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C $Header: /u/gcmpack/MITgcm_contrib/torge/itd/code/seaice_growth.F,v 1.20 2013/05/03 20:09:15 torge Exp $ |
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C $Name: $ |
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|
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#include "SEAICE_OPTIONS.h" |
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#ifdef ALLOW_EXF |
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# include "EXF_OPTIONS.h" |
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#endif |
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|
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CBOP |
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C !ROUTINE: SEAICE_GROWTH |
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C !INTERFACE: |
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SUBROUTINE SEAICE_GROWTH( myTime, myIter, myThid ) |
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C !DESCRIPTION: \bv |
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C *==========================================================* |
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C | SUBROUTINE seaice_growth |
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C | o Updata ice thickness and snow depth |
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C *==========================================================* |
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C \ev |
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|
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C !USES: |
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IMPLICIT NONE |
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C === Global variables === |
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#include "SIZE.h" |
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#include "EEPARAMS.h" |
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#include "PARAMS.h" |
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#include "DYNVARS.h" |
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#include "GRID.h" |
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#include "FFIELDS.h" |
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#include "SEAICE_SIZE.h" |
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#include "SEAICE_PARAMS.h" |
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#include "SEAICE.h" |
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#include "SEAICE_TRACER.h" |
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#ifdef ALLOW_EXF |
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# include "EXF_PARAM.h" |
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# include "EXF_FIELDS.h" |
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#endif |
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#ifdef ALLOW_SALT_PLUME |
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# include "SALT_PLUME.h" |
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#endif |
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#ifdef ALLOW_AUTODIFF_TAMC |
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# include "tamc.h" |
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#endif |
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|
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C !INPUT/OUTPUT PARAMETERS: |
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C === Routine arguments === |
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C myTime :: Simulation time |
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C myIter :: Simulation timestep number |
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C myThid :: Thread no. that called this routine. |
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_RL myTime |
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INTEGER myIter, myThid |
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CEOP |
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|
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C !FUNCTIONS: |
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#ifdef ALLOW_DIAGNOSTICS |
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LOGICAL DIAGNOSTICS_IS_ON |
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EXTERNAL DIAGNOSTICS_IS_ON |
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#endif |
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|
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C !LOCAL VARIABLES: |
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C === Local variables === |
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C |
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C unit/sign convention: |
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C Within the thermodynamic computation all stocks, except HSNOW, |
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C are in 'effective ice meters' units, and >0 implies more ice. |
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C This holds for stocks due to ocean and atmosphere heat, |
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C at the outset of 'PART 2: determine heat fluxes/stocks' |
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C and until 'PART 7: determine ocean model forcing' |
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C This strategy minimizes the need for multiplications/divisions |
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C by ice fraction, heat capacity, etc. The only conversions that |
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C occurs are for the HSNOW (in effective snow meters) and |
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C PRECIP (fresh water m/s). |
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C |
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C HEFF is effective Hice thickness (m3/m2) |
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C HSNOW is Heffective snow thickness (m3/m2) |
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C HSALT is Heffective salt content (g/m2) |
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C AREA is the seaice cover fraction (0<=AREA<=1) |
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C Q denotes heat stocks -- converted to ice stocks (m3/m2) early on |
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C |
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C For all other stocks/increments, such as d_HEFFbyATMonOCN |
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C or a_QbyATM_cover, the naming convention is as follows: |
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C The prefix 'a_' means available, the prefix 'd_' means delta |
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C (i.e. increment), and the prefix 'r_' means residual. |
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C The suffix '_cover' denotes a value for the ice covered fraction |
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C of the grid cell, whereas '_open' is for the open water fraction. |
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C The main part of the name states what ice/snow stock is concerned |
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C (e.g. QbyATM or HEFF), and how it is affected (e.g. d_HEFFbyATMonOCN |
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C is the increment of HEFF due to the ATMosphere extracting heat from the |
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C OCeaN surface, or providing heat to the OCeaN surface). |
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|
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C i,j,bi,bj :: Loop counters |
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INTEGER i, j, bi, bj |
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C number of surface interface layer |
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INTEGER kSurface |
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C IT :: ice thickness category index (MULTICATEGORIES and ITD code) |
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INTEGER IT |
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C msgBuf :: Informational/error message buffer |
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#ifdef ALLOW_BALANCE_FLUXES |
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CHARACTER*(MAX_LEN_MBUF) msgBuf |
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#elif (defined (SEAICE_DEBUG)) |
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CHARACTER*(MAX_LEN_MBUF) msgBuf |
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CHARACTER*12 msgBufForm |
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#endif |
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C constants |
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_RL pFac |
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_RL tempFrz, ICE2SNOW, SNOW2ICE |
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_RL QI, QS, recip_QI |
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_RL lhSublim |
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|
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C conversion factors to go from Q (W/m2) to HEFF (ice meters) |
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_RL convertQ2HI, convertHI2Q |
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C conversion factors to go from precip (m/s) unit to HEFF (ice meters) |
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_RL convertPRECIP2HI, convertHI2PRECIP |
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C Factor by which we increase the upper ocean friction velocity (u*) when |
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C ice is absent in a grid cell (dimensionless) |
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_RL MixedLayerTurbulenceFactor |
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|
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C wind speed square |
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_RL SPEED_SQ |
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|
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C Regularization values squared |
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_RL area_reg_sq, hice_reg_sq |
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C pathological cases thresholds |
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_RL heffTooHeavy |
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|
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C Helper variables: reciprocal of some constants |
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_RL recip_multDim |
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_RL recip_deltaTtherm |
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_RL recip_rhoIce |
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C local value (=1/HO or 1/HO_south) |
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_RL recip_HO |
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C local value (=1/ice thickness) |
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_RL recip_HH |
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C facilitate multi-category snow implementation |
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_RL pFacSnow |
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|
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C temporary variables available for the various computations |
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_RL tmpscal0, tmpscal1, tmpscal2, tmpscal3, tmpscal4 |
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#ifdef SEAICE_ITD |
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_RL tmpscal1itd(1:sNx,1:sNy), tmpscal2itd(1:sNx,1:sNy) |
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_RL tmpscal3itd(1:sNx,1:sNy) |
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#endif |
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|
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#ifdef ALLOW_SITRACER |
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INTEGER iTr |
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#ifdef ALLOW_DIAGNOSTICS |
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CHARACTER*8 diagName |
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#endif |
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#endif /* ALLOW_SITRACER */ |
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#ifdef ALLOW_AUTODIFF_TAMC |
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INTEGER ilockey |
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#endif |
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|
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C== local arrays == |
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C-- TmixLoc :: ocean surface/mixed-layer temperature (in K) |
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_RL TmixLoc (1:sNx,1:sNy) |
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|
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C actual ice thickness (with upper and lower limit) |
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_RL heffActual (1:sNx,1:sNy) |
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C actual snow thickness |
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_RL hsnowActual (1:sNx,1:sNy) |
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C actual ice thickness (with lower limit only) Reciprocal |
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_RL recip_heffActual (1:sNx,1:sNy) |
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|
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C AREA_PRE :: hold sea-ice fraction field before any seaice-thermo update |
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_RL AREApreTH (1:sNx,1:sNy) |
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_RL HEFFpreTH (1:sNx,1:sNy) |
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_RL HSNWpreTH (1:sNx,1:sNy) |
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#ifdef SEAICE_ITD |
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_RL AREAITDpreTH (1:sNx,1:sNy,1:nITD) |
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_RL HEFFITDpreTH (1:sNx,1:sNy,1:nITD) |
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_RL HSNWITDpreTH (1:sNx,1:sNy,1:nITD) |
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_RL areaFracFactor (1:sNx,1:sNy,1:nITD) |
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#endif |
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|
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C wind speed |
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_RL UG (1:sNx,1:sNy) |
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|
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C temporary variables available for the various computations |
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_RL tmparr1 (1:sNx,1:sNy) |
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#ifdef SEAICE_VARIABLE_SALINITY |
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_RL saltFluxAdjust (1:sNx,1:sNy) |
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#endif |
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|
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_RL ticeInMult (1:sNx,1:sNy,MULTDIM) |
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_RL ticeOutMult (1:sNx,1:sNy,MULTDIM) |
