithm of
! Bon96. (tdf bmy, 3/30/04)
!
! Arguments as Input:
! ===========================================================================
! (1 ) snw_hgt_lqd (REAL*8) : Equivalent liquid water snow depth [m]
!
! Arguments as Output:
! ===========================================================================
! (2 ) snw_frc (REAL*8 ) : Fraction of surface covered by snow
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now force double-precision
! with "D" exponents. (bmy, 3/30/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
!----------------
! Arguments
!----------------
REAL*8, INTENT(IN) :: SNW_HGT_LQD(IIPAR)
REAL*8, INTENT(OUT) :: SNW_FRC(IIPAR)
!----------------
! Parameters
!----------------
! Note disparity in bulk snow density between CCM and LSM
! WiW80 p. 2724, 2725 has some discussion of bulk snow density
!
! Bulk density of snow [kg m-3]
REAL*8, PARAMETER :: DNS_H2O_SNW_GND_LSM = 250.0D0
! Standard bulk density of snow on ground [kg m-3]
REAL*8, PARAMETER :: DNS_H2O_SNW_GND_STD = 100.0D0
! Geometric snow thickness for 100% coverage ! [m]
REAL*8, PARAMETER :: SNW_HGT_THR = 0.05D0
! Liquid water density! [kg/m3]
REAL*8, PARAMETER :: DNS_H2O_LQD_STD = 1000.0D0
!-----------------
! Local variables
!-----------------
! [idx] Counting index for lon
INTEGER :: LON_IDX
! [m] Geometric bulk thickness of snow
REAL*8 :: SNW_HGT(IIPAR)
! Conversion factor from liquid water depth
! to geometric snow thickness [fraction]
REAL*8 :: HGT_LQD_SNW_CNV
!=================================================================
! SNW_FRC_GET begins here!
!=================================================================
! Conversion factor from liquid water depth to
! geometric snow thickness [fraction]
HGT_LQD_SNW_CNV = DNS_H2O_LQD_STD
& / DNS_H2O_SNW_GND_STD
! Fractional snow cover
DO LON_IDX = 1, IIPAR
! Snow height [m]
SNW_HGT(LON_IDX) = SNW_HGT_LQD(LON_IDX)
& * HGT_LQD_SNW_CNV
! Snow fraction
! NB: CCM and LSM seem to disagree on this
SNW_FRC(LON_IDX) = MIN(SNW_HGT(LON_IDX)/SNW_HGT_THR, 1.0D0)
ENDDO
! Return to calling program
END SUBROUTINE SNW_FRC_GET
!------------------------------------------------------------------------------
SUBROUTINE WND_RFR_GET( FLG_ORO, HGT_MDP, HGT_RFR, HGT_ZPD,
& MNO_LNG, WND_FRC, WND_MDP, WND_MIN,
& WND_RFR )
!
!******************************************************************************
! Subroutine WND_RFR_GET interpolates wind speed at given height to wind
! speed at reference height. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ===========================================================================
! (1 ) FLG_ORO (LOGICAL) : Orography flag (mobilization flag) [flag]
! (2 ) HGT_MDP (REAL*8 ) : Midpoint height above surface [m ]
! (3 ) HGT_RFR (REAL*8 ) : Reference height [m ]
! (4 ) HGT_ZPD (REAL*8 ) : Zero plane displacement [m ]
! (5 ) MNO_LNG (REAL*8 ) : Monin-Obukhov length [m ]
! (6 ) WND_FRC (REAL*8 ) : Surface friction velocity [m/s ]
! (7 ) WND_MDP (REAL*8 ) : Surface layer mean wind speed [m/s ]
! (8 ) WND_MIN (REAL*8 ) : Minimum windspeed [m/s ]
!
! Arguments as Output:
! ===========================================================================
! (9 ) WND_RFR (REAL*8 ) : Wind speed at reference height [m/s ]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now force double-precision
! with "D" exponents. (bmy, 3/30/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! IIPAR
!------------------
! Arguments
!------------------
LOGICAL, INTENT(IN) :: FLG_ORO(IIPAR)
REAL*8, INTENT(IN) :: HGT_MDP(IIPAR)
REAL*8, INTENT(IN) :: HGT_RFR
REAL*8, INTENT(IN) :: HGT_ZPD(IIPAR)
REAL*8, INTENT(IN) :: MNO_LNG(IIPAR)
REAL*8, INTENT(IN) :: WND_FRC(IIPAR)
REAL*8, INTENT(IN) :: WND_MDP(IIPAR)
REAL*8, INTENT(IN) :: WND_MIN
REAL*8, INTENT(OUT) :: WND_RFR(IIPAR)
!------------------
! Parameters
!------------------
! Named index for lower (target) hght
INTEGER, PARAMETER :: RFR_HGT_IDX=1
! Named index for upper (known) hght
INTEGER, PARAMETER :: GCM_HGT_IDX=2
!------------------
! Local variables
!------------------
! [idx] Counting index
INTEGER :: IDX_IDX
! [idx] Counting index for lon
INTEGER :: LON_IDX
! Stability computation loop index
INTEGER :: LVL_IDX
! Valid indices
INTEGER :: VLD_IDX(IIPAR)
! [nbr] Number of valid indices
INTEGER :: VLD_NBR
! [frc] Monin-Obukhov stability correction momentum
REAL*8 :: MNO_STB_CRC_MMN(IIPAR,2)
! [frc] Monin-Obukhov stability parameter
REAL*8 :: MNO_STB_PRM(IIPAR,2)
! [frc] Reciprocal of similarity function
! for momentum, unstable atmosphere
REAL*8 :: SML_FNC_MMN_UNS_RCP
! Term in stability correction computation
REAL*8 :: TMP2
! Term in stability correction computation
REAL*8 :: TMP3
! Term in stability correction computation
REAL*8 :: TMP4
! [frc] Wind correction factor
REAL*8 :: WND_CRC_FCT(IIPAR)
! [m-1] Reciprocal of reference height
REAL*8 :: HGT_RFR_RCP
!=================================================================
! WND_RFR_GET begins here!
!=================================================================
HGT_RFR_RCP = 1.0D0 / HGT_RFR ! [m-1]
WND_RFR = WND_MIN ! [m s-1]
! Compute horizontal wind speed at reference height
DO LON_IDX = 1, IIPAR
IF (FLG_ORO(LON_IDX) .AND. HGT_ZPD(LON_IDX) < HGT_RFR) THEN
! Code uses notation of Bon96 p. 50, where lvl_idx=1
! is 10 m ref. hgt, lvl_idx=2 is atm. hgt
MNO_STB_PRM(LON_IDX,RFR_HGT_IDX) =
& MIN((HGT_RFR-HGT_ZPD(LON_IDX))
& /MNO_LNG(LON_IDX),1.0D0) ! [frc]
MNO_STB_PRM(LON_IDX,GCM_HGT_IDX) =
& MIN((HGT_MDP(LON_IDX)-HGT_ZPD(LON_IDX))
& /MNO_LNG(LON_IDX),1.0D0) ! [frc]
DO LVL_IDX = 1, 2
IF (MNO_STB_PRM(LON_IDX,LVL_IDX) < 0.0D0) THEN
SML_FNC_MMN_UNS_RCP = (1.0D0 - 16.0D0
& * MNO_STB_PRM(LON_IDX,LVL_IDX))**0.25D0
TMP2 = LOG((1.0D0 + SML_FNC_MMN_UNS_RCP
& * SML_FNC_MMN_UNS_RCP)/2.0D0)
TMP3 = LOG((1.0D0 + SML_FNC_MMN_UNS_RCP)/2.0D0)
MNO_STB_CRC_MMN(LON_IDX,LVL_IDX) =
& 2.0D0 * TMP3 + TMP2 - 2.0D0
& * ATAN(SML_FNC_MMN_UNS_RCP) + 1.5707963
ELSE ! not stable
MNO_STB_CRC_MMN(LON_IDX,LVL_IDX) = -5.0D0
& * MNO_STB_PRM(LON_IDX,LVL_IDX)
ENDIF ! stable
ENDDO ! end loop over lvl_idx
TMP4 = LOG( (HGT_MDP(LON_IDX)-HGT_ZPD(LON_IDX))
& / (HGT_RFR-HGT_ZPD(LON_IDX)) )
! Correct neutral stability assumption
WND_CRC_FCT(LON_IDX) = TMP4
& - MNO_STB_CRC_MMN(LON_IDX,GCM_HGT_IDX)
& + MNO_STB_CRC_MMN(LON_IDX,RFR_HGT_IDX) ! [frc]
WND_RFR(LON_IDX) = WND_MDP(LON_IDX)-WND_FRC(LON_IDX)
& * CST_VON_KRM_RCP * WND_CRC_FCT(LON_IDX) ! [m s-1]
WND_RFR(LON_IDX) = MAX(WND_RFR(LON_IDX),WND_MIN) ! [m s-1]
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE WND_RFR_GET
!------------------------------------------------------------------------------
SUBROUTINE WND_FRC_THR_SLT_GET( FLG_MBL, DNS_MDP, WND_FRC_THR_SLT)
!
!******************************************************************************
! Subroutine WND_FRC_THR_SLT_GET ccmputes the dry threshold friction velocity
! for saltation -- See Zender et al. expression (1) (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ===========================================================================
! (1 ) FLG_MBL (LOGICAL) : mobilisation flag
! (2 ) DNS_MDP (REAL*8 ) : Midlayer density [kg/m3]
!
! Arguments as Output:
! ===========================================================================
! (3 ) WND_FRC_THR_SLT (REAL*8 ) : Threshold friction velocity
! for saltation [m/s]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now force double-precision
! with "D" exponents. (bmy, 3/30/04)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters ! IIPAR
!----------------
! Arguments
!----------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: DNS_MDP(IIPAR)
REAL*8, INTENT(OUT) :: WND_FRC_THR_SLT(IIPAR)
!-----------------
! Parameters
!-----------------
! [m] Optimal diameter for saltation,
! IvW82 p. 117 Fgr. 8, Pye87 p. 31, MBA97 p. 4388, SRL96 (2)
REAL*8, PARAMETER :: DMT_SLT_OPT = 75.0d-6
! [kg m-3] Density of optimal saltation particles,
! MBA97 p. 4388 friction velocity for saltation
REAL*8, PARAMETER :: DNS_SLT = 2650.0d0
!-----------------
! Local variables
!-----------------
! [idx] Longitude Counting Index
INTEGER :: LON_IDX
! Threshold friction Reynolds number
! approximation for optimal size [frc]
REAL*8 :: RYN_NBR
! Density ratio factor for saltation calculation
REAL*8 :: DNS_FCT
! Interparticle cohesive forces factor for saltation calculation
REAL*8 :: ALPHA, BETA, GAMMA, TMP1
!=================================================================
! WND_FRC_THR_SLT_GET begins here!
!=================================================================
! Initialize some variables
! MaB95 pzn. for Re*t(D_opt) circumvents iterative solution
! [frc] "B" MaB95 p. 16417 (5)
! [m/s] Threshold velocity
WND_FRC_THR_SLT(:) = 0.0D0
! Threshold friction Reynolds number approximation for optimal size
RYN_NBR = 0.38D0 + 1331.0D0
& * (100.0D0*DMT_SLT_OPT)**1.56D0
! tdf NB conversion of Dp to [cm]
! Given Re*t(D_opt), compute time independent factors contributing
! to u*t. IvW82 p. 115 (6) MaB95 p. 16417 (4) Interparticle cohesive
! forces. see Zender et al., Equ. (1).
! tdf introduced beta [fraction]
BETA = 1.0D0+6.0D-07 / (DNS_SLT*GRV_SFC*(DMT_SLT_OPT**2.5D0))
! IvW82 p. 115 (6) MaB95 p. 16417 (4)
DNS_FCT = DNS_SLT * GRV_SFC * DMT_SLT_OPT
! Error check
IF ( RYN_NBR < 0.03D0 ) THEN
CALL ERROR_STOP( 'RYN_NBR < 0.03',
& 'WND_FRC_THR_SLT_GET ("dust_dead_mod.f")' )
ELSE IF ( RYN_NBR < 10.0D0 ) THEN
! IvW82 p. 114 (3), MaB95 p. 16417 (6)
! tdf introduced gamma [fraction]
GAMMA = -1.0D0 + 1.928D0 * (RYN_NBR**0.0922D0)
TMP1 = 0.129D0*0.129D0 * BETA / GAMMA
ELSE
! ryn_nbr > 10.0D0
! IvW82 p. 114 (3), MaB95 p. 16417 (7)
! tdf introduced gamma [fraction]
GAMMA = 1.0D0-0.0858D0 * EXP(-0.0617D0*(RYN_NBR-10.0D0))
TMP1 = 0.12D0*0.12D0 * BETA * GAMMA * GAMMA
ENDIF
DO LON_IDX = 1, IIPAR
! Threshold friction velocity for saltation dry ground
! tdf introduced alpha
ALPHA = DNS_FCT / DNS_MDP(LON_IDX)
! Added mobilisation constraint
IF ( FLG_MBL(LON_IDX) ) THEN
WND_FRC_THR_SLT(LON_IDX) = SQRT(TMP1) * SQRT(ALPHA) ! [m s-1]
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE WND_FRC_THR_SLT_GET
!------------------------------------------------------------------------------
SUBROUTINE WND_RFR_THR_SLT_GET( WND_FRC, WND_FRC_THR_SLT,
& WND_MDP, WND_RFR,
& WND_RFR_THR_SLT )
!
