C $Header: /u/gcmpack/MITgcm/pkg/atm_ocn_coupler/cpl_send_ocn_fields.F,v 1.7 2016/01/06 00:32:11 jmc Exp $
C $Name: $
#include "CPP_OPTIONS.h"
CBOP
C !ROUTINE: CPL_SEND_OCN_FIELDS
C !INTERFACE:
SUBROUTINE CPL_SEND_OCN_FIELDS( msgUnit, iter )
C !DESCRIPTION: \bv
C *==========================================================*
C | SUBROUTINE CPL_SEND_OCN_FIELDS
C | o Routine for sending surface flux to ocean component
C *==========================================================*
C | This version talks to the MITgcm general circulation
C | model.
C *==========================================================*
C \ev
C !USES:
IMPLICIT NONE
C == Global variables ==
#include "CPL_PARAMS.h"
#include "ATMSIZE.h"
#include "ATMVARS.h"
#include "OCNSIZE.h"
#include "OCNVARS.h"
#include "OCNIDS.h"
C !INPUT/OUTPUT PARAMETERS:
C msgUnit :: log-file I/O unit
C iter :: current iteration number
INTEGER msgUnit, iter
C !LOCAL VARIABLES:
_RL tmpFld(Nx_ocn,Ny_ocn)
CEOP
C-- Map Sea Level atmos. pressure onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, atmSLPr_atm, Nx_ocn, Ny_ocn,
O atmSLPr_ocn )
C Send Sea Level atmos. pressure to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnSLPrName,
I Nx_ocn, Ny_ocn, atmSLPr_ocn )
C-- Map heatflux onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, HeatFlux_atm, Nx_ocn, Ny_ocn,
O HeatFlux_ocn )
IF ( cpl_exchange_RunOff.GE.2 ) THEN
C Map Energy flux carried by RunOff onto ocean grid and substract it
C from previous (direct) FWFlux => total Heat-Flux = Qnet - EnRunOff
CALL ATM_TO_OCN_MAPRUNOFF(
I ROEnFx_atm,
O tmpFld,
U HeatFlux_ocn )
ENDIF
C Send (net) heatflux. to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnHeatFluxName,
I Nx_ocn, Ny_ocn, HeatFlux_ocn )
C-- Map net shortwave radiation onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, qShortWave_atm, Nx_ocn, Ny_ocn,
O qShortWave_ocn )
C Send net shortwave radiation to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnQshortWaveName,
I Nx_ocn, Ny_ocn, qShortWave_ocn )
C-- Map Zonal momentum flux onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, TauX_atm, Nx_ocn, Ny_ocn,
O TauX_ocn )
C Send Zonal momentum flux to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnTauXName,
I Nx_ocn, Ny_ocn, TauX_ocn )
C-- Map Meridional momentum flux onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, TauY_atm, Nx_ocn, Ny_ocn,
O TauY_ocn )
C Send Meridional momentum flux to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnTauYName,
I Nx_ocn, Ny_ocn, TauY_ocn )
C-- Map atmos. fresh water flux onto ocean grid : Evap - Precip
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, EvMPr_atm, Nx_ocn, Ny_ocn,
O FWFlux_ocn )
IF ( cpl_exchange_RunOff.GE.2 ) THEN
C Map atmos. runOff from land onto ocean grid and substract it
C from previous (direct) FWFlux => total FWFlux = E-P-R
CALL ATM_TO_OCN_MAPRUNOFF(
I RunOff_atm,
O RunOff_ocn,
U FWFlux_ocn )
ENDIF
C Send E-P-R to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnFWFluxName,
I Nx_ocn, Ny_ocn, FWFlux_ocn )
IF ( MOD(cpl_exchange1W_sIce,2).EQ.1 ) THEN
C-- Map salt flux from sea-ice compon. onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, SaltFlx_atm, Nx_ocn, Ny_ocn,
