!WRF:MEDIATION_LAYER:PHYSICS
!
MODULE module_radiation_driver 3
CONTAINS
!BOP
! !IROUTINE: radiation_driver - interface to radiation physics options
! !INTERFACE:
SUBROUTINE radiation_driver ( & 2,68
ACFRCV ,ACFRST ,ALBEDO &
,CFRACH ,CFRACL ,CFRACM &
,CUPPT ,CZMEAN ,DT &
,DZ8W ,EMISS ,GLW &
,GMT ,GSW ,HBOT &
,HTOP ,HBOTR ,HTOPR &
,ICLOUD &
,ITIMESTEP,JULDAY, JULIAN &
,JULYR ,LW_PHYSICS &
,NCFRCV ,NCFRST ,NPHS &
,O3INPUT, O3RAD &
,AER_OPT, aerod &
,P8W ,P ,PI &
,RADT ,RA_CALL_OFFSET &
,RHO ,RLWTOA &
,RSWTOA ,RTHRATEN &
,RTHRATENLW ,RTHRATENSW &
,SNOW ,STEPRA ,SWDOWN &
,SWDOWNC ,SW_PHYSICS &
,T8W ,T ,TAUCLDC &
,TAUCLDI ,TSK ,VEGFRA &
,WARM_RAIN ,XICE ,XLAND &
,XLAT ,XLONG ,YR &
!Optional solar variables
,DECLINX ,SOLCONX ,COSZEN ,HRANG &
, CEN_LAT &
,Z &
,ALEVSIZ, no_src_types &
,LEVSIZ, N_OZMIXM &
,N_AEROSOLC &
,PAERLEV ,ID &
,CAM_ABS_DIM1, CAM_ABS_DIM2 &
,CAM_ABS_FREQ_S &
,XTIME &
,CURR_SECS, ADAPT_STEP_FLAG &
! indexes
,IDS,IDE, JDS,JDE, KDS,KDE &
,IMS,IME, JMS,JME, KMS,KME &
,i_start,i_end &
,j_start,j_end &
,kts, kte &
,num_tiles &
! Optional
, TLWDN, TLWUP & ! goddard schemes
, SLWDN, SLWUP & ! goddard schemes
, TSWDN, TSWUP & ! goddard schemes
, SSWDN, SSWUP & ! goddard schemes
, CLDFRA,CLDFRA_MP_ALL &
, PB &
, F_ICE_PHY,F_RAIN_PHY &
, QV, F_QV &
, QC, F_QC &
, QR, F_QR &
, QI, F_QI &
, QS, F_QS &
, QG, F_QG &
, QNDROP, F_QNDROP &
,ACSWUPT ,ACSWUPTC &
,ACSWDNT ,ACSWDNTC &
,ACSWUPB ,ACSWUPBC &
,ACSWDNB ,ACSWDNBC &
,ACLWUPT ,ACLWUPTC &
,ACLWDNT ,ACLWDNTC &
,ACLWUPB ,ACLWUPBC &
,ACLWDNB ,ACLWDNBC &
,SWUPT ,SWUPTC &
,SWDNT ,SWDNTC &
,SWUPB ,SWUPBC &
,SWDNB ,SWDNBC &
,LWUPT ,LWUPTC &
,LWDNT ,LWDNTC &
,LWUPB ,LWUPBC &
,LWDNB ,LWDNBC &
,LWCF &
,SWCF &
,OLR &
,aerodm, PINA, aodtot &
,OZMIXM, PIN &
,M_PS_1, M_PS_2, AEROSOLC_1 &
,AEROSOLC_2, M_HYBI0 &
,ABSTOT, ABSNXT, EMSTOT &
,CU_RAD_FEEDBACK &
,AER_RA_FEEDBACK &
,QC_ADJUST , QI_ADJUST &
,PM2_5_DRY, PM2_5_WATER &
,PM2_5_DRY_EC &
,TAUAER300, TAUAER400 & ! jcb
,TAUAER600, TAUAER999 & ! jcb
,GAER300, GAER400, GAER600, GAER999 & ! jcb
,WAER300, WAER400, WAER600, WAER999 & ! jcb
,TAUAERlw1, TAUAERlw2 &
,TAUAERlw3, TAUAERlw4 &
,TAUAERlw5, TAUAERlw6 &
,TAUAERlw7, TAUAERlw8 &
,TAUAERlw9, TAUAERlw10 &
,TAUAERlw11, TAUAERlw12 &
,TAUAERlw13, TAUAERlw14 &
,TAUAERlw15, TAUAERlw16 &
,progn &
,slope_rad,topo_shading &
,shadowmask,ht,dx,dy &
,SWUPFLX,SWUPFLXC,SWDNFLX,SWDNFLXC & ! Optional
,LWUPFLX,LWUPFLXC,LWDNFLX,LWDNFLXC & ! Optional
,radtacttime &
,ALSWVISDIR, ALSWVISDIF, ALSWNIRDIR, ALSWNIRDIF & !fds ssib alb comp (06/2010)
,SWVISDIR, SWVISDIF, SWNIRDIR, SWNIRDIF & !fds ssib swr comp (06/2010)
,SF_SURFACE_PHYSICS, IS_CAMMGMP_USED & !fds
,EXPLICIT_CONVECTION & ! .true.=no conv. scheme
)
!-------------------------------------------------------------------------
! !USES:
USE module_state_description, ONLY : RRTMSCHEME, GFDLLWSCHEME &
,RRTMG_LWSCHEME, RRTMG_SWSCHEME &
,SWRADSCHEME, GSFCSWSCHEME &
,GFDLSWSCHEME, CAMLWSCHEME, CAMSWSCHEME &
,HELDSUAREZ &
#ifdef HWRF
,HWRFSWSCHEME, HWRFLWSCHEME &
#endif
,goddardlwscheme &
,goddardswscheme &
# if (EM_CORE == 1)
,CAMMGMPSCHEME &
# endif
,FLGLWSCHEME, FLGSWSCHEME
USE module_model_constants
#ifndef HWRF
USE module_wrf_error , ONLY : wrf_err_message
#endif
! *** add new modules of schemes here
USE module_ra_sw , ONLY : swrad
USE module_ra_gsfcsw , ONLY : gsfcswrad
USE module_ra_rrtm , ONLY : rrtmlwrad
USE module_ra_rrtmg_lw , ONLY : rrtmg_lwrad
USE module_ra_rrtmg_sw , ONLY : rrtmg_swrad
USE module_ra_cam , ONLY : camrad
USE module_ra_gfdleta , ONLY : etara
#ifdef HWRF
USE module_ra_hwrf
#endif
USE module_ra_hs , ONLY : hsrad
USE module_ra_goddard , ONLY : goddardrad
USE module_ra_flg , ONLY : RAD_FLG
! This driver calls subroutines for the radiation parameterizations.
!
! short wave radiation choices:
! 1. swrad (19??)
! 4. rrtmg_sw - Added November 2008, MJIacono, AER, Inc.
!
! long wave radiation choices:
! 1. rrtmlwrad
! 4. rrtmg_lw - Added November 2008, MJIacono, AER, Inc.
!
!----------------------------------------------------------------------
IMPLICIT NONE
!<DESCRIPTION>
!
! Radiation_driver is the WRF mediation layer routine that provides the interface to
! to radiation physics packages in the WRF model layer. The radiation
! physics packages to call are chosen by setting the namelist variable
! (Rconfig entry in Registry) to the integer value assigned to the
! particular package (package entry in Registry). For example, if the
! namelist variable ra_lw_physics is set to 1, this corresponds to the
! Registry Package entry for swradscheme. Note that the Package
! names in the Registry are defined constants (frame/module_state_description.F)
! in the CASE statements in this routine.
!
! Among the arguments is moist, a four-dimensional scalar array storing
! a variable number of moisture tracers, depending on the physics
! configuration for the WRF run, as determined in the namelist. The
! highest numbered index of active moisture tracers the integer argument
! n_moist (note: the number of tracers at run time is the quantity
! <tt>n_moist - PARAM_FIRST_SCALAR + 1</tt> , not n_moist. Individual tracers
! may be indexed from moist by the Registry name of the tracer prepended
! with P_; for example P_QC is the index of cloud water. An index
! represents a valid, active field only if the index is greater than
! or equal to PARAM_FIRST_SCALAR. PARAM_FIRST_SCALAR and the individual
! indices for each tracer is defined in module_state_description and
! set in <a href=set_scalar_indices_from_config.html>set_scalar_indices_from_config</a> defined in frame/module_configure.F.
!
! Physics drivers in WRF 2.0 and higher, originally model-layer
! routines, have been promoted to mediation layer routines and they
! contain OpenMP threaded loops over tiles. Thus, physics drivers
! are called from single-threaded regions in the solver. The physics
! routines that are called from the physics drivers are model-layer
! routines and fully tile-callable and thread-safe.
!</DESCRIPTION>
!
!======================================================================
! Grid structure in physics part of WRF
!----------------------------------------------------------------------
! The horizontal velocities used in the physics are unstaggered
! relative to temperature/moisture variables. All predicted
! variables are carried at half levels except w, which is at full
! levels. Some arrays with names (*8w) are at w (full) levels.
!
!----------------------------------------------------------------------
! In WRF, kms (smallest number) is the bottom level and kme (largest
! number) is the top level. In your scheme, if 1 is at the top level,
! then you have to reverse the order in the k direction.
!
! kme - half level (no data at this level)
! kme ----- full level
! kme-1 - half level
! kme-1 ----- full level
! .
! .
! .
! kms+2 - half level
! kms+2 ----- full level
! kms+1 - half level
! kms+1 ----- full level
! kms - half level
! kms ----- full level
!
!======================================================================
! Grid structure in physics part of WRF
!
!-------------------------------------
! The horizontal velocities used in the physics are unstaggered
! relative to temperature/moisture variables. All predicted
! variables are carried at half levels except w, which is at full
! levels. Some arrays with names (*8w) are at w (full) levels.
!
!==================================================================
! Definitions
!-----------
! Theta potential temperature (K)
! Qv water vapor mixing ratio (kg/kg)
! Qc cloud water mixing ratio (kg/kg)
! Qr rain water mixing ratio (kg/kg)
! Qi cloud ice mixing ratio (kg/kg)
! Qs snow mixing ratio (kg/kg)
!-----------------------------------------------------------------
!-- PM2_5_DRY Dry PM2.5 aerosol mass for all species (ug m^-3)
!-- PM2_5_WATER PM2.5 water mass (ug m^-3)
!-- PM2_5_DRY_EC Dry PM2.5 elemental carbon aersol mass (ug m^-3)
!-- RTHRATEN Theta tendency
! due to radiation (K/s)
!-- RTHRATENLW Theta tendency
! due to long wave radiation (K/s)
!-- RTHRATENSW Theta temperature tendency
! due to short wave radiation (K/s)
!-- dt time step (s)
!-- itimestep number of time steps
!-- GLW downward long wave flux at ground surface (W/m^2)
!-- GSW net short wave flux at ground surface (W/m^2)
!-- SWDOWN downward short wave flux at ground surface (W/m^2)
!-- SWDOWNC clear-sky downward short wave flux at ground surface (W/m^2; optional; for AQ)
!-- RLWTOA upward long wave at top of atmosphere (w/m2)
!-- RSWTOA upward short wave at top of atmosphere (w/m2)
!-- XLAT latitude, south is negative (degree)
!-- XLONG longitude, west is negative (degree)
!-- ALBEDO albedo (between 0 and 1)
!-- CLDFRA cloud fraction (between 0 and 1)
!-- CLDFRA_MP_ALL cloud fraction from CAMMGMP microphysics scheme
!-- EMISS surface emissivity (between 0 and 1)
!-- rho_phy density (kg/m^3)
!-- rr dry air density (kg/m^3)
!-- moist moisture array (4D - last index is species) (kg/kg)
!-- n_moist number of moisture species
!-- qndrop Cloud droplet number (#/kg)
!-- p8w pressure at full levels (Pa)
!-- p_phy pressure (Pa)
!-- Pb base-state pressure (Pa)
!-- pi_phy exner function (dimensionless)
!-- dz8w dz between full levels (m)
!-- t_phy temperature (K)
!-- t8w temperature at full levels (K)
!-- GMT Greenwich Mean Time Hour of model start (hour)
!-- JULDAY the initial day (Julian day)
!-- RADT time for calling radiation (min)
!-- ra_call_offset -1 (old) means usually just before output, 0 after
!-- DEGRAD conversion factor for
! degrees to radians (pi/180.) (rad/deg)
!-- DPD degrees per day for earth's
! orbital position (deg/day)
!-- R_d gas constant for dry air (J/kg/K)
!-- CP heat capacity at constant pressure for dry air (J/kg/K)
!-- G acceleration due to gravity (m/s^2)
!-- rvovrd R_v divided by R_d (dimensionless)
!-- XTIME time since simulation start (min)
!-- DECLIN solar declination angle (rad)
!-- SOLCON solar constant (W/m^2)
!-- ids start index for i in domain
!-- ide end index for i in domain
!-- jds start index for j in domain
!-- jde end index for j in domain
!-- kds start index for k in domain
!-- kde end index for k in domain
!-- ims start index for i in memory
!-- ime end index for i in memory
!-- jms start index for j in memory
!-- jme end index for j in memory
!-- kms start index for k in memory
!-- kme end index for k in memory
!-- i_start start indices for i in tile
!-- i_end end indices for i in tile
!-- j_start start indices for j in tile
!-- j_end end indices for j in tile
!-- kts start index for k in tile
!-- kte end index for k in tile
!-- num_tiles number of tiles
!
!==================================================================
!
LOGICAL, OPTIONAL, INTENT(IN) :: explicit_convection
LOGICAL :: expl_conv
INTEGER, INTENT(IN ) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
kts,kte, &
num_tiles
INTEGER, INTENT(IN) :: lw_physics, sw_physics
INTEGER, OPTIONAL, INTENT(IN) :: o3input, aer_opt
INTEGER, INTENT(IN) :: id
INTEGER, DIMENSION(num_tiles), INTENT(IN) :: &
i_start,i_end,j_start,j_end
INTEGER, INTENT(IN ) :: STEPRA,ICLOUD,ra_call_offset
INTEGER, INTENT(IN ) :: alevsiz, no_src_types
INTEGER, INTENT(IN ) :: levsiz, n_ozmixm
INTEGER, INTENT(IN ) :: paerlev, n_aerosolc, cam_abs_dim1, cam_abs_dim2
REAL, INTENT(IN ) :: cam_abs_freq_s
LOGICAL, INTENT(IN ) :: warm_rain
LOGICAL, INTENT(IN ) :: is_CAMMGMP_used !BSINGH:01/31/2013: Added for CAM5 RRTMG
REAL, INTENT(IN ) :: RADT
REAL, DIMENSION( ims:ime, jms:jme ), &
INTENT(IN ) :: XLAND, &
XICE, &
TSK, &
VEGFRA, &
SNOW
REAL, DIMENSION( ims:ime, levsiz, jms:jme, n_ozmixm ), OPTIONAL, &
INTENT(IN ) :: OZMIXM
REAL, DIMENSION( ims:ime, alevsiz, jms:jme, no_src_types, n_ozmixm-1 ), OPTIONAL, &
INTENT(IN ) :: AERODM
REAL, DIMENSION( ims:ime, kms:kme, jms:jme, no_src_types ), OPTIONAL, &
INTENT(INOUT) :: AEROD
REAL, DIMENSION( ims:ime, jms:jme ), OPTIONAL, &
INTENT(INOUT) :: AODTOT
REAL, DIMENSION( ims:ime, levsiz, jms:jme, n_ozmixm ) :: OZFLG
REAL, DIMENSION(levsiz), OPTIONAL, INTENT(IN ) :: PIN
REAL, DIMENSION(alevsiz), OPTIONAL, INTENT(IN ) :: PINA
REAL, DIMENSION(ims:ime,jms:jme), OPTIONAL, INTENT(IN ) :: m_ps_1,m_ps_2
REAL, DIMENSION( ims:ime, paerlev, jms:jme, n_aerosolc ), OPTIONAL, &
INTENT(IN ) :: aerosolc_1, aerosolc_2
REAL, DIMENSION(paerlev), OPTIONAL, &
INTENT(IN ) :: m_hybi0
REAL, DIMENSION( ims:ime, jms:jme ), &
INTENT(INOUT) :: HTOP, &
HBOT, &
HTOPR, &
HBOTR, &
CUPPT
INTEGER, INTENT(IN ) :: julyr
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), &
INTENT(IN ) :: dz8w, &
z, &
p8w, &
p, &
pi, &
t, &
t8w, &
rho
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), OPTIONAL , &
INTENT(IN ) :: tauaer300,tauaer400,tauaer600,tauaer999, & ! jcb
gaer300,gaer400,gaer600,gaer999, & ! jcb
waer300,waer400,waer600,waer999, & ! jcb
qc_adjust, qi_adjust
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), OPTIONAL , &
INTENT(IN ) :: tauaerlw1,tauaerlw2,tauaerlw3,tauaerlw4, & ! czhao
tauaerlw5,tauaerlw6,tauaerlw7,tauaerlw8, & ! czhao
tauaerlw9,tauaerlw10,tauaerlw11,tauaerlw12, & ! czhao
tauaerlw13,tauaerlw14,tauaerlw15,tauaerlw16
LOGICAL, INTENT(IN) :: cu_rad_feedback
INTEGER, INTENT(IN ), OPTIONAL :: aer_ra_feedback
!jdfcz INTEGER, OPTIONAL, INTENT(IN ) :: progn,prescribe
INTEGER, OPTIONAL, INTENT(IN ) :: progn
!