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_RL heffActualMult (1:sNx,1:sNy,MULTDIM) |
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_RL hsnowActualMult (1:sNx,1:sNy,MULTDIM) |
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#ifdef SEAICE_ITD |
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_RL recip_heffActualMult(1:sNx,1:sNy,MULTDIM) |
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#endif |
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_RL a_QbyATMmult_cover (1:sNx,1:sNy,MULTDIM) |
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_RL a_QSWbyATMmult_cover(1:sNx,1:sNy,MULTDIM) |
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_RL a_FWbySublimMult (1:sNx,1:sNy,MULTDIM) |
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#ifdef SEAICE_ITD |
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_RL r_QbyATMmult_cover (1:sNx,1:sNy,MULTDIM) |
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_RL r_FWbySublimMult (1:sNx,1:sNy,MULTDIM) |
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c for lateral melt parameterization: |
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_RL latMeltFrac (1:sNx,1:sNy,MULTDIM) |
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_RL latMeltRate (1:sNx,1:sNy,MULTDIM) |
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_RL floeAlpha |
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_RL floeDiameter |
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_RL floeDiameterMin |
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_RL floeDiameterMax |
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#endif |
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|
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C a_QbyATM_cover :: available heat (in W/m^2) due to the interaction of |
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C the atmosphere and the ocean surface - for ice covered water |
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C a_QbyATM_open :: same but for open water |
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C r_QbyATM_cover :: residual of a_QbyATM_cover after freezing/melting processes |
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C r_QbyATM_open :: same but for open water |
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_RL a_QbyATM_cover (1:sNx,1:sNy) |
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_RL a_QbyATM_open (1:sNx,1:sNy) |
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_RL r_QbyATM_cover (1:sNx,1:sNy) |
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_RL r_QbyATM_open (1:sNx,1:sNy) |
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C a_QSWbyATM_open - short wave heat flux over ocean in W/m^2 |
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C a_QSWbyATM_cover - short wave heat flux under ice in W/m^2 |
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_RL a_QSWbyATM_open (1:sNx,1:sNy) |
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_RL a_QSWbyATM_cover (1:sNx,1:sNy) |
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C a_QbyOCN :: available heat (in W/m^2) due to the |
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C interaction of the ice pack and the ocean surface |
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C r_QbyOCN :: residual of a_QbyOCN after freezing/melting |
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C processes have been accounted for |
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_RL a_QbyOCN (1:sNx,1:sNy) |
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_RL r_QbyOCN (1:sNx,1:sNy) |
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|
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C The change of mean ice thickness due to out-of-bounds values following |
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C sea ice dyhnamics |
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_RL d_HEFFbyNEG (1:sNx,1:sNy) |
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|
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C The change of mean ice thickness due to turbulent ocean-sea ice heat fluxes |
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_RL d_HEFFbyOCNonICE (1:sNx,1:sNy) |
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|
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C The sum of mean ice thickness increments due to atmospheric fluxes over |
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C the open water fraction and ice-covered fractions of the grid cell |
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_RL d_HEFFbyATMonOCN (1:sNx,1:sNy) |
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C The change of mean ice thickness due to flooding by snow |
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_RL d_HEFFbyFLOODING (1:sNx,1:sNy) |
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|
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C The mean ice thickness increments due to atmospheric fluxes over the open |
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C water fraction and ice-covered fractions of the grid cell, respectively |
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_RL d_HEFFbyATMonOCN_open(1:sNx,1:sNy) |
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_RL d_HEFFbyATMonOCN_cover(1:sNx,1:sNy) |
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|
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_RL d_HSNWbyNEG (1:sNx,1:sNy) |
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_RL d_HSNWbyATMonSNW (1:sNx,1:sNy) |
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_RL d_HSNWbyOCNonSNW (1:sNx,1:sNy) |
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_RL d_HSNWbyRAIN (1:sNx,1:sNy) |
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|
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_RL d_HFRWbyRAIN (1:sNx,1:sNy) |
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|
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C a_FWbySublim :: fresh water flux implied by latent heat of |
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C sublimation to atmosphere, same sign convention |
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C as EVAP (positive upward) |
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_RL a_FWbySublim (1:sNx,1:sNy) |
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_RL r_FWbySublim (1:sNx,1:sNy) |
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_RL d_HEFFbySublim (1:sNx,1:sNy) |
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_RL d_HSNWbySublim (1:sNx,1:sNy) |
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|
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#ifdef SEAICE_CAP_SUBLIM |
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C The latent heat flux which will sublimate all snow and ice |
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C over one time step |
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_RL latentHeatFluxMax (1:sNx,1:sNy) |
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_RL latentHeatFluxMaxMult(1:sNx,1:sNy,MULTDIM) |
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#endif |
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|
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#ifdef EXF_ALLOW_SEAICE_RELAX |
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C ICE/SNOW stocks tendency associated with relaxation towards observation |
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_RL d_AREAbyRLX (1:sNx,1:sNy) |
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C The change of mean ice thickness due to relaxation |
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_RL d_HEFFbyRLX (1:sNx,1:sNy) |
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#endif |
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|
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#ifdef SEAICE_ITD |
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_RL d_HEFFbySublim_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HSNWbySublim_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HEFFbyOCNonICE_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HSNWbyATMonSNW_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HEFFbyATMonOCN_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HEFFbyATMonOCN_cover_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HEFFbyATMonOCN_open_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HSNWbyRAIN_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HSNWbyOCNonSNW_ITD (1:sNx,1:sNy,1:nITD) |
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_RL d_HEFFbyFLOODING_ITD (1:sNx,1:sNy,1:nITD) |
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#endif |
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|
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#ifdef ALLOW_DIAGNOSTICS |
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C ICE/SNOW stocks tendencies associated with the various melt/freeze processes |
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_RL d_AREAbyATM (1:sNx,1:sNy) |
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_RL d_AREAbyOCN (1:sNx,1:sNy) |
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_RL d_AREAbyICE (1:sNx,1:sNy) |
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C Helper variables for diagnostics |
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_RL DIAGarrayA (1:sNx,1:sNy) |
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_RL DIAGarrayB (1:sNx,1:sNy) |
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_RL DIAGarrayC (1:sNx,1:sNy) |
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_RL DIAGarrayD (1:sNx,1:sNy) |
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#endif /* ALLOW_DIAGNOSTICS */ |
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|
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_RL SItflux (1-OLx:sNx+OLx,1-OLy:sNy+OLy,nSx,nSy) |
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_RL SIatmQnt (1-OLx:sNx+OLx,1-OLy:sNy+OLy,nSx,nSy) |
| 300 |
_RL SIatmFW (1-OLx:sNx+OLx,1-OLy:sNy+OLy,nSx,nSy) |
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#ifdef ALLOW_BALANCE_FLUXES |
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_RL FWFsiTile(nSx,nSy) |
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_RL FWFsiGlob |
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_RL HFsiTile(nSx,nSy) |
| 305 |
_RL HFsiGlob |
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_RL FWF2HFsiTile(nSx,nSy) |
| 307 |
_RL FWF2HFsiGlob |
| 308 |
#endif |
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|
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C---+----1----+----2----+----3----+----4----+----5----+----6----+----7-|--+----| |
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|
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C =================================================================== |
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C =================PART 0: constants and initializations============= |
| 314 |
C =================================================================== |
| 315 |
|
| 316 |
IF ( buoyancyRelation .EQ. 'OCEANICP' ) THEN |
| 317 |
kSurface = Nr |
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ELSE |
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kSurface = 1 |
| 320 |
ENDIF |
| 321 |
|
| 322 |
C avoid unnecessary divisions in loops |
| 323 |
recip_multDim = SEAICE_multDim |
| 324 |
recip_multDim = ONE / recip_multDim |
| 325 |
C above/below: double/single precision calculation of recip_multDim |
| 326 |
c recip_multDim = 1./float(SEAICE_multDim) |
| 327 |
recip_deltaTtherm = ONE / SEAICE_deltaTtherm |
| 328 |
recip_rhoIce = ONE / SEAICE_rhoIce |
| 329 |
|
| 330 |
C Cutoff for iceload |
| 331 |
heffTooHeavy=drF(kSurface) / 5. _d 0 |
| 332 |
|
| 333 |
C RATIO OF SEA ICE DENSITY to SNOW DENSITY |
| 334 |
ICE2SNOW = SEAICE_rhoIce/SEAICE_rhoSnow |
| 335 |
SNOW2ICE = ONE / ICE2SNOW |
| 336 |
|
| 337 |
C HEAT OF FUSION OF ICE (J/m^3) |
| 338 |
QI = SEAICE_rhoIce*SEAICE_lhFusion |
| 339 |
recip_QI = ONE / QI |
| 340 |
C HEAT OF FUSION OF SNOW (J/m^3) |
| 341 |
QS = SEAICE_rhoSnow*SEAICE_lhFusion |
| 342 |
|
| 343 |
C ICE LATENT HEAT CONSTANT |
| 344 |
lhSublim = SEAICE_lhEvap + SEAICE_lhFusion |
| 345 |
|
| 346 |
C regularization constants |
| 347 |
area_reg_sq = SEAICE_area_reg * SEAICE_area_reg |
| 348 |
hice_reg_sq = SEAICE_hice_reg * SEAICE_hice_reg |
| 349 |
|
| 350 |
C conversion factors to go from Q (W/m2) to HEFF (ice meters) |
| 351 |
convertQ2HI=SEAICE_deltaTtherm/QI |
| 352 |
convertHI2Q = ONE/convertQ2HI |
| 353 |
C conversion factors to go from precip (m/s) unit to HEFF (ice meters) |
| 354 |
convertPRECIP2HI=SEAICE_deltaTtherm*rhoConstFresh/SEAICE_rhoIce |
| 355 |
convertHI2PRECIP = ONE/convertPRECIP2HI |
| 356 |
#ifdef SEAICE_ITD |
| 357 |
c constants for lateral melt parameterization: |
| 358 |
c following Steele (1992), Equ. 2 |
| 359 |
floeAlpha = 0.66 _d 0 |
| 360 |
c typical mean diameter used in CICE 4.1: |
| 361 |
c (this is currently computed as a function of ice concentration |
| 362 |
c following a suggestion by Luepkes at al. (2012)) |
| 363 |
c floeDiameter = 300. _d 0 |
| 364 |
c parameters needed for variable floe diameter following Luepkes et al. (2012): |
| 365 |
floeDiameterMin = 8. _d 0 |
| 366 |
floeDiameterMax = 300. _d 0 |
| 367 |
#endif |
| 368 |
|
| 369 |
DO bj=myByLo(myThid),myByHi(myThid) |
| 370 |
DO bi=myBxLo(myThid),myBxHi(myThid) |
| 371 |
|
| 372 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 373 |
act1 = bi - myBxLo(myThid) |
| 374 |
max1 = myBxHi(myThid) - myBxLo(myThid) + 1 |
| 375 |
act2 = bj - myByLo(myThid) |
| 376 |
max2 = myByHi(myThid) - myByLo(myThid) + 1 |
| 377 |
act3 = myThid - 1 |
| 378 |
max3 = nTx*nTy |
| 379 |
act4 = ikey_dynamics - 1 |
| 380 |
iicekey = (act1 + 1) + act2*max1 |
| 381 |
& + act3*max1*max2 |
| 382 |
& + act4*max1*max2*max3 |
| 383 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 384 |
|
| 385 |
C array initializations |
| 386 |
C ===================== |
| 387 |
|
| 388 |
DO J=1,sNy |
| 389 |
DO I=1,sNx |
| 390 |
a_QbyATM_cover (I,J) = 0.0 _d 0 |
| 391 |
a_QbyATM_open(I,J) = 0.0 _d 0 |
| 392 |
r_QbyATM_cover (I,J) = 0.0 _d 0 |
| 393 |
r_QbyATM_open (I,J) = 0.0 _d 0 |
| 394 |
|
| 395 |
a_QSWbyATM_open (I,J) = 0.0 _d 0 |
| 396 |
a_QSWbyATM_cover (I,J) = 0.0 _d 0 |
| 397 |
|
| 398 |
a_QbyOCN (I,J) = 0.0 _d 0 |
| 399 |
r_QbyOCN (I,J) = 0.0 _d 0 |
| 400 |
|
| 401 |
#ifdef ALLOW_DIAGNOSTICS |
| 402 |
d_AREAbyATM(I,J) = 0.0 _d 0 |
| 403 |
d_AREAbyICE(I,J) = 0.0 _d 0 |
| 404 |
d_AREAbyOCN(I,J) = 0.0 _d 0 |
| 405 |
#endif |
| 406 |
|
| 407 |
#ifdef EXF_ALLOW_SEAICE_RELAX |
| 408 |
d_AREAbyRLX(I,J) = 0.0 _d 0 |
| 409 |
d_HEFFbyRLX(I,J) = 0.0 _d 0 |
| 410 |
#endif |
| 411 |
|
| 412 |
d_HEFFbyNEG(I,J) = 0.0 _d 0 |
| 413 |
d_HEFFbyOCNonICE(I,J) = 0.0 _d 0 |
| 414 |
d_HEFFbyATMonOCN(I,J) = 0.0 _d 0 |
| 415 |
d_HEFFbyFLOODING(I,J) = 0.0 _d 0 |
| 416 |
|
| 417 |
d_HEFFbyATMonOCN_open(I,J) = 0.0 _d 0 |
| 418 |
d_HEFFbyATMonOCN_cover(I,J) = 0.0 _d 0 |
| 419 |
|
| 420 |
d_HSNWbyNEG(I,J) = 0.0 _d 0 |
| 421 |
d_HSNWbyATMonSNW(I,J) = 0.0 _d 0 |
| 422 |
d_HSNWbyOCNonSNW(I,J) = 0.0 _d 0 |
| 423 |
d_HSNWbyRAIN(I,J) = 0.0 _d 0 |
| 424 |
a_FWbySublim(I,J) = 0.0 _d 0 |
| 425 |
r_FWbySublim(I,J) = 0.0 _d 0 |
| 426 |
d_HEFFbySublim(I,J) = 0.0 _d 0 |
| 427 |
d_HSNWbySublim(I,J) = 0.0 _d 0 |
| 428 |
#ifdef SEAICE_CAP_SUBLIM |
| 429 |
latentHeatFluxMax(I,J) = 0.0 _d 0 |
| 430 |
#endif |
| 431 |
d_HFRWbyRAIN(I,J) = 0.0 _d 0 |
| 432 |
tmparr1(I,J) = 0.0 _d 0 |
