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!#######################
MODULE MODI_SPAWN_FIELD2
!#######################
!
INTERFACE
!
SUBROUTINE SPAWN_FIELD2(KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,HTURB, &
PUM,PVM,PWM,PTHVM,PRM,PHUM,PTKEM,PSVM, &
PUT,PVT,PWT,PTHVT,PRT,PHUT,PTKET,PSVT,PATC, &
PSRCM,PSRCT,PSIGS, &
PLSUM,PLSVM,PLSWM,PLSTHM,PLSRVM, &
PDTHFRC,PDRVFRC,PTHREL,PRVREL, &
PVU_FLUX_M,PVTH_FLUX_M,PWTH_FLUX_M, &
HSONFILE,KIUSON,KJUSON, &
KIB2,KJB2,KIE2,KJE2, &
KIB1,KJB1,KIE1,KJE1 )
!
INTEGER, INTENT(IN) :: KXOR,KXEND ! horizontal position (i,j) of the ORigin and END
INTEGER, INTENT(IN) :: KYOR,KYEND ! of the model 2 domain, relative to model 1
INTEGER, INTENT(IN) :: KDXRATIO ! x and y-direction Resolution ratio
INTEGER, INTENT(IN) :: KDYRATIO ! between model 2 and model 1
CHARACTER (LEN=4), INTENT(IN) :: HTURB ! Kind of turbulence parameterization
!
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PUM,PVM,PWM ! model 2
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTKEM ! variables
REAL, DIMENSION(:,:,:,:), INTENT(OUT) :: PRM,PSVM ! at t-dt
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTHVM,PHUM !
!
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PUT,PVT,PWT ! model 2
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTKET ! variables
REAL, DIMENSION(:,:,:,:), INTENT(OUT) :: PRT,PSVT,PATC ! at t
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTHVT,PHUT !
!
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PSRCM,PSRCT,PSIGS ! secondary
! prognostic variables
! Larger Scale fields for relaxation and diffusion
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PLSUM, PLSVM, PLSWM
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PLSTHM, PLSRVM
REAL, DIMENSION(:,:,:,:), INTENT(OUT) :: PDTHFRC,PDRVFRC
REAL, DIMENSION(:,:,:,:), INTENT(OUT) :: PTHREL,PRVREL
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PVU_FLUX_M,PVTH_FLUX_M,PWTH_FLUX_M
!
! Arguments for spawning with 2 input files (father+son1)
CHARACTER (LEN=*), OPTIONAL, INTENT(IN) :: HSONFILE ! name of the input FM-file SON
INTEGER, OPTIONAL, INTENT(IN) :: KIUSON ! upper dimensions of the
INTEGER, OPTIONAL, INTENT(IN) :: KJUSON !input FM-file SON
INTEGER, OPTIONAL, INTENT(IN) :: KIB2,KJB2 ! indexes for common
INTEGER, OPTIONAL, INTENT(IN) :: KIE2,KJE2 !domain in model2
INTEGER, OPTIONAL, INTENT(IN) :: KIB1,KJB1 !and in
INTEGER, OPTIONAL, INTENT(IN) :: KIE1,KJE1 !SON
END SUBROUTINE SPAWN_FIELD2
!
END INTERFACE
!
END MODULE MODI_SPAWN_FIELD2
! ######spl
SUBROUTINE SPAWN_FIELD2(KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,HTURB, &
PUM,PVM,PWM,PTHVM,PRM,PHUM,PTKEM,PSVM, &
PUT,PVT,PWT,PTHVT,PRT,PHUT,PTKET,PSVT,PATC, &
PSRCM,PSRCT,PSIGS, &
PLSUM,PLSVM,PLSWM,PLSTHM,PLSRVM, &
PDTHFRC,PDRVFRC,PTHREL,PRVREL, &
PVU_FLUX_M,PVTH_FLUX_M,PWTH_FLUX_M, &
HSONFILE,KIUSON,KJUSON, &
KIB2,KJB2,KIE2,KJE2, &
KIB1,KJB1,KIE1,KJE1 )
! ##########################################################################
!
!!**** *SPAWN_FIELD2 * - subroutine generating the model 2 prognostic and LS
!! fields, consistently with the spawning model 1.
!!
!! PURPOSE
!! -------
!!
!! The prognostic and LS fields are interpolated from the model 1, to
!! initialize the model 2.
!!
!!** METHOD
!! ------
!!
!! The model 2 variables are transmitted by argument (P or K prefixes),
!! while the ones of model 1 are declared through calls to MODD_...
!! (X or N prefixes)
!!
!! For the case where the resolution ratio between models is 1,
!! the horizontal interpolation becomes a simple equality.
!! For the general case where resolution ratio is not egal to one,
!! fields are interpolated using 2 types of interpolations:
!! 1. Clark and Farley (JAS 1984) on 9 points
!! 2. Bikhardt on 16 points
!!