! variables for aerosols (only if running with chemistry)
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), OPTIONAL , &
INTENT(IN ) :: pm2_5_dry, &
pm2_5_water, &
pm2_5_dry_ec
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), &
INTENT(INOUT) :: RTHRATEN, &
RTHRATENLW, &
RTHRATENSW
! REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), OPTIONAL , &
! INTENT(INOUT) :: SWUP, &
! SWDN, &
! SWUPCLEAR, &
! SWDNCLEAR, &
! LWUP, &
! LWDN, &
! LWUPCLEAR, &
! LWDNCLEAR
REAL, DIMENSION( ims:ime, jms:jme ), OPTIONAL, INTENT(INOUT) ::&
ACSWUPT,ACSWUPTC,ACSWDNT,ACSWDNTC, &
ACSWUPB,ACSWUPBC,ACSWDNB,ACSWDNBC, &
ACLWUPT,ACLWUPTC,ACLWDNT,ACLWDNTC, &
ACLWUPB,ACLWUPBC,ACLWDNB,ACLWDNBC
! TOA and surface, upward and downward, total and clear fluxes
REAL, DIMENSION( ims:ime, jms:jme ), OPTIONAL, INTENT(INOUT) ::&
SWUPT, SWUPTC, SWDNT, SWDNTC, &
SWUPB, SWUPBC, SWDNB, SWDNBC, &
LWUPT, LWUPTC, LWDNT, LWDNTC, &
LWUPB, LWUPBC, LWDNB, LWDNBC
! Upward and downward, total and clear sky layer fluxes (W m-2)
REAL, DIMENSION( ims:ime, kms:kme+2, jms:jme ), &
OPTIONAL, INTENT(INOUT) :: &
SWUPFLX,SWUPFLXC,SWDNFLX,SWDNFLXC, &
LWUPFLX,LWUPFLXC,LWDNFLX,LWDNFLXC
REAL, DIMENSION( ims:ime, jms:jme ), OPTIONAL , &
INTENT(INOUT) :: SWCF, &
LWCF, &
OLR
! ---- fds (06/2010) ssib alb components ------------
REAL, DIMENSION( ims:ime, jms:jme ), OPTIONAL , &
INTENT(IN ) :: ALSWVISDIR, &
ALSWVISDIF, &
ALSWNIRDIR, &
ALSWNIRDIF
! ---- fds (06/2010) ssib swr components ------------
REAL, DIMENSION( ims:ime, jms:jme ), OPTIONAL , &
INTENT(OUT ) :: SWVISDIR, &
SWVISDIF, &
SWNIRDIR, &
SWNIRDIF
INTEGER, OPTIONAL, INTENT(IN ) :: sf_surface_physics
!
REAL, DIMENSION( ims:ime, jms:jme ), &
INTENT(IN ) :: XLAT, &
XLONG, &
ALBEDO, &
EMISS
!
REAL, DIMENSION( ims:ime, jms:jme ), &
INTENT(INOUT) :: GSW, &
GLW
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(OUT) :: SWDOWN
!
REAL, INTENT(IN ) :: GMT,dt, &
julian, xtime
INTEGER, INTENT(IN ),OPTIONAL :: YR
!
INTEGER, INTENT(IN ) :: JULDAY, itimestep
REAL, INTENT(IN ),OPTIONAL :: CURR_SECS
LOGICAL, INTENT(IN ),OPTIONAL :: ADAPT_STEP_FLAG
INTEGER,INTENT(IN) :: NPHS
REAL, DIMENSION( ims:ime, jms:jme ),INTENT(OUT) :: &
CFRACH, & !Added
CFRACL, & !Added
CFRACM, & !Added
CZMEAN !Added
REAL, DIMENSION( ims:ime, jms:jme ), &
INTENT(INOUT) :: &
RLWTOA, & !Added
RSWTOA, & !Added
ACFRST, & !Added
ACFRCV !Added
INTEGER,DIMENSION( ims:ime, jms:jme ),INTENT(INOUT) :: &
NCFRST, & !Added
NCFRCV !Added
! Optional, only for Goddard LW and SW
REAL, DIMENSION(IMS:IME, JMS:JME, 1:8) :: ERBE_out !extra output for SDSU
REAL, DIMENSION(IMS:IME, JMS:JME), OPTIONAL, INTENT(INOUT) :: & !BSINGH(PNNL)- Lahey compiler forced this specification to be intent-inout
TLWDN, TLWUP, &
SLWDN, SLWUP, &
TSWDN, TSWUP, &
SSWDN, SSWUP ! for Goddard schemes
! Optional (only used by CAM lw scheme)
REAL, DIMENSION( ims:ime, kms:kme, cam_abs_dim2, jms:jme ), OPTIONAL ,&
INTENT(INOUT) :: abstot
REAL, DIMENSION( ims:ime, kms:kme, cam_abs_dim1, jms:jme ), OPTIONAL ,&
INTENT(INOUT) :: absnxt
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), OPTIONAL ,&
INTENT(INOUT) :: emstot
!
! Optional
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), &
OPTIONAL, &
INTENT(INOUT) :: CLDFRA
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), &
OPTIONAL, &
INTENT(IN ) :: &
F_ICE_PHY, &
F_RAIN_PHY, &
CLDFRA_MP_ALL
REAL, DIMENSION( ims:ime, jms:jme ), &
OPTIONAL, &
INTENT(OUT) :: SWDOWNC
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), &
OPTIONAL, &
INTENT(INOUT ) :: &
pb &
,qv,qc,qr,qi,qs,qg,qndrop
LOGICAL, OPTIONAL :: f_qv,f_qc,f_qr,f_qi,f_qs,f_qg,f_qndrop
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), &
OPTIONAL, &
INTENT(INOUT) :: taucldi,taucldc
! Variables for slope-dependent radiation
REAL, OPTIONAL, INTENT(IN) :: dx,dy
INTEGER, OPTIONAL, INTENT(IN) :: slope_rad,topo_shading
REAL, DIMENSION( ims:ime, jms:jme ), OPTIONAL, INTENT(IN) :: ht
INTEGER, DIMENSION( ims:ime, jms:jme ), OPTIONAL, INTENT(IN) :: shadowmask
REAL , OPTIONAL, INTENT(INOUT) :: radtacttime ! Storing the time in s when radiation is called next
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), &
OPTIONAL, &
INTENT(INOUT) :: o3rad
! LOCAL VAR
REAL, DIMENSION( ims:ime, jms:jme ) :: GLAT,GLON
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ) :: CEMISS
REAL, DIMENSION( ims:ime, jms:jme ) :: coszr
REAL, DIMENSION( ims:ime, levsiz, jms:jme ) :: ozmixt
REAL, DIMENSION( ims:ime, alevsiz, jms:jme, 1:no_src_types ) :: aerodt
REAL :: DECLIN,SOLCON,XXLAT,TLOCTM,XT24, CEN_LAT
INTEGER :: i,j,k,its,ite,jts,jte,ij
INTEGER :: STEPABS
LOGICAL :: gfdl_lw,gfdl_sw
LOGICAL :: doabsems
LOGICAL, EXTERNAL :: wrf_dm_on_monitor
INTEGER :: s
REAL :: OBECL,SINOB,SXLONG,ARG,DECDEG, &
DJUL,RJUL,ECCFAC
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ) :: qi_temp,qc_temp
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ) :: qi_save,qc_save
REAL :: next_rad_time
LOGICAL :: run_param , doing_adapt_dt , decided
LOGICAL :: flg_lw, flg_sw
!------------------------------------------------------------------
! solar related variables are added to declaration
!-------------------------------------------------
REAL, OPTIONAL, INTENT(OUT) :: DECLINX,SOLCONX
REAL, OPTIONAL, DIMENSION( ims:ime, jms:jme), INTENT(OUT) :: COSZEN
REAL, OPTIONAL, DIMENSION( ims:ime, jms:jme), INTENT(OUT) :: HRANG
!------------------------------------------------------------------
#ifdef HWRF
CHARACTER(len=265) :: wrf_err_message
#endif
! This allows radiation schemes (mainly HWRF) to correctly
! interface with the convection scheme when convection is only
! enabled in some domains:
if(present(explicit_convection)) then
expl_conv=explicit_convection
else
expl_conv=.true. ! backward compatibility for ARW
endif
CALL wrf_debug (1, 'Top of Radiation Driver')
! WRITE ( wrf_err_message , * ) 'itimestep = ',itimestep,', dt = ',dt,', lw and sw options = ',lw_physics,sw_physics
! CALL wrf_debug (1, wrf_err_message )
if (lw_physics .eq. 0 .and. sw_physics .eq. 0) return
! ra_call_offset = -1 gives old method where radiation may be called just before output
! ra_call_offset = 0 gives new method where radiation may be called just after output
! and is also consistent with removal of offset in new XTIME
! also need to account for stepra=1 which always has zero modulo output
doing_adapt_dt = .FALSE.
IF ( PRESENT(adapt_step_flag) ) THEN
IF ( adapt_step_flag ) THEN
doing_adapt_dt = .TRUE.
IF ( radtacttime .eq. 0. ) THEN
radtacttime = CURR_SECS + radt*60.
END IF
END IF
END IF
! Do we run through this scheme or not?
! Test 1: If this is the initial model time, then yes.
! ITIMESTEP=1
! Test 2: If the user asked for the radiation to be run every time step, then yes.
! RADT=0 or STEPRA=1
! Test 3: If not adaptive dt, and this is on the requested radiation frequency, then yes.
! MOD(ITIMESTEP,STEPRA)=0 (or 1, depending on the offset setting)
! Test 4: If using adaptive dt and the current time is past the last requested activate radiation time, then yes.
! CURR_SECS >= RADTACTTIME
! If we do run through the scheme, we set the flag run_param to TRUE and we set the decided flag
! to TRUE. The decided flag says that one of these tests was able to say "yes", run the scheme.
! We only proceed to other tests if the previous tests all have left decided as FALSE.
! If we set run_param to TRUE and this is adaptive time stepping, we set the time to the next
! radiation run.
run_param = .FALSE.
decided = .FALSE.
IF ( ( .NOT. decided ) .AND. &
( itimestep .EQ. 1 ) ) THEN
run_param = .TRUE.
decided = .TRUE.
END IF
IF ( ( .NOT. decided ) .AND. &
( ( radt .EQ. 0. ) .OR. ( stepra .EQ. 1 ) ) ) THEN
run_param = .TRUE.
decided = .TRUE.
END IF
IF ( ( .NOT. decided ) .AND. &
( .NOT. doing_adapt_dt ) .AND. &
( MOD(itimestep,stepra) .EQ. 1+ra_call_offset ) ) THEN
run_param = .TRUE.
decided = .TRUE.
END IF
IF ( ( .NOT. decided ) .AND. &
( doing_adapt_dt ) .AND. &
( curr_secs .GE. radtacttime ) ) THEN
run_param = .TRUE.
decided = .TRUE.
radtacttime = curr_secs + radt*60
END IF
Radiation_step: IF ( run_param ) then
! CAM-specific additional radiation frequency - cam_abs_freq_s (=21600s by default)
STEPABS = nint(cam_abs_freq_s/(dt*STEPRA))*STEPRA
IF (itimestep .eq. 1 .or. mod(itimestep,STEPABS) .eq. 1 + ra_call_offset &
.or. STEPABS .eq. 1 ) THEN
doabsems = .true.
ELSE
doabsems = .false.
ENDIF
IF (PRESENT(adapt_step_flag)) THEN
IF ((adapt_step_flag)) THEN
IF ( (itimestep .EQ. 1) .OR. (cam_abs_freq_s .EQ. 0) .OR. &
( CURR_SECS + dt >= ( INT( CURR_SECS / ( cam_abs_freq_s ) + 1 ) * cam_abs_freq_s) ) ) THEN
doabsems = .true.
ELSE
doabsems = .false.
ENDIF
ENDIF
ENDIF
gfdl_lw = .false.
gfdl_sw = .false.
! moved up and out of OMP loop because it only needs to be computed once
! and because it is not entirely thread-safe (XT24, TOLOCTM and XXLAT need
! their thread-privacy) JM 20100217
DO ij = 1 , num_tiles
its = i_start(ij)
ite = i_end(ij)
jts = j_start(ij)
jte = j_end(ij)
CALL radconst(XTIME,DECLIN,SOLCON,JULIAN, &
DEGRAD,DPD )
IF(PRESENT(declinx).AND.PRESENT(solconx))THEN
! saved to state arrays used in surface driver
declinx=declin
solconx=solcon
ENDIF
IF(PRESENT(coszen).AND.PRESENT(hrang))THEN
! state arrays of hrang and coszen used in surface driver
XT24=MOD(XTIME+RADT*0.5,1440.)
DO j=jts,jte
DO i=its,ite
TLOCTM=GMT+XT24/60.+XLONG(I,J)/15.
HRANG(I,J)=15.*(TLOCTM-12.)*DEGRAD
XXLAT=XLAT(I,J)*DEGRAD
COSZEN(I,J)=SIN(XXLAT)*SIN(DECLIN)+COS(XXLAT)*COS(DECLIN)*COS(HRANG(I,J))
ENDDO
ENDDO
ENDIF
ENDDO
!---------------
!$OMP PARALLEL DO &
!$OMP PRIVATE ( ij ,i,j,k,its,ite,jts,jte)
DO ij = 1 , num_tiles
its = i_start(ij)
ite = i_end(ij)
jts = j_start(ij)
jte = j_end(ij)
! initialize data
DO j=jts,jte
DO i=its,ite
GSW(I,J)=0.
GLW(I,J)=0.
SWDOWN(I,J)=0.
GLAT(I,J)=XLAT(I,J)*DEGRAD
GLON(I,J)=XLONG(I,J)*DEGRAD
ENDDO
ENDDO
DO j=jts,jte
DO k=kts,kte+1
DO i=its,ite
RTHRATEN(I,K,J)=0.
RTHRATENLW(I,K,J)=0.
RTHRATENSW(I,K,J)=0.