| 433 |
#ifdef SEAICE_VARIABLE_SALINITY |
| 434 |
saltFluxAdjust(I,J) = 0.0 _d 0 |
| 435 |
#endif |
| 436 |
DO IT=1,SEAICE_multDim |
| 437 |
ticeInMult(I,J,IT) = 0.0 _d 0 |
| 438 |
ticeOutMult(I,J,IT) = 0.0 _d 0 |
| 439 |
a_QbyATMmult_cover(I,J,IT) = 0.0 _d 0 |
| 440 |
a_QSWbyATMmult_cover(I,J,IT) = 0.0 _d 0 |
| 441 |
a_FWbySublimMult(I,J,IT) = 0.0 _d 0 |
| 442 |
#ifdef SEAICE_CAP_SUBLIM |
| 443 |
latentHeatFluxMaxMult(I,J,IT) = 0.0 _d 0 |
| 444 |
#endif |
| 445 |
#ifdef SEAICE_ITD |
| 446 |
d_HEFFbySublim_ITD(I,J,IT) = 0.0 _d 0 |
| 447 |
d_HSNWbySublim_ITD(I,J,IT) = 0.0 _d 0 |
| 448 |
d_HEFFbyOCNonICE_ITD(I,J,IT) = 0.0 _d 0 |
| 449 |
d_HSNWbyATMonSNW_ITD(I,J,IT) = 0.0 _d 0 |
| 450 |
d_HEFFbyATMonOCN_ITD(I,J,IT) = 0.0 _d 0 |
| 451 |
d_HEFFbyATMonOCN_cover_ITD(I,J,IT) = 0.0 _d 0 |
| 452 |
d_HEFFbyATMonOCN_open_ITD(I,J,IT) = 0.0 _d 0 |
| 453 |
d_HSNWbyRAIN_ITD(I,J,IT) = 0.0 _d 0 |
| 454 |
d_HSNWbyOCNonSNW_ITD(I,J,IT) = 0.0 _d 0 |
| 455 |
d_HEFFbyFLOODING_ITD(I,J,IT) = 0.0 _d 0 |
| 456 |
r_QbyATMmult_cover(I,J,IT) = 0.0 _d 0 |
| 457 |
r_FWbySublimMult(I,J,IT) = 0.0 _d 0 |
| 458 |
c for lateral melt parameterization: |
| 459 |
latMeltFrac(I,J,IT) = 0.0 _d 0 |
| 460 |
latMeltRate(I,J,IT) = 0.0 _d 0 |
| 461 |
#endif |
| 462 |
ENDDO |
| 463 |
ENDDO |
| 464 |
ENDDO |
| 465 |
#if (defined (ALLOW_MEAN_SFLUX_COST_CONTRIBUTION) || defined (ALLOW_SSH_GLOBMEAN_COST_CONTRIBUTION)) |
| 466 |
DO J=1-oLy,sNy+oLy |
| 467 |
DO I=1-oLx,sNx+oLx |
| 468 |
frWtrAtm(I,J,bi,bj) = 0.0 _d 0 |
| 469 |
ENDDO |
| 470 |
ENDDO |
| 471 |
#endif |
| 472 |
|
| 473 |
C ===================================================================== |
| 474 |
C ===========PART 1: treat pathological cases (post advdiff)=========== |
| 475 |
C ===================================================================== |
| 476 |
|
| 477 |
#if (defined ALLOW_AUTODIFF_TAMC && defined SEAICE_MODIFY_GROWTH_ADJ) |
| 478 |
Cgf no dependency through pathological cases treatment |
| 479 |
IF ( SEAICEadjMODE.EQ.0 ) THEN |
| 480 |
#endif |
| 481 |
|
| 482 |
#ifdef EXF_ALLOW_SEAICE_RELAX |
| 483 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 484 |
CADJ STORE area(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 485 |
C 0) relax sea ice concentration towards observation |
| 486 |
IF (SEAICE_tauAreaObsRelax .GT. 0.) THEN |
| 487 |
DO J=1,sNy |
| 488 |
DO I=1,sNx |
| 489 |
C d_AREAbyRLX(i,j) = 0. _d 0 |
| 490 |
C d_HEFFbyRLX(i,j) = 0. _d 0 |
| 491 |
IF ( obsSIce(I,J,bi,bj).GT.AREA(I,J,bi,bj)) THEN |
| 492 |
d_AREAbyRLX(i,j) = |
| 493 |
& SEAICE_deltaTtherm/SEAICE_tauAreaObsRelax |
| 494 |
& * (obsSIce(I,J,bi,bj) - AREA(I,J,bi,bj)) |
| 495 |
ENDIF |
| 496 |
IF ( obsSIce(I,J,bi,bj).GT.0. _d 0 .AND. |
| 497 |
& AREA(I,J,bi,bj).EQ.0. _d 0) THEN |
| 498 |
C d_HEFFbyRLX(i,j) = 1. _d 1 * siEps * d_AREAbyRLX(i,j) |
| 499 |
d_HEFFbyRLX(i,j) = 1. _d 1 * siEps |
| 500 |
ENDIF |
| 501 |
#ifdef SEAICE_ITD |
| 502 |
AREAITD(I,J,1,bi,bj) = AREAITD(I,J,1,bi,bj) |
| 503 |
& + d_AREAbyRLX(i,j) |
| 504 |
HEFFITD(I,J,1,bi,bj) = HEFFITD(I,J,1,bi,bj) |
| 505 |
& + d_HEFFbyRLX(i,j) |
| 506 |
#endif |
| 507 |
AREA(I,J,bi,bj) = AREA(I,J,bi,bj) + d_AREAbyRLX(i,j) |
| 508 |
HEFF(I,J,bi,bj) = HEFF(I,J,bi,bj) + d_HEFFbyRLX(i,j) |
| 509 |
ENDDO |
| 510 |
ENDDO |
| 511 |
ENDIF |
| 512 |
#endif /* EXF_ALLOW_SEAICE_RELAX */ |
| 513 |
|
| 514 |
C 1) treat the case of negative values: |
| 515 |
|
| 516 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 517 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 518 |
CADJ STORE hsnow(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 519 |
CADJ STORE area(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 520 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 521 |
#ifdef SEAICE_ITD |
| 522 |
DO IT=1,nITD |
| 523 |
#endif |
| 524 |
DO J=1,sNy |
| 525 |
DO I=1,sNx |
| 526 |
#ifdef SEAICE_ITD |
| 527 |
tmpscal2=0. _d 0 |
| 528 |
tmpscal3=0. _d 0 |
| 529 |
tmpscal2=MAX(-HEFFITD(I,J,IT,bi,bj),0. _d 0) |
| 530 |
HEFFITD(I,J,IT,bi,bj)=HEFFITD(I,J,IT,bi,bj)+tmpscal2 |
| 531 |
d_HEFFbyNEG(I,J)=d_HEFFbyNEG(I,J)+tmpscal2 |
| 532 |
tmpscal3=MAX(-HSNOWITD(I,J,IT,bi,bj),0. _d 0) |
| 533 |
HSNOWITD(I,J,IT,bi,bj)=HSNOWITD(I,J,IT,bi,bj)+tmpscal3 |
| 534 |
d_HSNWbyNEG(I,J)=d_HSNWbyNEG(I,J)+tmpscal3 |
| 535 |
AREAITD(I,J,IT,bi,bj)=MAX(AREAITD(I,J,IT,bi,bj),0. _d 0) |
| 536 |
C AREA, HEFF, and HSNOW will be updated at end of PART 1 |
| 537 |
C by calling SEAICE_ITD_SUM |
| 538 |
#else |
| 539 |
d_HEFFbyNEG(I,J)=MAX(-HEFF(I,J,bi,bj),0. _d 0) |
| 540 |
HEFF(I,J,bi,bj)=HEFF(I,J,bi,bj)+d_HEFFbyNEG(I,J) |
| 541 |
d_HSNWbyNEG(I,J)=MAX(-HSNOW(I,J,bi,bj),0. _d 0) |
| 542 |
HSNOW(I,J,bi,bj)=HSNOW(I,J,bi,bj)+d_HSNWbyNEG(I,J) |
| 543 |
AREA(I,J,bi,bj)=MAX(AREA(I,J,bi,bj),0. _d 0) |
| 544 |
#endif |
| 545 |
ENDDO |
| 546 |
ENDDO |
| 547 |
#ifdef SEAICE_ITD |
| 548 |
ENDDO |
| 549 |
#endif |
| 550 |
|
| 551 |
C 1.25) treat the case of very thin ice: |
| 552 |
|
| 553 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 554 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 555 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 556 |
#ifdef SEAICE_ITD |
| 557 |
DO IT=1,nITD |
| 558 |
#endif |
| 559 |
DO J=1,sNy |
| 560 |
DO I=1,sNx |
| 561 |
tmpscal2=0. _d 0 |
| 562 |
tmpscal3=0. _d 0 |
| 563 |
#ifdef SEAICE_ITD |
| 564 |
IF (HEFFITD(I,J,IT,bi,bj).LE.siEps) THEN |
| 565 |
tmpscal2=-HEFFITD(I,J,IT,bi,bj) |
| 566 |
tmpscal3=-HSNOWITD(I,J,IT,bi,bj) |
| 567 |
TICES(I,J,IT,bi,bj)=celsius2K |
| 568 |
C TICE will be updated at end of Part 1 together with AREA and HEFF |
| 569 |
ENDIF |
| 570 |
HEFFITD(I,J,IT,bi,bj) =HEFFITD(I,J,IT,bi,bj) +tmpscal2 |
| 571 |
HSNOWITD(I,J,IT,bi,bj)=HSNOWITD(I,J,IT,bi,bj)+tmpscal3 |
| 572 |
#else |
| 573 |
IF (HEFF(I,J,bi,bj).LE.siEps) THEN |
| 574 |
tmpscal2=-HEFF(I,J,bi,bj) |
| 575 |
tmpscal3=-HSNOW(I,J,bi,bj) |
| 576 |
TICE(I,J,bi,bj)=celsius2K |
| 577 |
DO IT=1,SEAICE_multDim |
| 578 |
TICES(I,J,IT,bi,bj)=celsius2K |
| 579 |
ENDDO |
| 580 |
ENDIF |
| 581 |
HEFF(I,J,bi,bj)=HEFF(I,J,bi,bj)+tmpscal2 |
| 582 |
HSNOW(I,J,bi,bj)=HSNOW(I,J,bi,bj)+tmpscal3 |
| 583 |
#endif |
| 584 |
d_HEFFbyNEG(I,J)=d_HEFFbyNEG(I,J)+tmpscal2 |
| 585 |
d_HSNWbyNEG(I,J)=d_HSNWbyNEG(I,J)+tmpscal3 |
| 586 |
ENDDO |
| 587 |
ENDDO |
| 588 |
#ifdef SEAICE_ITD |
| 589 |
ENDDO |
| 590 |
#endif |
| 591 |
|
| 592 |
C 1.5) treat the case of area but no ice/snow: |
| 593 |
|
| 594 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 595 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 596 |
CADJ STORE hsnow(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 597 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 598 |
#ifdef SEAICE_ITD |
| 599 |
DO IT=1,nITD |
| 600 |
#endif |
| 601 |
DO J=1,sNy |
| 602 |
DO I=1,sNx |
| 603 |
#ifdef SEAICE_ITD |
| 604 |
IF ((HEFFITD(I,J,IT,bi,bj).EQ.0. _d 0).AND. |
| 605 |
& (HSNOWITD(I,J,IT,bi,bj).EQ.0. _d 0)) |
| 606 |
& AREAITD(I,J,IT,bi,bj)=0. _d 0 |
| 607 |
#else |
| 608 |
IF ((HEFF(i,j,bi,bj).EQ.0. _d 0).AND. |
| 609 |
& (HSNOW(i,j,bi,bj).EQ.0. _d 0)) AREA(I,J,bi,bj)=0. _d 0 |
| 610 |
#endif |
| 611 |
ENDDO |
| 612 |
ENDDO |
| 613 |
#ifdef SEAICE_ITD |
| 614 |
ENDDO |
| 615 |
#endif |
| 616 |
|
| 617 |
C 2) treat the case of very small area: |
| 618 |
|
| 619 |
#ifndef DISABLE_AREA_FLOOR |
| 620 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 621 |
CADJ STORE area(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 622 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 623 |
#ifdef SEAICE_ITD |
| 624 |
DO IT=1,nITD |
| 625 |
#endif |
| 626 |
DO J=1,sNy |
| 627 |
DO I=1,sNx |
| 628 |
#ifdef SEAICE_ITD |
| 629 |
IF ((HEFFITD(I,J,IT,bi,bj).GT.0).OR. |
| 630 |
& (HSNOWITD(I,J,IT,bi,bj).GT.0)) THEN |
| 631 |
C SEAICE_area_floor*nITD cannot be allowed to exceed 1 |
| 632 |
C hence use SEAICE_area_floor devided by nITD |
| 633 |
C (or install a warning in e.g. seaice_readparms.F) |
| 634 |
AREAITD(I,J,IT,bi,bj)= |
| 635 |
& MAX(AREAITD(I,J,IT,bi,bj),SEAICE_area_floor/float(nITD)) |
| 636 |
ENDIF |
| 637 |
#else |
| 638 |
IF ((HEFF(i,j,bi,bj).GT.0).OR.(HSNOW(i,j,bi,bj).GT.0)) THEN |
| 639 |
AREA(I,J,bi,bj)=MAX(AREA(I,J,bi,bj),SEAICE_area_floor) |
| 640 |
ENDIF |
| 641 |
#endif |
| 642 |
ENDDO |
| 643 |
ENDDO |
| 644 |
#ifdef SEAICE_ITD |
| 645 |
ENDDO |
| 646 |
#endif |
| 647 |
#endif /* DISABLE_AREA_FLOOR */ |
| 648 |
|
| 649 |
C 2.5) treat case of excessive ice cover, e.g., due to ridging: |
| 650 |
|
| 651 |
C for SEAICE_ITD this case is treated in SEAICE_ITD_REDIST, |
| 652 |
C which is called at end of PART 1 below |
| 653 |
#ifndef SEAICE_ITD |
| 654 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 655 |
CADJ STORE area(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 656 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 657 |
DO J=1,sNy |
| 658 |
DO I=1,sNx |
| 659 |
#ifdef ALLOW_DIAGNOSTICS |
| 660 |
DIAGarrayA(I,J) = AREA(I,J,bi,bj) |
| 661 |
#endif |
| 662 |
#ifdef ALLOW_SITRACER |
| 663 |
SItrAREA(I,J,bi,bj,1)=AREA(I,J,bi,bj) |
| 664 |
#endif |
| 665 |
AREA(I,J,bi,bj)=MIN(AREA(I,J,bi,bj),SEAICE_area_max) |
| 666 |
ENDDO |
| 667 |
ENDDO |
| 668 |
#endif /* notSEAICE_ITD */ |
| 669 |
|
| 670 |
#ifdef SEAICE_ITD |
| 671 |
C catch up with items 1.25 and 2.5 involving category sums AREA and HEFF |
| 672 |
DO IT=1,nITD |
| 673 |
DO J=1,sNy |
| 674 |
DO I=1,sNx |
| 675 |
C TICES was changed above (item 1.25), now update TICE as ice volume |
| 676 |
C weighted average of TICES |
| 677 |
C also compute total of AREAITD (needed for finishing item 2.5, see below) |
| 678 |
IF (IT .eq. 1) THEN |
| 679 |
tmpscal1itd(i,j) = 0. _d 0 |
| 680 |
tmpscal2itd(i,j) = 0. _d 0 |
| 681 |
tmpscal3itd(i,j) = 0. _d 0 |
| 682 |
ENDIF |
| 683 |
tmpscal1itd(i,j)=tmpscal1itd(i,j) + TICES(I,J,IT,bi,bj) |
| 684 |
& * HEFFITD(I,J,IT,bi,bj) |
| 685 |
tmpscal2itd(i,j)=tmpscal2itd(i,j) + HEFFITD(I,J,IT,bi,bj) |
| 686 |
tmpscal3itd(i,j)=tmpscal3itd(i,j) + AREAITD(I,J,IT,bi,bj) |
| 687 |
IF (IT .eq. nITD) THEN |
| 688 |
TICE(I,J,bi,bj)=tmpscal1itd(i,j)/tmpscal2itd(i,j) |
| 689 |
C lines of item 2.5 that were omitted: |
| 690 |
C in 2.5 these lines are executed before "ridging" is applied to AREA |
| 691 |
C hence we execute them here before SEAICE_ITD_REDIST is called |
| 692 |
C although this means that AREA has not been completely regularized |
| 693 |
#ifdef ALLOW_DIAGNOSTICS |
| 694 |
DIAGarrayA(I,J) = tmpscal3itd(i,j) |
| 695 |
#endif |
| 696 |
#ifdef ALLOW_SITRACER |
| 697 |
SItrAREA(I,J,bi,bj,1)=tmpscal3itd(i,j) |
| 698 |
#endif |
| 699 |
ENDIF |
| 700 |
ENDDO |
| 701 |
ENDDO |
| 702 |
ENDDO |
| 703 |
|
| 704 |
C finally make sure that all categories meet their thickness limits |
| 705 |
C which includes ridging as in item 2.5 |
| 706 |
C and update AREA, HEFF, and HSNOW |
| 707 |
CALL SEAICE_ITD_REDIST(bi, bj, myTime, myIter, myThid) |
| 708 |
CALL SEAICE_ITD_SUM(bi, bj, myTime, myIter, myThid) |
| 709 |
#endif /* SEAICE_ITD */ |
| 710 |
|
| 711 |
#if (defined ALLOW_AUTODIFF_TAMC && defined SEAICE_MODIFY_GROWTH_ADJ) |
| 712 |
C end SEAICEadjMODE.EQ.0 statement: |
| 713 |
ENDIF |
| 714 |
#endif |
| 715 |
|
| 716 |
C 3) store regularized values of heff, hsnow, area at the onset of thermo. |
| 717 |
DO J=1,sNy |
| 718 |
DO I=1,sNx |
| 719 |
HEFFpreTH(I,J)=HEFF(I,J,bi,bj) |
| 720 |
HSNWpreTH(I,J)=HSNOW(I,J,bi,bj) |
| 721 |
AREApreTH(I,J)=AREA(I,J,bi,bj) |
| 722 |
#ifdef ALLOW_DIAGNOSTICS |
| 723 |
DIAGarrayB(I,J) = AREA(I,J,bi,bj) |
| 724 |
DIAGarrayC(I,J) = HEFF(I,J,bi,bj) |
| 725 |
DIAGarrayD(I,J) = HSNOW(I,J,bi,bj) |
| 726 |
#endif |
| 727 |
#ifdef ALLOW_SITRACER |
| 728 |
SItrHEFF(I,J,bi,bj,1)=HEFF(I,J,bi,bj) |
| 729 |
SItrAREA(I,J,bi,bj,2)=AREA(I,J,bi,bj) |
| 730 |
#endif |
| 731 |
ENDDO |
| 732 |
ENDDO |
| 733 |
#ifdef SEAICE_ITD |
| 734 |
DO IT=1,nITD |
| 735 |
DO J=1,sNy |
| 736 |
DO I=1,sNx |
| 737 |
HEFFITDpreTH(I,J,IT)=HEFFITD(I,J,IT,bi,bj) |
| 738 |
HSNWITDpreTH(I,J,IT)=HSNOWITD(I,J,IT,bi,bj) |
| 739 |
AREAITDpreTH(I,J,IT)=AREAITD(I,J,IT,bi,bj) |
| 740 |
|
| 741 |
C memorize areal and volume fraction of each ITD category |
| 742 |
IF (AREA(I,J,bi,bj) .GT. ZERO) THEN |
| 743 |
areaFracFactor(I,J,IT)=AREAITD(I,J,IT,bi,bj)/AREA(I,J,bi,bj) |
| 744 |
ELSE |
| 745 |
C if there is no ice, potential growth starts in 1st category |
| 746 |
IF (IT .EQ. 1) THEN |
| 747 |
areaFracFactor(I,J,IT)=ONE |
| 748 |
ELSE |
| 749 |
areaFracFactor(I,J,IT)=ZERO |
| 750 |
ENDIF |
| 751 |
ENDIF |
| 752 |
ENDDO |
| 753 |
ENDDO |
| 754 |
ENDDO |
| 755 |
#ifdef ALLOW_SITRACER |
| 756 |
C prepare SItrHEFF to be computed as cumulative sum |
| 757 |
DO iTr=2,5 |
| 758 |
DO J=1,sNy |
| 759 |
DO I=1,sNx |
| 760 |
SItrHEFF(I,J,bi,bj,iTr)=ZERO |
| 761 |
ENDDO |
| 762 |
ENDDO |
| 763 |
ENDDO |
| 764 |
C prepare SItrAREA to be computed as cumulative sum |
| 765 |
DO J=1,sNy |
| 766 |
DO I=1,sNx |
| 767 |
SItrAREA(I,J,bi,bj,3)=ZERO |
| 768 |
ENDDO |
| 769 |
ENDDO |
| 770 |
#endif |
| 771 |
#endif /* SEAICE_ITD */ |
| 772 |
|
| 773 |
C 4) treat sea ice salinity pathological cases |
| 774 |
#ifdef SEAICE_VARIABLE_SALINITY |
| 775 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 776 |
CADJ STORE hsalt(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 777 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 778 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 779 |
DO J=1,sNy |
| 780 |
DO I=1,sNx |
| 781 |
IF ( (HSALT(I,J,bi,bj) .LT. 0.0).OR. |
| 782 |
& (HEFF(I,J,bi,bj) .EQ. 0.0) ) THEN |
| 783 |
saltFluxAdjust(I,J) = - HEFFM(I,J,bi,bj) * |
| 784 |
& HSALT(I,J,bi,bj) * recip_deltaTtherm |
| 785 |
HSALT(I,J,bi,bj) = 0.0 _d 0 |
| 786 |
ENDIF |
| 787 |
ENDDO |
| 788 |
ENDDO |
| 789 |
#endif /* SEAICE_VARIABLE_SALINITY */ |
| 790 |
|
| 791 |
#ifdef ALLOW_DIAGNOSTICS |
| 792 |
IF ( useDiagnostics ) THEN |
| 793 |
CALL DIAGNOSTICS_FILL(DIAGarrayA,'SIareaPR',0,1,3,bi,bj,myThid) |
| 794 |
CALL DIAGNOSTICS_FILL(DIAGarrayB,'SIareaPT',0,1,3,bi,bj,myThid) |
| 795 |
CALL DIAGNOSTICS_FILL(DIAGarrayC,'SIheffPT',0,1,3,bi,bj,myThid) |
| 796 |
CALL DIAGNOSTICS_FILL(DIAGarrayD,'SIhsnoPT',0,1,3,bi,bj,myThid) |
| 797 |
#ifdef ALLOW_SITRACER |
| 798 |
DO iTr = 1, SItrNumInUse |
| 799 |
WRITE(diagName,'(A4,I2.2,A2)') 'SItr',iTr,'PT' |
| 800 |
IF (SItrMate(iTr).EQ.'HEFF') THEN |
| 801 |
CALL DIAGNOSTICS_FRACT_FILL( |
| 802 |
I SItracer(1-OLx,1-OLy,bi,bj,iTr),HEFF(1-OLx,1-OLy,bi,bj), |
| 803 |
I ONE, 1, diagName,0,1,2,bi,bj,myThid ) |
| 804 |
ELSE |
| 805 |
CALL DIAGNOSTICS_FRACT_FILL( |
| 806 |
I SItracer(1-OLx,1-OLy,bi,bj,iTr),AREA(1-OLx,1-OLy,bi,bj), |
| 807 |
I ONE, 1, diagName,0,1,2,bi,bj,myThid ) |
| 808 |
ENDIF |
| 809 |
ENDDO |
| 810 |
#endif /* ALLOW_SITRACER */ |
| 811 |
ENDIF |
| 812 |
#endif /* ALLOW_DIAGNOSTICS */ |
| 813 |
|
| 814 |
#if (defined ALLOW_AUTODIFF_TAMC && defined SEAICE_MODIFY_GROWTH_ADJ) |
| 815 |
Cgf no additional dependency of air-sea fluxes to ice |
| 816 |
IF ( SEAICEadjMODE.GE.1 ) THEN |
| 817 |
DO J=1,sNy |
| 818 |
DO I=1,sNx |
| 819 |
HEFFpreTH(I,J) = 0. _d 0 |
| 820 |
HSNWpreTH(I,J) = 0. _d 0 |
| 821 |
AREApreTH(I,J) = 0. _d 0 |
| 822 |
ENDDO |
| 823 |
ENDDO |
| 824 |
#ifdef SEAICE_ITD |
| 825 |
DO IT=1,nITD |
| 826 |
DO J=1,sNy |
| 827 |
DO I=1,sNx |
| 828 |
HEFFITDpreTH(I,J,IT) = 0. _d 0 |
| 829 |
HSNWITDpreTH(I,J,IT) = 0. _d 0 |
| 830 |
AREAITDpreTH(I,J,IT) = 0. _d 0 |
| 831 |
ENDDO |
| 832 |
ENDDO |
| 833 |
ENDDO |
| 834 |
#endif |
| 835 |
ENDIF |
| 836 |
#endif |
| 837 |
|
| 838 |
#if (defined (ALLOW_MEAN_SFLUX_COST_CONTRIBUTION) || defined (ALLOW_SSH_GLOBMEAN_COST_CONTRIBUTION)) |
| 839 |
DO J=1,sNy |
| 840 |
DO I=1,sNx |
| 841 |
AREAforAtmFW(I,J,bi,bj) = AREApreTH(I,J) |
| 842 |
ENDDO |
| 843 |
ENDDO |
| 844 |
#endif |
| 845 |
|
| 846 |