!! EXTERNAL
!! --------
!!
!! Routine BIKHARDT : to perform horizontal interpolations
!! Routine CLARK_FARLEY : to perform horizontal interpolations
!!
!!
!! IMPLICIT ARGUMENTS
!! ------------------
!! Module MODD_PARAMETERS : contains parameters
!! Module MODD_CONF : contains NVERB
!! Module MODD_CONF1 : contains CONF_MODEL(1)%NRR (total Number of moist variables)
!! Module MODD_FIELD1 : contains pronostic variables of model 1
!! Module MODD_LSFIELD1 : contains LB and LS variables of model 1
!! Module MODD_REF1 : contains RHODJ of model 1
!! Module MODD_GRID1 : contains grid variables
!!
!! REFERENCE
!! ---------
!!
!! Book1 of the documentation
!! SUBROUTINE SPAWN_FIELD2 (Book2 of the documentation)
!!
!!
!! AUTHOR
!! ------
!!
!! J.P. Lafore * METEO-FRANCE *
!!
!! MODIFICATIONS
!! -------------
!!
!! Original 12/01/95
!! Modification 20/03/95 (I.Mallet) change Large Scale fields initialization
!! Modification 27/04/95 ( " ) remove R from the historical variables
!! Modification 17/04/96 (Lafore) Different resolution ratio case introduction
!! Modification 10/06/96 (V.Masson) remove the loops in case of no resolution change
!! and bug in initialization of ZBFY
!! Modification 10/06/96 (V.Masson) interpolation computations performed in
!! independant routines
!! 10/10/96 (J. Stein) add SRCM and SRCT
!! Modification 21/11/96 (Lafore) move from BIKHARDT2 to BIKHARDT routine
!! Modification 21/11/96 (Lafore) "surfacic" LS fields
!! Modification 10/07/97 (Masson) remove pressure interpolations
!! Modification 17/07/97 (Masson) add EPS and tests on other variables
!! Modification 14/09/97 (Masson) interpolation of relative humidity
!! Modification 14/09/97 (J. Stein) add the LB and LS fields
!! Modification 27/07/98 (P. Jabouille) compute HU for all the cases
!! Modification 01/02/01 (D.Gazen) add module MODD_NSV for NSV variable
!! Modification 07/07/05 (D.Barbary) spawn with 2 input files (father+son1)
!! Modification 05/06 Remove EPS, Clark and Farley
!! Modification 06/12 (M.Tomasini) Interpolation of turbulent fluxes (EDDY_FLUX)
!! for 2D west african monsoon
!-------------------------------------------------------------------------------
!
!* 0. DECLARATIONS
! ------------
!
USE MODD_PARAMETERS ! Declarative modules
USE MODD_CONF
USE MODD_CST
!
USE MODD_GRID_n, ONLY: GRID_MODEL
USE MODD_CONF_n, ONLY: CONF_MODEL
USE MODD_LBC_n, ONLY: LBC_MODEL
USE MODD_LUNIT_n, ONLY: LUNIT_MODEL
USE MODD_FIELD_n, ONLY: FIELD_MODEL
USE MODD_LSFIELD_n,ONLY: LSFIELD_MODEL
USE MODD_REF_n, ONLY: REF_MODEL
!
USE MODD_NSV
USE MODD_RAIN_C2R2_DESCR, ONLY: C2R2NAMES
USE MODD_CH_M9_n, ONLY: CNAMES, CICNAMES
USE MODD_DUST, ONLY: CDUSTNAMES
USE MODD_SALT, ONLY: CSALTNAMES
USE MODD_CH_AEROSOL, ONLY: CAERONAMES
USE MODD_LG, ONLY: CLGNAMES
USE MODD_ELEC_DESCR, ONLY: CELECNAMES
!
USE MODD_BIKHARDT_n
USE MODD_LUNIT_n
!
USE MODI_BIKHARDT
!
USE MODE_FMREAD
USE MODE_THERMO
USE MODE_MODELN_HANDLER
USE MODE_IO_ll, ONLY: UPCASE
!
USE MODD_ADVFRC_n
USE MODD_RELFRC_n
USE MODD_2D_FRC
!
USE MODD_LATZ_EDFLX
USE MODD_DEF_EDDY_FLUX_n
USE MODD_DEF_EDDYUV_FLUX_n
!
IMPLICIT NONE
!
!* 0.1 Declarations of dummy arguments :
!
!
INTEGER, INTENT(IN) :: KXOR,KXEND ! horizontal position (i,j) of the ORigin and END
INTEGER, INTENT(IN) :: KYOR,KYEND ! of the model 2 domain, relative to model 1
INTEGER, INTENT(IN) :: KDXRATIO ! x and y-direction Resolution ratio
INTEGER, INTENT(IN) :: KDYRATIO ! between model 2 and model 1
CHARACTER (LEN=4), INTENT(IN) :: HTURB ! Kind of turbulence parameterization
!