!******************************************************************************
! Subroutine WND_RFR_THR_SLT_GET computes the threshold horizontal wind
! speed at reference height for saltation. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) wnd_frc (REAL*8) : Surface friction velocity [m/s]
! (2 ) wnd_frc_thr_slt (REAL*8) : Threshold friction vel. for saltation [m/s]
! (3 ) wnd_mdp (REAL*8) : Surface layer mean wind speed [m/s]
! (4 ) wnd_rfr (REAL*8) : Wind speed at reference height [m/s]
!
! Arguments as Output:
! ============================================================================
! (5 ) wnd_rfr_thr_slt (REAL*8) : Threshold 10m wind speed for saltation [m/s]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes.
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! Size parameters
! Arguments
REAL*8, INTENT(IN) :: WND_FRC(IIPAR)
REAL*8, INTENT(IN) :: WND_FRC_THR_SLT(IIPAR)
REAL*8, INTENT(IN) :: WND_MDP(IIPAR)
REAL*8, INTENT(IN) :: WND_RFR(IIPAR)
REAL*8, INTENT(OUT) :: WND_RFR_THR_SLT(IIPAR)
! Local variables
INTEGER :: I
!=================================================================
! WND_RFR_THR_SLT_GET begins here
!=================================================================
DO I = 1, IIPAR
! A more complicated procedure would recompute mno_lng for
! wnd_frc_thr, and then integrate vertically from rgh_mmn+hgt_zpd
! to hgt_rfr.
!
! wnd_crc_fct is (1/k)*[ln(z-D)/z0 - psi(zeta2) + psi(zeta1)]
WND_RFR_THR_SLT(I) = WND_FRC_THR_SLT(I)
& * WND_RFR(I) / WND_FRC(I)
ENDDO
! Return to calling program
END SUBROUTINE WND_RFR_THR_SLT_GET
!------------------------------------------------------------------------------
SUBROUTINE VWC2GWC( FLG_MBL, GWC_SFC, VWC_SAT, VWC_SFC )
!
!******************************************************************************
! Subroutine VWC2GWC converts volumetric water content to gravimetric water
! content -- assigned only for mobilisation candidates. (tdf, bmy, 3/30/04)
!
! Arguments as Input:
! ===========================================================================
! (1 ) FLG_MBL (LOGICAL) : Mobilization candidate flag [flag]
! (3 ) VWC_SAT (REAL*8 ) : Saturated VWC (sand-dependent) [m3/m3]
! (4 ) VWC_SFC (REAL*8 ) : Volumetric water content! [m3/m3
!
! Arguments as Output:
! ===========================================================================
! (2 ) gwc_sfc (REAL*8 ) : Gravimetric water content [kg/kg]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 3/30/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
!----------------
! Arguments
!----------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: VWC_SAT(IIPAR)
REAL*8, INTENT(IN) :: VWC_SFC(IIPAR)
REAL*8, INTENT(OUT) :: GWC_SFC(IIPAR)
!----------------
! Parameters
!----------------
! Dry density of soil ! particles (excluding pores) [kg/m3]
REAL*8, PARAMETER :: DNS_PRT_SFC = 2650.0d0
! liq. H2O density [kg/m3]
REAL*8, PARAMETER :: DNS_H2O_LQD_STD = 1000.0d0
!-----------------
! Local variables
!-----------------
! Longitude index
INTEGER :: LON_IDX
! [kg m-3] Bulk density of dry surface soil
REAL*8 :: DNS_BLK_DRY(IIPAR)
!=================================================================
! VWC2GWC begins here!
!=================================================================
GWC_SFC(:) = 0.0D0
DNS_BLK_DRY(:) = 0.0D0
! Loop over longitudes
DO LON_IDX = 1, IIPAR
! If this is a mobilization candidate then...
IF ( FLG_MBL(LON_IDX) ) THEN
! Assume volume of air pores when dry equals saturated VWC
! This implies air pores are completely filled by water in
! saturated soil
! Bulk density of dry surface soil [kg m-3]
DNS_BLK_DRY(LON_IDX) = DNS_PRT_SFC
& * ( 1.0d0 - VWC_SAT(LON_IDX) )
! Gravimetric water content [ kg kg-1]
GWC_SFC(LON_IDX) = VWC_SFC(LON_IDX)
& * DNS_H2O_LQD_STD
& / DNS_BLK_DRY(LON_IDX)
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE VWC2GWC
!------------------------------------------------------------------------------
SUBROUTINE FRC_THR_NCR_WTR_GET( FLG_MBL, FRC_THR_NCR_WTR,
& MSS_FRC_CLY, GWC_SFC )
!
!******************************************************************************
! Subroutine FRC_THR_NCR_WTR_GET computes the factor by which soil moisture
! increases threshold friction velocity. This parameterization is based on
! FMB99. Zender et al., exp. (5). (tdf, bmy, 4/5/04)
!
! Arguments as Input:
! ===========================================================================
! (1 ) FLG_MBL (LOGICAL) : Mobilization candidate flag [flags ]
! (3 ) MSS_FRC_CLY (REAL*8 ) : Mass fraction of clay [fraction]
! (4 ) GWC_SFC (REAL*8 ) : Gravimetric water content [kg/kg ]
!
! Arguments as Output:
! ===========================================================================
! (2 ) FRC_THR_NCR_WTR (REAL*8 ) : Factor by which moisture increases
! threshold friction velocity [fraction]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
! Arguments
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: MSS_FRC_CLY(IIPAR)
REAL*8, INTENT(IN) :: GWC_SFC(IIPAR)
REAL*8, INTENT(OUT) :: FRC_THR_NCR_WTR(IIPAR)
! local variables
INTEGER :: LON_IDX ! [idx] Counting index
REAL*8 :: GWC_THR(IIPAR) ! [kg/kg] Threshold GWC
!=================================================================
! FRC_THR_NCR_WTR_GET begins here!
!=================================================================
! Initialize
frc_thr_ncr_wtr(:) = 1.0D0
gwc_thr(:) = 0.0D0
! Loop over longitudes
DO LON_IDX = 1, IIPAR
! If this is a candidate for mobilization...
IF ( FLG_MBL(LON_IDX) ) THEN
!===========================================================
! Adjust threshold velocity for inhibition by moisture
! frc_thr_ncr_wtr(lon_idx)=exp(22.7D0*vwc_sfc(lon_idx))
! [frc] SRL96
!
! Compute threshold soil moisture based on clay content
! GWC_THR=MSS_FRC_CLY*(0.17D0+0.14D0*MSS_FRC_CLY) [m3/m3]
! FMB99 p. 155 (14)
!
! 19991105 remove factor of mss_frc_cly from gwc_thr to
! improve large scale behavior.
!===========================================================
! [m3 m-3]
GWC_THR(LON_IDX) = 0.17D0 + 0.14D0 * MSS_FRC_CLY(LON_IDX)
IF ( GWC_SFC(LON_IDX) > GWC_THR(LON_IDX) )
& FRC_THR_NCR_WTR(LON_IDX) = SQRT(1.0D0+1.21D0
& * (100.0D0 * (GWC_SFC(LON_IDX)-GWC_THR(LON_IDX)))
& ** 0.68D0) ! [frc] FMB99 p. 155 (15)
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE FRC_THR_NCR_WTR_GET
!------------------------------------------------------------------------------
SUBROUTINE FRC_THR_NCR_DRG_GET( FRC_THR_NCR_DRG, FLG_MBL,
& Z0M, ZS0M )
!
!******************************************************************************
! Subroutine FRC_THR_NCR_DRG_GET computes factor by which surface roughness
! increases threshold friction velocity. Zender et al., expression (3)
! This parameterization is based on MaB95 and GMB98. (tdf, bmy, 4/5/04)
!
! Arguments as Input:
! ===========================================================================
! (2 ) FLG_MBL (LOGICAL) : Mobilization candidate flag
! (3 ) Z0M (REAL*8 ) : Roughness length momentum
! : for erodible surfaces [m]
! (4 ) ZS0M (REAL*8 ) : Smooth roughness length [m]
!
! Arguments as Output:
! ===========================================================================
! (1 ) FRC_THR_NCR_DRG (REAL*8 ) : Factor by which surface roughness
! increases threshold fric. velocity [frac]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters ! Size parameters
!-----------------
! Arguments
!-----------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: Z0M
REAL*8, INTENT(IN) :: ZS0M
REAL*8, INTENT(OUT) :: FRC_THR_NCR_DRG(IIPAR)
!-----------------
! Local variables
!-----------------
! [idx] Counting index
integer lon_idx
! [frc] Efficient fraction of wind friction
real*8 Feff
! [frc] Reciprocal of Feff
real*8 Feff_rcp
!=================================================================
! FRC_THR_NCR_DRG_GET begins here!
!=================================================================
FRC_THR_NCR_DRG(:) = 1.0D0
! Adjust threshold velocity for inhibition by roughness elements
! Zender et al. Equ. (3), fd.
! [frc] MaB95 p. 16420, GMB98 p. 6207
FEFF = 1.0D0 - LOG( Z0M /ZS0M )
& / LOG( 0.35D0*( (0.1D0/ZS0M)**0.8D0) )
! Error check
if ( FEFF <= 0.0D0 .OR. FEFF > 1.0D0 ) THEN
CALL ERROR_STOP( 'Feff out of range!',
& 'FRC_THR_NCR_DRG_GET ("dust_dead_mod.f")' )
ENDIF
! Reciprocal of FEFF [fraction]
FEFF_RCP = 1.0D0 / FEFF
! Loop over longitudes
DO LON_IDX = 1, IIPAR
! If this is a mobilization candidate...
IF ( FLG_MBL(LON_IDX) ) THEN
! Save into FRC_THR_NCR_DRG
FRC_THR_NCR_DRG(LON_IDX) = FEFF_RCP
! fxm: 19991012
! Set frc_thr_ncr_drg=1.0, equivalent to assuming mobilization
! takes place at smooth roughness length
FRC_THR_NCR_DRG(LON_IDX) = 1.0D0
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE FRC_THR_NCR_DRG_GET
!------------------------------------------------------------------------------
SUBROUTINE WND_FRC_SLT_GET( FLG_MBL, WND_FRC, WND_FRC_SLT,
& WND_RFR, WND_RFR_THR_SLT )
!
!******************************************************************************
! Subroutine WND_FRC_SLT_GET computes the saltating friction velocity.
! Saltation increases friction speed by roughening surface, AKA "Owen's
! effect". This acts as a positive feedback to the friction speed. GMB98
! parameterized this feedback in terms of 10 m windspeeds, Zender et al.
! equ. (4). (tdf, bmy, 4/5/04, 1/25/07)
!
! Arguments as Input:
! ===========================================================================
! (1 ) FLG_MBL (LOGICAL) : Mobilization candidate flag
! (2 ) WND_FRC (REAL*8 ) : Surface friction velocity [m/s]
! (4 ) WND_RFR (REAL*8 ) : Wind speed at reference height [m/s]
! (5 ) WND_RFR_THR_SLT (REAL*8 ) : Thresh. 10m wind speed for saltation [m/s]
!
! Arguments as Output:
! ===========================================================================
! (3 ) WND_FRC_SLT (REAL*8 ) : Saltating friction velocity [m/s]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
! (2 ) Now eliminate Owen effect (tdf, bmy, 1/25/07)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! Size parameters
!-------------------
! Arguments
!-------------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: WND_FRC(IIPAR)
REAL*8, INTENT(IN) :: WND_RFR(IIPAR)
REAL*8, INTENT(IN) :: WND_RFR_THR_SLT(IIPAR)
REAL*8, INTENT(OUT) :: WND_FRC_SLT(IIPAR)
!-------------------
! Local variables
!-------------------
! [idx] Counting index
INTEGER :: LON_IDX
!---------------------------------------------------------------------
! Prior to 1/25/07:
! Eliminate Owen effect, so comment out this code (tdf, bmy, 1/25/07)
!
! %%%%% DO NOT DELETE -- LEAVE THIS CODE COMMENTED OUT %%%%%
!
!! [m/s] Reference windspeed excess over threshold
!REAL*8 :: WND_RFR_DLT
!
!! [m/s] Friction velocity increase from saltation
!REAL*8 :: WND_FRC_SLT_DLT
!---------------------------------------------------------------------
!=================================================================
! WND_FRC_SLT_GET begins here!
!=================================================================
! [m/s] Saltating friction velocity
WND_FRC_SLT(:) = WND_FRC(:)
!------------------------------------------------------------------------------
! Prior to 1/25/07:
! Eliminate the Owen effect. Note that the more computationally
! efficient way to do this is to just comment out the entire IF block.
! (tdf, bmy, 1/25/07)
!
! %%%%% DO NOT DELETE -- LEAVE THIS CODE COMMENTED OUT %%%%%
!
! ! Loop over longitudes
! DO LON_IDX = 1, IIPAR
!
! ! If this is a mobilization candidate, then only
! ! only apply Owen effect only when Uref > Ureft (tdf 4/5/04)
! IF ( FLG_MBL(LON_IDX) .AND.
! & WND_RFR(LON_IDX) >= WND_RFR_THR_SLT(LON_IDX) ) THEN
!