C 4) COMPUTE ACTUAL ICE/SNOW THICKNESS; USE MIN/MAX VALUES |
| 847 |
C TO REGULARIZE SEAICE_SOLVE4TEMP/d_AREA COMPUTATIONS |
| 848 |
|
| 849 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 850 |
CADJ STORE AREApreTH = comlev1_bibj, key = iicekey, byte = isbyte |
| 851 |
CADJ STORE HEFFpreTH = comlev1_bibj, key = iicekey, byte = isbyte |
| 852 |
CADJ STORE HSNWpreTH = comlev1_bibj, key = iicekey, byte = isbyte |
| 853 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 854 |
#ifdef SEAICE_ITD |
| 855 |
DO IT=1,nITD |
| 856 |
#endif |
| 857 |
DO J=1,sNy |
| 858 |
DO I=1,sNx |
| 859 |
|
| 860 |
#ifdef SEAICE_ITD |
| 861 |
IF (HEFFITDpreTH(I,J,IT) .GT. ZERO) THEN |
| 862 |
cif regularize AREA with SEAICE_area_reg |
| 863 |
tmpscal1 = SQRT(AREAITDpreTH(I,J,IT) * AREAITDpreTH(I,J,IT) |
| 864 |
& + area_reg_sq) |
| 865 |
cif heffActual calculated with the regularized AREA |
| 866 |
tmpscal2 = HEFFITDpreTH(I,J,IT) / tmpscal1 |
| 867 |
cif regularize heffActual with SEAICE_hice_reg (add lower bound) |
| 868 |
heffActualMult(I,J,IT) = SQRT(tmpscal2 * tmpscal2 |
| 869 |
& + hice_reg_sq) |
| 870 |
cif hsnowActual calculated with the regularized AREA |
| 871 |
hsnowActualMult(I,J,IT) = HSNWITDpreTH(I,J,IT) / tmpscal1 |
| 872 |
cif regularize the inverse of heffActual by hice_reg |
| 873 |
recip_heffActualMult(I,J,IT) = AREAITDpreTH(I,J,IT) / |
| 874 |
& sqrt(HEFFITDpreTH(I,J,IT) * HEFFITDpreTH(I,J,IT) |
| 875 |
& + hice_reg_sq) |
| 876 |
cif Do not regularize when HEFFpreTH = 0 |
| 877 |
ELSE |
| 878 |
heffActualMult(I,J,IT) = ZERO |
| 879 |
hsnowActualMult(I,J,IT) = ZERO |
| 880 |
recip_heffActualMult(I,J,IT) = ZERO |
| 881 |
ENDIF |
| 882 |
#else /* SEAICE_ITD */ |
| 883 |
IF (HEFFpreTH(I,J) .GT. ZERO) THEN |
| 884 |
Cif regularize AREA with SEAICE_area_reg |
| 885 |
tmpscal1 = SQRT(AREApreTH(I,J)* AREApreTH(I,J) + area_reg_sq) |
| 886 |
Cif heffActual calculated with the regularized AREA |
| 887 |
tmpscal2 = HEFFpreTH(I,J) / tmpscal1 |
| 888 |
Cif regularize heffActual with SEAICE_hice_reg (add lower bound) |
| 889 |
heffActual(I,J) = SQRT(tmpscal2 * tmpscal2 + hice_reg_sq) |
| 890 |
Cif hsnowActual calculated with the regularized AREA |
| 891 |
hsnowActual(I,J) = HSNWpreTH(I,J) / tmpscal1 |
| 892 |
Cif regularize the inverse of heffActual by hice_reg |
| 893 |
recip_heffActual(I,J) = AREApreTH(I,J) / |
| 894 |
& sqrt(HEFFpreTH(I,J)*HEFFpreTH(I,J) + hice_reg_sq) |
| 895 |
Cif Do not regularize when HEFFpreTH = 0 |
| 896 |
ELSE |
| 897 |
heffActual(I,J) = ZERO |
| 898 |
hsnowActual(I,J) = ZERO |
| 899 |
recip_heffActual(I,J) = ZERO |
| 900 |
ENDIF |
| 901 |
#endif /* SEAICE_ITD */ |
| 902 |
|
| 903 |
ENDDO |
| 904 |
ENDDO |
| 905 |
#ifdef SEAICE_ITD |
| 906 |
ENDDO |
| 907 |
#endif |
| 908 |
|
| 909 |
#if (defined ALLOW_AUTODIFF_TAMC && defined SEAICE_MODIFY_GROWTH_ADJ) |
| 910 |
CALL ZERO_ADJ_1D( sNx*sNy, heffActual, myThid) |
| 911 |
CALL ZERO_ADJ_1D( sNx*sNy, hsnowActual, myThid) |
| 912 |
CALL ZERO_ADJ_1D( sNx*sNy, recip_heffActual, myThid) |
| 913 |
#endif |
| 914 |
|
| 915 |
#ifdef SEAICE_CAP_SUBLIM |
| 916 |
C 5) COMPUTE MAXIMUM LATENT HEAT FLUXES FOR THE CURRENT ICE |
| 917 |
C AND SNOW THICKNESS |
| 918 |
#ifdef SEAICE_ITD |
| 919 |
DO IT=1,nITD |
| 920 |
#endif |
| 921 |
DO J=1,sNy |
| 922 |
DO I=1,sNx |
| 923 |
C The latent heat flux over the sea ice which |
| 924 |
C will sublimate all of the snow and ice over one time |
| 925 |
C step (W/m^2) |
| 926 |
#ifdef SEAICE_ITD |
| 927 |
IF (HEFFITDpreTH(I,J,IT) .GT. ZERO) THEN |
| 928 |
latentHeatFluxMaxMult(I,J,IT) = lhSublim*recip_deltaTtherm * |
| 929 |
& (HEFFITDpreTH(I,J,IT)*SEAICE_rhoIce + |
| 930 |
& HSNWITDpreTH(I,J,IT)*SEAICE_rhoSnow) |
| 931 |
& /AREAITDpreTH(I,J,IT) |
| 932 |
ELSE |
| 933 |
latentHeatFluxMaxMult(I,J,IT) = ZERO |
| 934 |
ENDIF |
| 935 |
#else |
| 936 |
IF (HEFFpreTH(I,J) .GT. ZERO) THEN |
| 937 |
latentHeatFluxMax(I,J) = lhSublim * recip_deltaTtherm * |
| 938 |
& (HEFFpreTH(I,J) * SEAICE_rhoIce + |
| 939 |
& HSNWpreTH(I,J) * SEAICE_rhoSnow)/AREApreTH(I,J) |
| 940 |
ELSE |
| 941 |
latentHeatFluxMax(I,J) = ZERO |
| 942 |
ENDIF |
| 943 |
#endif |
| 944 |
ENDDO |
| 945 |
ENDDO |
| 946 |
#ifdef SEAICE_ITD |
| 947 |
ENDDO |
| 948 |
#endif |
| 949 |
#endif /* SEAICE_CAP_SUBLIM */ |
| 950 |
|
| 951 |
C =================================================================== |
| 952 |
C ================PART 2: determine heat fluxes/stocks=============== |
| 953 |
C =================================================================== |
| 954 |
|
| 955 |
C determine available heat due to the atmosphere -- for open water |
| 956 |
C ================================================================ |
| 957 |
|
| 958 |
DO j=1,sNy |
| 959 |
DO i=1,sNx |
| 960 |
C ocean surface/mixed layer temperature |
| 961 |
TmixLoc(i,j) = theta(i,j,kSurface,bi,bj)+celsius2K |
| 962 |
C wind speed from exf |
| 963 |
UG(I,J) = MAX(SEAICE_EPS,wspeed(I,J,bi,bj)) |
| 964 |
ENDDO |
| 965 |
ENDDO |
| 966 |
|
| 967 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 968 |
CADJ STORE qnet(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 969 |
CADJ STORE qsw(:,:,bi,bj) = comlev1_bibj, key = iicekey,byte=isbyte |
| 970 |
cCADJ STORE UG = comlev1_bibj, key = iicekey,byte=isbyte |
| 971 |
cCADJ STORE TmixLoc = comlev1_bibj, key = iicekey,byte=isbyte |
| 972 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 973 |
|
| 974 |
CALL SEAICE_BUDGET_OCEAN( |
| 975 |
I UG, |
| 976 |
I TmixLoc, |
| 977 |
O a_QbyATM_open, a_QSWbyATM_open, |
| 978 |
I bi, bj, myTime, myIter, myThid ) |
| 979 |
|
| 980 |
C determine available heat due to the atmosphere -- for ice covered water |
| 981 |
C ======================================================================= |
| 982 |
|
| 983 |
IF (useRelativeWind.AND.useAtmWind) THEN |
| 984 |
C Compute relative wind speed over sea ice. |
| 985 |
DO J=1,sNy |
| 986 |
DO I=1,sNx |
| 987 |
SPEED_SQ = |
| 988 |
& (uWind(I,J,bi,bj) |
| 989 |
& +0.5 _d 0*(uVel(i,j,kSurface,bi,bj) |
| 990 |
& +uVel(i+1,j,kSurface,bi,bj)) |
| 991 |
& -0.5 _d 0*(uice(i,j,bi,bj)+uice(i+1,j,bi,bj)))**2 |
| 992 |
& +(vWind(I,J,bi,bj) |
| 993 |
& +0.5 _d 0*(vVel(i,j,kSurface,bi,bj) |
| 994 |
& +vVel(i,j+1,kSurface,bi,bj)) |
| 995 |
& -0.5 _d 0*(vice(i,j,bi,bj)+vice(i,j+1,bi,bj)))**2 |
| 996 |
IF ( SPEED_SQ .LE. SEAICE_EPS_SQ ) THEN |
| 997 |
UG(I,J)=SEAICE_EPS |
| 998 |
ELSE |
| 999 |
UG(I,J)=SQRT(SPEED_SQ) |
| 1000 |
ENDIF |
| 1001 |
ENDDO |
| 1002 |
ENDDO |
| 1003 |
ENDIF |
| 1004 |
|
| 1005 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1006 |
CADJ STORE tice(:,:,bi,bj) |
| 1007 |
CADJ & = comlev1_bibj, key = iicekey, byte = isbyte |
| 1008 |
CADJ STORE hsnowActual = comlev1_bibj, key = iicekey, byte = isbyte |
| 1009 |
CADJ STORE heffActual = comlev1_bibj, key = iicekey, byte = isbyte |
| 1010 |
CADJ STORE UG = comlev1_bibj, key = iicekey, byte = isbyte |
| 1011 |
CADJ STORE tices(:,:,:,bi,bj) |
| 1012 |
CADJ & = comlev1_bibj, key = iicekey, byte = isbyte |
| 1013 |
CADJ STORE salt(:,:,kSurface,bi,bj) = comlev1_bibj, |
| 1014 |
CADJ & key = iicekey, byte = isbyte |
| 1015 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1016 |
|
| 1017 |
C-- Start loop over multi-categories |
| 1018 |
#ifdef SEAICE_ITD |
| 1019 |
DO IT=1,nITD |
| 1020 |
DO J=1,sNy |
| 1021 |
DO I=1,sNx |
| 1022 |
C for SEAICE_ITD heffActualMult and latentHeatFluxMaxMult are calculated above |
| 1023 |
C (instead of heffActual and latentHeatFluxMax) |
| 1024 |
ticeInMult(I,J,IT)=TICES(I,J,IT,bi,bj) |
| 1025 |
ticeOutMult(I,J,IT)=TICES(I,J,IT,bi,bj) |
| 1026 |
TICE(I,J,bi,bj) = ZERO |
| 1027 |
TICES(I,J,IT,bi,bj) = ZERO |
| 1028 |
ENDDO |
| 1029 |
ENDDO |
| 1030 |
ENDDO |
| 1031 |
#else |
| 1032 |
DO IT=1,SEAICE_multDim |
| 1033 |
C homogeneous distribution between 0 and 2 x heffActual |
| 1034 |
pFac = (2.0 _d 0*IT - 1.0 _d 0)*recip_multDim |
| 1035 |
pFacSnow = 1. _d 0 |
| 1036 |
IF ( SEAICE_useMultDimSnow ) pFacSnow=pFac |
| 1037 |
DO J=1,sNy |
| 1038 |
DO I=1,sNx |
| 1039 |
heffActualMult(I,J,IT)= heffActual(I,J)*pFac |
| 1040 |
hsnowActualMult(I,J,IT)=hsnowActual(I,J)*pFacSnow |
| 1041 |
#ifdef SEAICE_CAP_SUBLIM |
| 1042 |
latentHeatFluxMaxMult(I,J,IT) = latentHeatFluxMax(I,J)*pFac |
| 1043 |
#endif |
| 1044 |
ticeInMult(I,J,IT)=TICES(I,J,IT,bi,bj) |
| 1045 |
ticeOutMult(I,J,IT)=TICES(I,J,IT,bi,bj) |
| 1046 |
TICE(I,J,bi,bj) = ZERO |
| 1047 |
TICES(I,J,IT,bi,bj) = ZERO |
| 1048 |
ENDDO |
| 1049 |
ENDDO |
| 1050 |
ENDDO |
| 1051 |
#endif |
| 1052 |
|
| 1053 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1054 |
CADJ STORE heffActualMult = comlev1_bibj, key = iicekey, byte = isbyte |
| 1055 |
CADJ STORE hsnowActualMult= comlev1_bibj, key = iicekey, byte = isbyte |
| 1056 |
CADJ STORE ticeInMult = comlev1_bibj, key = iicekey, byte = isbyte |
| 1057 |
# ifdef SEAICE_CAP_SUBLIM |
| 1058 |
CADJ STORE latentHeatFluxMaxMult |
| 1059 |
CADJ & = comlev1_bibj, key = iicekey, byte = isbyte |
| 1060 |
# endif |
| 1061 |
CADJ STORE a_QbyATMmult_cover = |
| 1062 |
CADJ & comlev1_bibj, key = iicekey, byte = isbyte |
| 1063 |
CADJ STORE a_QSWbyATMmult_cover = |
| 1064 |
CADJ & comlev1_bibj, key = iicekey, byte = isbyte |
| 1065 |
CADJ STORE a_FWbySublimMult = |
| 1066 |
CADJ & comlev1_bibj, key = iicekey, byte = isbyte |
| 1067 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1068 |
|
| 1069 |
DO IT=1,SEAICE_multDim |
| 1070 |
CALL SEAICE_SOLVE4TEMP( |
| 1071 |
I UG, heffActualMult(1,1,IT), hsnowActualMult(1,1,IT), |
| 1072 |
#ifdef SEAICE_CAP_SUBLIM |
| 1073 |
I latentHeatFluxMaxMult(1,1,IT), |
| 1074 |
#endif |
| 1075 |
U ticeInMult(1,1,IT), ticeOutMult(1,1,IT), |
| 1076 |
O a_QbyATMmult_cover(1,1,IT), |
| 1077 |
O a_QSWbyATMmult_cover(1,1,IT), |
| 1078 |
O a_FWbySublimMult(1,1,IT), |
| 1079 |
I bi, bj, myTime, myIter, myThid ) |
| 1080 |
ENDDO |
| 1081 |
|
| 1082 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1083 |
CADJ STORE heffActualMult = comlev1_bibj, key = iicekey, byte = isbyte |
| 1084 |
CADJ STORE hsnowActualMult= comlev1_bibj, key = iicekey, byte = isbyte |
| 1085 |
CADJ STORE ticeOutMult = comlev1_bibj, key = iicekey, byte = isbyte |
| 1086 |
# ifdef SEAICE_CAP_SUBLIM |
| 1087 |
CADJ STORE latentHeatFluxMaxMult |
| 1088 |
CADJ & = comlev1_bibj, key = iicekey, byte = isbyte |
| 1089 |
# endif |
| 1090 |
CADJ STORE a_QbyATMmult_cover = |
| 1091 |
CADJ & comlev1_bibj, key = iicekey, byte = isbyte |
| 1092 |
CADJ STORE a_QSWbyATMmult_cover = |
| 1093 |
CADJ & comlev1_bibj, key = iicekey, byte = isbyte |
| 1094 |
CADJ STORE a_FWbySublimMult = |
| 1095 |
CADJ & comlev1_bibj, key = iicekey, byte = isbyte |
| 1096 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1097 |
|
| 1098 |
DO IT=1,SEAICE_multDim |
| 1099 |
DO J=1,sNy |
| 1100 |
DO I=1,sNx |
| 1101 |
C update TICE & TICES |
| 1102 |
#ifdef SEAICE_ITD |
| 1103 |
C calculate area weighted mean |
| 1104 |
C (although the ice temperature relates to its energy content |
| 1105 |
C and hence should be averaged weighted by ice volume, |
| 1106 |
C the temperature here is a result of the fluxes through the ice surface |
| 1107 |
C computed individually for each single category in SEAICE_SOLVE4TEMP |
| 1108 |
C and hence is averaged area weighted [areaFracFactor]) |
| 1109 |
TICE(I,J,bi,bj) = TICE(I,J,bi,bj) |
| 1110 |
& + ticeOutMult(I,J,IT)*areaFracFactor(I,J,IT) |
| 1111 |
#else |
| 1112 |
TICE(I,J,bi,bj) = TICE(I,J,bi,bj) |
| 1113 |
& + ticeOutMult(I,J,IT)*recip_multDim |
| 1114 |
#endif |
| 1115 |
TICES(I,J,IT,bi,bj) = ticeOutMult(I,J,IT) |
| 1116 |
C average over categories |
| 1117 |
#ifdef SEAICE_ITD |
| 1118 |
C calculate area weighted mean |
| 1119 |
C (fluxes are per unit (ice surface) area and are thus area weighted) |
| 1120 |
a_QbyATM_cover (I,J) = a_QbyATM_cover(I,J) |
| 1121 |
& + a_QbyATMmult_cover(I,J,IT)*areaFracFactor(I,J,IT) |
| 1122 |
a_QSWbyATM_cover (I,J) = a_QSWbyATM_cover(I,J) |
| 1123 |
& + a_QSWbyATMmult_cover(I,J,IT)*areaFracFactor(I,J,IT) |
| 1124 |
a_FWbySublim (I,J) = a_FWbySublim(I,J) |
| 1125 |
& + a_FWbySublimMult(I,J,IT)*areaFracFactor(I,J,IT) |
| 1126 |
#else |
| 1127 |
a_QbyATM_cover (I,J) = a_QbyATM_cover(I,J) |
| 1128 |
& + a_QbyATMmult_cover(I,J,IT)*recip_multDim |
| 1129 |
a_QSWbyATM_cover (I,J) = a_QSWbyATM_cover(I,J) |
| 1130 |
& + a_QSWbyATMmult_cover(I,J,IT)*recip_multDim |
| 1131 |
a_FWbySublim (I,J) = a_FWbySublim(I,J) |
| 1132 |
& + a_FWbySublimMult(I,J,IT)*recip_multDim |
| 1133 |
#endif |
| 1134 |
ENDDO |
| 1135 |
ENDDO |
| 1136 |
ENDDO |
| 1137 |
|
| 1138 |
#ifdef SEAICE_CAP_SUBLIM |
| 1139 |
# ifdef ALLOW_DIAGNOSTICS |
| 1140 |
DO J=1,sNy |
| 1141 |
DO I=1,sNx |
| 1142 |
C The actual latent heat flux realized by SOLVE4TEMP |
| 1143 |
DIAGarrayA(I,J) = a_FWbySublim(I,J) * lhSublim |
| 1144 |
ENDDO |
| 1145 |
ENDDO |
| 1146 |
Cif The actual vs. maximum latent heat flux |
| 1147 |
IF ( useDiagnostics ) THEN |
| 1148 |
CALL DIAGNOSTICS_FILL(DIAGarrayA, |
| 1149 |
& 'SIactLHF',0,1,3,bi,bj,myThid) |
| 1150 |
CALL DIAGNOSTICS_FILL(latentHeatFluxMax, |
| 1151 |
& 'SImaxLHF',0,1,3,bi,bj,myThid) |
| 1152 |
ENDIF |
| 1153 |
# endif /* ALLOW_DIAGNOSTICS */ |
| 1154 |
#endif /* SEAICE_CAP_SUBLIM */ |
| 1155 |
|
| 1156 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1157 |
CADJ STORE AREApreTH = comlev1_bibj, key = iicekey, byte = isbyte |
| 1158 |
CADJ STORE a_QbyATM_cover = comlev1_bibj, key = iicekey, byte = isbyte |
| 1159 |
CADJ STORE a_QSWbyATM_cover= comlev1_bibj, key = iicekey, byte = isbyte |
| 1160 |
CADJ STORE a_QbyATM_open = comlev1_bibj, key = iicekey, byte = isbyte |
| 1161 |
CADJ STORE a_QSWbyATM_open = comlev1_bibj, key = iicekey, byte = isbyte |
| 1162 |
CADJ STORE a_FWbySublim = comlev1_bibj, key = iicekey, byte = isbyte |
| 1163 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1164 |
|
| 1165 |
C switch heat fluxes from W/m2 to 'effective' ice meters |
| 1166 |
#ifdef SEAICE_ITD |
| 1167 |
DO IT=1,nITD |
| 1168 |
DO J=1,sNy |
| 1169 |
DO I=1,sNx |
| 1170 |
a_QbyATMmult_cover(I,J,IT) = a_QbyATMmult_cover(I,J,IT) |
| 1171 |
& * convertQ2HI * AREAITDpreTH(I,J,IT) |
| 1172 |
a_QSWbyATMmult_cover(I,J,IT) = a_QSWbyATMmult_cover(I,J,IT) |
| 1173 |
& * convertQ2HI * AREAITDpreTH(I,J,IT) |
| 1174 |
C and initialize r_QbyATMmult_cover |
| 1175 |
r_QbyATMmult_cover(I,J,IT)=a_QbyATMmult_cover(I,J,IT) |
| 1176 |
C Convert fresh water flux by sublimation to 'effective' ice meters. |
| 1177 |
C Negative sublimation is resublimation and will be added as snow. |
| 1178 |
#ifdef SEAICE_DISABLE_SUBLIM |
| 1179 |
a_FWbySublimMult(I,J,IT) = ZERO |
| 1180 |
#endif |
| 1181 |
a_FWbySublimMult(I,J,IT) = SEAICE_deltaTtherm*recip_rhoIce |
| 1182 |
& * a_FWbySublimMult(I,J,IT)*AREAITDpreTH(I,J,IT) |
| 1183 |
r_FWbySublimMult(I,J,IT)=a_FWbySublimMult(I,J,IT) |
| 1184 |
ENDDO |
| 1185 |
ENDDO |
| 1186 |
ENDDO |
| 1187 |
DO J=1,sNy |
| 1188 |
DO I=1,sNx |
| 1189 |
a_QbyATM_open(I,J) = a_QbyATM_open(I,J) |
| 1190 |
& * convertQ2HI * ( ONE - AREApreTH(I,J) ) |
| 1191 |
a_QSWbyATM_open(I,J) = a_QSWbyATM_open(I,J) |
| 1192 |
& * convertQ2HI * ( ONE - AREApreTH(I,J) ) |
| 1193 |
C and initialize r_QbyATM_open |
| 1194 |
r_QbyATM_open(I,J)=a_QbyATM_open(I,J) |
| 1195 |
ENDDO |
| 1196 |
ENDDO |
| 1197 |
#else /* SEAICE_ITD */ |
| 1198 |
DO J=1,sNy |
| 1199 |
DO I=1,sNx |
| 1200 |
a_QbyATM_cover(I,J) = a_QbyATM_cover(I,J) |
| 1201 |
& * convertQ2HI * AREApreTH(I,J) |
| 1202 |
a_QSWbyATM_cover(I,J) = a_QSWbyATM_cover(I,J) |
| 1203 |
& * convertQ2HI * AREApreTH(I,J) |
| 1204 |
a_QbyATM_open(I,J) = a_QbyATM_open(I,J) |
| 1205 |
& * convertQ2HI * ( ONE - AREApreTH(I,J) ) |
| 1206 |
a_QSWbyATM_open(I,J) = a_QSWbyATM_open(I,J) |