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PUM,PVM,PWM ! model 2
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTKEM ! variables
REAL, DIMENSION(:,:,:,:), INTENT(OUT) :: PRM,PSVM ! at t-dt
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTHVM,PHUM !
!
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PUT,PVT,PWT ! model 2
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTKET ! variables
REAL, DIMENSION(:,:,:,:), INTENT(OUT) :: PRT,PSVT,PATC ! at t
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTHVT,PHUT !
!
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PSRCM,PSRCT,PSIGS ! secondary
! prognostic variables
! Larger Scale fields for relaxation and diffusion
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PLSUM, PLSVM, PLSWM
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PLSTHM, PLSRVM
REAL, DIMENSION(:,:,:,:), INTENT(OUT) :: PDTHFRC,PDRVFRC
REAL, DIMENSION(:,:,:,:), INTENT(OUT) :: PTHREL,PRVREL
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PVU_FLUX_M,PVTH_FLUX_M,PWTH_FLUX_M
! Arguments for spawning with 2 input files (father+son1)
CHARACTER (LEN=*), OPTIONAL, INTENT(IN) :: HSONFILE ! name of the input FM-file SON
INTEGER, OPTIONAL, INTENT(IN) :: KIUSON ! upper dimensions of the
INTEGER, OPTIONAL, INTENT(IN) :: KJUSON !input FM-file SON
INTEGER, OPTIONAL, INTENT(IN) :: KIB2,KJB2 ! indexes for common
INTEGER, OPTIONAL, INTENT(IN) :: KIE2,KJE2 !domain in model2
INTEGER, OPTIONAL, INTENT(IN) :: KIB1,KJB1 !and in
INTEGER, OPTIONAL, INTENT(IN) :: KIE1,KJE1 !SON
!
!* 0.2 Declarations of local variables
!
INTEGER :: ILUOUT ! Logical unit number for the output listing
INTEGER :: IRESP ! Return codes in FM routines
INTEGER :: JRR,JSV ! Loop index for moist and scalar variables
INTEGER :: IRR ! Number of moist variables
!
REAL, DIMENSION(SIZE(FIELD_MODEL(1)%XRT,1),SIZE(FIELD_MODEL(1)%XRT,2),SIZE(FIELD_MODEL(1)%XRT,3)) :: ZHUM ! relative humidity
! (model 1)
REAL, DIMENSION(SIZE(FIELD_MODEL(1)%XRT,1),SIZE(FIELD_MODEL(1)%XRT,2),SIZE(FIELD_MODEL(1)%XRT,3)) :: ZHUT ! relative humidity
! (model 1)
REAL, DIMENSION(SIZE(FIELD_MODEL(1)%XTHT,1),SIZE(FIELD_MODEL(1)%XTHT,2),SIZE(FIELD_MODEL(1)%XTHT,3)) :: ZTHVM! virtual pot. T
! (model 1)
REAL, DIMENSION(SIZE(FIELD_MODEL(1)%XTHT,1),SIZE(FIELD_MODEL(1)%XTHT,2),SIZE(FIELD_MODEL(1)%XTHT,3)) :: ZTHVT! virtual pot. T
! (model 1)
INTEGER :: IMI
! Arrays for reading fields of input SON 1 file
REAL, DIMENSION(:,:,:), ALLOCATABLE :: ZWORK3D
REAL, DIMENSION(:,:,:), ALLOCATABLE :: ZTHM1,ZTHT1,ZTHVM1,ZTHVT1
REAL, DIMENSION(:,:,:), ALLOCATABLE :: ZPABSM1,ZPABST1,ZHUM1,ZHUT1
REAL, DIMENSION(:,:,:,:), ALLOCATABLE :: ZRM1,ZRT1
LOGICAL :: GUSERV
!
INTEGER :: IGRID,ILENCH ! File
CHARACTER (LEN=16) :: YRECFM ! management
CHARACTER (LEN=100) :: YCOMMENT ! variables
CHARACTER (LEN=2) :: YDIR
!
!-------------------------------------------------------------------------------
!
!* 1. PROLOGUE:
! ---------
!
IMI = GET_CURRENT_MODEL_INDEX()
CALL GOTO_MODEL(2)
!
!* 1.0 recovers logical unit number of output listing
!
CALL FMLOOK_ll(CLUOUT,CLUOUT,ILUOUT,IRESP)
!
!* 1.1 Secondary variables
!
CALL COMPUTE_THV_HU(CONF_MODEL(1)%LUSERV,FIELD_MODEL(1)%XRM,FIELD_MODEL(1)%XTHM,FIELD_MODEL(1)%XPABSM,ZTHVM,ZHUM)
CALL COMPUTE_THV_HU(CONF_MODEL(1)%LUSERV,FIELD_MODEL(1)%XRT,FIELD_MODEL(1)%XTHT,FIELD_MODEL(1)%XPABST,ZTHVT,ZHUT)
!