! !==================================================================
! ! Saltation roughens the boundary layer, AKA "Owen's effect"
! ! GMB98 p. 6206 Fig. 1 shows observed/computed u* dependence
! ! on observed U(1 m). GMB98 p. 6209 (12) has u* in cm s-1 and
! ! U, Ut in m s-1, personal communication, D. Gillette, 19990529
! ! With everything in MKS, the 0.3 coefficient in GMB98 (12)
! ! becomes 0.003. Increase in friction velocity due to saltation
! ! varies as square of difference between reference wind speed
! ! and reference threshold speed.
! !==================================================================
! WND_RFR_DLT = WND_RFR(LON_IDX) - WND_RFR_THR_SLT(LON_IDX)
!
! ! Friction velocity increase from saltation GMB98 p. 6209 [m/s]
! wnd_frc_slt_dlt = 0.003D0 * wnd_rfr_dlt * wnd_rfr_dlt
!
! ! Saltation friction velocity, U*,s, Zender et al. Equ. (4).
! WND_FRC_SLT(LON_IDX) = WND_FRC(LON_IDX)
! & + WND_FRC_SLT_DLT ! [m s-1]
!
! !
!ctdf Eliminate Owen effect tdf 01/13/2K5
! wnd_frc_slt(:) = wnd_frc(:)
!
! ENDIF
! ENDDO
!------------------------------------------------------------------------------
! Return to calling program
END SUBROUTINE WND_FRC_SLT_GET
!------------------------------------------------------------------------------
SUBROUTINE FLX_MSS_CACO3_MSK( DMT_VWR, FLG_MBL,
& FLX_MSS_VRT_DST_CACO3,MSS_FRC_CACO3,
& MSS_FRC_CLY, MSS_FRC_SND )
!
!******************************************************************************
! Subroutine FLX_MSS_CACO3_MSK masks dust mass flux by CaCO3 mass fraction at
! source. Theory: Uses soil CaCO3 mass fraction from Global Soil Data Task,
! 1999 (Sch99). Uses size dependent apportionment of CaCO3 from Claquin et
! al, 1999 (CSB99). (tdf, bmy, 4/5/04)
!
! Arguments as Input:
! ===========================================================================
! (1 ) DMT_VWR (REAL*8 ) : Mass weighted diameter resolved [m]
! (2 ) FLG_MBL (LOGICAL) : Mobilization candidate flag
! (3 ) FLX_MSS_VRT_DST_CACO3 (REAL*8 ) : Vert. mass flux of dust [kg/m2/s ]
! (4 ) MSS_FRC_CACO3 (REAL*8 ) : Mass fraction of CaCO3 [fraction]
! (5 ) MSS_FRC_CLY (REAL*8 ) : Mass fraction of clay [fraction]
! (6 ) MSS_FRC_SND (REAL*8 ) : Mass fraction of sand [fraction]
!
! Arguments as Output:
! ===========================================================================
! (3 ) FLX_MSS_VRT_DST_CACO3 (REAL*8 ) : Vertical mass flux of CaCO3 [kg/m2/s]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters ! Size parameters
!------------------
! Arguments
!------------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: DMT_VWR(NDSTBIN)
REAL*8, INTENT(IN) :: MSS_FRC_CACO3(IIPAR)
REAL*8, INTENT(IN) :: MSS_FRC_CLY(IIPAR)
REAL*8, INTENT(IN) :: MSS_FRC_SND(IIPAR)
REAL*8, INTENT(INOUT) :: FLX_MSS_VRT_DST_CACO3(IIPAR,NDSTBIN)
!------------------
! Parameters
!------------------
! Maximum diameter of Clay soil texture CSB99 p. 22250 [m]
REAL*8, PARAMETER :: DMT_CLY_MAX = 2.0d-6
! Maximum diameter of Silt soil texture CSB99 p. 22250 [m]
REAL*8, PARAMETER :: DMT_SLT_MAX = 50.0d-6
! Density of CaCO3 http://www.ssc.on.ca/mandm/calcit.htm [kg/m3]
REAL*8, PARAMETER :: DNS_CACO3 = 2950.0d0
!------------------
! Local variables
!------------------
! [idx] Counting index
INTEGER :: M
! [idx] Counting index for lon
INTEGER :: LON_IDX
! [frc] Mass fraction of silt
REAL*8 :: MSS_FRC_SLT(IIPAR)
! [frc] Fraction of soil CaCO3 in size bin
REAL*8 :: MSS_FRC_CACO3_SZ_CRR
! [frc] Fraction of CaCO3 in clay
REAL*8 :: MSS_FRC_CACO3_CLY
! [frc] Fraction of CaCO3 in silt
REAL*8 :: MSS_FRC_CACO3_SLT
! [frc] Fraction of CaCO3 in sand
REAL*8 :: MSS_FRC_CACO3_SND
!=================================================================
! FLX_MSS_CACO3_MSK
!=================================================================
! INITIALIZE
MSS_FRC_SLT(:) = 0.0D0
! Loop over dust bins
DO M = 1, NDSTBIN
! Loop over longitudes
DO LON_IDX = 1, IIPAR
!===========================================================
! Simple technique is to mask dust mass by tracer mass
! fraction. The model transports (hence conserves) CaCO3
! rather than total dust itself. The method assumes source,
! transport, and removal processes are linear with tracer
! mass
!===========================================================
! If this is a mobilization candidate, then...
IF ( FLG_MBL(LON_IDX) ) THEN
! 20000320: Currently this is only process in
! dust model requiring mss_frc_slt
! [frc] Mass fraction of silt
MSS_FRC_SLT(LON_IDX) =
& MAX(0.0D0, 1.0D0 -MSS_FRC_CLY(LON_IDX)
& -MSS_FRC_SND(LON_IDX))
! CSB99 showed that CaCO3 is not uniformly distributed
! across sizes. There is more CaCO3 per unit mass of
! silt than per unit mass of clay.
! Fraction of CaCO3 in clay CSB99 p. 22249 Figure 1b
MSS_FRC_CACO3_CLY = MAX(0.0D0,-0.045D0+0.5D0
& * MIN(0.5D0,MSS_FRC_CLY(LON_IDX)))
! Fraction of CaCO3 in silt CSB99 p. 22249 Figure 1a
MSS_FRC_CACO3_SLT = MAX(0.0D0,-0.175D0+1.4D0
& * MIN(0.5D0,MSS_FRC_SLT(LON_IDX)))
! Fraction of CaCO3 in sand CSB99 p. 22249 Figure 1a
MSS_FRC_CACO3_SND = 1.0D0 - MSS_FRC_CACO3_CLY
& - MSS_FRC_CACO3_SND
! Set CaCO3 fraction of total CaCO3 for each transport bin
IF ( DMT_VWR(M) < DMT_CLY_MAX ) THEN
! Transport bin carries Clay
! Fraction of soil CaCO3 in size bin
MSS_FRC_CACO3_SZ_CRR = MSS_FRC_CACO3_CLY
ELSE IF ( DMT_VWR(M) < DMT_SLT_MAX ) THEN
! Transport bin carries Silt
! Fraction of soil CaCO3 in size bin
MSS_FRC_CACO3_SZ_CRR = MSS_FRC_CACO3_SLT
ELSE
! Transport bin carries Sand
! Fraction of soil CaCO3 in size bin
MSS_FRC_CACO3_SZ_CRR = MSS_FRC_CACO3_SND
ENDIF
! Error checks
IF ( MSS_FRC_CACO3_SZ_CRR < 0.0D0 .OR.
& MSS_FRC_CACO3_SZ_CRR > 1.0D0 ) THEN
CALL ERROR_STOP(
& 'mss_frc_CaC_s < 0.0.or.mss_frc_CaC_s > 1.0!',
& 'FLX_MSS_CACO3_MSK ("dust_dead_mod.f")' )
ENDIF
IF ( MSS_FRC_CACO3(LON_IDX) < 0.0D0 .OR.
& MSS_FRC_CACO3(LON_IDX) > 1.0D0 ) THEN
CALL ERROR_STOP(
& 'mss_frc_CaCO3_s < 0.0.or.mss_frc_CaCO3 > 1.0!',
& ' FLX_MSS_CACO3_MSK ("dust_dead_mod.f")' )
ENDIF
! Convert dust flux to CaCO3 flux
FLX_MSS_VRT_DST_CACO3(LON_IDX,M) =
& FLX_MSS_VRT_DST_CACO3(LON_IDX,M) ! [KG m-2 s-1]
& * MSS_FRC_CACO3(LON_IDX) ! [frc] Mass fraction of
! CaCO3 (at this location)
! 20020925 fxm: Remove size dependence of CaCO3
& * 1.0D0
ENDIF
ENDDO
ENDDO
! Return to calling program
END SUBROUTINE FLX_MSS_CACO3_MSK
!------------------------------------------------------------------------------
SUBROUTINE FLX_MSS_HRZ_SLT_TTL_WHI79_GET( DNS_MDP, FLG_MBL,
& QS_TTL, U_S, U_ST )
!
!******************************************************************************
! Subroutine FLX_MSS_HRZ_SLT_TTL_WHI79_GET computes vertically integrated
! streamwise mass flux of particles. Theory: Uses method proposed by White
! (1979). See Zender et al., expr (10). fxm: use surface air density not
! midlayer density (tdf, bmy, 4/5/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) DNS_MDP (REAL*8 ) : Midlayer density [g/m3 ]
! (2 ) FLG_MBL (LOGICAL) : Mobilization candidate flag [flag ]
! (4 ) U_S (REAL*8 ) : Surface friction velocity [m/s ]
! (5 ) U_ST (REAL*8 ) : Threshold friction spd for saltation [m/s ]
!
! Arguments as Output:
! ============================================================================
! (3 ) QS_TTL (REAL*8 ) : Vertically integrated streamwise mass flux [kg/m/s]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters
!------------------
! Arguments
!------------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: DNS_MDP(IIPAR)
REAL*8, INTENT(IN) :: U_S(IIPAR)
REAL*8, INTENT(IN) :: U_ST(IIPAR)
REAL*8, INTENT(OUT) :: QS_TTL(IIPAR)
!------------------
! Parameters
!------------------
! [frc] Saltation constant Whi79 p. 4648, MaB97 p. 16422
REAL*8, PARAMETER :: CST_SLT = 2.61d0
!------------------
! Local variables
!------------------
! [frc] Ratio of wind friction threshold to wind friction
real*8 :: U_S_rat
! [idx] Counting index for lon
integer :: lon_idx
!=================================================================
! FLX_MSS_HRZ_SLT_TTL_WHI79_GET begins here!
!=================================================================
! Initialize
QS_TTL(:) = 0.0D0
! Loop over longitudes
DO LON_IDX = 1, IIPAR
! If this is a mobilization candidate and the friction
! velocity is above the threshold for saltation...
IF ( FLG_MBL(LON_IDX) .AND.
& U_S(LON_IDX) > U_ST(LON_IDX) ) THEN
! Ratio of wind friction threshold to wind friction
U_S_RAT = U_ST(LON_IDX) / U_S(LON_IDX)
! Whi79 p. 4648 (19), MaB97 p. 16422 (28)
QS_TTL(LON_IDX) = ! [kg m-1 s-1]
& CST_SLT * DNS_MDP(LON_IDX) * (U_S(LON_IDX)**3.0D0)
& * (1.0D0-U_S_RAT) * (1.0D0+U_S_RAT)
& * (1.0D0+U_S_RAT) / GRV_SFC
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE FLX_MSS_HRZ_SLT_TTL_WHI79_GET
!------------------------------------------------------------------------------
SUBROUTINE FLX_MSS_VRT_DST_TTL_MAB95_GET( DST_SLT_FLX_RAT_TTL,
& FLG_MBL,
& FLX_MSS_HRZ_SLT_TTL,
& FLX_MSS_VRT_DST_TTL,
& MSS_FRC_CLY )
!
!******************************************************************************
! Subroutine FLX_MSS_VRT_DST_TTL_MAB95_GET diagnoses total vertical mass flux
! of dust from vertically integrated streamwise mass flux, Zender et al.,
! expr. (11). (tdf, bmy, 4/5/04)
!
! Theory: Uses clay-based method proposed by Marticorena & Bergametti (1995)
! Their parameterization is based only on data for mss_frc_cly < 0.20
! For clayier soils, dst_slt_flx_rat_ttl may behave dramatically differently
! Whether this behavior changes when mss_frc_cly > 0.20 is unknown
! Anecdotal evidence suggests vertical flux decreases for mss_frc_cly > 0.20
! Thus we use min[mss_frc_cly,0.20] in MaB95 parameterization
!
! Arguments as Input:
! ============================================================================
! (2 ) FLG_MBL (LOGICAL) : Mobilization candidate flag
! (3 ) FLX_MSS_HRZ_SLT_TTL (REAL*8 ) : Vertically integrated streamwise
! mass flux [kg/m/s]
! (5 ) MSS_FRC_CLY (REAL*8 ) : Mass fraction clay [fraction]
!