| 1207 |
& * convertQ2HI * ( ONE - AREApreTH(I,J) ) |
| 1208 |
C and initialize r_QbyATM_cover/r_QbyATM_open |
| 1209 |
r_QbyATM_cover(I,J)=a_QbyATM_cover(I,J) |
| 1210 |
r_QbyATM_open(I,J)=a_QbyATM_open(I,J) |
| 1211 |
C Convert fresh water flux by sublimation to 'effective' ice meters. |
| 1212 |
C Negative sublimation is resublimation and will be added as snow. |
| 1213 |
#ifdef SEAICE_DISABLE_SUBLIM |
| 1214 |
Cgf just for those who may need to omit this term to reproduce old results |
| 1215 |
a_FWbySublim(I,J) = ZERO |
| 1216 |
#endif /* SEAICE_DISABLE_SUBLIM */ |
| 1217 |
a_FWbySublim(I,J) = SEAICE_deltaTtherm*recip_rhoIce |
| 1218 |
& * a_FWbySublim(I,J)*AREApreTH(I,J) |
| 1219 |
r_FWbySublim(I,J)=a_FWbySublim(I,J) |
| 1220 |
ENDDO |
| 1221 |
ENDDO |
| 1222 |
#endif /* SEAICE_ITD */ |
| 1223 |
|
| 1224 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1225 |
CADJ STORE AREApreTH = comlev1_bibj, key = iicekey, byte = isbyte |
| 1226 |
CADJ STORE a_QbyATM_cover = comlev1_bibj, key = iicekey, byte = isbyte |
| 1227 |
CADJ STORE a_QSWbyATM_cover= comlev1_bibj, key = iicekey, byte = isbyte |
| 1228 |
CADJ STORE a_QbyATM_open = comlev1_bibj, key = iicekey, byte = isbyte |
| 1229 |
CADJ STORE a_QSWbyATM_open = comlev1_bibj, key = iicekey, byte = isbyte |
| 1230 |
CADJ STORE a_FWbySublim = comlev1_bibj, key = iicekey, byte = isbyte |
| 1231 |
CADJ STORE r_QbyATM_cover = comlev1_bibj, key = iicekey, byte = isbyte |
| 1232 |
CADJ STORE r_QbyATM_open = comlev1_bibj, key = iicekey, byte = isbyte |
| 1233 |
CADJ STORE r_FWbySublim = comlev1_bibj, key = iicekey, byte = isbyte |
| 1234 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1235 |
|
| 1236 |
#if (defined ALLOW_AUTODIFF_TAMC && defined SEAICE_MODIFY_GROWTH_ADJ) |
| 1237 |
Cgf no additional dependency through ice cover |
| 1238 |
IF ( SEAICEadjMODE.GE.3 ) THEN |
| 1239 |
#ifdef SEAICE_ITD |
| 1240 |
DO IT=1,nITD |
| 1241 |
DO J=1,sNy |
| 1242 |
DO I=1,sNx |
| 1243 |
a_QbyATMmult_cover(I,J,IT) = 0. _d 0 |
| 1244 |
r_QbyATMmult_cover(I,J,IT) = 0. _d 0 |
| 1245 |
a_QSWbyATMmult_cover(I,J,IT) = 0. _d 0 |
| 1246 |
ENDDO |
| 1247 |
ENDDO |
| 1248 |
ENDDO |
| 1249 |
#else |
| 1250 |
DO J=1,sNy |
| 1251 |
DO I=1,sNx |
| 1252 |
a_QbyATM_cover(I,J) = 0. _d 0 |
| 1253 |
r_QbyATM_cover(I,J) = 0. _d 0 |
| 1254 |
a_QSWbyATM_cover(I,J) = 0. _d 0 |
| 1255 |
ENDDO |
| 1256 |
ENDDO |
| 1257 |
#endif |
| 1258 |
ENDIF |
| 1259 |
#endif |
| 1260 |
|
| 1261 |
C determine available heat due to the ice pack tying the |
| 1262 |
C underlying surface water temperature to freezing point |
| 1263 |
C ====================================================== |
| 1264 |
|
| 1265 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1266 |
CADJ STORE theta(:,:,kSurface,bi,bj) = comlev1_bibj, |
| 1267 |
CADJ & key = iicekey, byte = isbyte |
| 1268 |
CADJ STORE salt(:,:,kSurface,bi,bj) = comlev1_bibj, |
| 1269 |
CADJ & key = iicekey, byte = isbyte |
| 1270 |
#endif |
| 1271 |
|
| 1272 |
DO J=1,sNy |
| 1273 |
DO I=1,sNx |
| 1274 |
C FREEZING TEMP. OF SEA WATER (deg C) |
| 1275 |
tempFrz = SEAICE_tempFrz0 + |
| 1276 |
& SEAICE_dTempFrz_dS *salt(I,J,kSurface,bi,bj) |
| 1277 |
C efficiency of turbulent fluxes : dependency to sign of THETA-TBC |
| 1278 |
IF ( theta(I,J,kSurface,bi,bj) .GE. tempFrz ) THEN |
| 1279 |
tmpscal1 = SEAICE_mcPheePiston |
| 1280 |
ELSE |
| 1281 |
tmpscal1 =SEAICE_frazilFrac*drF(kSurface)/SEAICE_deltaTtherm |
| 1282 |
ENDIF |
| 1283 |
C efficiency of turbulent fluxes : dependency to AREA (McPhee cases) |
| 1284 |
IF ( (AREApreTH(I,J) .GT. 0. _d 0).AND. |
| 1285 |
& (.NOT.SEAICE_mcPheeStepFunc) ) THEN |
| 1286 |
MixedLayerTurbulenceFactor = ONE - |
| 1287 |
& SEAICE_mcPheeTaper * AREApreTH(I,J) |
| 1288 |
ELSEIF ( (AREApreTH(I,J) .GT. 0. _d 0).AND. |
| 1289 |
& (SEAICE_mcPheeStepFunc) ) THEN |
| 1290 |
MixedLayerTurbulenceFactor = ONE - SEAICE_mcPheeTaper |
| 1291 |
ELSE |
| 1292 |
MixedLayerTurbulenceFactor = ONE |
| 1293 |
ENDIF |
| 1294 |
C maximum turbulent flux, in ice meters |
| 1295 |
tmpscal2= - (HeatCapacity_Cp*rhoConst * recip_QI) |
| 1296 |
& * (theta(I,J,kSurface,bi,bj)-tempFrz) |
| 1297 |
& * SEAICE_deltaTtherm * maskC(i,j,kSurface,bi,bj) |
| 1298 |
C available turbulent flux |
| 1299 |
a_QbyOCN(i,j) = |
| 1300 |
& tmpscal1 * tmpscal2 * MixedLayerTurbulenceFactor |
| 1301 |
r_QbyOCN(i,j) = a_QbyOCN(i,j) |
| 1302 |
ENDDO |
| 1303 |
ENDDO |
| 1304 |
|
| 1305 |
#ifdef SEAICE_ITD |
| 1306 |
C determine lateral melt rate at floe edges based on an |
| 1307 |
C average floe diameter or a floe size distribution |
| 1308 |
C following Steele (1992, Tab. 2) |
| 1309 |
C ====================================================== |
| 1310 |
DO J=1,sNy |
| 1311 |
DO I=1,sNx |
| 1312 |
tmpscal1=(theta(I,J,kSurface,bi,bj)-tempFrz) |
| 1313 |
tmpscal2=sqrt(0.87 + 0.067*UG(i,j)) * UG(i,j) |
| 1314 |
c |
| 1315 |
c variable floe diameter following Luepkes et al. (2012, JGR, Equ. 26) with beta=1 |
| 1316 |
tmpscal3=ONE/(ONE-(floeDiameterMin/floeDiameterMax)) |
| 1317 |
floeDiameter = floeDiameterMin |
| 1318 |
& * (tmpscal3 / (tmpscal3-AREApreTH(I,J))) |
| 1319 |
DO IT=1,nITD |
| 1320 |
C following the idea of SEAICE_areaLossFormula == 1: |
| 1321 |
IF (a_QbyATMmult_cover(i,j,it).LT.ZERO .OR. |
| 1322 |
& a_QbyATM_open(i,j) .LT.ZERO .OR. |
| 1323 |
& a_QbyOCN(i,j) .LT.ZERO) THEN |
| 1324 |
c lateral melt rate as suggested by Perovich, 1983 (PhD thesis) |
| 1325 |
latMeltRate(i,j,it) = 1.6 _d -6 * tmpscal1**1.36 |
| 1326 |
c lateral melt rate as suggested by Maykut and Perovich, 1987 (JGR 92(C7)), Equ. 24 |
| 1327 |
c latMeltRate(i,j,it) = 13.5 _d -6 * tmpscal2 * tmpscal1**1.3 |
| 1328 |
c further suggestion by Maykut and Perovich to avoid latMeltRate -> 0 for UG -> 0 |
| 1329 |
c latMeltRate(i,j,it) = (1.6 _d -6 + 13.5 _d -6 * tmpscal2) |
| 1330 |
c & * tmpscal1**1.3 |
| 1331 |
c factor determining fraction of area and ice volume reduction |
| 1332 |
c due to lateral melt |
| 1333 |
latMeltFrac(i,j,it) = |
| 1334 |
& latMeltRate(i,j,it)*SEAICE_deltaTtherm*PI / |
| 1335 |
& (floeAlpha * floeDiameter) |
| 1336 |
latMeltFrac(i,j,it)=max(ZERO, min(latMeltFrac(i,j,it),ONE)) |
| 1337 |
ELSE |
| 1338 |
latMeltRate(i,j,it)=0.0 _d 0 |
| 1339 |
latMeltFrac(i,j,it)=0.0 _d 0 |
| 1340 |
ENDIF |
| 1341 |
ENDDO |
| 1342 |
ENDDO |
| 1343 |
ENDDO |
| 1344 |
#endif |
| 1345 |
|
| 1346 |
#if (defined ALLOW_AUTODIFF_TAMC && defined SEAICE_MODIFY_GROWTH_ADJ) |
| 1347 |
CALL ZERO_ADJ_1D( sNx*sNy, r_QbyOCN, myThid) |
| 1348 |
#endif |
| 1349 |
|
| 1350 |
C =================================================================== |
| 1351 |
C =========PART 3: determine effective thicknesses increments======== |
| 1352 |
C =================================================================== |
| 1353 |
|
| 1354 |
C compute snow/ice tendency due to sublimation |
| 1355 |
C ============================================ |
| 1356 |
|
| 1357 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1358 |
CADJ STORE hsnow(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1359 |
CADJ STORE r_FWbySublim = comlev1_bibj,key=iicekey,byte=isbyte |
| 1360 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1361 |
#ifdef SEAICE_ITD |
| 1362 |
DO IT=1,nITD |
| 1363 |
#endif |
| 1364 |
DO J=1,sNy |
| 1365 |
DO I=1,sNx |
| 1366 |
C First sublimate/deposite snow |
| 1367 |
tmpscal2 = |
| 1368 |
#ifdef SEAICE_ITD |
| 1369 |
& MAX(MIN(r_FWbySublimMult(I,J,IT),HSNOWITD(I,J,IT,bi,bj) |
| 1370 |
& *SNOW2ICE),ZERO) |
| 1371 |
d_HSNWbySublim_ITD(I,J,IT) = - tmpscal2 * ICE2SNOW |
| 1372 |
C accumulate change over ITD categories |
| 1373 |
d_HSNWbySublim(I,J) = d_HSNWbySublim(I,J) - tmpscal2 |
| 1374 |
& *ICE2SNOW |
| 1375 |
r_FWbySublimMult(I,J,IT)= r_FWbySublimMult(I,J,IT) - tmpscal2 |
| 1376 |
#else |
| 1377 |
& MAX(MIN(r_FWbySublim(I,J),HSNOW(I,J,bi,bj)*SNOW2ICE),ZERO) |
| 1378 |
d_HSNWbySublim(I,J) = - tmpscal2 * ICE2SNOW |
| 1379 |
HSNOW(I,J,bi,bj) = HSNOW(I,J,bi,bj) - tmpscal2*ICE2SNOW |
| 1380 |
r_FWbySublim(I,J) = r_FWbySublim(I,J) - tmpscal2 |
| 1381 |
#endif |
| 1382 |
ENDDO |
| 1383 |
ENDDO |
| 1384 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1385 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1386 |
CADJ STORE r_FWbySublim = comlev1_bibj,key=iicekey,byte=isbyte |
| 1387 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1388 |
DO J=1,sNy |
| 1389 |
DO I=1,sNx |
| 1390 |
C If anything is left, sublimate ice |
| 1391 |
tmpscal2 = |
| 1392 |
#ifdef SEAICE_ITD |
| 1393 |
& MAX(MIN(r_FWbySublimMult(I,J,IT),HEFFITD(I,J,IT,bi,bj)),ZERO) |
| 1394 |
d_HEFFbySublim_ITD(I,J,IT) = - tmpscal2 |
| 1395 |
C accumulate change over ITD categories |
| 1396 |
d_HEFFbySublim(I,J) = d_HEFFbySublim(I,J) - tmpscal2 |
| 1397 |
r_FWbySublimMult(I,J,IT) = r_FWbySublimMult(I,J,IT) - tmpscal2 |
| 1398 |
#else |
| 1399 |
& MAX(MIN(r_FWbySublim(I,J),HEFF(I,J,bi,bj)),ZERO) |
| 1400 |
d_HEFFbySublim(I,J) = - tmpscal2 |
| 1401 |
HEFF(I,J,bi,bj) = HEFF(I,J,bi,bj) - tmpscal2 |
| 1402 |
r_FWbySublim(I,J) = r_FWbySublim(I,J) - tmpscal2 |
| 1403 |
#endif |
| 1404 |
ENDDO |
| 1405 |
ENDDO |
| 1406 |
DO J=1,sNy |
| 1407 |
DO I=1,sNx |
| 1408 |
C If anything is left, it will be evaporated from the ocean rather than sublimated. |
| 1409 |
C Since a_QbyATM_cover was computed for sublimation, not simple evaporation, we need to |
| 1410 |
C remove the fusion part for the residual (that happens to be precisely r_FWbySublim). |
| 1411 |
#ifdef SEAICE_ITD |
| 1412 |
a_QbyATMmult_cover(I,J,IT) = a_QbyATMmult_cover(I,J,IT) |
| 1413 |
& - r_FWbySublimMult(I,J,IT) |
| 1414 |
r_QbyATMmult_cover(I,J,IT) = r_QbyATMmult_cover(I,J,IT) |
| 1415 |
& - r_FWbySublimMult(I,J,IT) |
| 1416 |
#else |
| 1417 |
a_QbyATM_cover(I,J) = a_QbyATM_cover(I,J)-r_FWbySublim(I,J) |
| 1418 |
r_QbyATM_cover(I,J) = r_QbyATM_cover(I,J)-r_FWbySublim(I,J) |
| 1419 |
#endif |
| 1420 |
ENDDO |
| 1421 |
ENDDO |
| 1422 |
#ifdef SEAICE_ITD |
| 1423 |
C end IT loop |
| 1424 |
ENDDO |
| 1425 |
#endif |
| 1426 |
|
| 1427 |
C compute ice thickness tendency due to ice-ocean interaction |
| 1428 |
C =========================================================== |
| 1429 |
|
| 1430 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1431 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1432 |
CADJ STORE r_QbyOCN = comlev1_bibj,key=iicekey,byte=isbyte |
| 1433 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1434 |
|
| 1435 |
IF (.NOT.SEAICE_growMeltByConv) THEN |
| 1436 |
|
| 1437 |
#ifdef SEAICE_ITD |
| 1438 |
DO IT=1,nITD |
| 1439 |
DO J=1,sNy |
| 1440 |
DO I=1,sNx |
| 1441 |
C ice growth/melt due to ocean heat r_QbyOCN (W/m^2) is |
| 1442 |
C equally distributed under the ice and hence weighted by |
| 1443 |
C fractional area of each thickness category |
| 1444 |
tmpscal1=MAX(r_QbyOCN(i,j)*areaFracFactor(I,J,IT), |
| 1445 |
& -HEFFITD(I,J,IT,bi,bj)) |
| 1446 |
d_HEFFbyOCNonICE_ITD(I,J,IT)=tmpscal1 |
| 1447 |
d_HEFFbyOCNonICE(I,J) = d_HEFFbyOCNonICE(I,J) + tmpscal1 |
| 1448 |
ENDDO |
| 1449 |
ENDDO |
| 1450 |
ENDDO |
| 1451 |
#ifdef ALLOW_SITRACER |
| 1452 |
DO J=1,sNy |
| 1453 |
DO I=1,sNx |
| 1454 |
SItrHEFF(I,J,bi,bj,2) = HEFFpreTH(I,J) |
| 1455 |
& + d_HEFFbySublim(I,J) |
| 1456 |
& + d_HEFFbyOCNonICE(I,J) |
| 1457 |
ENDDO |
| 1458 |
ENDDO |
| 1459 |
#endif |
| 1460 |
DO J=1,sNy |
| 1461 |
DO I=1,sNx |
| 1462 |
r_QbyOCN(I,J)=r_QbyOCN(I,J)-d_HEFFbyOCNonICE(I,J) |
| 1463 |
ENDDO |
| 1464 |
ENDDO |
| 1465 |
#else /* SEAICE_ITD */ |
| 1466 |
DO J=1,sNy |
| 1467 |
DO I=1,sNx |
| 1468 |
d_HEFFbyOCNonICE(I,J)=MAX(r_QbyOCN(i,j), -HEFF(I,J,bi,bj)) |
| 1469 |
r_QbyOCN(I,J)=r_QbyOCN(I,J)-d_HEFFbyOCNonICE(I,J) |
| 1470 |
HEFF(I,J,bi,bj)=HEFF(I,J,bi,bj) + d_HEFFbyOCNonICE(I,J) |
| 1471 |
#ifdef ALLOW_SITRACER |
| 1472 |
SItrHEFF(I,J,bi,bj,2)=HEFF(I,J,bi,bj) |
| 1473 |
#endif |
| 1474 |
ENDDO |
| 1475 |
ENDDO |
| 1476 |
#endif /* SEAICE_ITD */ |
| 1477 |
|
| 1478 |
endif !SEAICE_growMeltByConv |
| 1479 |
|
| 1480 |
C compute snow melt tendency due to snow-atmosphere interaction |
| 1481 |
C ================================================================== |
| 1482 |
|
| 1483 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1484 |
CADJ STORE hsnow(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1485 |
CADJ STORE r_QbyATM_cover = comlev1_bibj,key=iicekey,byte=isbyte |
| 1486 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1487 |
|
| 1488 |
#ifdef SEAICE_ITD |
| 1489 |
DO IT=1,nITD |
| 1490 |
DO J=1,sNy |
| 1491 |
DO I=1,sNx |
| 1492 |
C Convert to standard units (meters of ice) rather than to meters |
| 1493 |
C of snow. This appears to be more robust. |
| 1494 |
tmpscal1=MAX(r_QbyATMmult_cover(I,J,IT), |
| 1495 |
& -HSNOWITD(I,J,IT,bi,bj)*SNOW2ICE) |
| 1496 |
tmpscal2=MIN(tmpscal1,0. _d 0) |
| 1497 |
#ifdef SEAICE_MODIFY_GROWTH_ADJ |
| 1498 |
Cgf no additional dependency through snow |
| 1499 |
IF ( SEAICEadjMODE.GE.2 ) tmpscal2 = 0. _d 0 |
| 1500 |
#endif |
| 1501 |
d_HSNWbyATMonSNW_ITD(I,J,IT) = tmpscal2*ICE2SNOW |
| 1502 |
d_HSNWbyATMonSNW(I,J) = d_HSNWbyATMonSNW(I,J) |
| 1503 |
& + tmpscal2*ICE2SNOW |
| 1504 |
r_QbyATMmult_cover(I,J,IT)=r_QbyATMmult_cover(I,J,IT) |
| 1505 |
& - tmpscal2 |
| 1506 |
ENDDO |
| 1507 |
ENDDO |
| 1508 |
ENDDO |
| 1509 |
#else /* SEAICE_ITD */ |
| 1510 |
DO J=1,sNy |
| 1511 |
DO I=1,sNx |
| 1512 |
C Convert to standard units (meters of ice) rather than to meters |
| 1513 |
C of snow. This appears to be more robust. |
| 1514 |
tmpscal1=MAX(r_QbyATM_cover(I,J),-HSNOW(I,J,bi,bj)*SNOW2ICE) |
| 1515 |
tmpscal2=MIN(tmpscal1,0. _d 0) |
| 1516 |
#ifdef SEAICE_MODIFY_GROWTH_ADJ |
| 1517 |
Cgf no additional dependency through snow |
| 1518 |
IF ( SEAICEadjMODE.GE.2 ) tmpscal2 = 0. _d 0 |
| 1519 |
#endif |
| 1520 |
d_HSNWbyATMonSNW(I,J)= tmpscal2*ICE2SNOW |
| 1521 |
HSNOW(I,J,bi,bj) = HSNOW(I,J,bi,bj) + tmpscal2*ICE2SNOW |
| 1522 |
r_QbyATM_cover(I,J)=r_QbyATM_cover(I,J) - tmpscal2 |
| 1523 |
ENDDO |
| 1524 |
ENDDO |
| 1525 |
#endif /* SEAICE_ITD */ |
| 1526 |
|
| 1527 |
C compute ice thickness tendency due to the atmosphere |
| 1528 |
C ==================================================== |
| 1529 |
|
| 1530 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1531 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1532 |
CADJ STORE r_QbyATM_cover = comlev1_bibj,key=iicekey,byte=isbyte |
| 1533 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1534 |
|
| 1535 |
Cgf note: this block is not actually tested by lab_sea |
| 1536 |
Cgf where all experiments start in January. So even though |
| 1537 |
Cgf the v1.81=>v1.82 revision would change results in |
| 1538 |
Cgf warming conditions, the lab_sea results were not changed. |
| 1539 |
|
| 1540 |
#ifdef SEAICE_ITD |
| 1541 |
DO IT=1,nITD |
| 1542 |
DO J=1,sNy |
| 1543 |
DO I=1,sNx |
| 1544 |
tmpscal1 = HEFFITDpreTH(I,J,IT) |
| 1545 |
& + d_HEFFbySublim_ITD(I,J,IT) |
| 1546 |
& + d_HEFFbyOCNonICE_ITD(I,J,IT) |
| 1547 |
tmpscal2 = MAX(-tmpscal1, |
| 1548 |
& r_QbyATMmult_cover(I,J,IT) |
| 1549 |
c Limit ice growth by potential melt by ocean |
| 1550 |
& + AREAITDpreTH(I,J,IT) * r_QbyOCN(I,J)) |
| 1551 |
d_HEFFbyATMonOCN_cover_ITD(I,J,IT) = tmpscal2 |
| 1552 |
d_HEFFbyATMonOCN_cover(I,J) = d_HEFFbyATMonOCN_cover(I,J) |
| 1553 |
& + tmpscal2 |
| 1554 |
d_HEFFbyATMonOCN_ITD(I,J,IT) = d_HEFFbyATMonOCN_ITD(I,J,IT) |
| 1555 |
& + tmpscal2 |
| 1556 |
d_HEFFbyATMonOCN(I,J) = d_HEFFbyATMonOCN(I,J) |
| 1557 |
& + tmpscal2 |
| 1558 |
r_QbyATMmult_cover(I,J,IT) = r_QbyATMmult_cover(I,J,IT) |
| 1559 |
& - tmpscal2 |
| 1560 |
ENDDO |
| 1561 |
ENDDO |
| 1562 |
ENDDO |
| 1563 |
#ifdef ALLOW_SITRACER |
| 1564 |
DO J=1,sNy |
| 1565 |