O SaltFlx_ocn )
C Send salt flux to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnSaltFxName,
I Nx_ocn, Ny_ocn, SaltFlx_ocn )
C-- Map sea-ice mass onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, sIceMass_atm, Nx_ocn, Ny_ocn,
O sIceMass_ocn )
C Send sea-ice mass to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnSIceMassName,
I Nx_ocn, Ny_ocn, sIceMass_ocn )
ENDIF
IF ( MOD(cpl_exchange_SaltPl,2).EQ.1 ) THEN
C-- Map Salt-Plume flux onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, saltPlmFlx_atm, Nx_ocn, Ny_ocn,
O saltPlmFlx_ocn )
C Send Salt-Plume flux to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnSaltPlmFlxName,
I Nx_ocn, Ny_ocn, saltPlmFlx_ocn )
ENDIF
IF ( MOD(cpl_exchange_RunOff,2).EQ.1 ) THEN
C Send Run-Off flux to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnRunOffName,
I Nx_ocn, Ny_ocn, RunOff_ocn )
ENDIF
IF ( MOD(cpl_exchange_DIC,2).EQ.1 ) THEN
C-- Map atmos CO2 onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, aCO2_atm, Nx_ocn, Ny_ocn,
O aCO2_ocn )
C Send atmos CO2 to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnAirCO2Name,
I Nx_ocn, Ny_ocn, aCO2_ocn )
C-- Map surface wind speed onto ocean grid
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, wSpeed_atm, Nx_ocn, Ny_ocn,
O wSpeed_ocn )
C Send surface windspeed to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnWindSpdName,
I Nx_ocn, Ny_ocn, wSpeed_ocn )
ENDIF
IF ( ( MOD(cpl_exchange1W_sIce,2).EQ.1
& .AND.MOD(cpl_exchange_DIC,2).EQ.1 )
& .OR. MOD(cpl_exchange2W_sIce,2).EQ.1 ) THEN
C-- Map seaice fraction from atmos. compon. onto ocean grid
IF ( ( cpl_exchange1W_sIce.GE.2
& .AND.cpl_exchange_DIC.GE.2 )
& .OR. cpl_exchange2W_sIce.GE.2 ) THEN
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, SIceFrac_atm, Nx_ocn, Ny_ocn,
O SIceFrac_ocn )
ENDIF
C Send sea-ice fraction to ocean component
CALL COUPSEND_R8TILES( ocnCompName, ocnSIceFracName,
I Nx_ocn, Ny_ocn, SIceFrac_ocn )
ENDIF
IF ( cpl_exchange2W_sIce.EQ.3 ) THEN
C-- Map other pkg/thsice fields onto ocean grid:
C Map seaice thickness
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, sIceThick_atm, Nx_ocn, Ny_ocn,
O sIceThick_ocn )
C Map snow thickness
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, sIceSnowH_atm, Nx_ocn, Ny_ocn,
O sIceSnowH_ocn )
C Map seaice enthalpy (layer 1)
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, sIceQ1_atm, Nx_ocn, Ny_ocn,
O sIceQ1_ocn )
C Map seaice enthalpy (layer 2)
CALL ATM_TO_OCN_MAPXYR8(
I Nx_atm, Ny_atm, sIceQ2_atm, Nx_ocn, Ny_ocn,
O sIceQ2_ocn )
ENDIF
IF ( MOD(cpl_exchange2W_sIce,2).EQ.1 ) THEN
C-- Map other pkg/thsice fields to ocean component:
C Send seaice thickness
CALL COUPSEND_R8TILES( ocnCompName, ocnSIceThickName,
I Nx_ocn, Ny_ocn, sIceThick_ocn )
C Send snow thickness
CALL COUPSEND_R8TILES( ocnCompName, ocnSIceSnowName,
I Nx_ocn, Ny_ocn, sIceSnowH_ocn )
C Send seaice enthalpy (layer 1)
CALL COUPSEND_R8TILES( ocnCompName, ocnSIceQ1Name,
I Nx_ocn, Ny_ocn, sIceQ1_ocn )
C Send seaice enthalpy (layer 2)
CALL COUPSEND_R8TILES( ocnCompName, ocnSIceQ2Name,
I Nx_ocn, Ny_ocn, sIceQ2_ocn )
ENDIF
RETURN
END