! Arguments as Output:
! ============================================================================
! (1 ) DST_SLT_FLX_RAT_TTL (REAL*8 ) : Ratio of vertical dust flux t
! to streamwise mass flux [1/m]
! (4 ) FX_MSS_VRT_DST_TTL (REAL*8 ) : Total vert. mass flux of dust [kg/m2/s]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! Size parameters
!-----------------
! Arguments
!-----------------
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: FLX_MSS_HRZ_SLT_TTL(IIPAR)
REAL*8, INTENT(IN) :: MSS_FRC_CLY(IIPAR)
REAL*8, INTENT(OUT) :: DST_SLT_FLX_RAT_TTL(IIPAR)
REAL*8, INTENT(OUT) :: FLX_MSS_VRT_DST_TTL(IIPAR)
!-----------------
! Local variables
!-----------------
! [idx] Counting index for lon
INTEGER :: LON_IDX
! [frc] Mass fraction clay limited to 0.20
REAL*8 :: MSS_FRC_CLY_VLD
! [frc] Natural log of 10
REAL*8 :: LN10
!=================================================================
! FLX_MSS_VRT_DST_TTL_MAB95_GET
!=================================================================
! Initialize
LN10 = LOG(10.0D0)
DST_SLT_FLX_RAT_TTL(:) = 0.0D0
FLX_MSS_VRT_DST_TTL(:) = 0.0D0
! Loop over longitudes
DO LON_IDX = 1, IIPAR
! If this is a mobilization candidate...
IF ( FLG_MBL(LON_IDX) ) then
! 19990603: fxm: Dust production is EXTREMELY sensitive to
! this parameter, which changes flux by 3 orders of magnitude
! in 0.0 < mss_frc_cly < 0.20
MSS_FRC_CLY_VLD = MIN(MSS_FRC_CLY(LON_IDX),0.2D0) ! [frc]
DST_SLT_FLX_RAT_TTL(LON_IDX) = ! [m-1]
& 100.0D0 * EXP(LN10*(13.4D0*MSS_FRC_CLY_VLD-6.0D0))
! MaB95 p. 16423 (47)
FLX_MSS_VRT_DST_TTL(LON_IDX) = ! [kg M-1 s-1]
& FLX_MSS_HRZ_SLT_TTL(LON_IDX)
& * DST_SLT_FLX_RAT_TTL(LON_IDX)
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE FLX_MSS_VRT_DST_TTL_MAB95_GET
!------------------------------------------------------------------------------
SUBROUTINE DST_PSD_MSS( OVR_SRC_SNK_FRC, MSS_FRC_SRC,
& OVR_SRC_SNK_MSS, NDSTBIN, DST_SRC_NBR )
!
!******************************************************************************
! Subroutine DST_PSD_MSS computes OVR_SRC_SNK_MSS from OVR_SRC_SNK_FRC
! and MSS_FRC_SRC. (tdf, bmy, 4/5/04)
!
! Multiply ovr_src_snk_frc(src_idx,*) by mss_frc(src_idx) to obtain
! absolute mass fraction mapping from source dists. to sink bins
!
! Arguments as Input:
! ============================================================================
! (1 ) OVR_SRC_SNK_FRC (REAL*8 ) : Mass overlap, Mij, Zender p. 5, Equ. 12
! (2 ) MSS_FRC_SRC (REAL*8 ) : Mass fraction in each mode (Table 1, M)
! (4 ) NDSTBIN (INTEGER) : Number of GEOS_CHEM dust bins
! (5 ) DST_SRC_NBR (INTEGER) : Number of source modes
!
! Arguments as Output:
! ============================================================================
! (3 ) OVR_SRC_SNK_MSS (REAL*8 ) : Mass of stuff ???
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
!-----------------
! Arguments
!-----------------
INTEGER, INTENT(IN) :: DST_SRC_NBR, NDSTBIN
REAL*8, INTENT(IN) :: OVR_SRC_SNK_FRC(DST_SRC_NBR,NDSTBIN)
REAL*8, INTENT(IN) :: MSS_FRC_SRC(DST_SRC_NBR)
REAL*8, INTENT(OUT) :: OVR_SRC_SNK_MSS(DST_SRC_NBR,NDSTBIN)
!-----------------
! Local variables
!-----------------
INTEGER :: SRC_IDX, SNK_IDX
REAL*8 :: MSS_FRC_TRN_DST_SRC(NDSTBIN)
REAL*8 :: OVR_SRC_SNK_MSS_TTL
!=================================================================
! DST_PSD_MSS begins here!
!=================================================================
! Fraction of vertical dust flux which is transported
OVR_SRC_SNK_MSS_TTL = 0.0D0
! Fraction of transported dust mass at source
DO SNK_IDX = 1, NDSTBIN
MSS_FRC_TRN_DST_SRC(SNK_IDX) = 0.0D0
ENDDO
DO SNK_IDX = 1, NDSTBIN
DO SRC_IDX = 1, DST_SRC_NBR
OVR_SRC_SNK_MSS (SRC_IDX,SNK_IDX) = ! [frc]
& OVR_SRC_SNK_FRC (SRC_IDX,SNK_IDX)
& * MSS_FRC_SRC (SRC_IDX) ! [frc]
ENDDO
ENDDO
! Split double do loop into 2 parts tdf 10/22/2K3
DO SNK_IDX = 1, NDSTBIN
DO SRC_IDX = 1, DST_SRC_NBR
! [frc] Fraction of transported dust mass at source
MSS_FRC_TRN_DST_SRC(SNK_IDX) =
& MSS_FRC_TRN_DST_SRC(SNK_IDX)
& + OVR_SRC_SNK_MSS(SRC_IDX,SNK_IDX)
! [frc] Compute total transported mass fraction of dust flux
OVR_SRC_SNK_MSS_TTL = OVR_SRC_SNK_MSS_TTL
& + OVR_SRC_SNK_MSS (SRC_IDX,snk_idx)
ENDDO
ENDDO
! Convert fraction of mobilized mass to fraction of transported mass
DO SNK_IDX = 1, NDSTBIN
MSS_FRC_TRN_DST_SRC (SNK_IDX) =
& MSS_FRC_TRN_DST_SRC (SNK_IDX) / OVR_SRC_SNK_MSS_TTL
ENDDO
! Return to calling program
END SUBROUTINE DST_PSD_MSS
!------------------------------------------------------------------------------
SUBROUTINE FLX_MSS_VRT_DST_PRT( FLG_MBL,
& FLX_MSS_VRT_DST,
& FLX_MSS_VRT_DST_TTL )
!
!******************************************************************************
! Subroutine FLX_MSS_VRT_DST_PRT partitions total vertical mass flux of dust
! into transport bins. Assumes a trimodal lognormal probability density
! function (see Zender et al., p. 5). (tdf, bmy, 4/5/04)
!
! DST_SRC_NBR = 3 - trimodal size distribution in source c regions (p. 5)
! OVR_SRC_SNK_MSS [frc] computed in dst_psd_mss, called from dust_mod.f
!
! Arguments as Input:
! ============================================================================
! (1 ) FLG_MBL (LOGICAL) : Mobilization candidate flag
! (3 ) FLX_MSS_VRT_DST_TTL (REAL*8 ) : Total vert. mass flux of dust [kg/m2/s]
!
! Arguments as Output:
! ============================================================================
! (2 ) FLX_MSS_VRT_DST (REAL*8 ) : Vertical mass flux of dust [kg/m2/s]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! Size parameters
! Arguments
LOGICAL, INTENT(IN) :: FLG_MBL(IIPAR)
REAL*8, INTENT(IN) :: FLX_MSS_VRT_DST_TTL(IIPAR)
REAL*8, INTENT(OUT) :: FLX_MSS_VRT_DST(IIPAR,NDSTBIN)
! Local variables
INTEGER :: LON_IDX ! [idx] Counting index for lon
INTEGER :: SRC_IDX ! [idx] Counting index for src
INTEGER :: SNK_IDX ! [idx] Counting index for snk
INTEGER :: SNK_NBR ! [nbr] Dimension size
!=================================================================
! FLX_MSS_VRT_DST_PRT begins here!
!=================================================================
! Initialize
FLX_MSS_VRT_DST(:,:) = 0.0D0 ! [frc]
! Loop over longitudes (NB: Inefficient loop order)
DO LON_IDX = 1, IIPAR
! If this is a mobilization candidate...
IF ( FLG_MBL(LON_IDX) ) THEN
! Loop over source & sink indices
DO SNK_IDX = 1, NDSTBIN
DO SRC_IDX = 1, DST_SRC_NBR
FLX_MSS_VRT_DST(LON_IDX,SNK_IDX) = ! [kg m-2 s-1]
& FLX_MSS_VRT_DST(LON_IDX,SNK_IDX)
& + OVR_SRC_SNK_MSS(SRC_IDX,SNK_IDX)
& * FLX_MSS_VRT_DST_TTL(LON_IDX)
ENDDO
ENDDO
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE FLX_MSS_VRT_DST_PRT
!------------------------------------------------------------------------------
SUBROUTINE TM_2_IDX_WGT()
! routine eliminated: see original code
END SUBROUTINE TM_2_IDX_WGT
!------------------------------------------------------------------------------
SUBROUTINE LND_FRC_MBL_GET( DOY, FLG_MBL, LAT_RDN,
& LND_FRC_DRY, LND_FRC_MBL, MBL_NBR,
& ORO, SFC_TYP, SNW_FRC,
& TPT_SOI, TPT_SOI_FRZ, VAI_DST )
!
!******************************************************************************
! Subroutine LND_FRC_MBL_GET returns the fraction of each GEOS-CHEM grid
! box which is suitable for dust mobilization. This routine is called
! by DST_MBL. (tdf, bmy, 4/5/04, 1/13/10)
!
! The DATE is used to obtain the time-varying vegetation cover.
! Routine currently uses latitude slice of VAI from time-dependent surface
! boundary dataset (tdf, 10/27/03). LAI/VAI algorithm is from CCM:lsm/phenol
! () Bon96. The LSM data are mid-month values, i.e., valid on the 15th of !
! the month.!
!
! Criterion for mobilisation candidate (tdf, 4/5/04):
! (1) first, must be a land point, not ocean, not ice
! (2) second, it cannot be an inland lake, wetland or ice
! (3) modulated by vegetation type
! (4) modulated by subgridscale wetness
! (5) cannot be snow covered
!
! Arguments as Input:
! ============================================================================
! (1 ) DOY (REAL*8 ) : Day of year [1.0-366.0]
! (3 ) LAT_RDN (REAL*8 ) : Latitude [radians ]
! (4 ) LND_FRC_DRY (REAL*8 ) : Dry land fraction [fraction ]
! (7 ) ORO (REAL*8 ) : Orography: land/ocean/ice [flags ]
! (8 ) SFC_TYP (INTEGER) : LSM surface type (0..28) [unitless ]
! (9 ) SNW_FRC (REAL*8 ) : Fraction of surface covered by snow [fraction ]
! (10) TPT_SOI (REAL*8 ) : Soil temperature [K ]
! (11) TPT_SOI_FRZ (REAL*8 ) : Temperature of frozen soil [K ]
! (12) VAI_DST (REAL*8 ) : Vegetation area index, one-sided [m2/m2 ]
!
! Arguments as Output:
! ============================================================================
! (2 ) FLG_MBL (LOGICAL) : Mobilization candidate flag [flag ]
! (5 ) LND_FRC_MBL (REAL*8 ) : Bare ground fraction [fraction ]
! (6 ) MBL_NBR (INTEGER) : Number of mobilization candidates [unitless ]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
! (2 ) For the GOCART source function, we don't use VAI, so set FLG_VAI_TVBDS
! = .FALSE. and disable calls to ERROR_STOP (tdf, bmy, 1/25/07)
! (3 ) Modification for GEOS-4 1 x 1.25 grids (lok, bmy, 1/13/10)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ERROR_STOP
# include "CMN_SIZE" ! Size parameters ! Size parameters
# include "CMN_GCTM" ! Size parameters ! Size parameters
!------------------
! Arguments
!------------------
INTEGER, INTENT(IN) :: SFC_TYP(IIPAR)
REAL*8, INTENT(IN) :: DOY
REAL*8, INTENT(IN) :: LAT_RDN
REAL*8, INTENT(IN) :: LND_FRC_DRY(IIPAR)
REAL*8, INTENT(IN) :: ORO(IIPAR)
REAL*8, INTENT(IN) :: SNW_FRC(IIPAR)
REAL*8, INTENT(IN) :: TPT_SOI(IIPAR)
REAL*8, INTENT(IN) :: TPT_SOI_FRZ
REAL*8, INTENT(IN) :: VAI_DST(IIPAR)
INTEGER, INTENT(OUT) :: MBL_NBR
LOGICAL, INTENT(OUT) :: FLG_MBL(IIPAR)
REAL*8, INTENT(OUT) :: LND_FRC_MBL(IIPAR)
!------------------
! Parameters
!------------------
! VAI threshold quench [m2/m2]
REAL*8, PARAMETER :: VAI_MBL_THR = 0.30D0
!------------------
! Local variables
!------------------
! [idx] Counting index
INTEGER :: IDX_IDX
! [idx] Interpolation month, future
INTEGER :: IDX_MTH_GLB
! [idx] Interpolation month, past
INTEGER :: IDX_MTH_LUB
! [idx] Longitude index array (land)
INTEGER :: LND_IDX(IIPAR)
! [nbr] Number of land points
INTEGER :: LND_NBR
! [idx] Counting index for longitude
INTEGER :: LON_IDX
! [idx] Surface type index
INTEGER :: SFC_TYP_IDX
! [idx] Surface sub-gridscale index
INTEGER :: SGS_IDX
!-------------------------------------------------------------------
! Prior to 1/25/07:
! For GOCART source function, we don't use VAI (tdf, bmy, 1/25/07)
!
! %%%%% DO NOT DELETE -- LEAVE THIS CODE COMMENTED OUT %%%%%
!