DO I=1,sNx |
| 1566 |
SItrHEFF(I,J,bi,bj,3) = SItrHEFF(I,J,bi,bj,2) |
| 1567 |
& + d_HEFFbyATMonOCN_cover(I,J) |
| 1568 |
ENDDO |
| 1569 |
ENDDO |
| 1570 |
#endif |
| 1571 |
#else /* SEAICE_ITD */ |
| 1572 |
DO J=1,sNy |
| 1573 |
DO I=1,sNx |
| 1574 |
|
| 1575 |
tmpscal2 = MAX(-HEFF(I,J,bi,bj),r_QbyATM_cover(I,J)+ |
| 1576 |
C Limit ice growth by potential melt by ocean |
| 1577 |
& AREApreTH(I,J) * r_QbyOCN(I,J)) |
| 1578 |
|
| 1579 |
d_HEFFbyATMonOCN_cover(I,J)=tmpscal2 |
| 1580 |
d_HEFFbyATMonOCN(I,J)=d_HEFFbyATMonOCN(I,J)+tmpscal2 |
| 1581 |
r_QbyATM_cover(I,J)=r_QbyATM_cover(I,J)-tmpscal2 |
| 1582 |
HEFF(I,J,bi,bj) = HEFF(I,J,bi,bj) + tmpscal2 |
| 1583 |
|
| 1584 |
#ifdef ALLOW_SITRACER |
| 1585 |
SItrHEFF(I,J,bi,bj,3)=HEFF(I,J,bi,bj) |
| 1586 |
#endif |
| 1587 |
ENDDO |
| 1588 |
ENDDO |
| 1589 |
#endif /* SEAICE_ITD */ |
| 1590 |
|
| 1591 |
C add snow precipitation to HSNOW. |
| 1592 |
C ================================================= |
| 1593 |
#ifdef ALLOW_ATM_TEMP |
| 1594 |
# ifdef ALLOW_AUTODIFF_TAMC |
| 1595 |
CADJ STORE a_QbyATM_cover = comlev1_bibj,key=iicekey,byte=isbyte |
| 1596 |
CADJ STORE PRECIP(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1597 |
CADJ STORE AREApreTH = comlev1_bibj,key=iicekey,byte=isbyte |
| 1598 |
# endif /* ALLOW_AUTODIFF_TAMC */ |
| 1599 |
IF ( snowPrecipFile .NE. ' ' ) THEN |
| 1600 |
C add snowPrecip to HSNOW |
| 1601 |
DO J=1,sNy |
| 1602 |
DO I=1,sNx |
| 1603 |
d_HSNWbyRAIN(I,J) = convertPRECIP2HI * ICE2SNOW * |
| 1604 |
& snowPrecip(i,j,bi,bj) * AREApreTH(I,J) |
| 1605 |
d_HFRWbyRAIN(I,J) = -convertPRECIP2HI * |
| 1606 |
& ( PRECIP(I,J,bi,bj) - snowPrecip(I,J,bi,bj) ) * |
| 1607 |
& AREApreTH(I,J) |
| 1608 |
HSNOW(I,J,bi,bj) = HSNOW(I,J,bi,bj) + d_HSNWbyRAIN(I,J) |
| 1609 |
ENDDO |
| 1610 |
ENDDO |
| 1611 |
ELSE |
| 1612 |
C attribute precip to fresh water or snow stock, |
| 1613 |
C depending on atmospheric conditions. |
| 1614 |
DO J=1,sNy |
| 1615 |
DO I=1,sNx |
| 1616 |
C possible alternatives to the a_QbyATM_cover criterium |
| 1617 |
c IF (TICE(I,J,bi,bj) .LT. TMIX) THEN |
| 1618 |
c IF (atemp(I,J,bi,bj) .LT. celsius2K) THEN |
| 1619 |
IF ( a_QbyATM_cover(I,J).GE. 0. _d 0 ) THEN |
| 1620 |
C add precip as snow |
| 1621 |
d_HFRWbyRAIN(I,J)=0. _d 0 |
| 1622 |
d_HSNWbyRAIN(I,J)=convertPRECIP2HI*ICE2SNOW* |
| 1623 |
& PRECIP(I,J,bi,bj)*AREApreTH(I,J) |
| 1624 |
ELSE |
| 1625 |
C add precip to the fresh water bucket |
| 1626 |
d_HFRWbyRAIN(I,J)=-convertPRECIP2HI* |
| 1627 |
& PRECIP(I,J,bi,bj)*AREApreTH(I,J) |
| 1628 |
d_HSNWbyRAIN(I,J)=0. _d 0 |
| 1629 |
ENDIF |
| 1630 |
ENDDO |
| 1631 |
ENDDO |
| 1632 |
#ifdef SEAICE_ITD |
| 1633 |
DO IT=1,nITD |
| 1634 |
DO J=1,sNy |
| 1635 |
DO I=1,sNx |
| 1636 |
d_HSNWbyRAIN_ITD(I,J,IT) |
| 1637 |
& = d_HSNWbyRAIN(I,J)*areaFracFactor(I,J,IT) |
| 1638 |
ENDDO |
| 1639 |
ENDDO |
| 1640 |
ENDDO |
| 1641 |
#else |
| 1642 |
DO J=1,sNy |
| 1643 |
DO I=1,sNx |
| 1644 |
HSNOW(I,J,bi,bj) = HSNOW(I,J,bi,bj) + d_HSNWbyRAIN(I,J) |
| 1645 |
ENDDO |
| 1646 |
ENDDO |
| 1647 |
#endif |
| 1648 |
Cgf note: this does not affect air-sea heat flux, |
| 1649 |
Cgf since the implied air heat gain to turn |
| 1650 |
Cgf rain to snow is not a surface process. |
| 1651 |
C end of IF statement snowPrecipFile: |
| 1652 |
ENDIF |
| 1653 |
#endif /* ALLOW_ATM_TEMP */ |
| 1654 |
|
| 1655 |
C compute snow melt due to heat available from ocean. |
| 1656 |
C ================================================================= |
| 1657 |
|
| 1658 |
Cgf do we need to keep this comment and cpp bracket? |
| 1659 |
Cph( very sensitive bit here by JZ |
| 1660 |
#ifndef SEAICE_EXCLUDE_FOR_EXACT_AD_TESTING |
| 1661 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1662 |
CADJ STORE HSNOW(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1663 |
CADJ STORE r_QbyOCN = comlev1_bibj,key=iicekey,byte=isbyte |
| 1664 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1665 |
|
| 1666 |
IF (.NOT.SEAICE_growMeltByConv) THEN |
| 1667 |
|
| 1668 |
#ifdef SEAICE_ITD |
| 1669 |
DO IT=1,nITD |
| 1670 |
DO J=1,sNy |
| 1671 |
DO I=1,sNx |
| 1672 |
tmpscal4 = HSNWITDpreTH(I,J,IT) |
| 1673 |
& + d_HSNWbySublim_ITD(I,J,IT) |
| 1674 |
& + d_HSNWbyATMonSNW_ITD(I,J,IT) |
| 1675 |
& + d_HSNWbyRAIN_ITD(I,J,IT) |
| 1676 |
tmpscal1=MAX(r_QbyOCN(i,j)*ICE2SNOW*areaFracFactor(I,J,IT), |
| 1677 |
& -tmpscal4) |
| 1678 |
tmpscal2=MIN(tmpscal1,0. _d 0) |
| 1679 |
#ifdef SEAICE_MODIFY_GROWTH_ADJ |
| 1680 |
Cgf no additional dependency through snow |
| 1681 |
if ( SEAICEadjMODE.GE.2 ) tmpscal2 = 0. _d 0 |
| 1682 |
#endif |
| 1683 |
d_HSNWbyOCNonSNW_ITD(I,J,IT) = tmpscal2 |
| 1684 |
d_HSNWbyOCNonSNW(I,J) = d_HSNWbyOCNonSNW(I,J) + tmpscal2 |
| 1685 |
r_QbyOCN(I,J)=r_QbyOCN(I,J) - tmpscal2*SNOW2ICE |
| 1686 |
ENDDO |
| 1687 |
ENDDO |
| 1688 |
ENDDO |
| 1689 |
#else /* SEAICE_ITD */ |
| 1690 |
DO J=1,sNy |
| 1691 |
DO I=1,sNx |
| 1692 |
tmpscal1=MAX(r_QbyOCN(i,j)*ICE2SNOW, -HSNOW(I,J,bi,bj)) |
| 1693 |
tmpscal2=MIN(tmpscal1,0. _d 0) |
| 1694 |
#ifdef SEAICE_MODIFY_GROWTH_ADJ |
| 1695 |
Cgf no additional dependency through snow |
| 1696 |
if ( SEAICEadjMODE.GE.2 ) tmpscal2 = 0. _d 0 |
| 1697 |
#endif |
| 1698 |
d_HSNWbyOCNonSNW(I,J) = tmpscal2 |
| 1699 |
r_QbyOCN(I,J)=r_QbyOCN(I,J) |
| 1700 |
& -d_HSNWbyOCNonSNW(I,J)*SNOW2ICE |
| 1701 |
HSNOW(I,J,bi,bj) = HSNOW(I,J,bi,bj)+d_HSNWbyOCNonSNW(I,J) |
| 1702 |
ENDDO |
| 1703 |
ENDDO |
| 1704 |
#endif /* SEAICE_ITD */ |
| 1705 |
|
| 1706 |
endif !SEAICE_growMeltByConv |
| 1707 |
|
| 1708 |
#endif /* SEAICE_EXCLUDE_FOR_EXACT_AD_TESTING */ |
| 1709 |
Cph) |
| 1710 |
|
| 1711 |
C gain of new ice over open water |
| 1712 |
C =============================== |
| 1713 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1714 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1715 |
CADJ STORE r_QbyATM_open = comlev1_bibj,key=iicekey,byte=isbyte |
| 1716 |
CADJ STORE r_QbyOCN = comlev1_bibj,key=iicekey,byte=isbyte |
| 1717 |
CADJ STORE a_QSWbyATM_cover = comlev1_bibj,key=iicekey,byte=isbyte |
| 1718 |
CADJ STORE a_QSWbyATM_open = comlev1_bibj,key=iicekey,byte=isbyte |
| 1719 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1720 |
|
| 1721 |
DO J=1,sNy |
| 1722 |
DO I=1,sNx |
| 1723 |
#ifdef SEAICE_ITD |
| 1724 |
C HEFF will be updated at the end of PART 3, |
| 1725 |
C hence sum of tendencies so far is needed |
| 1726 |
tmpscal4 = HEFFpreTH(I,J) |
| 1727 |
& + d_HEFFbySublim(I,J) |
| 1728 |
& + d_HEFFbyOCNonICE(I,J) |
| 1729 |
& + d_HEFFbyATMonOCN(I,J) |
| 1730 |
#else |
| 1731 |
C HEFF is updated step by step throughout seaice_growth |
| 1732 |
tmpscal4 = HEFF(I,J,bi,bj) |
| 1733 |
#endif |
| 1734 |
C Initial ice growth is triggered by open water |
| 1735 |
C heat flux overcoming potential melt by ocean |
| 1736 |
tmpscal1=r_QbyATM_open(I,J)+r_QbyOCN(i,j) * |
| 1737 |
& (1.0 _d 0 - AREApreTH(I,J)) |
| 1738 |
C Penetrative shortwave flux beyond first layer |
| 1739 |
C that is therefore not available to ice growth/melt |
| 1740 |
tmpscal2=SWFracB * a_QSWbyATM_open(I,J) |
| 1741 |
C impose -HEFF as the maxmum melting if SEAICE_doOpenWaterMelt |
| 1742 |
C or 0. otherwise (no melting if not SEAICE_doOpenWaterMelt) |
| 1743 |
tmpscal3=facOpenGrow*MAX(tmpscal1-tmpscal2, |
| 1744 |
& -tmpscal4*facOpenMelt)*HEFFM(I,J,bi,bj) |
| 1745 |
#ifdef SEAICE_ITD |
| 1746 |
C ice growth in open water adds to first category |
| 1747 |
d_HEFFbyATMonOCN_open_ITD(I,J,1)=tmpscal3 |
| 1748 |
d_HEFFbyATMonOCN_ITD(I,J,1) =d_HEFFbyATMonOCN_ITD(I,J,1) |
| 1749 |
& +tmpscal3 |
| 1750 |
#endif |
| 1751 |
d_HEFFbyATMonOCN_open(I,J)=tmpscal3 |
| 1752 |
d_HEFFbyATMonOCN(I,J)=d_HEFFbyATMonOCN(I,J)+tmpscal3 |
| 1753 |
r_QbyATM_open(I,J)=r_QbyATM_open(I,J)-tmpscal3 |
| 1754 |
HEFF(I,J,bi,bj) = HEFF(I,J,bi,bj) + tmpscal3 |
| 1755 |
ENDDO |
| 1756 |
ENDDO |
| 1757 |
|
| 1758 |
#ifdef ALLOW_SITRACER |
| 1759 |
DO J=1,sNy |
| 1760 |
DO I=1,sNx |
| 1761 |
C needs to be here to allow use also with LEGACY branch |
| 1762 |
#ifdef SEAICE_ITD |
| 1763 |
SItrHEFF(I,J,bi,bj,4)=SItrHEFF(I,J,bi,bj,3) |
| 1764 |
& +d_HEFFbyATMonOCN_open(I,J) |
| 1765 |
#else |
| 1766 |
SItrHEFF(I,J,bi,bj,4)=HEFF(I,J,bi,bj) |
| 1767 |
#endif |
| 1768 |
ENDDO |
| 1769 |
ENDDO |
| 1770 |
#endif /* ALLOW_SITRACER */ |
| 1771 |
|
| 1772 |
C convert snow to ice if submerged. |
| 1773 |
C ================================= |
| 1774 |
|
| 1775 |
C note: in legacy, this process is done at the end |
| 1776 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1777 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1778 |
CADJ STORE hsnow(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1779 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1780 |
IF ( SEAICEuseFlooding ) THEN |
| 1781 |
#ifdef SEAICE_ITD |
| 1782 |
DO IT=1,nITD |
| 1783 |
DO J=1,sNy |
| 1784 |
DO I=1,sNx |
| 1785 |
tmpscal3 = HEFFITDpreTH(I,J,IT) |
| 1786 |
& + d_HEFFbySublim_ITD(I,J,IT) |
| 1787 |
& + d_HEFFbyOCNonICE_ITD(I,J,IT) |
| 1788 |
& + d_HEFFbyATMonOCN_ITD(I,J,IT) |
| 1789 |
tmpscal4 = HSNWITDpreTH(I,J,IT) |
| 1790 |
& + d_HSNWbySublim_ITD(I,J,IT) |
| 1791 |
& + d_HSNWbyATMonSNW_ITD(I,J,IT) |
| 1792 |
& + d_HSNWbyRAIN_ITD(I,J,IT) |
| 1793 |
tmpscal0 = (tmpscal4*SEAICE_rhoSnow |
| 1794 |
& + tmpscal3*SEAICE_rhoIce) |
| 1795 |
& * recip_rhoConst |
| 1796 |
tmpscal1 = MAX( 0. _d 0, tmpscal0 - tmpscal3) |
| 1797 |
d_HEFFbyFLOODING_ITD(I,J,IT) = tmpscal1 |
| 1798 |
d_HEFFbyFLOODING(I,J) = d_HEFFbyFLOODING(I,J) + tmpscal1 |
| 1799 |
ENDDO |
| 1800 |
ENDDO |
| 1801 |
ENDDO |
| 1802 |
#else |
| 1803 |
DO J=1,sNy |
| 1804 |
DO I=1,sNx |
| 1805 |
tmpscal0 = (HSNOW(I,J,bi,bj)*SEAICE_rhoSnow |
| 1806 |
& +HEFF(I,J,bi,bj)*SEAICE_rhoIce)*recip_rhoConst |
| 1807 |
tmpscal1 = MAX( 0. _d 0, tmpscal0 - HEFF(I,J,bi,bj)) |
| 1808 |
d_HEFFbyFLOODING(I,J)=tmpscal1 |
| 1809 |
HEFF(I,J,bi,bj) = HEFF(I,J,bi,bj)+d_HEFFbyFLOODING(I,J) |
| 1810 |
HSNOW(I,J,bi,bj) = HSNOW(I,J,bi,bj)- |
| 1811 |
& d_HEFFbyFLOODING(I,J)*ICE2SNOW |
| 1812 |
ENDDO |
| 1813 |
ENDDO |
| 1814 |
#endif |
| 1815 |
ENDIF |
| 1816 |
|
| 1817 |
#ifdef SEAICE_ITD |
| 1818 |
C apply ice and snow thickness changes |
| 1819 |
C ================================================================= |
| 1820 |
DO IT=1,nITD |
| 1821 |
DO J=1,sNy |
| 1822 |
DO I=1,sNx |
| 1823 |
HEFFITD(I,J,IT,bi,bj) = HEFFITD(I,J,IT,bi,bj) |
| 1824 |
& + d_HEFFbySublim_ITD(I,J,IT) |
| 1825 |
& + d_HEFFbyOCNonICE_ITD(I,J,IT) |
| 1826 |
& + d_HEFFbyATMonOCN_ITD(I,J,IT) |
| 1827 |
& + d_HEFFbyFLOODING_ITD(I,J,IT) |
| 1828 |
HSNOWITD(I,J,IT,bi,bj) = HSNOWITD(I,J,IT,bi,bj) |
| 1829 |
& + d_HSNWbySublim_ITD(I,J,IT) |
| 1830 |
& + d_HSNWbyATMonSNW_ITD(I,J,IT) |
| 1831 |
& + d_HSNWbyRAIN_ITD(I,J,IT) |
| 1832 |
& + d_HSNWbyOCNonSNW_ITD(I,J,IT) |
| 1833 |
& - d_HEFFbyFLOODING_ITD(I,J,IT) |
| 1834 |
& * ICE2SNOW |
| 1835 |
ENDDO |
| 1836 |
ENDDO |
| 1837 |
ENDDO |
| 1838 |
#endif |
| 1839 |
|
| 1840 |
C =================================================================== |
| 1841 |
C ==========PART 4: determine ice cover fraction increments=========- |
| 1842 |
C =================================================================== |
| 1843 |
|
| 1844 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 1845 |
CADJ STORE d_HEFFbyATMonOCN = comlev1_bibj,key=iicekey,byte=isbyte |
| 1846 |
CADJ STORE d_HEFFbyATMonOCN_cover = comlev1_bibj,key=iicekey,byte=isbyte |
| 1847 |
CADJ STORE d_HEFFbyATMonOCN_open = comlev1_bibj,key=iicekey,byte=isbyte |
| 1848 |
CADJ STORE d_HEFFbyOCNonICE = comlev1_bibj,key=iicekey,byte=isbyte |
| 1849 |
CADJ STORE recip_heffActual = comlev1_bibj,key=iicekey,byte=isbyte |
| 1850 |
CADJ STORE d_hsnwbyatmonsnw = comlev1_bibj,key=iicekey,byte=isbyte |
| 1851 |
cph( |
| 1852 |
cphCADJ STORE d_AREAbyATM = comlev1_bibj,key=iicekey,byte=isbyte |
| 1853 |
cphCADJ STORE d_AREAbyICE = comlev1_bibj,key=iicekey,byte=isbyte |
| 1854 |
cphCADJ STORE d_AREAbyOCN = comlev1_bibj,key=iicekey,byte=isbyte |
| 1855 |
cph) |
| 1856 |
CADJ STORE a_QbyATM_open = comlev1_bibj,key=iicekey,byte=isbyte |
| 1857 |
CADJ STORE heffActual = comlev1_bibj,key=iicekey,byte=isbyte |
| 1858 |
CADJ STORE AREApreTH = comlev1_bibj,key=iicekey,byte=isbyte |
| 1859 |
CADJ STORE HEFF(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1860 |
CADJ STORE HSNOW(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1861 |
CADJ STORE AREA(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 1862 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 1863 |
|
| 1864 |
#ifdef SEAICE_ITD |
| 1865 |
C-- account for lateral ice growth and melt only in thinnest category |
| 1866 |
C-- use HEFF, ARE, HSNOW, etc. temporarily for 1st category |
| 1867 |
C (this way we can use same code for ITD and non-ITD case) |
| 1868 |
DO J=1,sNy |
| 1869 |
DO I=1,sNx |
| 1870 |
HEFF(I,J,bi,bj)=HEFFITD(I,J,1,bi,bj) |
| 1871 |
AREA(I,J,bi,bj)=AREAITD(I,J,1,bi,bj) |
| 1872 |
HSNOW(I,J,bi,bj)=HSNOWITD(I,J,1,bi,bj) |
| 1873 |
HEFFpreTH(I,J)=HEFFITDpreTH(I,J,1) |
| 1874 |
AREApreTH(I,J)=AREAITDpreTH(I,J,1) |
| 1875 |
recip_heffActual(I,J)=recip_heffActualMult(I,J,1) |
| 1876 |
ENDDO |
| 1877 |
ENDDO |
| 1878 |
C all other categories only experience basal growth or melt, |
| 1879 |
C i.e. change sin AREA only occur when all ice in a category is melted |
| 1880 |
IF (nITD .gt. 1) THEN |
| 1881 |
DO IT=2,nITD |
| 1882 |
DO J=1,sNy |
| 1883 |
DO I=1,sNx |
| 1884 |
IF (HEFFITD(I,J,IT,bi,bj).LE.ZERO) THEN |
| 1885 |
AREAITD(I,J,IT,bi,bj)=ZERO |
| 1886 |
ELSE |
| 1887 |
c actual ice thickness from previous time step |
| 1888 |
c (actual ice thickness not to increase because of lateral melt!) |
| 1889 |
tmpscal1=HEFFITDpreTH(I,J,IT)/AREAITDpreTH(I,J,IT) |
| 1890 |
c melt ice laterally based on an average floe sice |
| 1891 |
c following Steele (1992) |
| 1892 |
AREAITD(I,J,IT,bi,bj) = AREAITD(I,J,IT,bi,bj) |
| 1893 |
& * (ONE - latMeltFrac(I,J,IT)) |
| 1894 |
AREAITD(I,J,IT,bi,bj) = max(ZERO,AREAITD(I,J,IT,bi,bj)) |
| 1895 |
c limit area reduction so that actual ice thickness does not increase |
| 1896 |
AREAITD(I,J,IT,bi,bj) = max(AREAITD(I,J,IT,bi,bj), |
| 1897 |
& HEFFITD(I,J,IT,bi,bj)/tmpscal1) |
| 1898 |
ENDIF |
| 1899 |
ENDDO |
| 1900 |
ENDDO |
| 1901 |
ENDDO |
| 1902 |
ENDIF |
| 1903 |
#endif |
| 1904 |
DO J=1,sNy |
| 1905 |
DO I=1,sNx |
| 1906 |
|
| 1907 |
IF ( YC(I,J,bi,bj) .LT. ZERO ) THEN |
| 1908 |
recip_HO=1. _d 0 / HO_south |
| 1909 |
ELSE |
| 1910 |
recip_HO=1. _d 0 / HO |
| 1911 |
ENDIF |
| 1912 |
recip_HH = recip_heffActual(I,J) |
| 1913 |
|
| 1914 |
C gain of ice over open water : computed from |
| 1915 |
C (SEAICE_areaGainFormula.EQ.1) from growth by ATM |
| 1916 |
C (SEAICE_areaGainFormula.EQ.2) from predicted growth by ATM |
| 1917 |
IF (SEAICE_areaGainFormula.EQ.1) THEN |
| 1918 |
tmpscal4 = MAX(ZERO,d_HEFFbyATMonOCN_open(I,J)) |
| 1919 |
ELSE |
| 1920 |
tmpscal4=MAX(ZERO,a_QbyATM_open(I,J)) |
| 1921 |
ENDIF |
| 1922 |
|
| 1923 |
C loss of ice cover by melting : computed from |
| 1924 |
C (SEAICE_areaLossFormula.EQ.1) from all but only melt conributions by ATM and OCN |
| 1925 |
C (SEAICE_areaLossFormula.EQ.2) from net melt-growth>0 by ATM and OCN |
| 1926 |
C (SEAICE_areaLossFormula.EQ.3) from predicted melt by ATM |
| 1927 |
IF (SEAICE_areaLossFormula.EQ.1) THEN |
| 1928 |
tmpscal3 = MIN( 0. _d 0 , d_HEFFbyATMonOCN_cover(I,J) ) |
| 1929 |
& + MIN( 0. _d 0 , d_HEFFbyATMonOCN_open(I,J) ) |
| 1930 |
& + MIN( 0. _d 0 , d_HEFFbyOCNonICE(I,J) ) |
| 1931 |
ELSEIF (SEAICE_areaLossFormula.EQ.2) THEN |
| 1932 |
tmpscal3 = MIN( 0. _d 0 , d_HEFFbyATMonOCN_cover(I,J) |
| 1933 |
& + d_HEFFbyATMonOCN_open(I,J) + d_HEFFbyOCNonICE(I,J) ) |
| 1934 |
ELSE |
| 1935 |
C compute heff after ice melt by ocn: |