! SWUP(I,K,J) = 0.0
! SWDN(I,K,J) = 0.0
! SWUPCLEAR(I,K,J) = 0.0
! SWDNCLEAR(I,K,J) = 0.0
! LWUP(I,K,J) = 0.0
! LWDN(I,K,J) = 0.0
! LWUPCLEAR(I,K,J) = 0.0
! LWDNCLEAR(I,K,J) = 0.0
CEMISS(I,K,J)=0.0
ENDDO
ENDDO
ENDDO
IF ( PRESENT( SWUPFLX ) ) THEN
DO j=jts,jte
DO k=kts,kte+2
DO i=its,ite
SWUPFLX(I,K,J) = 0.0
SWDNFLX(I,K,J) = 0.0
SWUPFLXC(I,K,J) = 0.0
SWDNFLXC(I,K,J) = 0.0
LWUPFLX(I,K,J) = 0.0
LWDNFLX(I,K,J) = 0.0
LWUPFLXC(I,K,J) = 0.0
LWDNFLXC(I,K,J) = 0.0
ENDDO
ENDDO
ENDDO
ENDIF
! temporarily modify hydrometeors (currently only done for GD scheme and WRF-Chem)
!
IF ( PRESENT( qc ) .AND. PRESENT( qc_adjust ) .AND. cu_rad_feedback ) THEN
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
qc_save(i,k,j) = qc(i,k,j)
qc(i,k,j) = qc(i,k,j) + qc_adjust(i,k,j)
ENDDO
ENDDO
ENDDO
ENDIF
IF ( PRESENT( qi ) .AND. PRESENT( qi_adjust ) .AND. cu_rad_feedback ) THEN
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
qi_save(i,k,j) = qi(i,k,j)
qi(i,k,j) = qi(i,k,j) + qi_adjust(i,k,j)
ENDDO
ENDDO
ENDDO
ENDIF
! Fill temporary water variable depending on micro package (tgs 25 Apr 2006)
if(PRESENT(qc) .and. PRESENT(F_QC)) then
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
qc_temp(I,K,J)=qc(I,K,J)
ENDDO
ENDDO
ENDDO
else
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
qc_temp(I,K,J)=0.
ENDDO
ENDDO
ENDDO
endif
! Remove this - to match NAM operational (affects GFDL and HWRF schemes)
! if(PRESENT(qr) .and. PRESENT(F_QR)) then
! DO j=jts,jte
! DO k=kts,kte
! DO i=its,ite
! qc_temp(I,K,J) = qc_temp(I,K,J) + qr(I,K,J)
! ENDDO
! ENDDO
! ENDDO
! endif
!---------------
! Calculate constant for short wave radiation
lwrad_cldfra_select: SELECT CASE(lw_physics)
CASE (GFDLLWSCHEME)
!-- Do nothing, since cloud fractions (with partial cloudiness effects)
!-- are defined in GFDL LW/SW schemes and do not need to be initialized.
CASE (CAMLWSCHEME)
IF ( PRESENT ( CLDFRA ) .AND. &
PRESENT(F_QC) .AND. PRESENT ( F_QI ) ) THEN
! Call to cloud fraction routine based on Randall 1994 (Hong Pan 1998)
CALL cal_cldfra2(CLDFRA,qv,qc,qi,qs, &
F_QV,F_QC,F_QI,F_QS,t,p, &
F_ICE_PHY,F_RAIN_PHY, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte )
ENDIF
CASE (RRTMG_LWSCHEME)
IF ( PRESENT ( CLDFRA ) .AND. &
PRESENT(F_QC) .AND. PRESENT ( F_QI ) ) THEN
! Call to cloud fraction routine based on Randall 1994 (Hong Pan 1998)
CALL cal_cldfra2(CLDFRA,qv,qc,qi,qs, &
F_QV,F_QC,F_QI,F_QS,t,p, &
F_ICE_PHY,F_RAIN_PHY, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte )
IF ( PRESENT (cldfra_mp_all) ) THEN
IF (is_CAMMGMP_used) THEN
!BSINGH: cloud fraction from CAMMGMP is being used (Mods by Po-Lun)
IF (itimestep .NE. 1) THEN
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
CLDFRA(i,k,j) = CLDFRA_MP_ALL(I,K,J) !PMA
if (CLDFRA(i,k,j) .lt. 0.01) CLDFRA(i,k,j) = 0.
ENDDO
ENDDO
ENDDO
ENDIF
ENDIF
ENDIF
ENDIF
CASE DEFAULT
IF ( PRESENT ( CLDFRA ) .AND. &
PRESENT(F_QC) .AND. PRESENT ( F_QI ) ) THEN
CALL cal_cldfra(CLDFRA,qc,qi,F_QC,F_QI, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte )
ENDIF
END SELECT lwrad_cldfra_select
! ww: Interpolating climatological ozone and aerosol to model time and levels
! Adapted from camrad code
IF ( PRESENT( O3RAD ) ) THEN
IF ( o3input .EQ. 2 .AND. id .EQ. 1 ) THEN
! ! Find the current month (adapted from Cavallo)
! CALL cam_time_interp( ozmixm, pin, levsiz, date_str, &
! ids , ide , jds , jde , kds , kde , &
! ims , ime , jms , jme , kms , kme , &
! its , ite , jts , jte , kts , kte )
! this is the CAM version
! interpolate to model time-step
call ozn_time_int(julday,julian,ozmixm,ozmixt,levsiz,n_ozmixm, &
ids , ide , jds , jde , kds , kde , &
ims , ime , jms , jme , kms , kme , &
its , ite , jts , jte , kts , kte )
! interpolate to model model levels
call ozn_p_int(p ,pin, levsiz, ozmixt, o3rad, &
ids , ide , jds , jde , kds , kde , &
ims , ime , jms , jme , kms , kme , &
its , ite , jts , jte , kts , kte )
ENDIF
ENDIF
IF ( PRESENT( AEROD ) ) THEN
IF ( aer_opt .EQ. 1 .AND. id .EQ. 1 ) THEN
call aer_time_int(julday,julian,aerodm,aerodt,alevsiz,n_ozmixm-1,no_src_types, &
ids , ide , jds , jde , kds , kde , &
ims , ime , jms , jme , kms , kme , &
its , ite , jts , jte , kts , kte )
call aer_p_int(p ,pina, alevsiz, aerodt, aerod, no_src_types, p8w, AODTOT, &
ids , ide , jds , jde , kds , kde , &
ims , ime , jms , jme , kms , kme , &
its , ite , jts , jte , kts , kte )
ENDIF
ENDIF
lwrad_select: SELECT CASE(lw_physics)
CASE (RRTMSCHEME)
CALL wrf_debug (100, 'CALL rrtm')
CALL RRTMLWRAD( &
RTHRATEN=RTHRATEN,GLW=GLW,OLR=RLWTOA,EMISS=EMISS &
,QV3D=QV &
,QC3D=QC &
,QR3D=QR &
,QI3D=QI &
,QS3D=QS &
,QG3D=QG &
,P8W=p8w,P3D=p,PI3D=pi,DZ8W=dz8w,TSK=tsk,T3D=t &
,T8W=t8w,RHO3D=rho, CLDFRA3D=CLDFRA,R=R_d,G=G &
,F_QV=F_QV,F_QC=F_QC,F_QR=F_QR &
,F_QI=F_QI,F_QS=F_QS,F_QG=F_QG &
,ICLOUD=icloud,WARM_RAIN=warm_rain &
!ccc Added for time-varying trace gases.
,YR=YR,JULIAN=JULIAN &
!ccc
,IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde &
,IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme &
,ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte &
)
CASE (goddardlwscheme)
CALL wrf_debug (100, 'CALL goddard longwave radiation scheme ')
IF (itimestep.eq.1) then
call wrf_message('running goddard lw radiation')
ENDIF
CALL goddardrad(sw_or_lw='lw' &
,rthraten=rthraten,gsf=glw,xlat=xlat,xlong=xlong &
,alb=albedo,t3d=t,p3d=p,p8w3d=p8w,pi3d=pi &
,dz8w=dz8w,rho_phy=rho,emiss=emiss &
,cldfra3d=cldfra &
,gmt=gmt,cp=cp,g=g,t8w=t8w &
,julday=julday,xtime=xtime &
,declin=declin,solcon=solcon &
, center_lat = cen_lat &
,radfrq=radt,degrad=degrad &
,taucldi=taucldi,taucldc=taucldc &
,warm_rain=warm_rain &
,ids=ids,ide=ide, jds=jds,jde=jde, kds=kds,kde=kde &
,ims=ims,ime=ime, jms=jms,jme=jme, kms=kms,kme=kme &
,its=its,ite=ite, jts=jts,jte=jte, kts=kts,kte=kte &
! ,cosz_urb2d=cosz_urb2d ,omg_urb2d=omg_urb2d & !urban
,qv3d=qv &
,qc3d=qc &
,qr3d=qr &
,qi3d=qi &
,qs3d=qs &
,qg3d=qg &
,f_qv=f_qv,f_qc=f_qc,f_qr=f_qr &
,f_qi=f_qi,f_qs=f_qs,f_qg=f_qg &
,erbe_out=erbe_out & !optional
)
CASE (GFDLLWSCHEME)
CALL wrf_debug (100, 'CALL gfdllw')
IF ( PRESENT(F_QV) .AND. PRESENT(F_QC) .AND. &
PRESENT(F_QS) .AND. PRESENT(qs) .AND. &
PRESENT(qv) .AND. PRESENT(qc) ) THEN
IF ( F_QV .AND. F_QC .AND. F_QS) THEN
gfdl_lw = .true.
CALL ETARA( &
DT=dt,XLAND=xland &
,P8W=p8w,DZ8W=dz8w,RHO_PHY=rho,P_PHY=p,T=t &
,QV=qv,QW=qc_temp,QI=qi,QS=qs &
,TSK2D=tsk,GLW=GLW,RSWIN=SWDOWN,GSW=GSW &
,RSWINC=SWDOWNC,CLDFRA=CLDFRA,PI3D=pi &
,GLAT=glat,GLON=glon,HTOP=htop,HBOT=hbot &
,HBOTR=hbotr, HTOPR=htopr &
,ALBEDO=albedo,CUPPT=cuppt &
,VEGFRA=vegfra,SNOW=snow,G=g,GMT=gmt &
,NSTEPRA=stepra,NPHS=nphs,ITIMESTEP=itimestep &
,XTIME=xtime,JULIAN=julian &
,JULYR=julyr,JULDAY=julday &
,GFDL_LW=gfdl_lw,GFDL_SW=gfdl_sw &
,CFRACL=cfracl,CFRACM=cfracm,CFRACH=cfrach &
,ACFRST=acfrst,NCFRST=ncfrst &
,ACFRCV=acfrcv,NCFRCV=ncfrcv &
,RSWTOA=rswtoa,RLWTOA=rlwtoa,CZMEAN=czmean &
,THRATEN=rthraten,THRATENLW=rthratenlw &
,THRATENSW=rthratensw &
,IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde &
,IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme &
,ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte &
)
ELSE
CALL wrf_error_fatal('Can not call ETARA (1a). Missing moisture fields.')
ENDIF
ELSE
CALL wrf_error_fatal('Can not call ETARA (1b). Missing moisture fields.')
ENDIF
#ifdef HWRF
CASE (HWRFLWSCHEME)
CALL wrf_debug (100, 'CALL hwrflw')
gfdl_lw = .true.
CALL HWRFRA(explicit_convection=expl_conv, &
DT=dt,thraten=RTHRATEN,thratenlw=RTHRATENLW,thratensw=RTHRATENSW,pi3d=pi, &
XLAND=xland,P8w=p8w,DZ8w=dz8w,RHO_PHY=rho,P_PHY=p,T=t, &
QV=qv,QW=qc_temp,QI=Qi, &
TSK2D=tsk,GLW=GLW,GSW=GSW, &
TOTSWDN=swdown,TOTLWDN=glw,RSWTOA=rswtoa,RLWTOA=rlwtoa,CZMEAN=czmean, & !Added
GLAT=glat,GLON=glon,HTOP=htop,HBOT=hbot,htopr=htopr,hbotr=hbotr,ALBEDO=albedo,CUPPT=cuppt,&
VEGFRA=vegfra,SNOW=snow,G=g,GMT=gmt, & !Modified
NSTEPRA=stepra,NPHS=nphs,itimestep=itimestep, & !Modified
julyr=julyr,julday=julday,gfdl_lw=gfdl_lw,gfdl_sw=gfdl_sw, &
CFRACL=cfracl,CFRACM=cfracm,CFRACH=cfrach, & !Added
ACFRST=acfrst,NCFRST=ncfrst,ACFRCV=acfrcv,NCFRCV=ncfrcv, & !Added
ids=ids,ide=ide, jds=jds,jde=jde, kds=kds,kde=kde, &
ims=ims,ime=ime, jms=jms,jme=jme, kms=kms,kme=kme, &
its=its,ite=ite, jts=jts,jte=jte, kts=kts,kte=kte )
#endif
CASE (CAMLWSCHEME)
CALL wrf_debug(100, 'CALL camrad lw')
IF ( PRESENT( OZMIXM ) .AND. PRESENT( PIN ) .AND. &
PRESENT(M_PS_1) .AND. PRESENT(M_PS_2) .AND. &
PRESENT(M_HYBI0) .AND. PRESENT(AEROSOLC_1) &
.AND. PRESENT(AEROSOLC_2).AND. PRESENT(ALSWVISDIR) ) THEN
CALL CAMRAD(RTHRATENLW=RTHRATEN,RTHRATENSW=RTHRATENSW, &
dolw=.true.,dosw=.false., &
SWUPT=SWUPT,SWUPTC=SWUPTC, &
SWDNT=SWDNT,SWDNTC=SWDNTC, &
LWUPT=LWUPT,LWUPTC=LWUPTC, &
LWDNT=LWDNT,LWDNTC=LWDNTC, &
SWUPB=SWUPB,SWUPBC=SWUPBC, &
SWDNB=SWDNB,SWDNBC=SWDNBC, &
LWUPB=LWUPB,LWUPBC=LWUPBC, &
LWDNB=LWDNB,LWDNBC=LWDNBC, &
SWCF=SWCF,LWCF=LWCF,OLR=RLWTOA,CEMISS=CEMISS, &
TAUCLDC=TAUCLDC,TAUCLDI=TAUCLDI,COSZR=COSZR, &
GSW=GSW,GLW=GLW,XLAT=XLAT,XLONG=XLONG, &
ALBEDO=ALBEDO,t_phy=t,TSK=TSK,EMISS=EMISS &
,QV3D=qv &
,QC3D=qc &
,QR3D=qr &
,QI3D=qi &
,QS3D=qs &
,QG3D=qg &
,ALSWVISDIR=alswvisdir ,ALSWVISDIF=alswvisdif & !fds ssib alb comp (06/2010)
,ALSWNIRDIR=alswnirdir ,ALSWNIRDIF=alswnirdif & !fds ssib alb comp (06/2010)
,SWVISDIR=swvisdir ,SWVISDIF=swvisdif & !fds ssib swr comp (06/2010)
,SWNIRDIR=swnirdir ,SWNIRDIF=swnirdif & !fds ssib swr comp (06/2010)
,SF_SURFACE_PHYSICS=sf_surface_physics & !fds
,F_QV=f_qv,F_QC=f_qc,F_QR=f_qr &
,F_QI=f_qi,F_QS=f_qs,F_QG=f_qg &
,f_ice_phy=f_ice_phy,f_rain_phy=f_rain_phy &
,p_phy=p,p8w=p8w,z=z,pi_phy=pi,rho_phy=rho, &
dz8w=dz8w, &
CLDFRA=CLDFRA,XLAND=XLAND,XICE=XICE,SNOW=SNOW, &
ozmixm=ozmixm,pin0=pin,levsiz=levsiz, &
num_months=n_ozmixm, &
m_psp=m_ps_1,m_psn=m_ps_2,aerosolcp=aerosolc_1, &
aerosolcn=aerosolc_2,m_hybi0=m_hybi0, &
paerlev=paerlev, naer_c=n_aerosolc, &
cam_abs_dim1=cam_abs_dim1, cam_abs_dim2=cam_abs_dim2, &
GMT=GMT,JULDAY=JULDAY,JULIAN=JULIAN,YR=YR,DT=DT,XTIME=XTIME,DECLIN=DECLIN, &
SOLCON=SOLCON,RADT=RADT,DEGRAD=DEGRAD,n_cldadv=3 &
,abstot_3d=abstot,absnxt_3d=absnxt,emstot_3d=emstot &
,doabsems=doabsems &
,IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde &
,IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme &
,ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte &
)
ELSE
CALL wrf_error_fatal ( 'arguments not present for calling cam radiation' )
ENDIF
CASE (RRTMG_LWSCHEME)
CALL wrf_debug (100, 'CALL rrtmg_lw')
CALL RRTMG_LWRAD( &
RTHRATENLW=RTHRATEN, &
LWUPT=LWUPT,LWUPTC=LWUPTC, &
LWDNT=LWDNT,LWDNTC=LWDNTC, &
LWUPB=LWUPB,LWUPBC=LWUPBC, &
LWDNB=LWDNB,LWDNBC=LWDNBC, &
GLW=GLW,OLR=RLWTOA,LWCF=LWCF, &
EMISS=EMISS, &
P8W=p8w,P3D=p,PI3D=pi,DZ8W=dz8w,TSK=tsk,T3D=t, &
T8W=t8w,RHO3D=rho,R=R_d,G=G, &
ICLOUD=icloud,WARM_RAIN=warm_rain,CLDFRA3D=CLDFRA,&
F_ICE_PHY=F_ICE_PHY,F_RAIN_PHY=F_RAIN_PHY, &
XLAND=XLAND,XICE=XICE,SNOW=SNOW, &
QV3D=QV,QC3D=QC,QR3D=QR, &
QI3D=QI,QS3D=QS,QG3D=QG, &
O3INPUT=O3INPUT,O33D=O3RAD, &
F_QV=F_QV,F_QC=F_QC,F_QR=F_QR, &
F_QI=F_QI,F_QS=F_QS,F_QG=F_QG, &
#ifdef WRF_CHEM
TAUAERLW1=tauaerlw1,TAUAERLW2=tauaerlw2, & ! jcb
TAUAERLW3=tauaerlw3,TAUAERLW4=tauaerlw4, & ! jcb
TAUAERLW5=tauaerlw5,TAUAERLW6=tauaerlw6, & ! jcb
TAUAERLW7=tauaerlw7,TAUAERLW8=tauaerlw8, & ! jcb
TAUAERLW9=tauaerlw9,TAUAERLW10=tauaerlw10, & ! jcb
TAUAERLW11=tauaerlw11,TAUAERLW12=tauaerlw12, & ! jcb
TAUAERLW13=tauaerlw13,TAUAERLW14=tauaerlw14, & ! jcb
TAUAERLW15=tauaerlw15,TAUAERLW16=tauaerlw16, & ! jcb
aer_ra_feedback=aer_ra_feedback, &
!jdfcz progn=progn,prescribe=prescribe, &
progn=progn, &
#endif
QNDROP3D=qndrop,F_QNDROP=f_qndrop, &
!ccc Added for time-varying trace gases.