!! [flg] Use VAI data from time-varying boundary dataset
! LOGICAL :: FLG_VAI_TVBDS = .TRUE.
!-------------------------------------------------------------------
! For GOCART source function, we do not use VAI (tdf, bmy, 1/25/07)
LOGICAL :: FLG_VAI_TVBDS = .FALSE.
! [flg] Add 182 days in southern hemisphere
LOGICAL :: FLG_SH_ADJ = .TRUE.
! [dgr] Latitude
REAL*8 :: LAT_DGR
! [m2 m-2] Leaf + stem area index, one-sided
REAL*8 :: VAI_SGS
!=================================================================
! LND_FRC_MBL_GET begins here!
!=================================================================
! Error check
IF ( VAI_MBL_THR <= 0.0d0 ) THEN
CALL ERROR_STOP( 'VAI_MBL_THR <= 0.0!',
& 'LND_FRC_MBL_GET ("dust_dead_mod.f")' )
ENDIF
! Latitude (degrees)
LAT_DGR = 180.0D0 * LAT_RDN/PI
! Initialize outputs
MBL_NBR = 0
DO LON_IDX = 1, IIPAR
FLG_MBL(LON_IDX) = .FALSE.
ENDDO
LND_FRC_MBL(:) = 0.0D0
!=================================================================
! For dust mobilisation, we need to have land! tdf 10/27/2K3
! Set up lnd_idx to hold the longitude indices for land
! Land ahoy!
!=================================================================
LND_NBR = 0
DO LON_IDX = 1, IIPAR
IF ( ORO_IS_LND( ORO(LON_IDX)) ) THEN
LND_NBR = LND_NBR + 1
LND_IDX(LND_NBR) = LON_IDX
ENDIF
ENDDO
! Much ado about nothing (no land points)
IF ( LND_NBR == 0 ) RETURN
!-----------------------------------------------------------------------------
! Prior to 1/25/07:
! When GOCART source function is used, VAI flag is NOT used, so
! we need to disable the ERROR_STOP call (tdf, bmy, 1/25/07)
!
! %%%%% DO NOT DELETE -- LEAVE THIS CODE COMMENTED OUT %%%%%
!
! ! Introduce error message for flg_vai_tvbds=F (VAI not used!)
! IF ( .not. FLG_VAI_TVBDS ) THEN
!c print *,' FLG_VAI_TVBDS is false: GOCART source function used'
! CALL ERROR_STOP( 'FLG_VAI_TVBDS=F',
! & 'LND_FRC_MBL_GET ("dust_dead_mod.f")' )
! ENDIF
!-----------------------------------------------------------------------------
!=================================================================
! Only land points are possible candidates for dust mobilization
!=================================================================
! Loop over land points
DO IDX_IDX = 1, LND_NBR
LON_IDX = LND_IDX(IDX_IDX)
! Store surface blend of current gridpoint
SFC_TYP_IDX = SFC_TYP(LON_IDX)
! Check for wet or frozen conditions - no mobilisation allowed
! Surface type 1 = inland lakes & land ice
! Surface type 27 = wetlands
IF ( SFC_TYP_IDX <= 1 .OR. SFC_TYP_IDX >= 27 .OR.
& TPT_SOI(LON_IDX) < TPT_SOI_FRZ ) THEN
! SET bare ground fraction to zero
LND_FRC_MBL(LON_IDX) = 0.0D0
ELSE
!-------------------------
! If we are using VAI...
!-------------------------
IF ( FLG_VAI_TVBDS ) THEN
! "bare ground" fraction of current gridcell decreases
! linearly from 1.0 to 0.0 as VAI increases from 0.0 to
! vai_mbl_thr. NOTE: vai_mbl_thr set to 0.3 (tdf, 4/5/04)
LND_FRC_MBL(LON_IDX) =
& 1.0D0 - MIN(1.0D0, MIN(VAI_DST(LON_IDX),
& VAI_MBL_THR) / VAI_MBL_THR)
!---------------------------
! If we're not using VAI...
!---------------------------
ELSE
!-----------------------------------------------------------------------------
! Prior to 1/25/07:
! When GOCART source function is used, VAI flag is NOT used, so
! we need to disable the ERROR_STOP call. (tdf, bmy, 1/25/07)
!
! %%%%% DO NOT DELETE -- LEAVE THIS CODE COMMENTED OUT %%%%%
!
! CALL ERROR_STOP( 'FLG_VAI_TVBDS=F',
! & 'LND_FRC_MBL_GET ("dust_dead_mod.f")' )
!-----------------------------------------------------------------------------
! For GOCART source function, set the bare
! ground fraction to 1 (tdf, bmy, 1/25/07)
LND_FRC_MBL(LON_IDX) = 1.0D0
ENDIF
ENDIF ! endif normal land
!==============================================================
! We have now filled "lnd_frc_mbl" the land fraction suitable
! for mobilisation. Adjust for factors which constrain entire
! gridcell LND_FRC_MBL modulated by LND_FRC_DRY and SNW_FRC.
! (tdf, 4/5/04)
!==============================================================
! Take the bare ground fraction, multiply by the fraction
! that is dry and that is NOT covered by snow
LND_FRC_MBL(LON_IDX) = LND_FRC_MBL(LON_IDX)
& * LND_FRC_DRY(LON_IDX)
& * ( 1.0D0 - SNW_FRC(LON_IDX) )
! Temporary fix for 1 x 1.25 grids -- Lok Lamsal 1/13/10
IF ( LND_FRC_MBL(LON_IDX) .GT. 1.0D0 ) THEN
LND_FRC_MBL(LON_IDX) = 0.99D0
ENDIF
! Error check
IF ( LND_FRC_MBL(lon_idx) > 1.0D0 ) THEN
CALL ERROR_STOP( 'LND_FRC_MBL > 1!',
& 'LND_FRC_MBL_GET ("dust_dead_mod.f")' )
ENDIF
IF ( LND_FRC_MBL(LON_IDX) < 0.0D0 ) then
CALL ERROR_STOP( 'LND_FRC_MBL < 0!',
& 'LND_FRC_MBL_GET ("dust_dead_mod.f")' )
ENDIF
! If there is dry land in this longitude
if ( LND_FRC_MBL(LON_IDX) > 0.0D0 ) then
! Set flag, we have a candidate!
FLG_MBL(LON_IDX) = .TRUE.
! Increment # of candidates
MBL_NBR = MBL_NBR + 1
ENDIF
ENDDO
! Return to calling program
END SUBROUTINE LND_FRC_MBL_GET
!------------------------------------------------------------------------------
SUBROUTINE DST_ADD_LON( Q, Q_TTL )
!
!******************************************************************************
! Subroutine DST_ADD_LON dst_add_lon() computes and returns the total
! property (e.g., mixing ratio, flux), obtained by simply adding along the
! (dust) constituent dimension, when given an 3-D array of an additive
! property (e.g., mixing ratio, flux). (tdf, bmy, 4/5/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) q (REAL*8) : Total property
!
! Arguments as Output:
! ============================================================================
! (2 ) q_ttl (REAL*8) : Property for each size class
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! Size parameters
! Arguments
REAL*8, INTENT(IN) :: Q(IIPAR,NDSTBIN)
REAL*8, INTENT(OUT) :: Q_TTL(IIPAR)
! Local variables
INTEGER :: I, M
!=================================================================
! DST_ADD_LON begins here!
!=================================================================
! Initialize
Q_TTL = 0d0
! Loop over dust bins
DO M = 1, NDSTBIN
! Loop over longitudes
DO I = 1, IIPAR
! Integrate!
Q_TTL(I) = Q_TTL(I) + Q(I,M)
ENDDO
ENDDO
! Return to calling program
END SUBROUTINE DST_ADD_LON
!------------------------------------------------------------------------------
SUBROUTINE DST_TVBDS_GET( LAT_IDX, VAI_DST_OUT )
!
!******************************************************************************
! Subroutine DST_TVBDS_GET returns a specifed latitude slice of VAI data.
! (tdf, bmy, 4/5/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) LAT_IDX (INTEGER) : Latitude index
!
! Arguments as Output:
! ============================================================================
! (2 ) VAI_DST_OUT (REAL*8 ) : Vegetation area index, 1-sided, current [m2/m2]
!
! NOTES:
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
# include "CMN_SIZE" ! Size parameters ! Size parameters
! Arguments
INTEGER, INTENT(IN) :: LAT_IDX
REAL*8, INTENT(OUT) :: VAI_DST_OUT(:)
! Local variables
INTEGER :: LON_IDX
!=================================================================
! DST_TVBDS_GET begins here!
!=================================================================
! Return lat slice of VAI [m2/m2]
DO LON_IDX = 1, IIPAR
VAI_DST_OUT(LON_IDX) = VAI_DST(LON_IDX,LAT_IDX)
ENDDO
! Return to calling program
END SUBROUTINE DST_TVBDS_GET
!------------------------------------------------------------------------------
SUBROUTINE OVR_SRC_SNK_FRC_GET( SRC_NBR, MDN_SRC,
& GSD_SRC, SNK_NBR,
& DMT_MIN_SNK, DMT_MAX_SNK,
& OVR_SRC_SNK_FRC )
!
!******************************************************************************
! Subroutine OVR_SRC_SNK_FRC_GET, given one set (the "source") of lognormal
! distributions, and one set of bin boundaries (the "sink"), computes and
! returns the overlap factors between the source distributions and the sink
! bins. (tdf, bmy, 4/5/04)
!
! The output is a matrix, Mij, OVR_SRC_SNK_FRC(SRC_NBR,SNK_NBR)
! Element ovr_src_snk_frc(i,j) is the fraction of size distribution i
! in group src that overlaps sink bin j
!
! Arguments as Input:
! ============================================================================
! (1 ) SRC_NBR (INTEGER) : Dimension size [unitless]
! (2 ) MDN_SRC (REAL*8 ) : Mass median particle size [m ]
! (3 ) GSD_SRC (REAL*8 ) : Geometric standard deviation [fraction]
! (4 ) SNK_NBR (INTEGER) : Dimension size [unitless]
! (5 ) DMT_MIN_SNK (REAL*8 ) : Minimum diameter in bin [m ]
! (6 ) DMT_MAX_SNK (REAL*8 ) : Maximum diameter in bin [m ]
!
! Arguments as Output:
! ============================================================================
! (7 ) OVR_SRC_SNK_FRC (REAL*8 ) : Fractional overlap of src with snk, Mij.
!
! NOTES
! (1 ) Updated comments, cosmetic changes. Also now forces double-precision
! with "D" exponents. (tdf, bmy, 4/5/04)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : GEOS_CHEM_STOP
! Arguments
INTEGER, INTENT(IN) :: SRC_NBR
REAL*8, INTENT(IN) :: MDN_SRC(SRC_NBR)
REAL*8, INTENT(IN) :: GSD_SRC(SRC_NBR)
INTEGER, INTENT(IN) :: SNK_NBR
REAL*8, INTENT(IN) :: DMT_MIN_SNK(SNK_NBR)
REAL*8, INTENT(IN) :: DMT_MAX_SNK(SNK_NBR)
REAL*8, INTENT(OUT) :: OVR_SRC_SNK_FRC(SRC_NBR,SNK_NBR)
! Local
LOGICAL :: FIRST = .TRUE.
INTEGER :: SRC_IDX ! [idx] Counting index for src
INTEGER :: SNK_IDX ! [idx] Counting index for snk
REAL*8 :: LN_GSD ! [frc] ln(gsd)
REAL*8 :: SQRT2LNGSDI ! [frc] Factor in erf() argument
REAL*8 :: LNDMAXJOVRDMDNI ! [frc] Factor in erf() argument
REAL*8 :: LNDMINJOVRDMDNI ! [frc] Factor in erf() argument
!=================================================================
! OVR_SRC_SNK_FRC_GET begins here
!=================================================================
IF ( FIRST ) THEN
! Test if ERF is implemented OK on this platform
! 19990913: erf() in SGI /usr/lib64/mips4/libftn.so is bogus
IF ( ABS( 0.8427d0 - ERF(1.0d0) ) / 0.8427d0 > 0.001d0 ) THEN
WRITE(6,'(a,f12.10)' ) 'erf(1.0D0) = ',ERF(1.0D0)
WRITE( 6, '(a)' ) 'ERF error in OVR_SRC_SNK_FRC_GET!'
CALL GEOS_CHEM_STOP
ENDIF
! Another ERF check
IF ( ERF( 0.0D0 ) /= 0.0D0 ) THEN
WRITE (6,'(a,f12.10)') 'erf(0.0D0) = ',ERF(0.0D0)
WRITE( 6, '(a)' ) 'ERF error in OVR_SRC_SNK_FRC_GET!'
CALL GEOS_CHEM_STOP
ENDIF
! Reset first-time flag
FIRST = .FALSE.
ENDIF
! Loop over source index (cf Zender et al eq 12)
DO SRC_IDX = 1, SRC_NBR
! Fraction
SQRT2LNGSDI = SQRT(2.0D0) * LOG( GSD_SRC(SRC_IDX) )
! Loop over sink index
DO SNK_IDX = 1, SNK_NBR
! [fraction]
LNDMAXJOVRDMDNI = LOG(DMT_MAX_SNK(SNK_IDX)/MDN_SRC(SRC_IDX))
! [fraction]
LNDMINJOVRDMDNI = LOG(DMT_MIN_SNK(SNK_IDX)/MDN_SRC(SRC_IDX))
! [fraction]
OVR_SRC_SNK_FRC (SRC_IDX,SNK_IDX)= ! [frc]
& 0.5D0 * (ERF(LNDMAXJOVRDMDNI/SQRT2LNGSDI)
& - ERF(LNDMINJOVRDMDNI/SQRT2LNGSDI) )
ENDDO
ENDDO
! Return to calling program
END SUBROUTINE OVR_SRC_SNK_FRC_GET
!------------------------------------------------------------------------------
FUNCTION ERF( X ) RESULT( ERF_VAL )
!