| 1936 |
tmpscal0=HEFF(I,J,bi,bj) - d_HEFFbyATMonOCN(I,J) |
| 1937 |
C compute available heat left after snow melt by atm: |
| 1938 |
tmpscal1= a_QbyATM_open(I,J)+a_QbyATM_cover(I,J) |
| 1939 |
& - d_HSNWbyATMonSNW(I,J)*SNOW2ICE |
| 1940 |
C could not melt more than all the ice |
| 1941 |
tmpscal2 = MAX(-tmpscal0,tmpscal1) |
| 1942 |
tmpscal3 = MIN(ZERO,tmpscal2) |
| 1943 |
ENDIF |
| 1944 |
|
| 1945 |
C apply tendency |
| 1946 |
IF ( (HEFF(i,j,bi,bj).GT.0. _d 0).OR. |
| 1947 |
& (HSNOW(i,j,bi,bj).GT.0. _d 0) ) THEN |
| 1948 |
AREA(I,J,bi,bj)=MAX(0. _d 0, |
| 1949 |
& MIN( SEAICE_area_max, AREA(I,J,bi,bj) |
| 1950 |
& + recip_HO*tmpscal4+HALF*recip_HH*tmpscal3 )) |
| 1951 |
ELSE |
| 1952 |
AREA(I,J,bi,bj)=0. _d 0 |
| 1953 |
ENDIF |
| 1954 |
#ifdef ALLOW_SITRACER |
| 1955 |
SItrAREA(I,J,bi,bj,3)=AREA(I,J,bi,bj) |
| 1956 |
#endif /* ALLOW_SITRACER */ |
| 1957 |
#ifdef ALLOW_DIAGNOSTICS |
| 1958 |
d_AREAbyATM(I,J)= |
| 1959 |
& recip_HO*MAX(ZERO,d_HEFFbyATMonOCN_open(I,J)) |
| 1960 |
& +HALF*recip_HH*MIN(0. _d 0,d_HEFFbyATMonOCN_open(I,J)) |
| 1961 |
d_AREAbyICE(I,J)= |
| 1962 |
& HALF*recip_HH*MIN(0. _d 0,d_HEFFbyATMonOCN_cover(I,J)) |
| 1963 |
d_AREAbyOCN(I,J)= |
| 1964 |
& HALF*recip_HH*MIN( 0. _d 0,d_HEFFbyOCNonICE(I,J) ) |
| 1965 |
#endif /* ALLOW_DIAGNOSTICS */ |
| 1966 |
ENDDO |
| 1967 |
ENDDO |
| 1968 |
#ifdef SEAICE_ITD |
| 1969 |
C transfer 1st category values back into ITD variables |
| 1970 |
DO J=1,sNy |
| 1971 |
DO I=1,sNx |
| 1972 |
HEFFITD(I,J,1,bi,bj)=HEFF(I,J,bi,bj) |
| 1973 |
AREAITD(I,J,1,bi,bj)=AREA(I,J,bi,bj) |
| 1974 |
HSNOWITD(I,J,1,bi,bj)=HSNOW(I,J,bi,bj) |
| 1975 |
ENDDO |
| 1976 |
ENDDO |
| 1977 |
#endif |
| 1978 |
|
| 1979 |
#if (defined ALLOW_AUTODIFF_TAMC && defined SEAICE_MODIFY_GROWTH_ADJ) |
| 1980 |
Cgf 'bulk' linearization of area=f(HEFF) |
| 1981 |
IF ( SEAICEadjMODE.GE.1 ) THEN |
| 1982 |
#ifdef SEAICE_ITD |
| 1983 |
DO IT=1,nITD |
| 1984 |
DO J=1,sNy |
| 1985 |
DO I=1,sNx |
| 1986 |
AREAITD(I,J,IT,bi,bj) = AREAITDpreTH(I,J,IT) + 0.1 _d 0 * |
| 1987 |
& ( HEFFITD(I,J,IT,bi,bj) - HEFFITDpreTH(I,J,IT) ) |
| 1988 |
ENDDO |
| 1989 |
ENDDO |
| 1990 |
ENDDO |
| 1991 |
#else |
| 1992 |
DO J=1,sNy |
| 1993 |
DO I=1,sNx |
| 1994 |
C AREA(I,J,bi,bj) = 0.1 _d 0 * HEFF(I,J,bi,bj) |
| 1995 |
AREA(I,J,bi,bj) = AREApreTH(I,J) + 0.1 _d 0 * |
| 1996 |
& ( HEFF(I,J,bi,bj) - HEFFpreTH(I,J) ) |
| 1997 |
ENDDO |
| 1998 |
ENDDO |
| 1999 |
#endif |
| 2000 |
ENDIF |
| 2001 |
#endif |
| 2002 |
#ifdef SEAICE_ITD |
| 2003 |
C check categories for consistency with limits after growth/melt |
| 2004 |
CALL SEAICE_ITD_REDIST(bi, bj, myTime,myIter,myThid) |
| 2005 |
C finally update total AREA, HEFF, HSNOW |
| 2006 |
CALL SEAICE_ITD_SUM(bi, bj, myTime,myIter,myThid) |
| 2007 |
#endif |
| 2008 |
|
| 2009 |
C =================================================================== |
| 2010 |
C =============PART 5: determine ice salinity increments============= |
| 2011 |
C =================================================================== |
| 2012 |
|
| 2013 |
#ifndef SEAICE_VARIABLE_SALINITY |
| 2014 |
# if (defined ALLOW_AUTODIFF_TAMC && defined ALLOW_SALT_PLUME) |
| 2015 |
CADJ STORE d_HEFFbyNEG = comlev1_bibj,key=iicekey,byte=isbyte |
| 2016 |
CADJ STORE d_HEFFbyOCNonICE = comlev1_bibj,key=iicekey,byte=isbyte |
| 2017 |
CADJ STORE d_HEFFbyATMonOCN = comlev1_bibj,key=iicekey,byte=isbyte |
| 2018 |
CADJ STORE d_HEFFbyATMonOCN_open = comlev1_bibj,key=iicekey,byte=isbyte |
| 2019 |
CADJ STORE d_HEFFbyATMonOCN_cover = comlev1_bibj,key=iicekey,byte=isbyte |
| 2020 |
CADJ STORE d_HEFFbyFLOODING = comlev1_bibj,key=iicekey,byte=isbyte |
| 2021 |
CADJ STORE d_HEFFbySublim = comlev1_bibj,key=iicekey,byte=isbyte |
| 2022 |
CADJ STORE salt(:,:,kSurface,bi,bj) = comlev1_bibj, |
| 2023 |
CADJ & key = iicekey, byte = isbyte |
| 2024 |
# endif /* ALLOW_AUTODIFF_TAMC and ALLOW_SALT_PLUME */ |
| 2025 |
DO J=1,sNy |
| 2026 |
DO I=1,sNx |
| 2027 |
tmpscal1 = d_HEFFbyNEG(I,J) + d_HEFFbyOCNonICE(I,J) + |
| 2028 |
& d_HEFFbyATMonOCN(I,J) + d_HEFFbyFLOODING(I,J) |
| 2029 |
& + d_HEFFbySublim(I,J) |
| 2030 |
#ifdef EXF_ALLOW_SEAICE_RELAX |
| 2031 |
& + d_HEFFbyRLX(I,J) |
| 2032 |
#endif |
| 2033 |
tmpscal2 = tmpscal1 * SEAICE_salt0 * HEFFM(I,J,bi,bj) |
| 2034 |
& * recip_deltaTtherm * SEAICE_rhoIce |
| 2035 |
saltFlux(I,J,bi,bj) = tmpscal2 |
| 2036 |
#ifdef ALLOW_SALT_PLUME |
| 2037 |
tmpscal3 = tmpscal1*salt(I,J,kSurface,bi,bj)*HEFFM(I,J,bi,bj) |
| 2038 |
& * recip_deltaTtherm * SEAICE_rhoIce |
| 2039 |
saltPlumeFlux(I,J,bi,bj) = MAX( tmpscal3-tmpscal2 , 0. _d 0) |
| 2040 |
& *SPsalFRAC |
| 2041 |
#endif /* ALLOW_SALT_PLUME */ |
| 2042 |
ENDDO |
| 2043 |
ENDDO |
| 2044 |
#endif /* ndef SEAICE_VARIABLE_SALINITY */ |
| 2045 |
|
| 2046 |
#ifdef SEAICE_VARIABLE_SALINITY |
| 2047 |
|
| 2048 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 2049 |
CADJ STORE hsalt(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 2050 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 2051 |
|
| 2052 |
DO J=1,sNy |
| 2053 |
DO I=1,sNx |
| 2054 |
C sum up the terms that affect the salt content of the ice pack |
| 2055 |
tmpscal1=d_HEFFbyOCNonICE(I,J)+d_HEFFbyATMonOCN(I,J) |
| 2056 |
|
| 2057 |
C recompute HEFF before thermodynamic updates (which is not AREApreTH in legacy code) |
| 2058 |
tmpscal2=HEFF(I,J,bi,bj)-tmpscal1-d_HEFFbyFLOODING(I,J) |
| 2059 |
C tmpscal1 > 0 : m of sea ice that is created |
| 2060 |
IF ( tmpscal1 .GE. 0.0 ) THEN |
| 2061 |
saltFlux(I,J,bi,bj) = |
| 2062 |
& HEFFM(I,J,bi,bj)*recip_deltaTtherm |
| 2063 |
& *SEAICE_saltFrac*salt(I,J,kSurface,bi,bj) |
| 2064 |
& *tmpscal1*SEAICE_rhoIce |
| 2065 |
#ifdef ALLOW_SALT_PLUME |
| 2066 |
C saltPlumeFlux is defined only during freezing: |
| 2067 |
saltPlumeFlux(I,J,bi,bj)= |
| 2068 |
& HEFFM(I,J,bi,bj)*recip_deltaTtherm |
| 2069 |
& *(ONE-SEAICE_saltFrac)*salt(I,J,kSurface,bi,bj) |
| 2070 |
& *tmpscal1*SEAICE_rhoIce |
| 2071 |
& *SPsalFRAC |
| 2072 |
C if SaltPlumeSouthernOcean=.FALSE. turn off salt plume in Southern Ocean |
| 2073 |
IF ( .NOT. SaltPlumeSouthernOcean ) THEN |
| 2074 |
IF ( YC(I,J,bi,bj) .LT. 0.0 _d 0 ) |
| 2075 |
& saltPlumeFlux(i,j,bi,bj) = 0.0 _d 0 |
| 2076 |
ENDIF |
| 2077 |
#endif /* ALLOW_SALT_PLUME */ |
| 2078 |
|
| 2079 |
C tmpscal1 < 0 : m of sea ice that is melted |
| 2080 |
ELSE |
| 2081 |
saltFlux(I,J,bi,bj) = |
| 2082 |
& HEFFM(I,J,bi,bj)*recip_deltaTtherm |
| 2083 |
& *HSALT(I,J,bi,bj) |
| 2084 |
& *tmpscal1/tmpscal2 |
| 2085 |
#ifdef ALLOW_SALT_PLUME |
| 2086 |
saltPlumeFlux(i,j,bi,bj) = 0.0 _d 0 |
| 2087 |
#endif /* ALLOW_SALT_PLUME */ |
| 2088 |
ENDIF |
| 2089 |
C update HSALT based on surface saltFlux |
| 2090 |
HSALT(I,J,bi,bj) = HSALT(I,J,bi,bj) + |
| 2091 |
& saltFlux(I,J,bi,bj) * SEAICE_deltaTtherm |
| 2092 |
saltFlux(I,J,bi,bj) = |
| 2093 |
& saltFlux(I,J,bi,bj) + saltFluxAdjust(I,J) |
| 2094 |
ENDDO |
| 2095 |
ENDDO |
| 2096 |
#endif /* SEAICE_VARIABLE_SALINITY */ |
| 2097 |
|
| 2098 |
#ifdef ALLOW_SITRACER |
| 2099 |
DO J=1,sNy |
| 2100 |
DO I=1,sNx |
| 2101 |
C needs to be here to allow use also with LEGACY branch |
| 2102 |
SItrHEFF(I,J,bi,bj,5)=HEFF(I,J,bi,bj) |
| 2103 |
ENDDO |
| 2104 |
ENDDO |
| 2105 |
#endif /* ALLOW_SITRACER */ |
| 2106 |
|
| 2107 |
C =================================================================== |
| 2108 |
C ==============PART 7: determine ocean model forcing================ |
| 2109 |
C =================================================================== |
| 2110 |
|
| 2111 |
C compute net heat flux leaving/entering the ocean, |
| 2112 |
C accounting for the part used in melt/freeze processes |
| 2113 |
C ===================================================== |
| 2114 |
|
| 2115 |
#ifdef SEAICE_ITD |
| 2116 |
C compute total of "mult" fluxes for ocean forcing |
| 2117 |
DO J=1,sNy |
| 2118 |
DO I=1,sNx |
| 2119 |
a_QbyATM_cover(I,J) = 0.0 _d 0 |
| 2120 |
r_QbyATM_cover(I,J) = 0.0 _d 0 |
| 2121 |
a_QSWbyATM_cover(I,J) = 0.0 _d 0 |
| 2122 |
r_FWbySublim(I,J) = 0.0 _d 0 |
| 2123 |
ENDDO |
| 2124 |
ENDDO |
| 2125 |
DO IT=1,nITD |
| 2126 |
DO J=1,sNy |
| 2127 |
DO I=1,sNx |
| 2128 |
C if fluxes in W/m^2 then use: |
| 2129 |
c a_QbyATM_cover(I,J)=a_QbyATM_cover(I,J) |
| 2130 |
c & + a_QbyATMmult_cover(I,J,IT) * areaFracFactor(I,J,IT) |
| 2131 |
c r_QbyATM_cover(I,J)=r_QbyATM_cover(I,J) |
| 2132 |
c & + r_QbyATMmult_cover(I,J,IT) * areaFracFactor(I,J,IT) |
| 2133 |
c a_QSWbyATM_cover(I,J)=a_QSWbyATM_cover(I,J) |
| 2134 |
c & + a_QSWbyATMmult_cover(I,J,IT) * areaFracFactor(I,J,IT) |
| 2135 |
c r_FWbySublim(I,J)=r_FWbySublim(I,J) |
| 2136 |
c & + r_FWbySublimMult(I,J,IT) * areaFracFactor(I,J,IT) |
| 2137 |
C if fluxes in effective ice meters, i.e. ice volume per area, then use: |
| 2138 |
a_QbyATM_cover(I,J)=a_QbyATM_cover(I,J) |
| 2139 |
& + a_QbyATMmult_cover(I,J,IT) |
| 2140 |
r_QbyATM_cover(I,J)=r_QbyATM_cover(I,J) |
| 2141 |
& + r_QbyATMmult_cover(I,J,IT) |
| 2142 |
a_QSWbyATM_cover(I,J)=a_QSWbyATM_cover(I,J) |
| 2143 |
& + a_QSWbyATMmult_cover(I,J,IT) |
| 2144 |
r_FWbySublim(I,J)=r_FWbySublim(I,J) |
| 2145 |
& + r_FWbySublimMult(I,J,IT) |
| 2146 |
ENDDO |
| 2147 |
ENDDO |
| 2148 |
ENDDO |
| 2149 |
#endif |
| 2150 |
|
| 2151 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 2152 |
CADJ STORE d_hsnwbyneg = comlev1_bibj,key=iicekey,byte=isbyte |
| 2153 |
CADJ STORE d_hsnwbyocnonsnw = comlev1_bibj,key=iicekey,byte=isbyte |
| 2154 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 2155 |
|
| 2156 |
DO J=1,sNy |
| 2157 |
DO I=1,sNx |
| 2158 |
QNET(I,J,bi,bj) = r_QbyATM_cover(I,J) + r_QbyATM_open(I,J) |
| 2159 |
& + a_QSWbyATM_cover(I,J) |
| 2160 |
& - ( d_HEFFbyOCNonICE(I,J) |
| 2161 |
& + d_HSNWbyOCNonSNW(I,J)*SNOW2ICE |
| 2162 |
& + d_HEFFbyNEG(I,J) |
| 2163 |
#ifdef EXF_ALLOW_SEAICE_RELAX |
| 2164 |
& + d_HEFFbyRLX(I,J) |
| 2165 |
#endif |
| 2166 |
& + d_HSNWbyNEG(I,J)*SNOW2ICE |
| 2167 |
& - convertPRECIP2HI * |
| 2168 |
& snowPrecip(i,j,bi,bj) * (ONE-AREApreTH(I,J)) |
| 2169 |
& ) * maskC(I,J,kSurface,bi,bj) |
| 2170 |
ENDDO |
| 2171 |
ENDDO |
| 2172 |
DO J=1,sNy |
| 2173 |
DO I=1,sNx |
| 2174 |
QSW(I,J,bi,bj) = a_QSWbyATM_cover(I,J) + a_QSWbyATM_open(I,J) |
| 2175 |
ENDDO |
| 2176 |
ENDDO |
| 2177 |
|
| 2178 |
C switch heat fluxes from 'effective' ice meters to W/m2 |
| 2179 |
C ====================================================== |
| 2180 |
|
| 2181 |
DO J=1,sNy |
| 2182 |
DO I=1,sNx |
| 2183 |
QNET(I,J,bi,bj) = QNET(I,J,bi,bj)*convertHI2Q |
| 2184 |
QSW(I,J,bi,bj) = QSW(I,J,bi,bj)*convertHI2Q |
| 2185 |
ENDDO |
| 2186 |
ENDDO |
| 2187 |
|
| 2188 |
#ifndef SEAICE_DISABLE_HEATCONSFIX |
| 2189 |
C treat advective heat flux by ocean to ice water exchange (at 0decC) |
| 2190 |
C =================================================================== |
| 2191 |
# ifdef ALLOW_AUTODIFF_TAMC |
| 2192 |
CADJ STORE d_HEFFbyNEG = comlev1_bibj,key=iicekey,byte=isbyte |
| 2193 |
CADJ STORE d_HEFFbyOCNonICE = comlev1_bibj,key=iicekey,byte=isbyte |
| 2194 |
CADJ STORE d_HEFFbyATMonOCN = comlev1_bibj,key=iicekey,byte=isbyte |
| 2195 |
CADJ STORE d_HSNWbyNEG = comlev1_bibj,key=iicekey,byte=isbyte |
| 2196 |
CADJ STORE d_HSNWbyOCNonSNW = comlev1_bibj,key=iicekey,byte=isbyte |
| 2197 |
CADJ STORE d_HSNWbyATMonSNW = comlev1_bibj,key=iicekey,byte=isbyte |
| 2198 |
CADJ STORE theta(:,:,kSurface,bi,bj) = comlev1_bibj, |
| 2199 |
CADJ & key = iicekey, byte = isbyte |
| 2200 |
# endif /* ALLOW_AUTODIFF_TAMC */ |
| 2201 |
cgf Unlike for evap and precip, the temperature of gained/lost |
| 2202 |
C ocean liquid water due to melt/freeze of solid water cannot be chosen |
| 2203 |
C arbitrarily to be e.g. the ocean SST. Indeed the present seaice model |
| 2204 |
C implies a constant ice temperature of 0degC. If melt/freeze water is exchanged |
| 2205 |
C at a different temperature, it leads to a loss of conservation in the |
| 2206 |
C ocean+ice system. While this is mostly a serious issue in the |
| 2207 |
C real fresh water + non linear free surface framework, a mismatch |
| 2208 |
C between ice and ocean boundary condition can result in all cases. |
| 2209 |
C Below we therefore anticipate on external_forcing_surf.F |
| 2210 |
C to diagnoze and/or apply the correction to QNET. |
| 2211 |
DO J=1,sNy |
| 2212 |
DO I=1,sNx |
| 2213 |
C ocean water going to ice/snow, in precip units |
| 2214 |
tmpscal3=rhoConstFresh*maskC(I,J,kSurface,bi,bj)*( |
| 2215 |
& ( d_HSNWbyATMonSNW(I,J)*SNOW2ICE |
| 2216 |
& + d_HSNWbyOCNonSNW(I,J)*SNOW2ICE |
| 2217 |
& + d_HEFFbyOCNonICE(I,J) + d_HEFFbyATMonOCN(I,J) |
| 2218 |
& + d_HEFFbyNEG(I,J) + d_HSNWbyNEG(I,J)*SNOW2ICE ) |
| 2219 |
& * convertHI2PRECIP |
| 2220 |
& - snowPrecip(i,j,bi,bj) * (ONE-AREApreTH(I,J)) ) |
| 2221 |
C factor in the heat content as done in external_forcing_surf.F |
| 2222 |
IF ( (temp_EvPrRn.NE.UNSET_RL).AND.useRealFreshWaterFlux |
| 2223 |
& .AND.(nonlinFreeSurf.NE.0) ) THEN |
| 2224 |
tmpscal1 = - tmpscal3* |
| 2225 |
& HeatCapacity_Cp * temp_EvPrRn |
| 2226 |
ELSEIF ( (temp_EvPrRn.EQ.UNSET_RL).AND.useRealFreshWaterFlux |
| 2227 |
& .AND.(nonlinFreeSurf.NE.0) ) THEN |
| 2228 |
tmpscal1 = - tmpscal3* |
| 2229 |
& HeatCapacity_Cp * theta(I,J,kSurface,bi,bj) |
| 2230 |
ELSEIF ( (temp_EvPrRn.NE.UNSET_RL) ) THEN |
| 2231 |
tmpscal1 = - tmpscal3*HeatCapacity_Cp* |
| 2232 |
& ( temp_EvPrRn - theta(I,J,kSurface,bi,bj) ) |
| 2233 |
ELSEIF ( (temp_EvPrRn.EQ.UNSET_RL) ) THEN |
| 2234 |
tmpscal1 = ZERO |
| 2235 |
ENDIF |
| 2236 |
#ifdef ALLOW_DIAGNOSTICS |
| 2237 |
C in all cases, diagnoze the boundary condition mismatch to SIaaflux |
| 2238 |
DIAGarrayA(I,J)=tmpscal1 |
| 2239 |
#endif |
| 2240 |
C remove the mismatch when real fresh water is exchanged (at 0degC here) |
| 2241 |
IF ( useRealFreshWaterFlux.AND.(nonlinFreeSurf.GT.0).AND. |
| 2242 |
& SEAICEheatConsFix ) QNET(I,J,bi,bj)=QNET(I,J,bi,bj)+tmpscal1 |
| 2243 |
ENDDO |
| 2244 |
ENDDO |
| 2245 |
#ifdef ALLOW_DIAGNOSTICS |
| 2246 |
CALL DIAGNOSTICS_FILL(DIAGarrayA, |
| 2247 |
& 'SIaaflux',0,1,3,bi,bj,myThid) |
| 2248 |
#endif |
| 2249 |
#endif /* ndef SEAICE_DISABLE_HEATCONSFIX */ |
| 2250 |
|
| 2251 |
C compute the net heat flux, incl. adv. by water, entering ocean+ice |
| 2252 |
C =================================================================== |
| 2253 |
DO J=1,sNy |
| 2254 |
DO I=1,sNx |
| 2255 |
cgf 1) SIatmQnt (analogous to qnet; excl. adv. by water exch.) |
| 2256 |
CML If I consider the atmosphere above the ice, the surface flux |
| 2257 |
CML which is relevant for the air temperature dT/dt Eq |
| 2258 |
CML accounts for sensible and radiation (with different treatment |
| 2259 |
CML according to wave-length) fluxes but not for "latent heat flux", |
| 2260 |
CML since it does not contribute to heating the air. |
| 2261 |
CML So this diagnostic is only good for heat budget calculations within |
| 2262 |
CML the ice-ocean system. |
| 2263 |
SIatmQnt(I,J,bi,bj) = |
| 2264 |
& maskC(I,J,kSurface,bi,bj)*convertHI2Q*( |
| 2265 |
& a_QSWbyATM_cover(I,J) + |
| 2266 |
& a_QbyATM_cover(I,J) + a_QbyATM_open(I,J) ) |
| 2267 |
cgf 2) SItflux (analogous to tflux; includes advection by water |
| 2268 |
C exchanged between atmosphere and ocean+ice) |
| 2269 |
C solid water going to atm, in precip units |
| 2270 |
tmpscal1 = rhoConstFresh*maskC(I,J,kSurface,bi,bj) |
| 2271 |
& * convertHI2PRECIP * ( - d_HSNWbyRAIN(I,J)*SNOW2ICE |
| 2272 |
& + a_FWbySublim(I,J) - r_FWbySublim(I,J) ) |
| 2273 |
C liquid water going to atm, in precip units |
| 2274 |
tmpscal2=rhoConstFresh*maskC(I,J,kSurface,bi,bj)* |
| 2275 |
& ( ( EVAP(I,J,bi,bj)-PRECIP(I,J,bi,bj) ) |
| 2276 |
& * ( ONE - AREApreTH(I,J) ) |
| 2277 |
#ifdef ALLOW_RUNOFF |
| 2278 |
& - RUNOFF(I,J,bi,bj) |