YR=YR,JULIAN=JULIAN, &
!ccc
IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde,&
IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme,&
ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte,&
LWUPFLX=LWUPFLX,LWUPFLXC=LWUPFLXC, &
LWDNFLX=LWDNFLX,LWDNFLXC=LWDNFLXC &
)
CASE (HELDSUAREZ)
CALL wrf_debug (100, 'CALL heldsuarez')
CALL HSRAD(RTHRATEN,p8w,p,pi,dz8w,t, &
t8w, rho, R_d,G,CP, dt, xlat, degrad, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte )
! -- add by Jin Kong 10/2011
CASE (FLGLWSCHEME)
CALL wrf_debug (100, 'CALL Fu-Liou-Gu')
flg_lw = .true.
!test Jin Kong 11/01/2011 for ozone
ozflg = 0.
!test over
CALL RAD_FLG( &
peven=p8w,podd=p,t8w=t8w,degrees=t &
,pi3d=pi,o3=ozflg &
,G=G,CP=CP &
,albedo=ALBEDO,tskin=tsk &
,h2o=QV,cld_iccld=QI,cld_wlcld=QC &
,cld_prwc=QR,cld_pgwc=QG,cld_snow=QS &
,F_QV=F_QV,F_QC=F_QC,F_QR=F_QR &
,F_QI=F_QI,F_QS=F_QS,F_QG=F_QG &
,warm_rain=warm_rain &
,cloudstrf=CLDFRA &
,emiss=EMISS &
,air_den=rho &
,dz3d=dz8w &
,SOLCON=SOLCON &
,declin=DECLIN &
,xtime=xtime, xlong=xlong, xlat=xlat &
,JULDAY=JULDAY &
,gmt=gmt, radt=radt, degrad=degrad &
,dtcolumn=dt &
,ids=ids,ide=ide,jds=jds,jde=jde &
,kds=kds,kde=kde &
,ims=ims,idim=ime,jms=jms,jdim=jme &
,kms=kms,kmax=kme &
,its=its,ite=ite,jts=jts,jte=jte &
,kts=kts,kte=kte &
,uswtop=RSWTOA,ulwtop=RLWTOA &
,NETSWBOT=GSW,DLWBOT=GLW &
,DSWBOT=SWDOWN,deltat=RTHRATEN &
,dtshort=RTHRATENSW,dtlongwv=RTHRATENLW &
)
CALL wrf_debug(100, 'a4 Fu_Liou-Gu')
! -- end
CASE DEFAULT
WRITE( wrf_err_message , * ) 'The longwave option does not exist: lw_physics = ', lw_physics
CALL wrf_error_fatal ( wrf_err_message )
END SELECT lwrad_select
IF (lw_physics .gt. 0 .and. .not.gfdl_lw) THEN
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
RTHRATENLW(I,K,J)=RTHRATEN(I,K,J)
! OLR ALSO WILL CONTAIN OUTGOING LONGWAVE FOR RRTM (NMM HAS NO OLR ARRAY)
IF(PRESENT(OLR) .AND. K .EQ. 1)OLR(I,J)=RLWTOA(I,J)
ENDDO
ENDDO
ENDDO
ENDIF
IF (lw_physics .eq. goddardlwscheme) THEN
IF ( PRESENT (tlwdn) ) THEN
DO j=jts,jte
DO i=its,ite
tlwdn(i,j) = erbe_out(i,j,1) ! TOA LW downwelling flux [W/m2]
tlwup(i,j) = erbe_out(i,j,2) ! TOA LW upwelling flux [W/m2]
slwdn(i,j) = erbe_out(i,j,3) ! surface LW downwelling flux [W/m2]
slwup(i,j) = erbe_out(i,j,4) ! surface LW upwelling flux [W/m2]
ENDDO
ENDDO
ENDIF
ENDIF
!
swrad_cldfra_select: SELECT CASE(sw_physics)
CASE (CAMSWSCHEME)
IF ( PRESENT ( CLDFRA ) .AND. &
PRESENT(F_QC) .AND. PRESENT ( F_QI ) ) THEN
! Call to cloud fraction routine based on Randall 1994 (Hong Pan 1998)
CALL cal_cldfra2(CLDFRA,qv,qc,qi,qs, &
F_QV,F_QC,F_QI,F_QS,t,p, &
F_ICE_PHY,F_RAIN_PHY, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte )
ENDIF
CASE (RRTMG_SWSCHEME)
IF ( PRESENT ( CLDFRA ) .AND. &
PRESENT(F_QC) .AND. PRESENT ( F_QI ) ) THEN
! Call to cloud fraction routine based on Randall 1994 (Hong Pan 1998)
CALL cal_cldfra2(CLDFRA,qv,qc,qi,qs, &
F_QV,F_QC,F_QI,F_QS,t,p, &
F_ICE_PHY,F_RAIN_PHY, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte )
ENDIF
CASE DEFAULT
END SELECT swrad_cldfra_select
swrad_select: SELECT CASE(sw_physics)
CASE (SWRADSCHEME)
CALL wrf_debug(100, 'CALL swrad')
CALL SWRAD( &
DT=dt,RTHRATEN=rthraten,GSW=gsw &
,XLAT=xlat,XLONG=xlong,ALBEDO=albedo &
#ifdef WRF_CHEM
,PM2_5_DRY=pm2_5_dry,PM2_5_WATER=pm2_5_water &
,PM2_5_DRY_EC=pm2_5_dry_ec &
#endif
,RHO_PHY=rho,T3D=t &
,P3D=p,PI3D=pi,DZ8W=dz8w,GMT=gmt &
,R=r_d,CP=cp,G=g,JULDAY=julday &
,XTIME=xtime,DECLIN=declin,SOLCON=solcon &
,RADFRQ=radt,ICLOUD=icloud,DEGRAD=degrad &
,warm_rain=warm_rain &
,IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde &
,IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme &
,ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte &
,QV3D=qv &
,QC3D=qc &
,QR3D=qr &
,QI3D=qi &
,QS3D=qs &
,QG3D=qg &
,F_QV=f_qv,F_QC=f_qc,F_QR=f_qr &
,F_QI=f_qi,F_QS=f_qs,F_QG=f_qg )
CASE (GSFCSWSCHEME)
CALL wrf_debug(100, 'CALL gsfcswrad')
CALL GSFCSWRAD( &
RTHRATEN=rthraten,GSW=gsw,XLAT=xlat,XLONG=xlong &
,ALB=albedo,T3D=t,P3D=p,P8W3D=p8w,pi3D=pi &
,DZ8W=dz8w,RHO_PHY=rho &
,CLDFRA3D=cldfra,RSWTOA=rswtoa &
,GMT=gmt,CP=cp,G=g &
,JULDAY=julday,XTIME=xtime &
,DECLIN=declin,SOLCON=solcon &
,RADFRQ=radt,DEGRAD=degrad &
,TAUCLDI=taucldi,TAUCLDC=taucldc &
,WARM_RAIN=warm_rain &
#ifdef WRF_CHEM
,TAUAER300=tauaer300,TAUAER400=tauaer400 & ! jcb
,TAUAER600=tauaer600,TAUAER999=tauaer999 & ! jcb
,GAER300=gaer300,GAER400=gaer400 & ! jcb
,GAER600=gaer600,GAER999=gaer999 & ! jcb
,WAER300=waer300,WAER400=waer400 & ! jcb
,WAER600=waer600,WAER999=waer999 & ! jcb
,aer_ra_feedback=aer_ra_feedback &
#endif
,IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde &
,IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme &
,ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte &
,QV3D=qv &
,QC3D=qc &
,QR3D=qr &
,QI3D=qi &
,QS3D=qs &
,QG3D=qg &
,QNDROP3D=qndrop &
,F_QV=f_qv,F_QC=f_qc,F_QR=f_qr &
,F_QI=f_qi,F_QS=f_qs,F_QG=f_qg &
,F_QNDROP=f_qndrop &
)
CASE (goddardswscheme)
CALL wrf_debug(100, 'CALL goddard shortwave radiation scheme ')
IF (itimestep.eq.1) then
call wrf_message('running goddard sw radiation')
ENDIF
CALL goddardrad(sw_or_lw='sw' &
,rthraten=rthraten,gsf=gsw,xlat=xlat,xlong=xlong &
,alb=albedo,t3d=t,p3d=p,p8w3d=p8w,pi3d=pi &
,dz8w=dz8w,rho_phy=rho,emiss=emiss &
,cldfra3d=cldfra &
,gmt=gmt,cp=cp,g=g,t8w=t8w &
,julday=julday,xtime=xtime &
,declin=declin,solcon=solcon &
, center_lat = cen_lat &
,radfrq=radt,degrad=degrad &
,taucldi=taucldi,taucldc=taucldc &
,warm_rain=warm_rain &
,ids=ids,ide=ide, jds=jds,jde=jde, kds=kds,kde=kde &
,ims=ims,ime=ime, jms=jms,jme=jme, kms=kms,kme=kme &
,its=its,ite=ite, jts=jts,jte=jte, kts=kts,kte=kte &
! ,cosz_urb2d=cosz_urb2d ,omg_urb2d=omg_urb2d & !urban
,qv3d=qv &
,qc3d=qc &
,qr3d=qr &
,qi3d=qi &
,qs3d=qs &
,qg3d=qg &
,f_qv=f_qv,f_qc=f_qc,f_qr=f_qr &
,f_qi=f_qi,f_qs=f_qs,f_qg=f_qg &
,erbe_out=erbe_out & !optional
)
CASE (CAMSWSCHEME)
CALL wrf_debug(100, 'CALL camrad sw')
IF ( PRESENT( OZMIXM ) .AND. PRESENT( PIN ) .AND. &
PRESENT(M_PS_1) .AND. PRESENT(M_PS_2) .AND. &
PRESENT(M_HYBI0) .AND. PRESENT(AEROSOLC_1) &
.AND. PRESENT(AEROSOLC_2) .AND. PRESENT(ALSWVISDIR)) THEN
CALL CAMRAD(RTHRATENLW=RTHRATEN,RTHRATENSW=RTHRATENSW, &
dolw=.false.,dosw=.true., &
SWUPT=SWUPT,SWUPTC=SWUPTC, &
SWDNT=SWDNT,SWDNTC=SWDNTC, &
LWUPT=LWUPT,LWUPTC=LWUPTC, &
LWDNT=LWDNT,LWDNTC=LWDNTC, &
SWUPB=SWUPB,SWUPBC=SWUPBC, &
SWDNB=SWDNB,SWDNBC=SWDNBC, &
LWUPB=LWUPB,LWUPBC=LWUPBC, &
LWDNB=LWDNB,LWDNBC=LWDNBC, &
SWCF=SWCF,LWCF=LWCF,OLR=RLWTOA,CEMISS=CEMISS, &
TAUCLDC=TAUCLDC,TAUCLDI=TAUCLDI,COSZR=COSZR, &
GSW=GSW,GLW=GLW,XLAT=XLAT,XLONG=XLONG, &
ALBEDO=ALBEDO,t_phy=t,TSK=TSK,EMISS=EMISS &
,QV3D=qv &
,QC3D=qc &
,QR3D=qr &
,QI3D=qi &
,QS3D=qs &
,QG3D=qg &
,ALSWVISDIR=alswvisdir ,ALSWVISDIF=alswvisdif & !fds ssib alb comp (06/2010)
,ALSWNIRDIR=alswnirdir ,ALSWNIRDIF=alswnirdif & !fds ssib alb comp (06/2010)
,SWVISDIR=swvisdir ,SWVISDIF=swvisdif & !fds ssib swr comp (06/2010)
,SWNIRDIR=swnirdir ,SWNIRDIF=swnirdif & !fds ssib swr comp (06/2010)
,SF_SURFACE_PHYSICS=sf_surface_physics & !fds
,F_QV=f_qv,F_QC=f_qc,F_QR=f_qr &
,F_QI=f_qi,F_QS=f_qs,F_QG=f_qg &
,f_ice_phy=f_ice_phy,f_rain_phy=f_rain_phy &
,p_phy=p,p8w=p8w,z=z,pi_phy=pi,rho_phy=rho, &
dz8w=dz8w, &
CLDFRA=CLDFRA,XLAND=XLAND,XICE=XICE,SNOW=SNOW, &
ozmixm=ozmixm,pin0=pin,levsiz=levsiz, &
num_months=n_ozmixm, &
m_psp=m_ps_1,m_psn=m_ps_2,aerosolcp=aerosolc_1, &
aerosolcn=aerosolc_2,m_hybi0=m_hybi0, &
paerlev=paerlev, naer_c=n_aerosolc, &
cam_abs_dim1=cam_abs_dim1, cam_abs_dim2=cam_abs_dim2, &
GMT=GMT,JULDAY=JULDAY,JULIAN=JULIAN,YR=YR,DT=DT,XTIME=XTIME,DECLIN=DECLIN, &
SOLCON=SOLCON,RADT=RADT,DEGRAD=DEGRAD,n_cldadv=3 &
,abstot_3d=abstot,absnxt_3d=absnxt,emstot_3d=emstot &
,doabsems=doabsems &
,IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde &
,IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme &
,ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte &
)
ELSE
CALL wrf_error_fatal ( 'arguments not present for calling cam radiation' )
ENDIF
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
RTHRATEN(I,K,J)=RTHRATEN(I,K,J)+RTHRATENSW(I,K,J)
ENDDO
ENDDO
ENDDO
CASE (RRTMG_SWSCHEME)
CALL wrf_debug(100, 'CALL rrtmg_sw')
CALL RRTMG_SWRAD( &
RTHRATENSW=RTHRATENSW, &
SWUPT=SWUPT,SWUPTC=SWUPTC, &
SWDNT=SWDNT,SWDNTC=SWDNTC, &
SWUPB=SWUPB,SWUPBC=SWUPBC, &
SWDNB=SWDNB,SWDNBC=SWDNBC, &
SWCF=SWCF,GSW=GSW, &
XTIME=XTIME,GMT=GMT,XLAT=XLAT,XLONG=XLONG, &
RADT=RADT,DEGRAD=DEGRAD,DECLIN=DECLIN, &
COSZR=COSZR,JULDAY=JULDAY,SOLCON=SOLCON, &
ALBEDO=ALBEDO,t3d=t,t8w=t8w,TSK=TSK, &
p3d=p,p8w=p8w,pi3d=pi,rho3d=rho, &
dz8w=dz8w,CLDFRA3D=CLDFRA,R=R_D,G=G, &
ICLOUD=icloud,WARM_RAIN=warm_rain, &
F_ICE_PHY=F_ICE_PHY,F_RAIN_PHY=F_RAIN_PHY, &
XLAND=XLAND,XICE=XICE,SNOW=SNOW, &
QV3D=qv,QC3D=qc,QR3D=qr, &
QI3D=qi,QS3D=qs,QG3D=qg, &
O3INPUT=O3INPUT,O33D=O3RAD, &
AER_OPT=AER_OPT,aerod=aerod,no_src=no_src_types, &
ALSWVISDIR=alswvisdir ,ALSWVISDIF=alswvisdif, & !Zhenxin ssib alb comp (06/2010)
ALSWNIRDIR=alswnirdir ,ALSWNIRDIF=alswnirdif, & !Zhenxin ssib alb comp (06/2010)
SWVISDIR=swvisdir ,SWVISDIF=swvisdif, & !Zhenxin ssib swr comp (06/2010)
SWNIRDIR=swnirdir ,SWNIRDIF=swnirdif, & !Zhenxin ssib swr comp (06/2010)
SF_SURFACE_PHYSICS=sf_surface_physics, & !Zhenxin ssib sw_phy (06/2010)
F_QV=f_qv,F_QC=f_qc,F_QR=f_qr, &
F_QI=f_qi,F_QS=f_qs,F_QG=f_qg, &
#ifdef WRF_CHEM
TAUAER300=tauaer300,TAUAER400=tauaer400, & ! jcb
TAUAER600=tauaer600,TAUAER999=tauaer999, & ! jcb
GAER300=gaer300,GAER400=gaer400, & ! jcb
GAER600=gaer600,GAER999=gaer999, & ! jcb
WAER300=waer300,WAER400=waer400, & ! jcb
WAER600=waer600,WAER999=waer999, & ! jcb
aer_ra_feedback=aer_ra_feedback, &
!jdfcz progn=progn,prescribe=prescribe, &
progn=progn, &
#endif
QNDROP3D=qndrop,F_QNDROP=f_qndrop, &
IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde,&
IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme,&
ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte,&
SWUPFLX=SWUPFLX,SWUPFLXC=SWUPFLXC, &
SWDNFLX=SWDNFLX,SWDNFLXC=SWDNFLXC &
)
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
RTHRATEN(I,K,J)=RTHRATEN(I,K,J)+RTHRATENSW(I,K,J)
ENDDO
ENDDO
ENDDO
CASE (GFDLSWSCHEME)
CALL wrf_debug (100, 'CALL gfdlsw')
IF ( PRESENT(F_QV) .AND. PRESENT(F_QC) .AND. &
PRESENT(F_QS) .AND. PRESENT(qs) .AND. &
PRESENT(qv) .AND. PRESENT(qc) ) THEN
IF ( F_QV .AND. F_QC .AND. F_QS ) THEN
gfdl_sw = .true.