!******************************************************************************
! Function ERF returns the error function erf(x). See comments heading
! routine CALERF below. Author/Date: W. J. Cody, January 8, 1985
! (tdf, bmy, 4/5/04)
!
! Arguments as Input:
! ============================================================================
! (1 ) X (REAL*8) : Argument to erf(x)
!
! NOTES:
! (1 ) Updated comments (bmy, 4/5/04)
!******************************************************************************
!
IMPLICIT NONE
# include "define.h"
! Arguments
REAL*8, INTENT(IN) :: X
! Local variables
INTEGER :: JINT
REAL*8 :: RESULT, ERF_VAL
!================================================================
! ERF begins here!
!================================================================
JINT = 0
CALL CALERF( X, RESULT, JINT )
ERF_VAL = RESULT
! Return to calling program
END FUNCTION ERF
!------------------------------------------------------------------------------
SUBROUTINE CALERF( ARG, RESULT, JINT )
!
!******************************************************************************
! This packet evaluates erf(x), erfc(x), and exp(x*x)*erfc(x)
! for a real argument x. It contains three function type
! subprograms: erf, erfc, and erfcx (or derf, derfc, and derfcx),
! and one subroutine type subprogram, calerf. The calling
! statements for the primary entries are:
!
! y=erf(x) (or y=derf(x)),
! y=erfc(x) (or y=derfc(x)),
! and
! y=erfcx(x) (or y=derfcx(x)).
!
! The routine calerf is intended for internal packet use only,
! all computations within the packet being concentrated in this
! routine. The function subprograms invoke calerf with the
! statement
! call calerf(arg,result,jint)
! where the parameter usage is as follows
!
! Function Parameters for calerf
! Call Arg Result Jint
!
! erf(arg) any real argument erf(arg) 0
! erfc(arg) abs(arg) < xbig erfc(arg) 1
! erfcx(arg) xneg < arg < xmax erfcx(arg) 2
!
! The main computation evaluates near-minimax approximations:
! from "Rational Chebyshev Approximations for the Error Function"
! by W. J. Cody, Math. Comp., 1969, pp. 631-638. This
! transportable program uses rational functions that theoretically
! approximate erf(x) and erfc(x) to at least 18 significant
! decimal digits. The accuracy achieved depends on the arithmetic
! system, the compiler, the intrinsic functions, and proper
! selection of the machine-dependent constants.
!
! Explanation of machine-dependent constants:
! xmin = The smallest positive floating-point number.
! xinf = The largest positive finite floating-point number.
! xneg = The largest negative argument acceptable to erfcx;
! the negative of the solution to the equation
! 2*exp(x*x) = xinf.
! xsmall = Argument below which erf(x) may be represented by
! 2*x/sqrt(pi) and above which x*x will not underflow.
! A conservative value is the largest machine number x
! such that 1.0 + x = 1.0 to machine precision.
! xbig = Largest argument acceptable to erfc; solution to
! the equation: w(x)* (1-0.5/x**2) = xmin, where
! w(x) = exp(-x*x)/[x*sqrt(pi)].
! xhuge = Argument above which 1.0 - 1/(2*x*x) = 1.0 to
! machine precision. a conservative value is
! 1/[2*sqrt(xsmall)]
! xmax = Largest acceptable argument to erfcx; the minimum
! of xinf and 1/[sqrt(pi)*xmin].
!
! Approximate values for some important machines are:
! xmin xinf xneg xsmall
! CDC 7600 (s.p.) 3.13e-294 1.26e+322 -27.220 7.11e-15
! Cray-1 (s.p.) 4.58e-2467 5.45e+2465 -75.345 7.11e-15
! IEEE (IBM/XT,
! Sun, etc.) (s.p.) 1.18e-38 3.40e+38 -9.382 5.96e-8
! IEEE (IBM/XT,
! Sun, etc.) (d.p.) 2.23d-308 1.79d+308 -26.628 1.11d-16
! IBM 195 (d.p.) 5.40d-79 7.23e+75 -13.190 1.39d-17
! Univac 1108 (d.p.) 2.78d-309 8.98d+307 -26.615 1.73d-18
! Vax d-format (d.p.) 2.94d-39 1.70d+38 -9.345 1.39d-17
! Vax g-format (d.p.) 5.56d-309 8.98d+307 -26.615 1.11d-16
!
! xbig xhuge xmax
! CDC 7600 (s.p.) 25.922 8.39e+6 1.80x+293
! Cray-1 (s.p.) 75.326 8.39e+6 5.45e+2465
! IEEE (IBM/XT,
! Sun, etc.) (s.p.) 9.194 2.90e+3 4.79e+37
! IEEE (IBM/XT,
! Sun, etc.) (d.p.) 26.543 6.71d+7 2.53d+307
! IBM 195 (d.p.) 13.306 1.90d+8 7.23e+75
! Univac 1108 (d.p.) 26.582 5.37d+8 8.98d+307
! Vax d-format (d.p.) 9.269 1.90d+8 1.70d+38
! Vax g-format (d.p.) 26.569 6.71d+7 8.98d+307
!
! Error returns:
! The program returns erfc = 0 for arg >= xbig;
! erfcx = xinf for arg < xneg;
! and
! erfcx = 0 for arg >= xmax.
!
! Intrinsic functions required are:
! abs, aint, exp
!
! Author: W. J. Cody
! Mathematics And Computer Science Division
! Argonne National Laboratory
! Argonne, IL 60439
! Latest modification: March 19, 1990
!
! NOTES:
! (1 ) Now force double-precision w/ "D" exponents (bmy, 4/5/04)
!******************************************************************************
!
IMPLICIT NONE
# include "define.h"
INTEGER I,JINT
REAL*8 A,ARG,B,C,D,DEL,FOUR,HALF,P,ONE,Q,RESULT,SIXTEN,SQRPI,
& TWO,THRESH,X,XBIG,XDEN,XHUGE,XINF,XMAX,XNEG,XNUM,XSMALL,
& Y,YSQ,ZERO
DIMENSION A(5),B(4),C(9),D(8),P(6),Q(5)
! Mathematical constants
data four,one,half,two,zero/4.0d0,1.0d0,0.5d0,2.0d0,0.0d0/,
& sqrpi/5.6418958354775628695d-1/,thresh/0.46875d0/,
& sixten/16.0d0/
! Machine-dependent constants
data xinf,xneg,xsmall/3.40d+38,-9.382d0,5.96d-8/,
& xbig,xhuge,xmax/9.194d0,2.90d3,4.79d37/
! Coefficients for approximation to erf in first interval
data a /3.16112374387056560d00,1.13864154151050156d02,
& 3.77485237685302021d02,3.20937758913846947d03,
& 1.85777706184603153d-1/
data b /2.36012909523441209d01,2.44024637934444173d02,
& 1.28261652607737228d03,2.84423683343917062d03/
! Coefficients for approximation to erfc in second interval
data c /5.64188496988670089d-1,8.88314979438837594d0,
& 6.61191906371416295d01,2.98635138197400131d02,
& 8.81952221241769090d02,1.71204761263407058d03,
& 2.05107837782607147d03,1.23033935479799725d03,
& 2.15311535474403846d-8/
data d /1.57449261107098347d01,1.17693950891312499d02,
& 5.37181101862009858d02,1.62138957456669019d03,
& 3.29079923573345963d03,4.36261909014324716d03,
& 3.43936767414372164d03,1.23033935480374942d03/
! Coefficients for approximation to erfc in third interval
data p /3.05326634961232344d-1,3.60344899949804439d-1,
& 1.25781726111229246d-1,1.60837851487422766d-2,
& 6.58749161529837803d-4,1.63153871373020978d-2/
data q /2.56852019228982242d00,1.87295284992346047d00,
& 5.27905102951428412d-1,6.05183413124413191d-2,
& 2.33520497626869185d-3/
c Main Code
x=arg
y=abs(x)
if (y <= thresh) then
c Evaluate erf for |x| <= 0.46875
ysq=zero
if (y > xsmall) ysq=y*y
xnum=a(5)*ysq
xden=ysq
do i=1,3
xnum=(xnum+a(i))*ysq
xden=(xden+b(i))*ysq
end do
result=x*(xnum+a(4))/(xden+b(4))
if (jint /= 0) result=one-result
if (jint == 2) result=exp(ysq)*result
go to 800
c Evaluate erfc for 0.46875 <= |x| <= 4.0
else if (y <= four) then
xnum=c(9)*y
xden=y
do i=1,7
xnum=(xnum+c(i))*y
xden=(xden+d(i))*y
end do
result=(xnum+c(8))/(xden+d(8))
if (jint /= 2) then
ysq=aint(y*sixten)/sixten
del=(y-ysq)*(y+ysq)
result=exp(-ysq*ysq)*exp(-del)*result
end if
c Evaluate erfc for |x| > 4.0
else
result=zero
if (y >= xbig) then
if ((jint /= 2).or.(y >= xmax)) go to 300
if (y >= xhuge) then
result=sqrpi/y
go to 300
end if
end if
ysq=one/(y*y)
xnum=p(6)*ysq
xden=ysq
do i=1,4
xnum=(xnum+p(i))*ysq
xden=(xden+q(i))*ysq
end do
result=ysq*(xnum+p(5))/(xden+q(5))
result=(sqrpi-result)/y
if (jint /= 2) then
ysq=aint(y*sixten)/sixten
del=(y-ysq)*(y+ysq)
result=exp(-ysq*ysq)*exp(-del)*result
end if
end if
c Fix up for negative argument, erf, etc.
300 if (jint == 0) then
result=(half-result)+half
if (x < zero) result=-result
else if (jint == 1) then
if (x < zero) result=two-result
else
if (x < zero) then
if (x < xneg) then
result=xinf
else
ysq=aint(x*sixten)/sixten
del=(x-ysq)*(x+ysq)
y=exp(ysq*ysq)*exp(del)
result=(y+y)-result
end if
end if
end if
800 return
! Return to calling program
END SUBROUTINE CALERF
!------------------------------------------------------------------------------
SUBROUTINE PLN_TYP_GET( PLN_TYP, PLN_FRC, TAI )
!
!******************************************************************************
! Subroutine PLN_TYPE_GET returns LSM information needed by the DEAD
! dust parameterization. (tdf, bmy, 4/5/04)
!
! Arguments as Output:
! ============================================================================
! (1 ) PLN_TYP (INTEGER) : LSM plant type index (1..14)
! (2 ) PLN_TYP (REAL*8 ) : Weight of corresponding plant type (sums to 1.0)
! (3 ) TAI (REAL*8 ) : Leaf-area index (one sided) [index]
!
! NOTES:
! (1 ) Updated comments. Now force double-precision w/ "D" exponents.
! (bmy, 4/5/04)
!******************************************************************************
!
! Arguments
INTEGER, INTENT(OUT) :: PLN_TYP(0:28,3)
REAL*8, INTENT(OUT) :: PLN_FRC(0:28,3)
REAL*8, INTENT(OUT) :: TAI(14,12)
! Local variables
INTEGER :: I, J
!=================================================================
! There are 29 land surface types: 0 = ocean, 1 to 28 = land.
! Each land point has up to three vegetation types, ranging in
! value from 1 to 14. PLN_TYPE contains the vegetation type of
! the 3 subgrid points for each surface type. PLN_FRC contains
! the fractional area of the 3 subgrid points for each surface
! type.
!=================================================================
PLN_TYP(0:28,1) = (/ 0,
& 14, 14, 1, 2, 4, 1 , 1,
& 4, 1, 3, 5, 13, 1, 2,
& 11, 11, 6, 13, 9, 7, 8,
& 8, 12, 11, 12, 11, 3, 14/)
PLN_FRC(0:28,1) = (/ 0.00d0,
& 1.00d0, 1.00d0, 0.75d0, 0.50d0,
& 0.75d0, 0.37d0, 0.75d0,
& 0.75d0, 0.37d0, 0.95d0, 0.75d0,
& 0.70d0, 0.25d0, 0.25d0,
& 0.40d0, 0.40d0, 0.60d0, 0.60d0,
& 0.30d0, 0.80d0, 0.80d0,
& 0.10d0, 0.85d0, 0.85d0, 0.85d0,
& 0.85d0, 0.80d0, 1.00d0/)
PLN_TYP(0:28,2) = (/ 0,
& 14, 14, 14, 14, 14, 4 ,14,
& 14, 4, 14, 14, 5, 10, 10,
& 4, 4, 13, 6, 10, 14, 14,
& 14, 14, 14, 14, 14, 14, 14/)
PLN_FRC(0:28,2) = (/ 0.00d0,
& 0.00d0, 0.00d0, 0.25d0, 0.50d0,
& 0.25d0, 0.37d0, 0.25d0,
& 0.25d0, 0.37d0, 0.05d0, 0.25d0,
& 0.30d0, 0.25d0, 0.25d0,
& 0.30d0, 0.30d0, 0.20d0, 0.20d0,
& 0.30d0, 0.20d0, 0.20d0,
& 0.90d0, 0.15d0, 0.15d0, 0.15d0,
& 0.15d0, 0.20d0, 0.00d0/)
PLN_TYP(0:28,3) = (/ 0,
& 14, 14, 14, 14, 14, 14, 14,
& 14, 14, 14, 14, 14, 14, 14,
& 1, 1, 14, 14, 14, 14, 14,
& 14, 14, 14, 14, 14, 14, 14/)
PLN_FRC(0:28,3) = (/ 0.00d0,
& 0.00d0, 0.00d0, 0.00d0, 0.00d0,
& 0.00d0, 0.26d0, 0.00d0,
& 0.00d0, 0.26d0, 0.00d0, 0.00d0,
& 0.00d0, 0.50d0, 0.50d0,
& 0.30d0, 0.30d0, 0.20d0, 0.20d0,
& 0.40d0, 0.00d0, 0.00d0,
& 0.00d0, 0.00d0, 0.00d0, 0.00d0,
& 0.00d0, 0.00d0, 0.00d0/)
!=================================================================
! ----------------------------------------------------------------
! description of the 29 surface types
! ----------------------------------------------------------------
!