!* 1.2 Working arrays for reading in SON input file
!
IF (PRESENT(HSONFILE)) THEN
ALLOCATE(ZWORK3D(KIUSON,KJUSON,SIZE(PUM,3)))
ALLOCATE(ZPABSM1(KIE1-KIB1+1,KJE1-KJB1+1,SIZE(PUM,3)))
ALLOCATE(ZPABST1(KIE1-KIB1+1,KJE1-KJB1+1,SIZE(PUM,3)))
ALLOCATE(ZTHM1(KIE1-KIB1+1,KJE1-KJB1+1,SIZE(PUM,3)))
ALLOCATE(ZTHT1(KIE1-KIB1+1,KJE1-KJB1+1,SIZE(PUM,3)))
ALLOCATE(ZTHVM1(KIE1-KIB1+1,KJE1-KJB1+1,SIZE(PUM,3)))
ALLOCATE(ZTHVT1(KIE1-KIB1+1,KJE1-KJB1+1,SIZE(PUM,3)))
IF (CONF_MODEL(1)%NRR /= 0) THEN
ALLOCATE(ZHUM1(KIE1-KIB1+1,KJE1-KJB1+1,SIZE(PUM,3)))
ALLOCATE(ZHUT1(KIE1-KIB1+1,KJE1-KJB1+1,SIZE(PUM,3)))
ALLOCATE(ZRM1(KIE1-KIB1+1,KJE1-KJB1+1, SIZE(PUM,3),SIZE(PRM,4)))
ALLOCATE(ZRT1(KIE1-KIB1+1,KJE1-KJB1+1, SIZE(PUM,3),SIZE(PRM,4)))
END IF
END IF
!
!-------------------------------------------------------------------------------
!
!* 2. INITIALIZATION OF PROGNOSTIC AND LS VARIABLES OF MODEL 2:
! ---------------------------------------------------------
!
!
IF (KDXRATIO == 1 .AND. KDYRATIO == 1 ) THEN
!
!* 2.1 special case of spawning - no change of resolution :
!
!* 2.1.1 variables which always exist
!
PUM (:,:,:) = FIELD_MODEL(1)%XUM (KXOR:KXEND,KYOR:KYEND,:)
PVM (:,:,:) = FIELD_MODEL(1)%XVM (KXOR:KXEND,KYOR:KYEND,:)
PWM (:,:,:) = FIELD_MODEL(1)%XWM (KXOR:KXEND,KYOR:KYEND,:)
PTHVM(:,:,:) = ZTHVM(KXOR:KXEND,KYOR:KYEND,:)
!
PUT (:,:,:) = FIELD_MODEL(1)%XUT (KXOR:KXEND,KYOR:KYEND,:)
PVT (:,:,:) = FIELD_MODEL(1)%XVT (KXOR:KXEND,KYOR:KYEND,:)
PWT (:,:,:) = FIELD_MODEL(1)%XWT (KXOR:KXEND,KYOR:KYEND,:)
PTHVT(:,:,:) = ZTHVT(KXOR:KXEND,KYOR:KYEND,:)
!
PLSUM (:,:,:) = FIELD_MODEL(1)%XUT (KXOR:KXEND,KYOR:KYEND,:)
PLSVM (:,:,:) = FIELD_MODEL(1)%XVT (KXOR:KXEND,KYOR:KYEND,:)
PLSWM (:,:,:) = FIELD_MODEL(1)%XWT (KXOR:KXEND,KYOR:KYEND,:)
PLSTHM(:,:,:) = FIELD_MODEL(1)%XTHT(KXOR:KXEND,KYOR:KYEND,:)
!
PLSRVM(:,:,:) = 0.
!
!* 2.1.2 TKE variable
!
IF (HTURB /= 'NONE') THEN
PTKEM(:,:,:) = FIELD_MODEL(1)%XTKEM(KXOR:KXEND,KYOR:KYEND,:)
PTKET(:,:,:) = FIELD_MODEL(1)%XTKET(KXOR:KXEND,KYOR:KYEND,:)
ENDIF
!
!* 2.1.3 moist variables
!
IF (CONF_MODEL(1)%NRR /= 0) THEN
PRM (:,:,:,:) = FIELD_MODEL(1)%XRM (KXOR:KXEND,KYOR:KYEND,:,:)
PRT (:,:,:,:) = FIELD_MODEL(1)%XRT (KXOR:KXEND,KYOR:KYEND,:,:)
PLSRVM(:,:,:) = FIELD_MODEL(1)%XRT (KXOR:KXEND,KYOR:KYEND,:,1)
PHUM (:,:,:) = ZHUM (KXOR:KXEND,KYOR:KYEND,:)
PHUT (:,:,:) = ZHUT (KXOR:KXEND,KYOR:KYEND,:)
ENDIF
!