CALL ETARA( &
DT=dt,XLAND=xland &
,P8W=p8w,DZ8W=dz8w,RHO_PHY=rho,P_PHY=p,T=t &
,QV=qv,QW=qc_temp,QI=qi,QS=qs &
,TSK2D=tsk,GLW=GLW,RSWIN=SWDOWN,GSW=GSW &
,RSWINC=SWDOWNC,CLDFRA=CLDFRA,PI3D=pi &
,GLAT=glat,GLON=glon,HTOP=htop,HBOT=hbot &
,HBOTR=hbotr, HTOPR=htopr &
,ALBEDO=albedo,CUPPT=cuppt &
,VEGFRA=vegfra,SNOW=snow,G=g,GMT=gmt &
,NSTEPRA=stepra,NPHS=nphs,ITIMESTEP=itimestep &
,XTIME=xtime,JULIAN=julian &
,JULYR=julyr,JULDAY=julday &
,GFDL_LW=gfdl_lw,GFDL_SW=gfdl_sw &
,CFRACL=cfracl,CFRACM=cfracm,CFRACH=cfrach &
,ACFRST=acfrst,NCFRST=ncfrst &
,ACFRCV=acfrcv,NCFRCV=ncfrcv &
,RSWTOA=rswtoa,RLWTOA=rlwtoa,CZMEAN=czmean &
,THRATEN=rthraten,THRATENLW=rthratenlw &
,THRATENSW=rthratensw &
,IDS=ids,IDE=ide, JDS=jds,JDE=jde, KDS=kds,KDE=kde &
,IMS=ims,IME=ime, JMS=jms,JME=jme, KMS=kms,KME=kme &
,ITS=its,ITE=ite, JTS=jts,JTE=jte, KTS=kts,KTE=kte &
)
ELSE
CALL wrf_error_fatal('Can not call ETARA (2a). Missing moisture fields.')
ENDIF
ELSE
CALL wrf_error_fatal('Can not call ETARA (2b). Missing moisture fields.')
ENDIF
#ifdef HWRF
CASE (HWRFSWSCHEME)
CALL wrf_debug (100, 'CALL hwrfsw')
gfdl_sw = .true.
CALL HWRFRA(explicit_convection=expl_conv, &
DT=dt,thraten=RTHRATEN,thratenlw=RTHRATENLW,thratensw=RTHRATENSW,pi3d=pi, &
XLAND=xland,P8w=p8w,DZ8w=dz8w,RHO_PHY=rho,P_PHY=p,T=t, &
QV=qv,QW=qc_temp,QI=Qi, &
TSK2D=tsk,GLW=GLW,GSW=GSW, &
TOTSWDN=swdown,TOTLWDN=glw,RSWTOA=rswtoa,RLWTOA=rlwtoa,CZMEAN=czmean, & !Added
GLAT=glat,GLON=glon,HTOP=htop,HBOT=hbot,htopr=htopr,hbotr=hbotr,ALBEDO=albedo,CUPPT=cuppt, &
VEGFRA=vegfra,SNOW=snow,G=g,GMT=gmt, & !Modified
NSTEPRA=stepra,NPHS=nphs,itimestep=itimestep, & !Modified
julyr=julyr,julday=julday,gfdl_lw=gfdl_lw,gfdl_sw=gfdl_sw, &
CFRACL=cfracl,CFRACM=cfracm,CFRACH=cfrach, & !Added
ACFRST=acfrst,NCFRST=ncfrst,ACFRCV=acfrcv,NCFRCV=ncfrcv, & !Added
ids=ids,ide=ide, jds=jds,jde=jde, kds=kds,kde=kde, &
ims=ims,ime=ime, jms=jms,jme=jme, kms=kms,kme=kme, &
its=its,ite=ite, jts=jts,jte=jte, kts=kts,kte=kte )
#endif
CASE (0)
! Here in case we don't want to call a sw radiation scheme
! For example, the Held-Suarez idealized test case
IF (lw_physics /= HELDSUAREZ) THEN
WRITE( wrf_err_message , * ) &
'You have selected a longwave radiation option, but not a shortwave option (sw_physics = 0, lw_physics = ',lw_physics,')'
CALL wrf_error_fatal ( wrf_err_message )
END IF
! -- add by Jin Kong 10/2011
!--- the following FLGSWSCHEME is for testing only
CASE (FLGSWSCHEME)
flg_sw = .true.
!--- No need to do anything since the short and long wave is calculted in one program
! -- end
CASE DEFAULT
WRITE( wrf_err_message , * ) 'The shortwave option does not exist: sw_physics = ', sw_physics
CALL wrf_error_fatal ( wrf_err_message )
END SELECT swrad_select
IF (sw_physics .eq. goddardswscheme) THEN
IF ( PRESENT (tswdn) ) THEN
DO j=jts,jte
DO i=its,ite
tswdn(i,j) = erbe_out(i,j,5) ! TOA SW downwelling flux [W/m2]
tswup(i,j) = erbe_out(i,j,6) ! TOA SW upwelling flux [W/m2]
sswdn(i,j) = erbe_out(i,j,7) ! surface SW downwelling flux [W/m2]
sswup(i,j) = erbe_out(i,j,8) ! surface SW upwelling flux [W/m2]
ENDDO
ENDDO
ENDIF
ENDIF
IF (sw_physics .gt. 0 .and. .not.gfdl_sw) THEN
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
RTHRATENSW(I,K,J)=RTHRATEN(I,K,J)-RTHRATENLW(I,K,J)
ENDDO
ENDDO
ENDDO
DO j=jts,jte
DO i=its,ite
SWDOWN(I,J)=GSW(I,J)/(1.-ALBEDO(I,J))
ENDDO
ENDDO
ENDIF
IF ( PRESENT( qc ) .AND. PRESENT( qc_adjust ) .AND. cu_rad_feedback ) THEN
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
qc(i,k,j) = qc_save(i,k,j)
ENDDO
ENDDO
ENDDO
ENDIF
IF ( PRESENT( qi ) .AND. PRESENT( qi_adjust ) .AND. cu_rad_feedback ) THEN
DO j=jts,jte
DO k=kts,kte
DO i=its,ite
qi(i,k,j) = qi_save(i,k,j)
ENDDO
ENDDO
ENDDO
ENDIF
ENDDO
!$OMP END PARALLEL DO
ENDIF Radiation_step
accumulate_lw_select: SELECT CASE(lw_physics)
CASE (CAMLWSCHEME,RRTMG_LWSCHEME)
IF(PRESENT(LWUPTC))THEN
!$OMP PARALLEL DO &
!$OMP PRIVATE ( ij ,i,j,k,its,ite,jts,jte)
DO ij = 1 , num_tiles
its = i_start(ij)
ite = i_end(ij)
jts = j_start(ij)
jte = j_end(ij)
DO j=jts,jte
DO i=its,ite
ACLWUPT(I,J) = ACLWUPT(I,J) + LWUPT(I,J)*DT
ACLWUPTC(I,J) = ACLWUPTC(I,J) + LWUPTC(I,J)*DT
ACLWDNT(I,J) = ACLWDNT(I,J) + LWDNT(I,J)*DT
ACLWDNTC(I,J) = ACLWDNTC(I,J) + LWDNTC(I,J)*DT
ACLWUPB(I,J) = ACLWUPB(I,J) + LWUPB(I,J)*DT
ACLWUPBC(I,J) = ACLWUPBC(I,J) + LWUPBC(I,J)*DT
ACLWDNB(I,J) = ACLWDNB(I,J) + LWDNB(I,J)*DT
ACLWDNBC(I,J) = ACLWDNBC(I,J) + LWDNBC(I,J)*DT
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
ENDIF
CASE DEFAULT
END SELECT accumulate_lw_select
accumulate_sw_select: SELECT CASE(sw_physics)
CASE (CAMSWSCHEME,RRTMG_SWSCHEME)
IF(PRESENT(SWUPTC))THEN
!$OMP PARALLEL DO &
!$OMP PRIVATE ( ij ,i,j,k,its,ite,jts,jte)
DO ij = 1 , num_tiles
its = i_start(ij)
ite = i_end(ij)
jts = j_start(ij)
jte = j_end(ij)
DO j=jts,jte
DO i=its,ite
ACSWUPT(I,J) = ACSWUPT(I,J) + SWUPT(I,J)*DT
ACSWUPTC(I,J) = ACSWUPTC(I,J) + SWUPTC(I,J)*DT
ACSWDNT(I,J) = ACSWDNT(I,J) + SWDNT(I,J)*DT
ACSWDNTC(I,J) = ACSWDNTC(I,J) + SWDNTC(I,J)*DT
ACSWUPB(I,J) = ACSWUPB(I,J) + SWUPB(I,J)*DT
ACSWUPBC(I,J) = ACSWUPBC(I,J) + SWUPBC(I,J)*DT
ACSWDNB(I,J) = ACSWDNB(I,J) + SWDNB(I,J)*DT
ACSWDNBC(I,J) = ACSWDNBC(I,J) + SWDNBC(I,J)*DT
ENDDO
ENDDO
ENDDO
!$OMP END PARALLEL DO
ENDIF
CASE DEFAULT
END SELECT accumulate_sw_select
END SUBROUTINE radiation_driver
SUBROUTINE pre_radiation_driver ( grid, config_flags & 1,9
,itimestep, ra_call_offset &
,XLAT, XLONG, GMT, julian, xtime, RADT, STEPRA &
,ht,dx,dy,sina,cosa,shadowmask,slope_rad ,topo_shading &
,shadlen,ht_shad,ht_loc &
,ht_shad_bxs, ht_shad_bxe &
,ht_shad_bys, ht_shad_bye &
,nested, min_ptchsz &
,spec_bdy_width &
,ids, ide, jds, jde, kds, kde &
,ims, ime, jms, jme, kms, kme &
,ips, ipe, jps, jpe, kps, kpe &
,i_start, i_end &
,j_start, j_end &
,kts, kte &
,num_tiles )
USE module_domain , ONLY : domain
#ifdef DM_PARALLEL
USE module_dm , ONLY : ntasks_x,ntasks_y,local_communicator,mytask,ntasks,wrf_dm_minval_integer
# if (EM_CORE == 1)
USE module_comm_dm , ONLY : halo_toposhad_sub
# endif
#endif
USE module_bc
USE module_model_constants
IMPLICIT NONE
INTEGER, INTENT(IN ) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
ips,ipe, jps,jpe, kps,kpe, &
kts,kte, &
num_tiles
TYPE(domain) , INTENT(INOUT) :: grid
TYPE(grid_config_rec_type ) , INTENT(IN ) :: config_flags
INTEGER, INTENT(IN ) :: itimestep, ra_call_offset, stepra, &
slope_rad, topo_shading, &
spec_bdy_width
INTEGER, INTENT(INOUT) :: min_ptchsz
INTEGER, DIMENSION(num_tiles), INTENT(IN) :: &
i_start,i_end,j_start,j_end
REAL, INTENT(IN ) :: GMT, radt, julian, xtime, dx, dy, shadlen
REAL, DIMENSION( ims:ime, jms:jme ), &
INTENT(IN ) :: XLAT, &
XLONG, &
HT, &
SINA, &
COSA
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: ht_shad,ht_loc
REAL, DIMENSION( jms:jme , kds:kde , spec_bdy_width ), &
INTENT(IN ) :: ht_shad_bxs, ht_shad_bxe
REAL, DIMENSION( ims:ime , kds:kde , spec_bdy_width ), &
INTENT(IN ) :: ht_shad_bys, ht_shad_bye
INTEGER, DIMENSION( ims:ime, jms:jme ), &
INTENT(INOUT) :: shadowmask
LOGICAL, INTENT(IN ) :: nested
!Local
! For orographic shading
INTEGER :: niter,ni,psx,psy,idum,jdum,i,j,ij
REAL :: DECLIN,SOLCON
! Determine minimum patch size for slope-dependent radiation
if (itimestep .eq. 1) then
psx = ipe-ips+1
psy = jpe-jps+1
min_ptchsz = min(psx,psy)
idum = 0
jdum = 0
endif
# ifdef DM_PARALLEL
if (itimestep .eq. 1) then
call wrf_dm_minval_integer (psx,idum,jdum)
call wrf_dm_minval_integer (psy,idum,jdum)
min_ptchsz = min(psx,psy)
endif
# endif
! Topographic shading
if ((topo_shading.eq.1).and.(itimestep .eq. 1 .or. &
mod(itimestep,STEPRA) .eq. 1 + ra_call_offset)) then
!---------------
! Calculate constants for short wave radiation
CALL radconst(XTIME,DECLIN,SOLCON,JULIAN,DEGRAD,DPD)
! Make a local copy of terrain height field
do j=jms,jme
do i=ims,ime
ht_loc(i,j) = ht(i,j)
enddo
enddo
! Determine if iterations are necessary for shadows to propagate from one patch to another
if ((ids.eq.ips).and.(ide.eq.ipe).and.(jds.eq.jps).and.(jde.eq.jpe)) then
niter = 1
else
niter = int(shadlen/(dx*min_ptchsz)+3)
endif
IF( nested ) THEN
!$OMP PARALLEL DO &
!$OMP PRIVATE ( ij )
DO ij = 1 , num_tiles
CALL spec_bdyfield(ht_shad, &
ht_shad_bxs, ht_shad_bxe, &
ht_shad_bys, ht_shad_bye, &
'm', config_flags, spec_bdy_width, 2,&
ids,ide, jds,jde, 1 ,1 , & ! domain dims
ims,ime, jms,jme, 1 ,1 , & ! memory dims
ips,ipe, jps,jpe, 1 ,1 , & ! patch dims
i_start(ij), i_end(ij), &
j_start(ij), j_end(ij), &
1 , 1 )
ENDDO
ENDIF
do ni = 1, niter
!$OMP PARALLEL DO &
!$OMP PRIVATE ( ij,i,j )
do ij = 1 , num_tiles
call toposhad_init (ht_shad,ht_loc, &
shadowmask,nested,ni, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
ips,min(ipe,ide-1), jps,min(jpe,jde-1), kps,kpe, &
i_start(ij),min(i_end(ij), ide-1),j_start(ij),&
min(j_end(ij), jde-1), kts, kte )
enddo
!$OMP END PARALLEL DO
!$OMP PARALLEL DO &
!$OMP PRIVATE ( ij,i,j )
do ij = 1 , num_tiles
call toposhad (xlat,xlong,sina,cosa,xtime,gmt,radt,declin, &
dx,dy,ht_shad,ht_loc,ni, &
shadowmask,shadlen, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
ips,min(ipe,ide-1), jps,min(jpe,jde-1), kps,kpe, &
i_start(ij),min(i_end(ij), ide-1),j_start(ij),&
min(j_end(ij), jde-1), kts, kte )
enddo
!$OMP END PARALLEL DO
#if defined( DM_PARALLEL ) && (EM_CORE == 1)
# include "HALO_TOPOSHAD.inc"
#endif
enddo
endif
END SUBROUTINE pre_radiation_driver
!---------------------------------------------------------------------
!BOP
! !IROUTINE: radconst - compute radiation terms
! !INTERFAC:
SUBROUTINE radconst(XTIME,DECLIN,SOLCON,JULIAN, & 2,1
DEGRAD,DPD )
!---------------------------------------------------------------------
USE module_wrf_error
IMPLICIT NONE
!---------------------------------------------------------------------
! !ARGUMENTS:
REAL, INTENT(IN ) :: DEGRAD,DPD,XTIME,JULIAN
REAL, INTENT(OUT ) :: DECLIN,SOLCON
REAL :: OBECL,SINOB,SXLONG,ARG, &
DECDEG,DJUL,RJUL,ECCFAC
!