! no vegetation
! -------------
! 0 ocean
! 1 land ice (glacier)
! 2 desert
!
! forest vegetation
! -----------------
! 3 cool needleleaf evergreen tree
! 4 cool needleleaf deciduous tree
! 5 cool broadleaf deciduous tree
! 6 cool mixed needleleaf evergreen and broadleaf deciduous tree
! 7 warm needleleaf evergreen tree
! 8 warm broadleaf deciduous tree
! 9 warm mixed needleleaf evergreen and broadleaf deciduous tree
! 10 tropical broadleaf evergreen tree
! 11 tropical seasonal deciduous tree
!
! interrupted woods
! ----------------
! 12 savanna
! 13 evergreen forest tundra
! 14 deciduous forest tundra
! 15 cool forest crop
! 16 warm forest crop
!
! non-woods
! ---------
! 17 cool grassland
! 18 warm grassland
! 19 tundra
! 20 evergreen shrub
! 21 deciduous shrub
! 22 semi-desert
! 23 cool irrigated crop
! 24 cool non-irrigated crop
! 25 warm irrigated crop
! 26 warm non-irrigated crop
!
! wetlands
! --------
! 27 forest (mangrove)
! 28 non-forest
!
! ----------------------------------------------------------------
! description of the 14 plant types. see vegconi.F for
! parameters that depend on vegetation type
! ----------------------------------------------------------------
!
! 1 = needleleaf evergreen tree
! 2 = needleleaf deciduous tree
! 3 = broadleaf evergreen tree
! 4 = broadleaf deciduous tree
! 5 = tropical seasonal tree
! 6 = cool grass (c3)
! 7 = evergreen shrub
! 8 = deciduous shrub
! 9 = arctic deciduous shrub
! 10 = arctic grass
! 11 = crop
! 12 = irrigated crop
! 13 = warm grass (c4)
! 14 = not vegetated
!=================================================================
! TAI = monthly leaf area index + stem area index, one-sided
TAI(1,1:12) = (/ 4.5d0, 4.7d0, 5.0d0, 5.1d0, 5.3d0, 5.5d0,
& 5.3d0, 5.3d0, 5.2d0, 4.9d0, 4.6d0, 4.5d0 /)
TAI(2,1:12) = (/ 0.3d0, 0.3d0, 0.3d0, 1.0d0, 1.6d0, 2.4d0,
& 4.3d0, 2.9d0, 2.0d0, 1.3d0, 0.8d0, 0.5d0 /)
TAI(3,1:12) = (/ 5.0d0, 5.0d0, 5.0d0, 5.0d0, 5.0d0, 5.0d0,
& 5.0d0, 5.0d0, 5.0d0, 5.0d0, 5.0d0, 5.0d0 /)
TAI(4,1:12) = (/ 0.4d0, 0.4d0, 0.7d0, 1.6d0, 3.5d0, 5.1d0,
& 5.4d0, 4.8d0, 3.8d0, 1.7d0, 0.6d0, 0.4d0 /)
TAI(5,1:12) = (/ 1.2d0, 1.0d0, 0.9d0, 0.8d0, 0.8d0, 1.0d0,
& 2.0d0, 3.7d0, 3.2d0, 2.7d0, 1.9d0, 1.2d0 /)
TAI(6,1:12) = (/ 0.7d0, 0.8d0, 0.9d0, 1.0d0, 1.5d0, 3.4d0,
& 4.3d0, 3.8d0, 1.8d0, 1.0d0, 0.9d0, 0.8d0 /)
TAI(7,1:12) = (/ 1.3d0, 1.3d0, 1.3d0, 1.3d0, 1.3d0, 1.3d0,
& 1.3d0, 1.3d0, 1.3d0, 1.3d0, 1.3d0, 1.3d0 /)
TAI(8,1:12) = (/ 1.0d0, 1.0d0, 0.8d0, 0.3d0, 0.6d0, 0.0d0,
& 0.1d0, 0.3d0, 0.5d0, 0.6d0, 0.7d0, 0.9d0 /)
TAI(9,1:12) = (/ 0.1d0, 0.1d0, 0.1d0, 0.1d0, 0.1d0, 0.3d0,
& 1.5d0, 1.7d0, 1.4d0, 0.1d0, 0.1d0, 0.1d0 /)
TAI(10,1:12) = (/ 0.7d0, 0.8d0, 0.9d0, 1.0d0, 1.5d0, 3.4d0,
& 4.3d0, 3.8d0, 1.8d0, 1.0d0, 0.9d0, 0.8d0 /)
TAI(11,1:12) = (/ 0.0d0, 0.0d0, 0.0d0, 0.0d0, 1.0d0, 2.0d0,
& 3.0d0, 3.0d0, 1.5d0, 0.0d0, 0.0d0, 0.0d0 /)
TAI(12,1:12) = (/ 0.0d0, 0.0d0, 0.0d0, 0.0d0, 1.0d0, 2.0d0,
& 3.0d0, 3.0d0, 1.5d0, 0.0d0, 0.0d0, 0.0d0 /)
TAI(13,1:12) = (/ 0.7d0, 0.8d0, 0.9d0, 1.0d0, 1.5d0, 3.4d0,
& 4.3d0, 3.8d0, 1.8d0, 1.0d0, 0.9d0, 0.8d0 /)
TAI(14,1:12) = (/ 0.0d0, 0.0d0, 0.0d0, 0.0d0, 0.0d0, 0.0d0,
& 0.0d0, 0.0d0, 0.0d0, 0.0d0, 0.0d0, 0.0d0 /)
! Return to calling program
END SUBROUTINE PLN_TYP_GET
!------------------------------------------------------------------------------
SUBROUTINE GET_TIME_INVARIANT_DATA
!
!******************************************************************************
! Subroutine GET_TIME_INVARIANT_DATA gets data for the DEAD model which
! does not vary w/ time. This routine is called from SRC_DUST_DEAD in
! "dust_mod.f" only on the first timestep. (bmy, 4/5/04, 1/25/07)
!
! NOTES:
! (1 ) Now reference DATA_DIR from "directory_mod.f" (bmy, 7/20/04)
! (2 ) Now can read data for both GEOS & GCAP grids (bmy, 8/16/05)
! (3 ) Now make sure all USE statements are USE, ONLY (bmy, 10/3/05)
! (4 ) Now references "file_mod.f", "transfer_mod.f". Also now read from
! dust_200605 directory. Now reads GOCART source function from a
! separate file. (tdf, bmy, 1/25/07)
!******************************************************************************
!
! References to F90 modules
USE BPCH2_MOD, ONLY : GET_NAME_EXT_2D, GET_RES_EXT
USE BPCH2_MOD, ONLY : GET_TAU0, READ_BPCH2
USE DIRECTORY_MOD, ONLY : DATA_DIR
USE FILE_MOD, ONLY : IOERROR
USE TRANSFER_MOD, ONLY : TRANSFER_2D
# include "CMN_SIZE" ! Size parameters ! Size parameters
! Local variables
INTEGER :: I, IOS
REAL*4 :: ARRAY(IIPAR,JJPAR,1)
REAL*8 :: XTAU
CHARACTER(LEN=255) :: FILENAME
!=================================================================
! GET_TIME_INVARIANT_DATA begins here!
!=================================================================
! Initialize data arrays
CALL INIT_DUST_DEAD
!=================================================================
! Compute mass overlaps, Mij, between "source" PDFs
! and size bins (Zender et al., 2K3, Equ. 12, and Table 1)
!=================================================================
CALL OVR_SRC_SNK_FRC_GET( DST_SRC_NBR, DMT_VMA_SRC,
& GSD_ANL_SRC, NDSTBIN,
& DMT_MIN, DMT_MAX,
& OVR_SRC_SNK_FRC )
!=================================================================
! Compute OVR_SRC_SNK_MSS, the fraction of dust transported, given
! the mass overlap, OVR_SRC_SNK_FRC, and the mass fraction
! MSS_FRC_SRC. OVR_SRC_SNK_MSS is used in routine
! FLX_MSS_VRT_DST_PRT which partitions the total vertical
! dust flux into transport
!==============================================================
CALL DST_PSD_MSS( OVR_SRC_SNK_FRC, MSS_FRC_SRC,
& OVR_SRC_SNK_MSS, NDSTBIN, DST_SRC_NBR )
!=================================================================
! Get plant type, cover, and Leaf area index from land sfc model
!=================================================================
CALL PLN_TYP_GET( PLN_TYP, PLN_FRC, TAI )
!=================================================================
! Need also to provide surface boundary information here
! read time-invariant boundary fields data set (labelled 1,1,1985)
!
! The following time-invariant fields are read in
! ERD_FCT_GEO ; geomorphic erodibility: IIPAR JJPAR
! ERD_FCT_HYDRO ; hydrologic erodibility: IIPAR JJPAR
! ERD_FCT_TOPO ; topog. erodibility (Ginoux): IIPAR JJPAR
! ERD_FCT_UNITY ; uniform erodibility: IIPAR JJPAR
! MBL_BSN_FCT ; overall erodibility factor : IIPAR JJPAR
!
! Erodibility field should be copied onto mbl_bsn_fct
! which is the one used by the DEAD code Duncan 8/1/2003
!
! LND_FRC_DRY ; dry land fraction: IIPAR JJPAR
! MSS_FRC_CACO3 ; mass fraction of soil CaCO3: IIPAR JJPAR
! MSS_FRC_CLY ; mass fraction of clay: IIPAR JJPAR
! MSS_FRC_SND ; mass fraction of sand: IIPAR JJPAR
! SFC_TYP ; surface type: IIPAR JJPAR
!=================================================================
! Filename
FILENAME = TRIM( DATA_DIR ) //
& 'dust_200605/dst_tibds.' // GET_NAME_EXT_2D() //
& '.' // GET_RES_EXT()
! TAU value for reading the bpch files
XTAU = GET_TAU0( 1, 1, 1985 )
! Echo info
WRITE( 6, 100 ) TRIM( FILENAME )
100 FORMAT( ' - GET_TIME_INVARIANT_DATA: Reading ', a )
!-----------------
! ERD_FCT_GEO
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 1,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
CALL TRANSFER_2D( ARRAY(:,:,1), ERD_FCT_GEO )
!-----------------
! ERD_FCT_HYDRO
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 2,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
CALL TRANSFER_2D( ARRAY(:,:,1), ERD_FCT_HYDRO )
!-----------------
! ERD_FCT_TOPO
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 3,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
CALL TRANSFER_2D( ARRAY(:,:,1), ERD_FCT_TOPO )
!-----------------
! ERD_FCT_UNITY
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 4,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
CALL TRANSFER_2D( ARRAY(:,:,1), ERD_FCT_UNITY )
!-----------------
! MBL_BSN_FCT
!-----------------
!-----------------------------------------------------------------------------
! To read MBL_BSN_FCT, uncomment these lines:
! CALL READ_BPCH2( FILENAME, 'DEAD-2D', 5,
! & XTAU, IIPAR, JJPAR,
! & 1, ARRAY, QUIET=.TRUE. )
!
! CALL TRANSFER_2D( ARRAY(:,:,1), MBL_BSN_FCT )
!-----------------------------------------------------------------------------
! ??? Is this correct (bmy, 4/9/04)
!
! Set erodibility to a global uniform value of 5.707
! as recommended by Zender et al 2003 (tdf, 4/9/04)
MBL_BSN_FCT(:,:) = 1.0d0
!-----------------
! LND_FRC_DRY
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 6,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
CALL TRANSFER_2D( ARRAY(:,:,1), LND_FRC_DRY )
!-----------------
! MSS_FRC_CACO3
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 7,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
CALL TRANSFER_2D( ARRAY(:,:,1), MSS_FRC_CACO3 )
!-----------------
! MSS_FRC_CLY
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 8,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
CALL TRANSFER_2D( ARRAY(:,:,1), MSS_FRC_CLY )
!-----------------
! MSS_FRC_SND
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 9,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
CALL TRANSFER_2D( ARRAY(:,:,1), MSS_FRC_SND )
!-----------------
! SFC_TYP
!-----------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 10,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
! NINT is not defined for REAL*8
!CALL TRANSFER_2D( ARRAY(:,:,1), SFC_TYP )
! Also round off
SFC_TYP = NINT( ARRAY(:,:,1) )
!------------------------
! GOCART source function
! (tdf, bmy, 1/25/07)
!------------------------
! File name
FILENAME = TRIM( DATA_DIR ) //
& 'dust_200605/GOCART_src_fn.' // GET_NAME_EXT_2D() //
& '.' // GET_RES_EXT()
! Echo info
WRITE( 6, 100 ) TRIM( FILENAME )
! Read data
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 14,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
! Cast to REAL*8
CALL TRANSFER_2D( ARRAY(:,:,1), SRCE_FUNC )
! Return to calling program
END SUBROUTINE GET_TIME_INVARIANT_DATA
!------------------------------------------------------------------------------
SUBROUTINE GET_MONTHLY_DATA
!