!* 2.1.4 scalar variables
!
IF (NSV /= 0) THEN
PSVM (:,:,:,:) = FIELD_MODEL(1)%XSVM (KXOR:KXEND,KYOR:KYEND,:,:)
PSVT (:,:,:,:) = FIELD_MODEL(1)%XSVT (KXOR:KXEND,KYOR:KYEND,:,:)
ENDIF
!
!* 2.1.5 secondary prognostic variables
!
IF (CONF_MODEL(1)%NRR > 1) THEN
PSRCM (:,:,:) = FIELD_MODEL(1)%XSRCM (KXOR:KXEND,KYOR:KYEND,:)
PSRCT (:,:,:) = FIELD_MODEL(1)%XSRCT (KXOR:KXEND,KYOR:KYEND,:)
PSIGS(:,:,:) = FIELD_MODEL(1)%XSIGS(KXOR:KXEND,KYOR:KYEND,:)
ENDIF
!
!* 2.1.6 Large scale variables
!
PLSUM (:,:,:) = LSFIELD_MODEL(1)%XLSUM (KXOR:KXEND,KYOR:KYEND,:)
PLSVM (:,:,:) = LSFIELD_MODEL(1)%XLSVM (KXOR:KXEND,KYOR:KYEND,:)
PLSWM (:,:,:) = LSFIELD_MODEL(1)%XLSWM (KXOR:KXEND,KYOR:KYEND,:)
PLSTHM(:,:,:) = LSFIELD_MODEL(1)%XLSTHM (KXOR:KXEND,KYOR:KYEND,:)
IF ( CONF_MODEL(1)%NRR > 0 ) THEN
PLSRVM (:,:,:) = LSFIELD_MODEL(1)%XLSRVM (KXOR:KXEND,KYOR:KYEND,:)
END IF
!
!* 2.1.7 Advective forcing fields for 2D (Modif MT)
!
IF (L2D_ADV_FRC) THEN
PDTHFRC(:,:,:,:)= ADVFRC_MODEL(1)%XDTHFRC (KXOR:KXEND,KYOR:KYEND,:,:)
PDRVFRC(:,:,:,:)= ADVFRC_MODEL(1)%XDRVFRC (KXOR:KXEND,KYOR:KYEND,:,:)
ENDIF
IF (L2D_REL_FRC) THEN
PTHREL(:,:,:,:)= RELFRC_MODEL(1)%XTHREL (KXOR:KXEND,KYOR:KYEND,:,:)
PRVREL(:,:,:,:)= RELFRC_MODEL(1)%XRVREL (KXOR:KXEND,KYOR:KYEND,:,:)
ENDIF
!
!* 2.1.8 Turbulent fluxes for 2D (Modif MT)
!
IF (LUV_FLX) THEN
PVU_FLUX_M(:,:,:)= EDDYUV_FLUX_MODEL(1)%XVU_FLUX_M (KXOR:KXEND,KYOR:KYEND,:)
END IF
!
IF (LTH_FLX) THEN
PVTH_FLUX_M(:,:,:)= EDDY_FLUX_MODEL(1)%XVTH_FLUX_M (KXOR:KXEND,KYOR:KYEND,:)
PWTH_FLUX_M(:,:,:)= EDDY_FLUX_MODEL(1)%XWTH_FLUX_M (KXOR:KXEND,KYOR:KYEND,:)
END IF
!
!-------------------------------------------------------------------------------
!
ELSE
!
!-------------------------------------------------------------------------------
!
!* 2.2 general case - change of resolution :
! -----------------------------------
!
! Interpolation of the U variable at t-dt and t
!
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,2, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XUM,PUM)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,2, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XUT,PUT)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,2, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,LSFIELD_MODEL(1)%XLSUM,PLSUM)
!
! Interpolation of the V variable at t-dt and t
!
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,3, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XVM,PVM)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,3, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XVT,PVT)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,3, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,LSFIELD_MODEL(1)%XLSVM,PLSVM)
!
! Interpolation of variables at t-dt
!
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,4, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XWM,PWM)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,4, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,LSFIELD_MODEL(1)%XLSWM,PLSWM)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,ZTHVM,PTHVM)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,LSFIELD_MODEL(1)%XLSTHM,PLSTHM)
IF (HTURB /= 'NONE') &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XTKEM,PTKEM)
IF (CONF_MODEL(1)%NRR>=1) &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XRM,PRM)
IF (CONF_MODEL(1)%NRR>=1) &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,LSFIELD_MODEL(1)%XLSRVM,PLSRVM)
IF (CONF_MODEL(1)%NRR>=1) &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,ZHUM,PHUM)
IF (NSV>=1) &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XSVM,PSVM)
!
! Interpolation of variables at t
!
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,4, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XWT,PWT)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,ZTHVT,PTHVT)
IF (HTURB /= 'NONE') &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XTKET,PTKET)
!