! !DESCRIPTION:
! Compute terms used in radiation physics
!EOP
! for short wave radiation
DECLIN=0.
SOLCON=0.
!-----OBECL : OBLIQUITY = 23.5 DEGREE.
OBECL=23.5*DEGRAD
SINOB=SIN(OBECL)
!-----CALCULATE LONGITUDE OF THE SUN FROM VERNAL EQUINOX:
IF(JULIAN.GE.80.)SXLONG=DPD*(JULIAN-80.)
IF(JULIAN.LT.80.)SXLONG=DPD*(JULIAN+285.)
SXLONG=SXLONG*DEGRAD
ARG=SINOB*SIN(SXLONG)
DECLIN=ASIN(ARG)
DECDEG=DECLIN/DEGRAD
!----SOLAR CONSTANT ECCENTRICITY FACTOR (PALTRIDGE AND PLATT 1976)
DJUL=JULIAN*360./365.
RJUL=DJUL*DEGRAD
ECCFAC=1.000110+0.034221*COS(RJUL)+0.001280*SIN(RJUL)+0.000719* &
COS(2*RJUL)+0.000077*SIN(2*RJUL)
SOLCON=1370.*ECCFAC
END SUBROUTINE radconst
!---------------------------------------------------------------------
!BOP
! !IROUTINE: cal_cldfra - Compute cloud fraction
! !INTERFACE:
SUBROUTINE cal_cldfra(CLDFRA,QC,QI,F_QC,F_QI, & 2
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte )
!---------------------------------------------------------------------
IMPLICIT NONE
!---------------------------------------------------------------------
INTEGER, INTENT(IN ) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), INTENT(OUT ) :: &
CLDFRA
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), INTENT(IN ) :: &
QI, &
QC
LOGICAL,INTENT(IN) :: F_QC,F_QI
REAL thresh
INTEGER:: i,j,k
! !DESCRIPTION:
! Compute cloud fraction from input ice and cloud water fields
! if provided.
!
! Whether QI or QC is active or not is determined from the indices of
! the fields into the 4D scalar arrays in WRF. These indices are
! P_QI and P_QC, respectively, and they are passed in to the routine
! to enable testing to see if QI and QC represent active fields in
! the moisture 4D scalar array carried by WRF.
!
! If a field is active its index will have a value greater than or
! equal to PARAM_FIRST_SCALAR, which is also an input argument to
! this routine.
!EOP
!---------------------------------------------------------------------
thresh=1.0e-6
IF ( f_qi .AND. f_qc ) THEN
DO j = jts,jte
DO k = kts,kte
DO i = its,ite
IF ( QC(i,k,j)+QI(I,k,j) .gt. thresh) THEN
CLDFRA(i,k,j)=1.
ELSE
CLDFRA(i,k,j)=0.
ENDIF
ENDDO
ENDDO
ENDDO
ELSE IF ( f_qc ) THEN
DO j = jts,jte
DO k = kts,kte
DO i = its,ite
IF ( QC(i,k,j) .gt. thresh) THEN
CLDFRA(i,k,j)=1.
ELSE
CLDFRA(i,k,j)=0.
ENDIF
ENDDO
ENDDO
ENDDO
ELSE
DO j = jts,jte
DO k = kts,kte
DO i = its,ite
CLDFRA(i,k,j)=0.
ENDDO
ENDDO
ENDDO
ENDIF
END SUBROUTINE cal_cldfra
!BOP
! !IROUTINE: cal_cldfra2 - Compute cloud fraction
! !INTERFACE:
! cal_cldfra_xr - Compute cloud fraction.
! Code adapted from that in module_ra_gfdleta.F in WRF_v2.0.3 by James Done
!!
!!--- Cloud fraction parameterization follows Xu and Randall (JAS), 1996
!! (see Hong et al., 1998)
!! (modified by Ferrier, Feb '02)
!
SUBROUTINE cal_cldfra2(CLDFRA, QV, QC, QI, QS, & 4
F_QV, F_QC, F_QI, F_QS, t_phy, p_phy, &
F_ICE_PHY,F_RAIN_PHY, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte )
!---------------------------------------------------------------------
IMPLICIT NONE
!---------------------------------------------------------------------
INTEGER, INTENT(IN ) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte
!
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), INTENT(OUT ) :: &
CLDFRA
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), INTENT(IN ) :: &
QV, &
QI, &
QC, &
QS, &
t_phy, &
p_phy
! p_phy, &
! F_ICE_PHY, &
! F_RAIN_PHY
REAL, DIMENSION( ims:ime, kms:kme, jms:jme ), &
OPTIONAL, &
INTENT(IN ) :: &
F_ICE_PHY, &
F_RAIN_PHY
LOGICAL,OPTIONAL,INTENT(IN) :: F_QC,F_QI,F_QV,F_QS
! REAL thresh
INTEGER:: i,j,k
REAL :: RHUM, tc, esw, esi, weight, qvsw, qvsi, qvs_weight, QIMID, QWMID, QCLD, DENOM, ARG, SUBSAT
REAL ,PARAMETER :: ALPHA0=100., GAMMA=0.49, QCLDMIN=1.E-12, &
PEXP=0.25, RHGRID=1.0
REAL , PARAMETER :: SVP1=0.61078
REAL , PARAMETER :: SVP2=17.2693882
REAL , PARAMETER :: SVPI2=21.8745584
REAL , PARAMETER :: SVP3=35.86
REAL , PARAMETER :: SVPI3=7.66
REAL , PARAMETER :: SVPT0=273.15
REAL , PARAMETER :: r_d = 287.
REAL , PARAMETER :: r_v = 461.6
REAL , PARAMETER :: ep_2=r_d/r_v
! !DESCRIPTION:
! Compute cloud fraction from input ice and cloud water fields
! if provided.
!
! Whether QI or QC is active or not is determined from the indices of
! the fields into the 4D scalar arrays in WRF. These indices are
! P_QI and P_QC, respectively, and they are passed in to the routine
! to enable testing to see if QI and QC represent active fields in
! the moisture 4D scalar array carried by WRF.
!
! If a field is active its index will have a value greater than or
! equal to PARAM_FIRST_SCALAR, which is also an input argument to
! this routine.
!EOP
!-----------------------------------------------------------------------
!--- COMPUTE GRID-SCALE CLOUD COVER FOR RADIATION
! (modified by Ferrier, Feb '02)
!
!--- Cloud fraction parameterization follows Randall, 1994
! (see Hong et al., 1998)
!-----------------------------------------------------------------------
! Note: ep_2=287./461.6 Rd/Rv
! Note: R_D=287.
! Alternative calculation for critical RH for grid saturation
! RHGRID=0.90+.08*((100.-DX)/95.)**.5
! Calculate saturation mixing ratio weighted according to the fractions of
! water and ice.
! Following:
! Murray, F.W. 1966. ``On the computation of Saturation Vapor Pressure'' J. Appl. Meteor. 6 p.204
! es (in mb) = 6.1078 . exp[ a . (T-273.16)/ (T-b) ]
!
! over ice over water
! a = 21.8745584 17.2693882
! b = 7.66 35.86
!---------------------------------------------------------------------
DO j = jts,jte
DO k = kts,kte
DO i = its,ite
tc = t_phy(i,k,j) - SVPT0
esw = 1000.0 * SVP1 * EXP( SVP2 * tc / ( t_phy(i,k,j) - SVP3 ) )
esi = 1000.0 * SVP1 * EXP( SVPI2 * tc / ( t_phy(i,k,j) - SVPI3 ) )
QVSW = EP_2 * esw / ( p_phy(i,k,j) - esw )
QVSI = EP_2 * esi / ( p_phy(i,k,j) - esi )
IF ( PRESENT(F_QI) .and. PRESENT(F_QC) .and. PRESENT(F_QS) ) THEN
! mji - For MP options 2, 4, 6, 7, 8, etc. (qc = liquid, qi = ice, qs = snow)
IF ( F_QI .and. F_QC .and. F_QS) THEN
QCLD = QI(i,k,j)+QC(i,k,j)+QS(i,k,j)
IF (QCLD .LT. QCLDMIN) THEN
weight = 0.
ELSE
weight = (QI(i,k,j)+QS(i,k,j)) / QCLD
ENDIF
ENDIF
! mji - For MP options 1 and 3, (qc only)
! For MP=1, qc = liquid, for MP=3, qc = liquid or ice depending on temperature
IF ( F_QC .and. .not. F_QI .and. .not. F_QS ) THEN
QCLD = QC(i,k,j)
IF (QCLD .LT. QCLDMIN) THEN
weight = 0.
ELSE
if (t_phy(i,k,j) .gt. 273.15) weight = 0.
if (t_phy(i,k,j) .le. 273.15) weight = 1.
ENDIF
ENDIF
! mji - For MP option 5; (qc = liquid, qs = ice)
IF ( F_QC .and. .not. F_QI .and. F_QS .and. PRESENT(F_ICE_PHY) ) THEN
! Mixing ratios of cloud water & total ice (cloud ice + snow).
! Mixing ratios of rain are not considered in this scheme.
! F_ICE is fraction of ice
! F_RAIN is fraction of rain
QIMID = QS(i,k,j)
QWMID = QC(i,k,j)
! old method
! QIMID = QC(i,k,j)*F_ICE_PHY(i,k,j)
! QWMID = (QC(i,k,j)-QIMID)*(1.-F_RAIN_PHY(i,k,j))
!
!--- Total "cloud" mixing ratio, QCLD. Rain is not part of cloud,
! only cloud water + cloud ice + snow
!
QCLD=QWMID+QIMID
IF (QCLD .LT. QCLDMIN) THEN
weight = 0.
ELSE
weight = F_ICE_PHY(i,k,j)
ENDIF
ENDIF
ELSE
CLDFRA(i,k,j)=0.
ENDIF ! IF ( F_QI .and. F_QC .and. F_QS)
QVS_WEIGHT = (1-weight)*QVSW + weight*QVSI
RHUM=QV(i,k,j)/QVS_WEIGHT !--- Relative humidity
!
!--- Determine cloud fraction (modified from original algorithm)
!
IF (QCLD .LT. QCLDMIN) THEN
!
!--- Assume zero cloud fraction if there is no cloud mixing ratio
!
CLDFRA(i,k,j)=0.
ELSEIF(RHUM.GE.RHGRID)THEN
!
!--- Assume cloud fraction of unity if near saturation and the cloud
! mixing ratio is at or above the minimum threshold
!
CLDFRA(i,k,j)=1.
ELSE
!
!--- Adaptation of original algorithm (Randall, 1994; Zhao, 1995)
! modified based on assumed grid-scale saturation at RH=RHgrid.
!
SUBSAT=MAX(1.E-10,RHGRID*QVS_WEIGHT-QV(i,k,j))
DENOM=(SUBSAT)**GAMMA
ARG=MAX(-6.9, -ALPHA0*QCLD/DENOM) ! <-- EXP(-6.9)=.001
! prevent negative values (new)
RHUM=MAX(1.E-10, RHUM)
CLDFRA(i,k,j)=(RHUM/RHGRID)**PEXP*(1.-EXP(ARG))
!! ARG=-1000*QCLD/(RHUM-RHGRID)
!! ARG=MAX(ARG, ARGMIN)
!! CLDFRA(i,k,j)=(RHUM/RHGRID)*(1.-EXP(ARG))
IF (CLDFRA(i,k,j) .LT. .01) CLDFRA(i,k,j)=0.
ENDIF !--- End IF (QCLD .LT. QCLDMIN) ...