| 2279 |
#endif /* ALLOW_RUNOFF */ |
| 2280 |
& + ( d_HFRWbyRAIN(I,J) + r_FWbySublim(I,J) ) |
| 2281 |
& *convertHI2PRECIP ) |
| 2282 |
C In real fresh water flux + nonlinFS, we factor in the advected specific |
| 2283 |
C energy (referenced to 0 for 0deC liquid water). In virtual salt flux or |
| 2284 |
C linFS, rain/evap get a special treatment (see external_forcing_surf.F). |
| 2285 |
tmpscal1= - tmpscal1* |
| 2286 |
& ( -SEAICE_lhFusion + HeatCapacity_Cp * ZERO ) |
| 2287 |
IF ( (temp_EvPrRn.NE.UNSET_RL).AND.useRealFreshWaterFlux |
| 2288 |
& .AND.(nonlinFreeSurf.NE.0) ) THEN |
| 2289 |
tmpscal2= - tmpscal2* |
| 2290 |
& ( ZERO + HeatCapacity_Cp * temp_EvPrRn ) |
| 2291 |
ELSEIF ( (temp_EvPrRn.EQ.UNSET_RL).AND.useRealFreshWaterFlux |
| 2292 |
& .AND.(nonlinFreeSurf.NE.0) ) THEN |
| 2293 |
tmpscal2= - tmpscal2* |
| 2294 |
& ( ZERO + HeatCapacity_Cp * theta(I,J,kSurface,bi,bj) ) |
| 2295 |
ELSEIF ( (temp_EvPrRn.NE.UNSET_RL) ) THEN |
| 2296 |
tmpscal2= - tmpscal2*HeatCapacity_Cp* |
| 2297 |
& ( temp_EvPrRn - theta(I,J,kSurface,bi,bj) ) |
| 2298 |
ELSEIF ( (temp_EvPrRn.EQ.UNSET_RL) ) THEN |
| 2299 |
tmpscal2= ZERO |
| 2300 |
ENDIF |
| 2301 |
SItflux(I,J,bi,bj)= |
| 2302 |
& SIatmQnt(I,J,bi,bj)-tmpscal1-tmpscal2 |
| 2303 |
ENDDO |
| 2304 |
ENDDO |
| 2305 |
|
| 2306 |
C compute net fresh water flux leaving/entering |
| 2307 |
C the ocean, accounting for fresh/salt water stocks. |
| 2308 |
C ================================================== |
| 2309 |
|
| 2310 |
#ifdef ALLOW_ATM_TEMP |
| 2311 |
DO J=1,sNy |
| 2312 |
DO I=1,sNx |
| 2313 |
tmpscal1= d_HSNWbyATMonSNW(I,J)*SNOW2ICE |
| 2314 |
& +d_HFRWbyRAIN(I,J) |
| 2315 |
& +d_HSNWbyOCNonSNW(I,J)*SNOW2ICE |
| 2316 |
& +d_HEFFbyOCNonICE(I,J) |
| 2317 |
& +d_HEFFbyATMonOCN(I,J) |
| 2318 |
& +d_HEFFbyNEG(I,J) |
| 2319 |
#ifdef EXF_ALLOW_SEAICE_RELAX |
| 2320 |
& +d_HEFFbyRLX(I,J) |
| 2321 |
#endif |
| 2322 |
& +d_HSNWbyNEG(I,J)*SNOW2ICE |
| 2323 |
C If r_FWbySublim>0, then it is evaporated from ocean. |
| 2324 |
& +r_FWbySublim(I,J) |
| 2325 |
EmPmR(I,J,bi,bj) = maskC(I,J,kSurface,bi,bj)*( |
| 2326 |
& ( EVAP(I,J,bi,bj)-PRECIP(I,J,bi,bj) ) |
| 2327 |
& * ( ONE - AREApreTH(I,J) ) |
| 2328 |
#ifdef ALLOW_RUNOFF |
| 2329 |
& - RUNOFF(I,J,bi,bj) |
| 2330 |
#endif /* ALLOW_RUNOFF */ |
| 2331 |
& + tmpscal1*convertHI2PRECIP |
| 2332 |
& )*rhoConstFresh |
| 2333 |
c and the flux leaving/entering the ocean+ice |
| 2334 |
SIatmFW(I,J,bi,bj) = maskC(I,J,kSurface,bi,bj)*( |
| 2335 |
& EVAP(I,J,bi,bj)*( ONE - AREApreTH(I,J) ) |
| 2336 |
& - PRECIP(I,J,bi,bj) |
| 2337 |
#ifdef ALLOW_RUNOFF |
| 2338 |
& - RUNOFF(I,J,bi,bj) |
| 2339 |
#endif /* ALLOW_RUNOFF */ |
| 2340 |
& )*rhoConstFresh |
| 2341 |
& + a_FWbySublim(I,J) * SEAICE_rhoIce * recip_deltaTtherm |
| 2342 |
|
| 2343 |
ENDDO |
| 2344 |
ENDDO |
| 2345 |
|
| 2346 |
#ifdef ALLOW_SSH_GLOBMEAN_COST_CONTRIBUTION |
| 2347 |
C-- |
| 2348 |
DO J=1,sNy |
| 2349 |
DO I=1,sNx |
| 2350 |
frWtrAtm(I,J,bi,bj) = maskC(I,J,kSurface,bi,bj)*( |
| 2351 |
& PRECIP(I,J,bi,bj) |
| 2352 |
& - EVAP(I,J,bi,bj)*( ONE - AREApreTH(I,J) ) |
| 2353 |
# ifdef ALLOW_RUNOFF |
| 2354 |
& + RUNOFF(I,J,bi,bj) |
| 2355 |
# endif /* ALLOW_RUNOFF */ |
| 2356 |
& )*rhoConstFresh |
| 2357 |
# ifdef SEAICE_ADD_SUBLIMATION_TO_FWBUDGET |
| 2358 |
& - a_FWbySublim(I,J)*AREApreTH(I,J) |
| 2359 |
# endif /* SEAICE_ADD_SUBLIMATION_TO_FWBUDGET */ |
| 2360 |
ENDDO |
| 2361 |
ENDDO |
| 2362 |
C-- |
| 2363 |
#else /* ndef ALLOW_SSH_GLOBMEAN_COST_CONTRIBUTION */ |
| 2364 |
C-- |
| 2365 |
# ifdef ALLOW_MEAN_SFLUX_COST_CONTRIBUTION |
| 2366 |
DO J=1,sNy |
| 2367 |
DO I=1,sNx |
| 2368 |
frWtrAtm(I,J,bi,bj) = maskC(I,J,kSurface,bi,bj)*( |
| 2369 |
& PRECIP(I,J,bi,bj) |
| 2370 |
& - EVAP(I,J,bi,bj) |
| 2371 |
& *( ONE - AREApreTH(I,J) ) |
| 2372 |
# ifdef ALLOW_RUNOFF |
| 2373 |
& + RUNOFF(I,J,bi,bj) |
| 2374 |
# endif /* ALLOW_RUNOFF */ |
| 2375 |
& )*rhoConstFresh |
| 2376 |
& - a_FWbySublim(I,J) * SEAICE_rhoIce * recip_deltaTtherm |
| 2377 |
ENDDO |
| 2378 |
ENDDO |
| 2379 |
# endif |
| 2380 |
C-- |
| 2381 |
#endif /* ALLOW_SSH_GLOBMEAN_COST_CONTRIBUTION */ |
| 2382 |
|
| 2383 |
#endif /* ALLOW_ATM_TEMP */ |
| 2384 |
|
| 2385 |
#ifdef SEAICE_DEBUG |
| 2386 |
CALL PLOT_FIELD_XYRL( QSW,'Current QSW ', myIter, myThid ) |
| 2387 |
CALL PLOT_FIELD_XYRL( QNET,'Current QNET ', myIter, myThid ) |
| 2388 |
CALL PLOT_FIELD_XYRL( EmPmR,'Current EmPmR ', myIter, myThid ) |
| 2389 |
#endif /* SEAICE_DEBUG */ |
| 2390 |
|
| 2391 |
C Sea Ice Load on the sea surface. |
| 2392 |
C ================================= |
| 2393 |
|
| 2394 |
#ifdef ALLOW_AUTODIFF_TAMC |
| 2395 |
CADJ STORE heff(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 2396 |
CADJ STORE hsnow(:,:,bi,bj) = comlev1_bibj,key=iicekey,byte=isbyte |
| 2397 |
#endif /* ALLOW_AUTODIFF_TAMC */ |
| 2398 |
|
| 2399 |
IF ( useRealFreshWaterFlux ) THEN |
| 2400 |
DO J=1,sNy |
| 2401 |
DO I=1,sNx |
| 2402 |
#ifdef SEAICE_CAP_ICELOAD |
| 2403 |
tmpscal1 = HEFF(I,J,bi,bj)*SEAICE_rhoIce |
| 2404 |
& + HSNOW(I,J,bi,bj)*SEAICE_rhoSnow |
| 2405 |
tmpscal2 = MIN(tmpscal1,heffTooHeavy*rhoConst) |
| 2406 |
#else |
| 2407 |
tmpscal2 = HEFF(I,J,bi,bj)*SEAICE_rhoIce |
| 2408 |
& + HSNOW(I,J,bi,bj)*SEAICE_rhoSnow |
| 2409 |
#endif |
| 2410 |
sIceLoad(i,j,bi,bj) = tmpscal2 |
| 2411 |
ENDDO |
| 2412 |
ENDDO |
| 2413 |
ENDIF |
| 2414 |
|
| 2415 |
#ifdef ALLOW_BALANCE_FLUXES |
| 2416 |
C Compute tile integrals of heat/fresh water fluxes to/from atm. |
| 2417 |
C ============================================================== |
| 2418 |
FWFsiTile(bi,bj) = 0. _d 0 |
| 2419 |
IF ( balanceEmPmR ) THEN |
| 2420 |
DO j=1,sNy |
| 2421 |
DO i=1,sNx |
| 2422 |
FWFsiTile(bi,bj) = |
| 2423 |
& FWFsiTile(bi,bj) + SIatmFW(i,j,bi,bj) |
| 2424 |
& * rA(i,j,bi,bj) * maskInC(i,j,bi,bj) |
| 2425 |
ENDDO |
| 2426 |
ENDDO |
| 2427 |
ENDIF |
| 2428 |
c to translate global mean FWF adjustements (see below) we may need : |
| 2429 |
FWF2HFsiTile(bi,bj) = 0. _d 0 |
| 2430 |
IF ( balanceEmPmR.AND.(temp_EvPrRn.EQ.UNSET_RL) ) THEN |
| 2431 |
DO j=1,sNy |
| 2432 |
DO i=1,sNx |
| 2433 |
FWF2HFsiTile(bi,bj) = FWF2HFsiTile(bi,bj) + |
| 2434 |
& HeatCapacity_Cp * theta(I,J,kSurface,bi,bj) |
| 2435 |
& * rA(i,j,bi,bj) * maskInC(i,j,bi,bj) |
| 2436 |
ENDDO |
| 2437 |
ENDDO |
| 2438 |
ENDIF |
| 2439 |
HFsiTile(bi,bj) = 0. _d 0 |
| 2440 |
IF ( balanceQnet ) THEN |
| 2441 |
DO j=1,sNy |
| 2442 |
DO i=1,sNx |
| 2443 |
HFsiTile(bi,bj) = |
| 2444 |
& HFsiTile(bi,bj) + SItflux(i,j,bi,bj) |
| 2445 |
& * rA(i,j,bi,bj) * maskInC(i,j,bi,bj) |
| 2446 |
ENDDO |
| 2447 |
ENDDO |
| 2448 |
ENDIF |
| 2449 |
#endif |
| 2450 |
|
| 2451 |
C =================================================================== |
| 2452 |
C ======================PART 8: diagnostics========================== |
| 2453 |
C =================================================================== |
| 2454 |
|
| 2455 |
#ifdef ALLOW_DIAGNOSTICS |
| 2456 |
IF ( useDiagnostics ) THEN |
| 2457 |
tmpscal1=1. _d 0 * recip_deltaTtherm |
| 2458 |
CALL DIAGNOSTICS_SCALE_FILL(a_QbyATM_cover, |
| 2459 |
& tmpscal1,1,'SIaQbATC',0,1,3,bi,bj,myThid) |
| 2460 |
CALL DIAGNOSTICS_SCALE_FILL(a_QbyATM_open, |
| 2461 |
& tmpscal1,1,'SIaQbATO',0,1,3,bi,bj,myThid) |
| 2462 |
CALL DIAGNOSTICS_SCALE_FILL(a_QbyOCN, |
| 2463 |
& tmpscal1,1,'SIaQbOCN',0,1,3,bi,bj,myThid) |
| 2464 |
CALL DIAGNOSTICS_SCALE_FILL(d_HEFFbyOCNonICE, |
| 2465 |
& tmpscal1,1,'SIdHbOCN',0,1,3,bi,bj,myThid) |
| 2466 |
CALL DIAGNOSTICS_SCALE_FILL(d_HEFFbyATMonOCN_cover, |
| 2467 |
& tmpscal1,1,'SIdHbATC',0,1,3,bi,bj,myThid) |
| 2468 |
CALL DIAGNOSTICS_SCALE_FILL(d_HEFFbyATMonOCN_open, |
| 2469 |
& tmpscal1,1,'SIdHbATO',0,1,3,bi,bj,myThid) |
| 2470 |
CALL DIAGNOSTICS_SCALE_FILL(d_HEFFbyFLOODING, |
| 2471 |
& tmpscal1,1,'SIdHbFLO',0,1,3,bi,bj,myThid) |
| 2472 |
CALL DIAGNOSTICS_SCALE_FILL(d_HSNWbyOCNonSNW, |
| 2473 |
& tmpscal1,1,'SIdSbOCN',0,1,3,bi,bj,myThid) |
| 2474 |
CALL DIAGNOSTICS_SCALE_FILL(d_HSNWbyATMonSNW, |
| 2475 |
& tmpscal1,1,'SIdSbATC',0,1,3,bi,bj,myThid) |
| 2476 |
CALL DIAGNOSTICS_SCALE_FILL(d_AREAbyATM, |
| 2477 |
& tmpscal1,1,'SIdAbATO',0,1,3,bi,bj,myThid) |
| 2478 |
CALL DIAGNOSTICS_SCALE_FILL(d_AREAbyICE, |
| 2479 |
& tmpscal1,1,'SIdAbATC',0,1,3,bi,bj,myThid) |
| 2480 |
CALL DIAGNOSTICS_SCALE_FILL(d_AREAbyOCN, |
| 2481 |
& tmpscal1,1,'SIdAbOCN',0,1,3,bi,bj,myThid) |
| 2482 |
CALL DIAGNOSTICS_SCALE_FILL(r_QbyATM_open, |
| 2483 |
& convertHI2Q,1, 'SIqneto ',0,1,3,bi,bj,myThid) |
| 2484 |
CALL DIAGNOSTICS_SCALE_FILL(r_QbyATM_cover, |
| 2485 |
& convertHI2Q,1, 'SIqneti ',0,1,3,bi,bj,myThid) |
| 2486 |
C three that actually need intermediate storage |
| 2487 |
DO J=1,sNy |
| 2488 |
DO I=1,sNx |
| 2489 |
DIAGarrayA(I,J) = maskC(I,J,kSurface,bi,bj) |
| 2490 |
& * d_HSNWbyRAIN(I,J)*SEAICE_rhoSnow*recip_deltaTtherm |
| 2491 |
DIAGarrayB(I,J) = AREA(I,J,bi,bj)-AREApreTH(I,J) |
| 2492 |
ENDDO |
| 2493 |
ENDDO |
| 2494 |
CALL DIAGNOSTICS_FILL(DIAGarrayA, |
| 2495 |
& 'SIsnPrcp',0,1,3,bi,bj,myThid) |
| 2496 |
CALL DIAGNOSTICS_SCALE_FILL(DIAGarrayB, |
| 2497 |
& tmpscal1,1,'SIdA ',0,1,3,bi,bj,myThid) |
| 2498 |
#ifdef ALLOW_ATM_TEMP |
| 2499 |
DO J=1,sNy |
| 2500 |
DO I=1,sNx |
| 2501 |
DIAGarrayB(I,J) = maskC(I,J,kSurface,bi,bj) * |
| 2502 |
& a_FWbySublim(I,J) * SEAICE_rhoIce * recip_deltaTtherm |
| 2503 |
ENDDO |
| 2504 |
ENDDO |
| 2505 |
CALL DIAGNOSTICS_FILL(DIAGarrayB, |
| 2506 |
& 'SIfwSubl',0,1,3,bi,bj,myThid) |
| 2507 |
C |
| 2508 |
DO J=1,sNy |
| 2509 |
DO I=1,sNx |
| 2510 |
C the actual Freshwater flux of sublimated ice, >0 decreases ice |
| 2511 |
DIAGarrayA(I,J) = maskC(I,J,kSurface,bi,bj) |
| 2512 |
& * (a_FWbySublim(I,J)-r_FWbySublim(I,J)) |
| 2513 |
& * SEAICE_rhoIce * recip_deltaTtherm |
| 2514 |
C the residual Freshwater flux of sublimated ice |
| 2515 |
DIAGarrayC(I,J) = maskC(I,J,kSurface,bi,bj) |
| 2516 |
& * r_FWbySublim(I,J) |
| 2517 |
& * SEAICE_rhoIce * recip_deltaTtherm |
| 2518 |
C the latent heat flux |
| 2519 |
tmpscal1= EVAP(I,J,bi,bj)*( ONE - AREApreTH(I,J) ) |
| 2520 |
& + r_FWbySublim(I,J)*convertHI2PRECIP |
| 2521 |
tmpscal2= ( a_FWbySublim(I,J)-r_FWbySublim(I,J) ) |
| 2522 |
& * convertHI2PRECIP |
| 2523 |
tmpscal3= SEAICE_lhEvap+SEAICE_lhFusion |
| 2524 |
DIAGarrayB(I,J) = -maskC(I,J,kSurface,bi,bj)*rhoConstFresh |
| 2525 |
& * ( tmpscal1*SEAICE_lhEvap + tmpscal2*tmpscal3 ) |
| 2526 |
ENDDO |
| 2527 |
ENDDO |
| 2528 |
CALL DIAGNOSTICS_FILL(DIAGarrayA,'SIacSubl',0,1,3,bi,bj,myThid) |
| 2529 |
CALL DIAGNOSTICS_FILL(DIAGarrayC,'SIrsSubl',0,1,3,bi,bj,myThid) |
| 2530 |
CALL DIAGNOSTICS_FILL(DIAGarrayB,'SIhl ',0,1,3,bi,bj,myThid) |
| 2531 |
#endif /* ALLOW_ATM_TEMP */ |
| 2532 |
|
| 2533 |
ENDIF |
| 2534 |
#endif /* ALLOW_DIAGNOSTICS */ |
| 2535 |
|
| 2536 |
C close bi,bj loops |
| 2537 |
ENDDO |
| 2538 |
ENDDO |
| 2539 |
|
| 2540 |
|
| 2541 |
C =================================================================== |
| 2542 |
C =========PART 9: HF/FWF global integrals and balancing============= |
| 2543 |
C =================================================================== |
| 2544 |
|
| 2545 |
#ifdef ALLOW_BALANCE_FLUXES |
| 2546 |
|
| 2547 |
c 1) global sums |
| 2548 |
# ifdef ALLOW_AUTODIFF_TAMC |
| 2549 |
CADJ STORE FWFsiTile = comlev1, key=ikey_dynamics, kind=isbyte |
| 2550 |
CADJ STORE HFsiTile = comlev1, key=ikey_dynamics, kind=isbyte |
| 2551 |
CADJ STORE FWF2HFsiTile = comlev1, key=ikey_dynamics, kind=isbyte |
| 2552 |
# endif /* ALLOW_AUTODIFF_TAMC */ |
| 2553 |
FWFsiGlob=0. _d 0 |
| 2554 |
IF ( balanceEmPmR ) |
| 2555 |
& CALL GLOBAL_SUM_TILE_RL( FWFsiTile, FWFsiGlob, myThid ) |
| 2556 |
FWF2HFsiGlob=0. _d 0 |
| 2557 |
IF ( balanceEmPmR.AND.(temp_EvPrRn.EQ.UNSET_RL) ) THEN |
| 2558 |
CALL GLOBAL_SUM_TILE_RL(FWF2HFsiTile, FWF2HFsiGlob, myThid) |
| 2559 |
ELSEIF ( balanceEmPmR ) THEN |
| 2560 |
FWF2HFsiGlob=HeatCapacity_Cp * temp_EvPrRn * globalArea |
| 2561 |
ENDIF |
| 2562 |
HFsiGlob=0. _d 0 |
| 2563 |
IF ( balanceQnet ) |
| 2564 |
& CALL GLOBAL_SUM_TILE_RL( HFsiTile, HFsiGlob, myThid ) |
| 2565 |
|
| 2566 |
c 2) global means |
| 2567 |
c mean SIatmFW |
| 2568 |
tmpscal0=FWFsiGlob / globalArea |
| 2569 |
c corresponding mean advection by atm to ocean+ice water exchange |
| 2570 |
c (if mean SIatmFW was removed uniformely from ocean) |
| 2571 |
tmpscal1=FWFsiGlob / globalArea * FWF2HFsiGlob / globalArea |
| 2572 |
c mean SItflux (before potential adjustement due to SIatmFW) |
| 2573 |
tmpscal2=HFsiGlob / globalArea |
| 2574 |
c mean SItflux (after potential adjustement due to SIatmFW) |
| 2575 |
IF ( balanceEmPmR ) tmpscal2=tmpscal2-tmpscal1 |
| 2576 |
|
| 2577 |
c 3) balancing adjustments |
| 2578 |
IF ( balanceEmPmR ) THEN |
| 2579 |
DO bj=myByLo(myThid),myByHi(myThid) |
| 2580 |
DO bi=myBxLo(myThid),myBxHi(myThid) |
| 2581 |
DO j=1-OLy,sNy+OLy |
| 2582 |
DO i=1-OLx,sNx+OLx |
| 2583 |
empmr(i,j,bi,bj) = empmr(i,j,bi,bj) - tmpscal0 |
| 2584 |
SIatmFW(i,j,bi,bj) = SIatmFW(i,j,bi,bj) - tmpscal0 |
| 2585 |
c adjust SItflux consistently |
| 2586 |
IF ( (temp_EvPrRn.NE.UNSET_RL).AND. |
| 2587 |
& useRealFreshWaterFlux.AND.(nonlinFreeSurf.NE.0) ) THEN |
| 2588 |
tmpscal1= |
| 2589 |
& ( ZERO + HeatCapacity_Cp * temp_EvPrRn ) |
| 2590 |
ELSEIF ( (temp_EvPrRn.EQ.UNSET_RL).AND. |
| 2591 |
& useRealFreshWaterFlux.AND.(nonlinFreeSurf.NE.0) ) THEN |
| 2592 |
tmpscal1= |
| 2593 |
& ( ZERO + HeatCapacity_Cp * theta(I,J,kSurface,bi,bj) ) |
| 2594 |
ELSEIF ( (temp_EvPrRn.NE.UNSET_RL) ) THEN |
| 2595 |
tmpscal1= |
| 2596 |
& HeatCapacity_Cp*(temp_EvPrRn - theta(I,J,kSurface,bi,bj)) |
| 2597 |
ELSE |
| 2598 |
tmpscal1=ZERO |
| 2599 |
ENDIF |
| 2600 |
SItflux(i,j,bi,bj) = SItflux(i,j,bi,bj) - tmpscal0*tmpscal1 |
| 2601 |
c no qnet or tflux adjustement is needed |
| 2602 |
ENDDO |
| 2603 |
ENDDO |
| 2604 |
ENDDO |
| 2605 |
ENDDO |
| 2606 |
IF ( balancePrintMean ) THEN |
| 2607 |
_BEGIN_MASTER( myThid ) |
| 2608 |
WRITE(msgBuf,'(a,a,e24.17)') 'rm Global mean of ', |
| 2609 |
& 'SIatmFW = ', tmpscal0 |
| 2610 |
CALL PRINT_MESSAGE( msgBuf, standardMessageUnit, |
| 2611 |
& SQUEEZE_RIGHT , myThid) |
| 2612 |
_END_MASTER( myThid ) |
| 2613 |
ENDIF |
| 2614 |
ENDIF |
| 2615 |
IF ( balanceQnet ) THEN |
| 2616 |
DO bj=myByLo(myThid),myByHi(myThid) |
| 2617 |
DO bi=myBxLo(myThid),myBxHi(myThid) |
| 2618 |
DO j=1-OLy,sNy+OLy |
| 2619 |
DO i=1-OLx,sNx+OLx |
| 2620 |
SItflux(i,j,bi,bj) = SItflux(i,j,bi,bj) - tmpscal2 |
| 2621 |
qnet(i,j,bi,bj) = qnet(i,j,bi,bj) - tmpscal2 |
| 2622 |
SIatmQnt(i,j,bi,bj) = SIatmQnt(i,j,bi,bj) - tmpscal2 |
| 2623 |
ENDDO |
| 2624 |
ENDDO |
| 2625 |
ENDDO |
| 2626 |
ENDDO |
| 2627 |
IF ( balancePrintMean ) THEN |
| 2628 |
_BEGIN_MASTER( myThid ) |
| 2629 |
WRITE(msgBuf,'(a,a,e24.17)') 'rm Global mean of ', |
| 2630 |
& 'SItflux = ', tmpscal2 |
| 2631 |
CALL PRINT_MESSAGE( msgBuf, standardMessageUnit, |
| 2632 |
& SQUEEZE_RIGHT , myThid) |
| 2633 |
_END_MASTER( myThid ) |
| 2634 |
ENDIF |
| 2635 |
ENDIF |
| 2636 |
#endif /* ALLOW_BALANCE_FLUXES */ |
| 2637 |
|
| 2638 |
#ifdef ALLOW_DIAGNOSTICS |
| 2639 |
c these diags need to be done outside of the bi,bj loop so that |
| 2640 |
c we may do potential global mean adjustement to them consistently. |
| 2641 |
CALL DIAGNOSTICS_FILL(SItflux, |
| 2642 |
& 'SItflux ',0,1,0,1,1,myThid) |
| 2643 |
CALL DIAGNOSTICS_FILL(SIatmQnt, |
| 2644 |
& 'SIatmQnt',0,1,0,1,1,myThid) |
| 2645 |
c SIatmFW follows the same convention as empmr -- SIatmFW diag does not |
| 2646 |
tmpscal1= - 1. _d 0 |
| 2647 |
CALL DIAGNOSTICS_SCALE_FILL(SIatmFW, |
| 2648 |
& tmpscal1,1,'SIatmFW ',0,1,0,1,1,myThid) |
| 2649 |
#endif /* ALLOW_DIAGNOSTICS */ |
| 2650 |
|
| 2651 |
RETURN |
| 2652 |
END |
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