IF (CONF_MODEL(1)%NRR>=1) &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,ZHUT,PHUT)
IF (CONF_MODEL(1)%NRR>=1) &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XRT,PRT)
IF (NSV>=1) &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XSVT,PSVT)
IF (CONF_MODEL(1)%NRR>1 .AND. HTURB /='NONE') &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XSRCM,PSRCM)
IF (CONF_MODEL(1)%NRR>1 .AND. HTURB /='NONE') &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XSRCT,PSRCT)
IF (CONF_MODEL(1)%NRR>1 .AND. HTURB /='NONE') &
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY,FIELD_MODEL(1)%XSIGS,PSIGS)
!
IF ( L2D_ADV_FRC ) THEN ! MT adding for ADVFRC
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY, &
ADVFRC_MODEL(1)%XDTHFRC,PDTHFRC)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY, &
ADVFRC_MODEL(1)%XDRVFRC,PDRVFRC)
ENDIF
IF (L2D_REL_FRC) THEN ! MT adding for REL FRC
WRITE(ILUOUT,FMT=*) 'SPAWN_FIELD2: Appel a BIKHARDT pour RELFRC'
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY, &
RELFRC_MODEL(1)%XTHREL,PTHREL)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY, &
RELFRC_MODEL(1)%XRVREL,PRVREL)
ENDIF
!
IF ( LUV_FLX) THEN ! MT adding for EDDY_FLUX
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY, &
EDDYUV_FLUX_MODEL(1)%XVU_FLUX_M,PVU_FLUX_M)
ENDIF
IF (LTH_FLX) THEN
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY, &
EDDY_FLUX_MODEL(1)%XVTH_FLUX_M,PVTH_FLUX_M)
CALL BIKHARDT (XBMX1,XBMX2,XBMX3,XBMX4,XBMY1,XBMY2,XBMY3,XBMY4, &
XBFX1,XBFX2,XBFX3,XBFX4,XBFY1,XBFY2,XBFY3,XBFY4, &
KXOR,KYOR,KXEND,KYEND,KDXRATIO,KDYRATIO,1, &
LBC_MODEL(1)%CLBCX,LBC_MODEL(1)%CLBCY, &
EDDY_FLUX_MODEL(1)%XWTH_FLUX_M,PWTH_FLUX_M)
ENDIF
!
END IF
!
IF (CONF_MODEL(1)%NRR>=3) THEN
WHERE (PRM(:,:,:,3)<1.E-20)
PRM(:,:,:,3)=0.
END WHERE
WHERE (PRT(:,:,:,3)<1.E-20)
PRT(:,:,:,3)=0.
END WHERE
END IF
!
!
!* 2.2.3 Informations from model SON1
! (LS fields are not treated because they are identical in the father file)
!
IF (PRESENT(HSONFILE)) THEN
YDIR='XY'
!
!variables which always exist
!
YRECFM='UM' ! U wind component at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
PUM(KIB2:KIE2,KJB2:KJE2,:) = ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='UT' ! U wind component at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
PUT(KIB2:KIE2,KJB2:KJE2,:) = ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='VM' ! V wind component at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
PVM(KIB2:KIE2,KJB2:KJE2,:) = ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='VT' ! V wind component at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
PVT(KIB2:KIE2,KJB2:KJE2,:) = ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='WM' ! W wind component at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
PWM(KIB2:KIE2,KJB2:KJE2,:) = ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='WT' ! W wind component at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
PWT(KIB2:KIE2,KJB2:KJE2,:) = ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
!
! moist variables
!
IRR=1
IF (IRR<=CONF_MODEL(1)%NRR) THEN
GUSERV=.TRUE.
YRECFM='RVM' ! Vapor at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRM1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='RVT' ! Vapor at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRT1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
IF(IRESP==0) IRR=IRR+1
END IF
IF (IRR<=CONF_MODEL(1)%NRR) THEN
YRECFM='RCM' ! Cloud at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRM1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='RCT' ! Cloud at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRT1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
IF(IRESP==0) IRR=IRR+1
END IF
IF (IRR<=CONF_MODEL(1)%NRR) THEN
YRECFM='RRM' ! Rain at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRM1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='RRT' ! Rain at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRT1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
IF(IRESP==0) IRR=IRR+1
END IF
IF (IRR<=CONF_MODEL(1)%NRR) THEN
YRECFM='RIM' ! Ice at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRM1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='RIT' ! Ice at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRT1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
IF(IRESP==0) IRR=IRR+1
END IF
IF (IRR<=CONF_MODEL(1)%NRR) THEN
YRECFM='RSM' ! Snow at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRM1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='RST' ! Snow at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRT1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
IF(IRESP==0) IRR=IRR+1
END IF
IF (IRR<=CONF_MODEL(1)%NRR) THEN
YRECFM='RGM' ! Graupel at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRM1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='RGT' ! Graupel at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRT1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
IF(IRESP==0) IRR=IRR+1
END IF
IF (IRR<=CONF_MODEL(1)%NRR) THEN
YRECFM='RHM' ! Hail at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRM1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='RHT' ! Hail at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) ZRT1(:,:,:,IRR)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
IF(IRESP==0) IRR=IRR+1
END IF
IRR=IRR-1
WRITE(ILUOUT,FMT=*) 'SPAWN_FIELD2: spawing with a SON input file'
WRITE(ILUOUT,FMT=*) ' ',CONF_MODEL(1)%NRR,' moist variables in model1 and model2, ', &
IRR,' moist variables in input SON'
YRECFM='THM' ! Theta at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
ZTHM1(:,:,:)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='THT' ! Theta at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
ZTHT1(:,:,:)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='PABSM' ! Pressure at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
ZPABSM1(:,:,:)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='PABST' ! Pressure at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
ZPABST1(:,:,:)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
!