ENDDO !--- End DO i
ENDDO !--- End DO k
ENDDO !--- End DO j
END SUBROUTINE cal_cldfra2
SUBROUTINE toposhad_init(ht_shad,ht_loc,shadowmask,nested,iter, & 1,1
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
ips,ipe, jps,jpe, kps,kpe, &
its,ite, jts,jte, kts,kte )
USE module_model_constants
implicit none
INTEGER, INTENT(IN) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
ips,ipe, jps,jpe, kps,kpe, &
its,ite, jts,jte, kts,kte
LOGICAL, INTENT(IN) :: nested
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: ht_shad, ht_loc
INTEGER, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: shadowmask
INTEGER, INTENT(IN) :: iter
! Local variables
INTEGER :: i, j
if (iter.eq.1) then
! Initialize shadow mask
do j=jts,jte
do i=its,ite
shadowmask(i,j) = 0
ENDDO
ENDDO
! Initialize shading height
IF ( nested ) THEN ! Do not overwrite input from parent domain
do j=max(jts,jds+2),min(jte,jde-3)
do i=max(its,ids+2),min(ite,ide-3)
ht_shad(i,j) = ht_loc(i,j)-0.001
ENDDO
ENDDO
ELSE
do j=jts,jte
do i=its,ite
ht_shad(i,j) = ht_loc(i,j)-0.001
ENDDO
ENDDO
ENDIF
IF ( nested ) THEN ! Check if a shadow exceeding the topography height is available at the lateral domain edge from nesting
if (its.eq.ids) then
do j=jts,jte
if (ht_shad(its,j) .gt. ht_loc(its,j)) then
shadowmask(its,j) = 1
ht_loc(its,j) = ht_shad(its,j)
endif
if (ht_shad(its+1,j) .gt. ht_loc(its+1,j)) then
shadowmask(its+1,j) = 1
ht_loc(its+1,j) = ht_shad(its+1,j)
endif
enddo
endif
if (ite.eq.ide-1) then
do j=jts,jte
if (ht_shad(ite,j) .gt. ht_loc(ite,j)) then
shadowmask(ite,j) = 1
ht_loc(ite,j) = ht_shad(ite,j)
endif
if (ht_shad(ite-1,j) .gt. ht_loc(ite-1,j)) then
shadowmask(ite-1,j) = 1
ht_loc(ite-1,j) = ht_shad(ite-1,j)
endif
enddo
endif
if (jts.eq.jds) then
do i=its,ite
if (ht_shad(i,jts) .gt. ht_loc(i,jts)) then
shadowmask(i,jts) = 1
ht_loc(i,jts) = ht_shad(i,jts)
endif
if (ht_shad(i,jts+1) .gt. ht_loc(i,jts+1)) then
shadowmask(i,jts+1) = 1
ht_loc(i,jts+1) = ht_shad(i,jts+1)
endif
enddo
endif
if (jte.eq.jde-1) then
do i=its,ite
if (ht_shad(i,jte) .gt. ht_loc(i,jte)) then
shadowmask(i,jte) = 1
ht_loc(i,jte) = ht_shad(i,jte)
endif
if (ht_shad(i,jte-1) .gt. ht_loc(i,jte-1)) then
shadowmask(i,jte-1) = 1
ht_loc(i,jte-1) = ht_shad(i,jte-1)
endif
enddo
endif
ENDIF
else
! Fill the local topography field at the points next to internal tile boundaries with ht_shad values
! A 2-pt halo has been applied to the ht_shad before the repeated call of this subroutine
if ((its.ne.ids).and.(its.eq.ips)) then
do j=jts-2,jte+2
ht_loc(its-1,j) = max(ht_loc(its-1,j),ht_shad(its-1,j))
ht_loc(its-2,j) = max(ht_loc(its-2,j),ht_shad(its-2,j))
enddo
endif
if ((ite.ne.ide-1).and.(ite.eq.ipe)) then
do j=jts-2,jte+2
ht_loc(ite+1,j) = max(ht_loc(ite+1,j),ht_shad(ite+1,j))
ht_loc(ite+2,j) = max(ht_loc(ite+2,j),ht_shad(ite+2,j))
enddo
endif
if ((jts.ne.jds).and.(jts.eq.jps)) then
do i=its-2,ite+2
ht_loc(i,jts-1) = max(ht_loc(i,jts-1),ht_shad(i,jts-1))
ht_loc(i,jts-2) = max(ht_loc(i,jts-2),ht_shad(i,jts-2))
enddo
endif
if ((jte.ne.jde-1).and.(jte.eq.jpe)) then
do i=its-2,ite+2
ht_loc(i,jte+1) = max(ht_loc(i,jte+1),ht_shad(i,jte+1))
ht_loc(i,jte+2) = max(ht_loc(i,jte+2),ht_shad(i,jte+2))
enddo
endif
endif
END SUBROUTINE toposhad_init
SUBROUTINE toposhad(xlat,xlong,sina,cosa,xtime,gmt,radfrq,declin, & 1,1
dx,dy,ht_shad,ht_loc,iter, &
shadowmask,shadlen, &
ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
ips,ipe, jps,jpe, kps,kpe, &
its,ite, jts,jte, kts,kte )
USE module_model_constants
implicit none
INTEGER, INTENT(IN) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
ips,ipe, jps,jpe, kps,kpe, &
its,ite, jts,jte, kts,kte
INTEGER, INTENT(IN) :: iter
REAL, INTENT(IN) :: RADFRQ,XTIME,DECLIN,dx,dy,gmt,shadlen
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(IN) :: XLAT, XLONG, sina, cosa
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: ht_shad,ht_loc
INTEGER, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: shadowmask
! Local variables
REAL :: pi, xt24, wgt, ri, rj, argu, sol_azi, topoelev, dxabs, tloctm, hrang, xxlat, csza
INTEGER :: gpshad, ii, jj, i1, i2, j1, j2, i, j
XT24=MOD(XTIME+RADFRQ*0.5,1440.)
pi = 4.*atan(1.)
gpshad = int(shadlen/dx+1.)
if (iter.eq.1) then
j_loop1: DO J=jts,jte
i_loop1: DO I=its,ite
TLOCTM=GMT+XT24/60.+XLONG(i,j)/15.
HRANG=15.*(TLOCTM-12.)*DEGRAD
XXLAT=XLAT(i,j)*DEGRAD
CSZA=SIN(XXLAT)*SIN(DECLIN)+COS(XXLAT)*COS(DECLIN)*COS(HRANG)
if (csza.lt.1.e-2) then ! shadow mask does not need to be computed
shadowmask(i,j) = 0
ht_shad(i,j) = ht_loc(i,j)-0.001
goto 120
endif
! Solar azimuth angle
argu=(csza*sin(XXLAT)-sin(DECLIN))/(sin(acos(csza))*cos(XXLAT))
if (argu.gt.1) argu = 1
if (argu.lt.-1) argu = -1
sol_azi = sign(acos(argu),sin(HRANG))+pi ! azimuth angle of the sun
if (cosa(i,j).ge.0) then
sol_azi = sol_azi + asin(sina(i,j)) ! rotation towards WRF grid
else
sol_azi = sol_azi + pi - asin(sina(i,j))
endif
! Scan for higher surrounding topography
if ((sol_azi.gt.1.75*pi).or.(sol_azi.lt.0.25*pi)) then ! sun is in the northern quarter
do jj = j+1,j+gpshad
ri = i + (jj-j)*tan(sol_azi)
i1 = int(ri)
i2 = i1+1
wgt = ri-i1
dxabs = sqrt((dy*(jj-j))**2+(dx*(ri-i))**2)
if ((jj.ge.jpe+1).or.(i1.le.ips-1).or.(i2.ge.ipe+1)) then
if (shadowmask(i,j).eq.0) shadowmask(i,j) = -1
goto 120
endif
topoelev=atan((wgt*ht_loc(i2,jj)+(1.-wgt)*ht_loc(i1,jj)-ht_loc(i,j))/dxabs)
if (sin(topoelev).ge.csza) then
shadowmask(i,j) = 1
ht_shad(i,j) = max(ht_shad(i,j),ht_loc(i,j)+dxabs*(tan(topoelev)-tan(asin(csza))))
endif
enddo
else if (sol_azi.lt.0.75*pi) then ! sun is in the eastern quarter
do ii = i+1,i+gpshad
rj = j - (ii-i)*tan(pi/2.+sol_azi)
j1 = int(rj)
j2 = j1+1
wgt = rj-j1
dxabs = sqrt((dx*(ii-i))**2+(dy*(rj-j))**2)
if ((ii.ge.ipe+1).or.(j1.le.jps-1).or.(j2.ge.jpe+1)) then
if (shadowmask(i,j).eq.0) shadowmask(i,j) = -1
goto 120
endif
topoelev=atan((wgt*ht_loc(ii,j2)+(1.-wgt)*ht_loc(ii,j1)-ht_loc(i,j))/dxabs)
if (sin(topoelev).ge.csza) then
shadowmask(i,j) = 1
ht_shad(i,j) = max(ht_shad(i,j),ht_loc(i,j)+dxabs*(tan(topoelev)-tan(asin(csza))))
endif
enddo
else if (sol_azi.lt.1.25*pi) then ! sun is in the southern quarter
do jj = j-1,j-gpshad,-1
ri = i + (jj-j)*tan(sol_azi)
i1 = int(ri)
i2 = i1+1
wgt = ri-i1
dxabs = sqrt((dy*(jj-j))**2+(dx*(ri-i))**2)
if ((jj.le.jps-1).or.(i1.le.ips-1).or.(i2.ge.ipe+1)) then
if (shadowmask(i,j).eq.0) shadowmask(i,j) = -1
goto 120
endif
topoelev=atan((wgt*ht_loc(i2,jj)+(1.-wgt)*ht_loc(i1,jj)-ht_loc(i,j))/dxabs)
if (sin(topoelev).ge.csza) then
shadowmask(i,j) = 1
ht_shad(i,j) = max(ht_shad(i,j),ht_loc(i,j)+dxabs*(tan(topoelev)-tan(asin(csza))))
endif
enddo
else ! sun is in the western quarter
do ii = i-1,i-gpshad,-1
rj = j - (ii-i)*tan(pi/2.+sol_azi)
j1 = int(rj)
j2 = j1+1
wgt = rj-j1
dxabs = sqrt((dx*(ii-i))**2+(dy*(rj-j))**2)
if ((ii.le.ips-1).or.(j1.le.jps-1).or.(j2.ge.jpe+1)) then
if (shadowmask(i,j).eq.0) shadowmask(i,j) = -1
goto 120
endif
topoelev=atan((wgt*ht_loc(ii,j2)+(1.-wgt)*ht_loc(ii,j1)-ht_loc(i,j))/dxabs)
if (sin(topoelev).ge.csza) then
shadowmask(i,j) = 1
ht_shad(i,j) = max(ht_shad(i,j),ht_loc(i,j)+dxabs*(tan(topoelev)-tan(asin(csza))))
endif
enddo
endif
120 continue
ENDDO i_loop1
ENDDO j_loop1
else ! iteration > 1
j_loop2: DO J=jts,jte
i_loop2: DO I=its,ite
! if (shadowmask(i,j).eq.-1) then ! this indicates that the search ended at a lateral boundary during iteration 1
TLOCTM=GMT+XT24/60.+XLONG(i,j)/15.
HRANG=15.*(TLOCTM-12.)*DEGRAD
XXLAT=XLAT(i,j)*DEGRAD
CSZA=SIN(XXLAT)*SIN(DECLIN)+COS(XXLAT)*COS(DECLIN)*COS(HRANG)
! Solar azimuth angle
argu=(csza*sin(XXLAT)-sin(DECLIN))/(sin(acos(csza))*cos(XXLAT))
if (argu.gt.1) argu = 1
if (argu.lt.-1) argu = -1
sol_azi = sign(acos(argu),sin(HRANG))+pi ! azimuth angle of the sun
if (cosa(i,j).ge.0) then
sol_azi = sol_azi + asin(sina(i,j)) ! rotation towards WRF grid
else
sol_azi = sol_azi + pi - asin(sina(i,j))
endif
! Scan for higher surrounding topography
if ((sol_azi.gt.1.75*pi).or.(sol_azi.lt.0.25*pi)) then ! sun is in the northern quarter
do jj = j+1,j+gpshad
ri = i + (jj-j)*tan(sol_azi)
i1 = int(ri)
i2 = i1+1
wgt = ri-i1
dxabs = sqrt((dy*(jj-j))**2+(dx*(ri-i))**2)
if ((jj.ge.min(jde,jpe+3)).or.(i1.le.max(ids-1,ips-3)).or.(i2.ge.min(ide,ipe+3))) goto 220
topoelev=atan((wgt*ht_loc(i2,jj)+(1.-wgt)*ht_loc(i1,jj)-ht_loc(i,j))/dxabs)
if (sin(topoelev).ge.csza) then
shadowmask(i,j) = 1
ht_shad(i,j) = max(ht_shad(i,j),ht_loc(i,j)+dxabs*(tan(topoelev)-tan(asin(csza))))
endif
enddo
else if (sol_azi.lt.0.75*pi) then ! sun is in the eastern quarter
do ii = i+1,i+gpshad
rj = j - (ii-i)*tan(pi/2.+sol_azi)
j1 = int(rj)
j2 = j1+1
wgt = rj-j1
dxabs = sqrt((dx*(ii-i))**2+(dy*(rj-j))**2)
if ((ii.ge.min(ide,ipe+3)).or.(j1.le.max(jds-1,jps-3)).or.(j2.ge.min(jde,jpe+3))) goto 220
topoelev=atan((wgt*ht_loc(ii,j2)+(1.-wgt)*ht_loc(ii,j1)-ht_loc(i,j))/dxabs)
if (sin(topoelev).ge.csza) then
shadowmask(i,j) = 1
ht_shad(i,j) = max(ht_shad(i,j),ht_loc(i,j)+dxabs*(tan(topoelev)-tan(asin(csza))))
endif
enddo
else if (sol_azi.lt.1.25*pi) then ! sun is in the southern quarter
do jj = j-1,j-gpshad,-1
ri = i + (jj-j)*tan(sol_azi)
i1 = int(ri)
i2 = i1+1
wgt = ri-i1
dxabs = sqrt((dy*(jj-j))**2+(dx*(ri-i))**2)
if ((jj.le.max(jds-1,jps-3)).or.(i1.le.max(ids-1,ips-3)).or.(i2.ge.min(ide,ipe+3))) goto 220
topoelev=atan((wgt*ht_loc(i2,jj)+(1.-wgt)*ht_loc(i1,jj)-ht_loc(i,j))/dxabs)
if (sin(topoelev).ge.csza) then
shadowmask(i,j) = 1
ht_shad(i,j) = max(ht_shad(i,j),ht_loc(i,j)+dxabs*(tan(topoelev)-tan(asin(csza))))
endif
enddo
else ! sun is in the western quarter
do ii = i-1,i-gpshad,-1
rj = j - (ii-i)*tan(pi/2.+sol_azi)
j1 = int(rj)
j2 = j1+1
wgt = rj-j1
dxabs = sqrt((dx*(ii-i))**2+(dy*(rj-j))**2)
if ((ii.le.max(ids-1,ips-3)).or.(j1.le.max(jds-1,jps-3)).or.(j2.ge.min(jde,jpe+3))) goto 220
topoelev=atan((wgt*ht_loc(ii,j2)+(1.-wgt)*ht_loc(ii,j1)-ht_loc(i,j))/dxabs)
if (sin(topoelev).ge.csza) then
shadowmask(i,j) = 1
ht_shad(i,j) = max(ht_shad(i,j),ht_loc(i,j)+dxabs*(tan(topoelev)-tan(asin(csza))))
endif
enddo
endif
220 continue
! endif
ENDDO i_loop2
ENDDO j_loop2
endif ! iteration
END SUBROUTINE toposhad
SUBROUTINE ozn_time_int(julday,julian,ozmixm,ozmixt,levsiz,num_months, & 1
ids , ide , jds , jde , kds , kde , &
ims , ime , jms , jme , kms , kme , &
its , ite , jts , jte , kts , kte )
! adapted from oznint from CAM module
! input: ozmixm - read from physics_init
! output: ozmixt - time interpolated
! USE module_ra_cam_support, ONLY : getfactors
IMPLICIT NONE
INTEGER, INTENT(IN) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte
INTEGER, INTENT(IN ) :: levsiz, num_months
REAL, DIMENSION( ims:ime, levsiz, jms:jme, num_months ), &
INTENT(IN ) :: ozmixm
INTEGER, INTENT(IN ) :: JULDAY
REAL, INTENT(IN ) :: JULIAN
REAL, DIMENSION( ims:ime, levsiz, jms:jme ), &
INTENT(OUT ) :: ozmixt
!Local
REAL :: intJULIAN
integer :: np1,np,nm,m,k,i,j
integer :: IJUL
integer, dimension(12) :: date_oz
data date_oz/16, 45, 75, 105, 136, 166, 197, 228, 258, 289, 319, 350/
real, parameter :: daysperyear = 365. ! number of days in a year
real :: cdayozp, cdayozm
real :: fact1, fact2, deltat
logical :: finddate
logical :: ozncyc
CHARACTER(LEN=256) :: msgstr
ozncyc = .true.