!******************************************************************************
! Subroutine GET_MONTHLY_DATA gets data for the DEAD model which varies by
! month. This routine is called from SRC_DUST_DEAD in "dust_mod.f".
! (tdf, bmy, 4/5/04, 1/25/07)
!
! NOTES:
! (1 ) Now reference DATA_DIR from "directory_mod.f" (bmy, 7/20/04)
! (2 ) Now can read data for both GEOS & GCAP grids (bmy, 8/16/05)
! (3 ) Now make sure all USE statements are USE, ONLY (bmy, 10/3/05)
! (4 ) Now read from dust_200605 directory (tdf, bmy, 1/25/07)
!******************************************************************************
!
! References to F90 modules
USE BPCH2_MOD, ONLY : GET_NAME_EXT_2D, GET_RES_EXT
USE BPCH2_MOD, ONLY : GET_TAU0, READ_BPCH2
USE DIRECTORY_MOD, ONLY : DATA_DIR
USE TIME_MOD, ONLY : GET_MONTH, ITS_A_NEW_MONTH
USE TRANSFER_MOD, ONLY : TRANSFER_2D
# include "CMN_SIZE" ! Size parameters ! Size parameters
! Local variables
INTEGER :: THISMONTH
REAL*4 :: ARRAY(IIPAR,JJPAR,1)
REAL*8 :: XTAU
CHARACTER(LEN=255) :: FILENAME
!=================================================================
! GET_MONTHLY_DATA begins here!
!=================================================================
! Filename and time
FILENAME = TRIM( DATA_DIR ) //
& 'dust_200605/dst_tvbds.' // GET_NAME_EXT_2D() //
& '.' // GET_RES_EXT()
! TAU for reading the bpch files
THISMONTH = GET_MONTH()
XTAU = GET_TAU0( THISMONTH, 1, 1985 )
! Echo info
WRITE( 6, 100 ) TRIM( FILENAME )
100 FORMAT( ' - GET_MONTHLY_DATA: Reading ', a )
!-----------------------
! Veg. Area Index (VAI)
!-----------------------
CALL READ_BPCH2( FILENAME, 'DEAD-2D', 13,
& XTAU, IIPAR, JJPAR,
& 1, ARRAY, QUIET=.TRUE. )
! Cast to REAL*8 and resize
CALL TRANSFER_2D( ARRAY(:,:,1), VAI_DST )
! Return to calling program
END SUBROUTINE GET_MONTHLY_DATA
!------------------------------------------------------------------------------
SUBROUTINE INIT_DUST_DEAD
!
!******************************************************************************
! Subroutine INIT_DUST_DEAD initializes all allocatable module arrays.
! (tdf, bmy, 3/30/04, 1/25/07)
!
! NOTES:
! (1 ) Now allocate SRCE_FUNC (tdf, bmy, 1/25/07)
!******************************************************************************
!
! References to F90 modules
USE ERROR_MOD, ONLY : ALLOC_ERR
# include "CMN_SIZE" ! Size parameters
! Local variables
INTEGER :: AS
!=================================================================
! INIT_DUST_DEAD begins here!
!=================================================================
ALLOCATE( ERD_FCT_GEO( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ERD_FCT_GEO' )
ERD_FCT_GEO = 0d0
ALLOCATE( ERD_FCT_HYDRO( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ERD_FCT_HYDRO' )
ERD_FCT_HYDRO = 0d0
ALLOCATE( ERD_FCT_TOPO( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ERD_FCT_TOPO' )
ERD_FCT_TOPO = 0d0
ALLOCATE( ERD_FCT_UNITY( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'ERD_FCT_UNITY' )
ERD_FCT_UNITY = 0d0
ALLOCATE( MBL_BSN_FCT( IIPAR, JJPAR), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'MBL_BSN_FCT' )
MBL_BSN_FCT = 0d0
ALLOCATE( LND_FRC_DRY( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'LND_FRC_DRY' )
LND_FRC_DRY = 0d0
ALLOCATE( MSS_FRC_CACO3( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'MSS_FRC_CACO3' )
MSS_FRC_CACO3 = 0d0
ALLOCATE( MSS_FRC_CLY( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'MSS_FRC_CLY' )
MSS_FRC_CLY = 0d0
ALLOCATE( MSS_FRC_SND( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'MSS_FRC_SND' )
MSS_FRC_SND = 0d0
ALLOCATE( SFC_TYP( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SFC_TYP' )
SFC_TYP = 0d0
ALLOCATE( FLX_LW_DWN_SFC( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'FLX_LW_DWN_SFC' )
FLX_LW_DWN_SFC = 0d0
ALLOCATE( FLX_SW_ABS_SFC( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'FLX_SW_ABS_SFC' )
FLX_SW_ABS_SFC = 0d0
ALLOCATE( TPT_GND( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TPT_GND' )
TPT_GND = 0d0
ALLOCATE( TPT_SOI( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TPT_SOI' )
TPT_SOI = 0d0
ALLOCATE( VWC_SFC( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'VWC_SFC' )
VWC_SFC = 0d0
ALLOCATE( VAI_DST( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'VAI_DST' )
VAI_DST = 0d0
ALLOCATE( SRC_STR( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SRC_STR' )
SRC_STR = 0d0
! (tdf, bmy, 1/25/07)
ALLOCATE( SRCE_FUNC( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'SRCE_FUNC' )
SRCE_FUNC = 0d0
ALLOCATE( PLN_TYP( 0:28, 3 ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PLN_TYP' )
PLN_TYP = 0
ALLOCATE( PLN_FRC( 0:28, 3 ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'PLN_FRC' )
PLN_FRC = 0d0
ALLOCATE( TAI( MVT, 12 ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'TAI' )
TAI = 0d0
ALLOCATE( DMT_VWR( NDSTBIN ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DMT_VWR' )
DMT_VWR = 0d0
ALLOCATE( DNS_AER( NDSTBIN ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DNS_AER' )
DNS_AER = 0d0
ALLOCATE( OVR_SRC_SNK_FRC( DST_SRC_NBR, NDSTBIN ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'OVR_SRC_SNK_FRC' )
OVR_SRC_SNK_FRC = 0d0
ALLOCATE( OVR_SRC_SNK_MSS( DST_SRC_NBR, NDSTBIN ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'OVR_SRC_SNK_MSS' )
OVR_SRC_SNK_MSS = 0d0
ALLOCATE( OROGRAPHY( IIPAR, JJPAR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'OROGRAPHY' )
OROGRAPHY = 0
! Bin size min diameter [m]
ALLOCATE( DMT_MIN( NDSTBIN ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DMT_MIN' )
DMT_MIN(1) = 0.2d-6
DMT_MIN(2) = 2.0d-6
DMT_MIN(3) = 3.6d-6
DMT_MIN(4) = 6.0d-6
! Bin size max diameter [m]
ALLOCATE( DMT_MAX( NDSTBIN ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DMT_MAX' )
DMT_MAX(1) = 2.0d-6
DMT_MAX(2) = 3.6d-6
DMT_MAX(3) = 6.0d-6
DMT_MAX(4) = 1.2d-5
! DMT_VMA_SRC: D'Almeida's (1987) "Background" modes
! as default [m] (Zender et al. p.5 Table 1)
! These modes also summarized in BSM96 p. 73 Table 2
! Mass median diameter BSM96 p. 73 Table 2
ALLOCATE( DMT_VMA_SRC( DST_SRC_NBR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'DMT_VMA_SRC' )
DMT_VMA_SRC(1) = 0.832d-6
DMT_VMA_SRC(2) = 4.82d-6
DMT_VMA_SRC(3) = 19.38d-6
! GSD_ANL_SRC: Geometric standard deviation [fraction]
! BSM96 p. 73 Table 2
ALLOCATE( GSD_ANL_SRC( DST_SRC_NBR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'GSD_ANL_SRC' )
GSD_ANL_SRC(1) = 2.10d0
GSD_ANL_SRC(2) = 1.90d0
GSD_ANL_SRC(3) = 1.60d0
! MSS_FRC_SRC: Mass fraction BSM96 p. 73 Table 2
ALLOCATE( MSS_FRC_SRC( DST_SRC_NBR ), STAT=AS )
IF ( AS /= 0 ) CALL ALLOC_ERR( 'MSS_FRC_SRC' )
MSS_FRC_SRC(1) = 0.036d0
MSS_FRC_SRC(2) = 0.957d0
MSS_FRC_SRC(3) = 0.007d0
! Return to calling program
END SUBROUTINE INIT_DUST_DEAD
!------------------------------------------------------------------------------
SUBROUTINE CLEANUP_DUST_DEAD
!
!******************************************************************************
! Subroutine CLEANUP_DUST_DEAD deallocates all module variables.
! (tdf, bmy, 3/30/04, 1/25/07)
!
! NOTES:
! (1 ) Now deallocate SRCE_FUNC (tdf, bmy, 1/25/07)
!******************************************************************************
!
!=================================================================
! CLEANUP_DUST_DEAD begins here!
!=================================================================
IF ( ALLOCATED( ERD_FCT_GEO ) ) DEALLOCATE( ERD_FCT_GEO )
IF ( ALLOCATED( ERD_FCT_HYDRO ) ) DEALLOCATE( ERD_FCT_HYDRO )
IF ( ALLOCATED( ERD_FCT_TOPO ) ) DEALLOCATE( ERD_FCT_TOPO )
IF ( ALLOCATED( ERD_FCT_UNITY ) ) DEALLOCATE( ERD_FCT_UNITY )
IF ( ALLOCATED( MBL_BSN_FCT ) ) DEALLOCATE( MBL_BSN_FCT )
IF ( ALLOCATED( LND_FRC_DRY ) ) DEALLOCATE( LND_FRC_DRY )
IF ( ALLOCATED( MSS_FRC_CACO3 ) ) DEALLOCATE( MSS_FRC_CACO3 )
IF ( ALLOCATED( MSS_FRC_CLY ) ) DEALLOCATE( MSS_FRC_CLY )
IF ( ALLOCATED( MSS_FRC_SND ) ) DEALLOCATE( MSS_FRC_SND )
IF ( ALLOCATED( SFC_TYP ) ) DEALLOCATE( SFC_TYP )
IF ( ALLOCATED( FLX_LW_DWN_SFC ) ) DEALLOCATE( FLX_LW_DWN_SFC )
IF ( ALLOCATED( FLX_SW_ABS_SFC ) ) DEALLOCATE( FLX_SW_ABS_SFC )
IF ( ALLOCATED( TPT_GND ) ) DEALLOCATE( TPT_GND )
IF ( ALLOCATED( TPT_SOI ) ) DEALLOCATE( TPT_SOI )
IF ( ALLOCATED( VWC_SFC ) ) DEALLOCATE( VWC_SFC )
IF ( ALLOCATED( VAI_DST ) ) DEALLOCATE( VAI_DST )
IF ( ALLOCATED( SRC_STR ) ) DEALLOCATE( SRC_STR )
IF ( ALLOCATED( PLN_TYP ) ) DEALLOCATE( PLN_TYP )
IF ( ALLOCATED( PLN_FRC ) ) DEALLOCATE( PLN_FRC )
IF ( ALLOCATED( TAI ) ) DEALLOCATE( TAI )
IF ( ALLOCATED( DMT_VWR ) ) DEALLOCATE( DMT_VWR )
IF ( ALLOCATED( DNS_AER ) ) DEALLOCATE( DNS_AER )
IF ( ALLOCATED( OVR_SRC_SNK_FRC ) ) DEALLOCATE( OVR_SRC_SNK_FRC )
IF ( ALLOCATED( OVR_SRC_SNK_MSS ) ) DEALLOCATE( OVR_SRC_SNK_MSS )
IF ( ALLOCATED( OROGRAPHY ) ) DEALLOCATE( OROGRAPHY )
IF ( ALLOCATED( DMT_MIN ) ) DEALLOCATE( DMT_MIN )
IF ( ALLOCATED( DMT_MAX ) ) DEALLOCATE( DMT_MAX )
IF ( ALLOCATED( DMT_VMA_SRC ) ) DEALLOCATE( DMT_VMA_SRC )
IF ( ALLOCATED( GSD_ANL_SRC ) ) DEALLOCATE( GSD_ANL_SRC )
IF ( ALLOCATED( MSS_FRC_SRC ) ) DEALLOCATE( MSS_FRC_SRC )
IF ( ALLOCATED( SRCE_FUNC ) ) DEALLOCATE( SRCE_FUNC )
! Return to calling program
END SUBROUTINE CLEANUP_DUST_DEAD
!------------------------------------------------------------------------------
END MODULE DUST_DEAD_MOD
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