CALL COMPUTE_THV_HU(GUSERV,ZRM1,ZTHM1,ZPABSM1,ZTHVM1,ZHUM1)
CALL COMPUTE_THV_HU(GUSERV,ZRT1,ZTHT1,ZPABST1,ZTHVT1,ZHUT1)
!
PTHVM(KIB2:KIE2,KJB2:KJE2,:) = ZTHVM1(:,:,:)
PTHVT(KIB2:KIE2,KJB2:KJE2,:) = ZTHVT1(:,:,:)
IF (CONF_MODEL(1)%NRR /= 0) THEN
PHUM(KIB2:KIE2,KJB2:KJE2,:) = ZHUM1(:,:,:)
PHUT(KIB2:KIE2,KJB2:KJE2,:) = ZHUT1(:,:,:)
PRM(KIB2:KIE2,KJB2:KJE2,:,:) = ZRM1(:,:,:,:)
PRT(KIB2:KIE2,KJB2:KJE2,:,:) = ZRT1(:,:,:,:)
END IF
!
! TKE variables
!
IF (HTURB/='NONE') THEN
YRECFM='TKEM' ! Turbulence Kinetic Energy at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) PTKEM(KIB2:KIE2,KJB2:KJE2,:)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='TKET' ! Turbulence Kinetic Energy at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) PTKET(KIB2:KIE2,KJB2:KJE2,:)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END IF
!
! Scalar variables
!
IF (NSV /= 0) THEN
DO JSV = 1, NSV_USER ! Users Scalar Variables
WRITE(YRECFM,'(A3,I3.3)')'SVM',JSV
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
WRITE(YRECFM,'(A3,I3.3)')'SVT',JSV
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_C2R2BEG,NSV_C2R2END ! C2R2 Scalar Variables
YRECFM=TRIM(C2R2NAMES(JSV-NSV_C2R2BEG+1))//'M'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM=TRIM(C2R2NAMES(JSV-NSV_C2R2BEG+1))//'T'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_ELECBEG,NSV_ELECEND ! ELEC Scalar Variables
YRECFM=TRIM(CELECNAMES(JSV-NSV_ELECBEG+1))//'M'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM=TRIM(CELECNAMES(JSV-NSV_ELECBEG+1))//'T'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_CHEMBEG,NSV_CHEMEND ! Chemical Scalar Variables
YRECFM=TRIM(CNAMES(JSV-NSV_CHEMBEG+1))//'M'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM=TRIM(CNAMES(JSV-NSV_CHEMBEG+1))//'T'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_CHICBEG,NSV_CHICEND ! Ice phase chemical Scalar Variables
YRECFM=TRIM(CICNAMES(JSV-NSV_CHICBEG+1))//'M'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM=TRIM(CICNAMES(JSV-NSV_CHICBEG+1))//'T'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_AERBEG,NSV_AEREND ! Orilam Scalar Variables
YRECFM=TRIM(UPCASE(CAERONAMES(JSV-NSV_AERBEG+1)))//'M'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM=TRIM(UPCASE(CAERONAMES(JSV-NSV_AERBEG+1)))//'T'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_DSTBEG,NSV_DSTEND ! Dust Scalar Variables
YRECFM=TRIM(CDUSTNAMES(JSV-NSV_DSTBEG+1))//'M'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM=TRIM(CDUSTNAMES(JSV-NSV_DSTBEG+1))//'T'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_SLTBEG,NSV_SLTEND ! Sea Salt Scalar Variables
YRECFM=TRIM(CSALTNAMES(JSV-NSV_SLTBEG+1))//'M'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM=TRIM(CSALTNAMES(JSV-NSV_SLTBEG+1))//'T'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_LGBEG,NSV_LGEND ! LG Scalar Variables
YRECFM=TRIM(CLGNAMES(JSV-NSV_LGBEG+1))//'M'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM=TRIM(CLGNAMES(JSV-NSV_LGBEG+1))//'T'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_PPBEG,NSV_PPEND ! Passive scalar variables
WRITE(YRECFM,'(A3,I3.3)')'SVM',JSV
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
WRITE(YRECFM,'(A3,I3.3)')'SVT',JSV
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = NSV_CSBEG,NSV_CSEND ! Passive scalar variables
WRITE(YRECFM,'(A3,I3.3)')'SVM',JSV
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVM(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
WRITE(YRECFM,'(A3,I3.3)')'SVT',JSV
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
IF(IRESP==0) PSVT(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
DO JSV = 1,NSV_PP ! Passive scalar variables
YRECFM='ATC'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP==0) PATC(KIB2:KIE2,KJB2:KJE2,:,JSV)=ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END DO
END IF
!