! JULIAN starts from 0.0 at 0Z on 1 Jan.
intJULIAN = JULIAN + 1.0 ! offset by one day
! jan 1st 00z is julian=1.0 here
IJUL=INT(intJULIAN)
! Note that following will drift.
! Need to use actual month/day info to compute julian.
intJULIAN=intJULIAN-FLOAT(IJUL)
IJUL=MOD(IJUL,365)
IF(IJUL.EQ.0)IJUL=365
intJULIAN=intJULIAN+IJUL
np1=1
finddate=.false.
! do m=1,num_months
do m=1,12
if(date_oz(m).gt.intjulian.and..not.finddate) then
np1=m
finddate=.true.
endif
enddo
cdayozp=date_oz(np1)
if(np1.gt.1) then
cdayozm=date_oz(np1-1)
np=np1
nm=np-1
else
cdayozm=date_oz(12)
np=np1
nm=12
endif
! call getfactors(ozncyc,np1, cdayozm, cdayozp,intjulian, &
! fact1, fact2)
!
! Determine time interpolation factors. Account for December-January
! interpolation if dataset is being cycled yearly.
!
if (ozncyc .and. np1 == 1) then ! Dec-Jan interpolation
deltat = cdayozp + daysperyear - cdayozm
if (intjulian > cdayozp) then ! We are in December
fact1 = (cdayozp + daysperyear - intjulian)/deltat
fact2 = (intjulian - cdayozm)/deltat
else ! We are in January
fact1 = (cdayozp - intjulian)/deltat
fact2 = (intjulian + daysperyear - cdayozm)/deltat
end if
else
deltat = cdayozp - cdayozm
fact1 = (cdayozp - intjulian)/deltat
fact2 = (intjulian - cdayozm)/deltat
end if
!
! Time interpolation.
!
do j=jts,jte
do k=1,levsiz
do i=its,ite
ozmixt(i,k,j) = ozmixm(i,k,j,nm)*fact1 + ozmixm(i,k,j,np)*fact2
end do
end do
end do
END SUBROUTINE ozn_time_int
SUBROUTINE ozn_p_int(p ,pin, levsiz, ozmixt, o3vmr, & 1,1
ids , ide , jds , jde , kds , kde , &
ims , ime , jms , jme , kms , kme , &
its , ite , jts , jte , kts , kte )
!-----------------------------------------------------------------------
!
! Purpose: Interpolate ozone from current time-interpolated values to model levels
!
! Method: Use pressure values to determine interpolation levels
!
! Author: Bruce Briegleb
! WW: Adapted for general use
!
!--------------------------------------------------------------------------
implicit none
!--------------------------------------------------------------------------
!
! Arguments
!
INTEGER, INTENT(IN) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte
integer, intent(in) :: levsiz ! number of ozone layers
real, intent(in) :: p(ims:ime,kms:kme,jms:jme) ! level pressures (mks, bottom-up)
real, intent(in) :: pin(levsiz) ! ozone data level pressures (mks, top-down)
real, intent(in) :: ozmixt(ims:ime,levsiz,jms:jme) ! ozone mixing ratio
real, intent(out) :: o3vmr(ims:ime,kms:kme,jms:jme) ! ozone volume mixing ratio
!
! local storage
!
real pmid(its:ite,kts:kte)
integer i,j ! longitude index
integer k, kk, kkstart, kout! level indices
integer kupper(its:ite) ! Level indices for interpolation
integer kount ! Counter
integer ncol, pver
real dpu ! upper level pressure difference
real dpl ! lower level pressure difference
ncol = ite - its + 1
pver = kte - kts + 1
do j=jts,jte
!
! Initialize index array
!
! do i=1, ncol
do i=its, ite
kupper(i) = 1
end do
!
! Reverse the pressure array, and pin is in Pa, the same as model pmid
!
do k = kts,kte
kk = kte - k + kts
do i = its,ite
pmid(i,kk) = p(i,k,j)
enddo
enddo
do k=1,pver
kout = pver - k + 1
! kout = k
!
! Top level we need to start looking is the top level for the previous k
! for all longitude points
!
kkstart = levsiz
! do i=1,ncol
do i=its,ite
kkstart = min0(kkstart,kupper(i))
end do
kount = 0
!
! Store level indices for interpolation
!
do kk=kkstart,levsiz-1
! do i=1,ncol
do i=its,ite
if (pin(kk).lt.pmid(i,k) .and. pmid(i,k).le.pin(kk+1)) then
kupper(i) = kk
kount = kount + 1
end if
end do
!
! If all indices for this level have been found, do the interpolation and
! go to the next level
!
if (kount.eq.ncol) then
! do i=1,ncol
do i=its,ite
dpu = pmid(i,k) - pin(kupper(i))
dpl = pin(kupper(i)+1) - pmid(i,k)
o3vmr(i,kout,j) = (ozmixt(i,kupper(i),j)*dpl + &
ozmixt(i,kupper(i)+1,j)*dpu)/(dpl + dpu)
end do
goto 35
end if
end do
!
! If we've fallen through the kk=1,levsiz-1 loop, we cannot interpolate and
! must extrapolate from the bottom or top ozone data level for at least some
! of the longitude points.
!
! do i=1,ncol
do i=its,ite
if (pmid(i,k) .lt. pin(1)) then
o3vmr(i,kout,j) = ozmixt(i,1,j)*pmid(i,k)/pin(1)
else if (pmid(i,k) .gt. pin(levsiz)) then
o3vmr(i,kout,j) = ozmixt(i,levsiz,j)
else
dpu = pmid(i,k) - pin(kupper(i))
dpl = pin(kupper(i)+1) - pmid(i,k)
o3vmr(i,kout,j) = (ozmixt(i,kupper(i),j)*dpl + &
ozmixt(i,kupper(i)+1,j)*dpu)/(dpl + dpu)
end if
end do
if (kount.gt.ncol) then
! call endrun ('OZN_P_INT: Bad ozone data: non-monotonicity suspected')
call wrf_error_fatal ('OZN_P_INT: Bad ozone data: non-monotonicity suspected')
end if
35 continue
end do
end do
return
END SUBROUTINE ozn_p_int
SUBROUTINE aer_time_int(julday,julian,aerodm,aerodt,levsiz,num_months,no_src, & 1
ids , ide , jds , jde , kds , kde , &
ims , ime , jms , jme , kms , kme , &
its , ite , jts , jte , kts , kte )
! adapted from oznint from CAM module
! input: aerodm - read from physics_init
! output: aerodt - time interpolated
! USE module_ra_cam_support, ONLY : getfactors
IMPLICIT NONE
INTEGER, INTENT(IN) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte
INTEGER, INTENT(IN ) :: levsiz, num_months, no_src
REAL, DIMENSION( ims:ime, levsiz, jms:jme, num_months, no_src ), &
INTENT(IN ) :: aerodm
INTEGER, INTENT(IN ) :: JULDAY
REAL, INTENT(IN ) :: JULIAN
REAL, DIMENSION( ims:ime, levsiz, jms:jme, no_src ), &
INTENT(OUT ) :: aerodt
!Local
REAL :: intJULIAN
integer :: np1,np,nm,m,k,i,j,s
integer :: IJUL
integer, dimension(12) :: date_oz
data date_oz/16, 45, 75, 105, 136, 166, 197, 228, 258, 289, 319, 350/
real, parameter :: daysperyear = 365. ! number of days in a year
real :: cdayozp, cdayozm
real :: fact1, fact2, deltat
logical :: finddate
logical :: ozncyc
CHARACTER(LEN=256) :: msgstr
ozncyc = .true.
! JULIAN starts from 0.0 at 0Z on 1 Jan.
intJULIAN = JULIAN + 1.0 ! offset by one day
! jan 1st 00z is julian=1.0 here
IJUL=INT(intJULIAN)
! Note that following will drift.
! Need to use actual month/day info to compute julian.
intJULIAN=intJULIAN-FLOAT(IJUL)
IJUL=MOD(IJUL,365)
IF(IJUL.EQ.0)IJUL=365
intJULIAN=intJULIAN+IJUL
np1=1
finddate=.false.
! do m=1,num_months
do m=1,12
if(date_oz(m).gt.intjulian.and..not.finddate) then
np1=m
finddate=.true.
endif
enddo
cdayozp=date_oz(np1)
if(np1.gt.1) then
cdayozm=date_oz(np1-1)
np=np1
nm=np-1
else
cdayozm=date_oz(12)
np=np1
nm=12
endif
! call getfactors(ozncyc,np1, cdayozm, cdayozp,intjulian, &
! fact1, fact2)
!
! Determine time interpolation factors. Account for December-January
! interpolation if dataset is being cycled yearly.
!
if (ozncyc .and. np1 == 1) then ! Dec-Jan interpolation
deltat = cdayozp + daysperyear - cdayozm
if (intjulian > cdayozp) then ! We are in December
fact1 = (cdayozp + daysperyear - intjulian)/deltat
fact2 = (intjulian - cdayozm)/deltat
else ! We are in January
fact1 = (cdayozp - intjulian)/deltat
fact2 = (intjulian + daysperyear - cdayozm)/deltat
end if
else
deltat = cdayozp - cdayozm
fact1 = (cdayozp - intjulian)/deltat
fact2 = (intjulian - cdayozm)/deltat
end if
!
! Time interpolation.
!
do s=1, no_src
do j=jts,jte
do k=1,levsiz
do i=its,ite
aerodt(i,k,j,s) = aerodm(i,k,j,nm,s)*fact1 + aerodm(i,k,j,np,s)*fact2
end do
end do
end do
end do
END SUBROUTINE aer_time_int
SUBROUTINE aer_p_int(p ,pin, levsiz, aerodt, aerod, no_src, pf, totaod, & 1,1
ids , ide , jds , jde , kds , kde , &
ims , ime , jms , jme , kms , kme , &
its , ite , jts , jte , kts , kte )
!-----------------------------------------------------------------------
!
! Purpose: Interpolate aerosol from current time-interpolated values to model levels
!
! Method: Use pressure values to determine interpolation levels
!
! Author: Bruce Briegleb
! WW: Adapted for general use
!
! p: model level pressure at half levels (Pa, bottom-up)
! pf: model level pressure at full levles (Pa, bottom-up)
!
!--------------------------------------------------------------------------
implicit none
!--------------------------------------------------------------------------
!
! Arguments
!
INTEGER, INTENT(IN) :: ids,ide, jds,jde, kds,kde, &
ims,ime, jms,jme, kms,kme, &
its,ite, jts,jte, kts,kte
integer, intent(in) :: levsiz ! number of aerosol layers
integer, intent(in) :: no_src ! types of aerosol
real, intent(in) :: p(ims:ime,kms:kme,jms:jme)
real, intent(in) :: pf(ims:ime,kms:kme,jms:jme)
real, intent(in) :: pin(levsiz) ! aerosol data level pressures (mks, top-down)
real, intent(in) :: aerodt(ims:ime,levsiz,jms:jme,1:no_src) ! aerosol optical depth
real, intent(out) :: aerod(ims:ime,kms:kme,jms:jme,1:no_src) ! aerosol optical depth
real, intent(out) :: totaod(ims:ime,jms:jme) ! total aerosol optical depth
!
! local storage
!
real pmid(its:ite,kts:kte)
integer i,j ! longitude index
integer k, kk, kkstart, kout! level indices
integer kupper(its:ite) ! Level indices for interpolation
integer kount ! Counter
integer ncol, pver, s
real dpu ! upper level pressure difference
real dpl ! lower level pressure difference
real dpm ! pressure difference in a model layer surrounding half p
ncol = ite - its + 1
pver = kte - kts + 1
do s=1,no_src
do j=jts,jte
!
! Initialize index array
!
do i=its, ite
kupper(i) = 1
end do
!
! The pressure from incoming data is in hPa and top-down,
! while model pressure is in Pa and bottom-up
!
do k = kts,kte
kk = kte - k + kts
do i = its,ite
pmid(i,kk) = p(i,k,j)*0.01
enddo
enddo
do k=1,pver
kout = pver - k + 1
!
! Top level we need to start looking is the top level for the previous k
! for all longitude points
!
kkstart = levsiz
do i=its,ite
kkstart = min0(kkstart,kupper(i))
end do
kount = 0
!
! Store level indices for interpolation
!
do kk=kkstart,levsiz-1
do i=its,ite
if (pin(kk).lt.pmid(i,k) .and. pmid(i,k).le.pin(kk+1)) then
kupper(i) = kk
kount = kount + 1
end if
end do
!
! If all indices for this level have been found, do the interpolation and
! go to the next level
!
if (kount.eq.ncol) then
do i=its,ite
dpu = pmid(i,k) - pin(kupper(i))
dpl = pin(kupper(i)+1) - pmid(i,k)
dpm = pf(i,kout,j) - pf(i,kout+1,j)
aerod(i,kout,j,s) = (aerodt(i,kupper(i),j,s)*dpl + &
aerodt(i,kupper(i)+1,j,s)*dpu)/(dpl + dpu)
aerod(i,kout,j,s) = aerod(i,kout,j,s)*dpm
end do
goto 35
end if
end do
!
! If we've fallen through the kk=1,levsiz-1 loop, we cannot interpolate and
! must extrapolate from the bottom or top aerosol data level for at least some
! of the longitude points.
!
do i=its,ite
if (pmid(i,k) .lt. pin(1)) then
dpm = pf(i,kout,j) - pf(i,kout+1,j)
aerod(i,kout,j,s) = aerodt(i,1,j,s)*pmid(i,k)/pin(1)
aerod(i,kout,j,s) = aerod(i,kout,j,s)*dpm
else if (pmid(i,k) .gt. pin(levsiz)) then
dpm = pf(i,kout,j) - pf(i,kout+1,j)
aerod(i,kout,j,s) = aerodt(i,levsiz,j,s)
aerod(i,kout,j,s) = aerod(i,kout,j,s)*dpm
else
dpu = pmid(i,k) - pin(kupper(i))
dpl = pin(kupper(i)+1) - pmid(i,k)
dpm = pf(i,kout,j) - pf(i,kout+1,j)
aerod(i,kout,j,s) = (aerodt(i,kupper(i),j,s)*dpl + &
aerodt(i,kupper(i)+1,j,s)*dpu)/(dpl + dpu)
aerod(i,kout,j,s) = aerod(i,kout,j,s)*dpm
end if
end do
if (kount.gt.ncol) then
call wrf_error_fatal ('AER_P_INT: Bad aerosol data: non-monotonicity suspected')
end if
35 continue
end do
end do
end do
! totaod = 0.
do s=1,no_src
do j=jts,jte
do k=1,pver
do i=its,ite
totaod(i,j) = totaod(i,j) + aerod(i,k,j,s)
end do
end do
end do
end do
return
END SUBROUTINE aer_p_int
END MODULE module_radiation_driver