! Secondary pronostic variables
!
IF (HTURB /= 'NONE' .AND. IRR>1) THEN
YRECFM='SRCM' ! turbulent flux SRC at time t-dt
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF( IRESP /= 0 ) THEN
YRECFM='SRC'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
END IF
IF(IRESP == 0) PSRCM(KIB2:KIE2,KJB2:KJE2,:) = &
ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='SRCT' ! turbulent flux SRC at time t
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF( IRESP /= 0 ) THEN
YRECFM='SRC'
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH, &
YCOMMENT,IRESP)
END IF
IF(IRESP == 0) PSRCT(KIB2:KIE2,KJB2:KJE2,:) = &
ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
YRECFM='SIGS' ! subgrid condensation
CALL FMREAD(HSONFILE,YRECFM,CLUOUT,YDIR,ZWORK3D,IGRID,ILENCH,YCOMMENT,IRESP)
IF(IRESP == 0) PSIGS(KIB2:KIE2,KJB2:KJE2,:) = &
ZWORK3D(KIB1:KIE1,KJB1:KJE1,:)
END IF
IF (LUV_FLX .OR. LTH_FLX) THEN ! MT adding for ADVFRC
WRITE(ILUOUT,FMT=*) '****************************** WARNING ****************************'
WRITE(ILUOUT,FMT=*) 'SPAWN_FIELD2: spawning with a SON input file not forseen for EDDY_FLUX'
WRITE(ILUOUT,FMT=*) ' Do like the lecture in read_field.f90 if necessary'
WRITE(ILUOUT,FMT=*) '****************************** WARNING ****************************'
ENDIF
END IF
!
!* 2.2.4 secondary prognostic variables correction
!
IF (CONF_MODEL(1)%NRR > 1 .AND. HTURB /= 'NONE') PSRCM(:,:,:) = MIN( 1.0, MAX( 0.0, PSRCM(:,:,:)) )
IF (CONF_MODEL(1)%NRR > 1 .AND. HTURB /= 'NONE') PSRCT(:,:,:) = MIN( 1.0, MAX( 0.0, PSRCT(:,:,:)) )
!
IF ( CONF_MODEL(1)%NRR == 0 ) THEN
PHUM (:,:,:)= 0.
PHUT (:,:,:)= 0.
END IF
!-------------------------------------------------------------------------------
!
CALL GOTO_MODEL(IMI)
CONTAINS
!
SUBROUTINE COMPUTE_THV_HU(OUSERV,PR,PTH,PPABS,PTHV,PHU)
!
IMPLICIT NONE
!
!* 0.1 Declarations of dummy arguments :
!
LOGICAL, INTENT(IN) :: OUSERV
REAL, DIMENSION(:,:,:), INTENT(IN) :: PTH,PPABS
REAL, DIMENSION(:,:,:,:), INTENT(IN) :: PR
REAL, DIMENSION(:,:,:), INTENT(OUT) :: PTHV,PHU
!
!* 0.2 Declarations of local variables
!
REAL, DIMENSION(SIZE(PR,1),SIZE(PR,2),SIZE(PR,3)) :: ZSUMR ! sum of water ratios
!
IF (OUSERV) THEN
ZSUMR(:,:,:) = 0.
IRR=SIZE(PR,4)
DO JRR=1,IRR
ZSUMR(:,:,:) = ZSUMR(:,:,:) + PR(:,:,:,JRR)
END DO
PTHV(:,:,:)=PTH(:,:,:)*(1.+XRV/XRD*PR(:,:,:,1))/(1.+ZSUMR(:,:,:))
PHU (:,:,:)=100.*PPABS(:,:,:)/(XRD/XRV/MAX(PR(:,:,:,1),1.E-16)+1.) &
/SM_FOES(PTH(:,:,:)*(PPABS(:,:,:)/XP00)**(XRD/XCPD))
ELSE
PTHV(:,:,:)=PTH(:,:,:)
PHU (:,:,:)=0.
END IF
!
!
END SUBROUTINE COMPUTE_THV_HU
!
END SUBROUTINE SPAWN_FIELD2