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wwm_coupl_roms_pgmcl.F90
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wwm_coupl_roms_pgmcl.F90
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#include "wwm_functions.h"
MODULE WWMaOCN_PGMCL
#undef DEBUG
#define DEBUG
#if defined ROMS_WWM_PGMCL_COUPLING || defined MODEL_COUPLING_ATM_WAV || defined MODEL_COUPLING_OCN_WAV
LOGICAL :: L_FIRST_ORDER_ARDHUIN
LOGICAL :: L_STOKES_DRIFT_USING_INTEGRAL
integer NlevelVert
integer NlevelPartial
integer NlevelIntegral
real*8, allocatable :: U_wav(:,:), V_wav(:,:)
real*8, allocatable :: A_wav_ur_3D(:,:), A_wav_vr_3D(:,:)
real*8, allocatable :: A_wav_rho_3D(:,:), A_wav_rho(:)
real*8, allocatable :: A_wav_stat(:,:), A_wav_uvz(:,:)
real*8, allocatable :: A_wav_u_3D(:,:), A_wav_v_3D(:,:)
real*8, allocatable :: z_w_wav(:,:)
real*8, allocatable :: USTOKES_wav(:,:), VSTOKES_wav(:,:)
real*8, allocatable :: ZETA_CORR(:), J_PRESSURE(:)
real*8, allocatable :: dep_rho(:)
real*8, allocatable :: CosAng(:), SinAng(:)
CONTAINS
!**********************************************************************
!* *
!**********************************************************************
# ifdef WWM_MPI
SUBROUTINE WWM_CreateMatrixPartition
USE DATAPOOL
USE pgmcl_library, only : ALLOCATE_node_partition
# if defined MODEL_COUPLING_ATM_WAV || defined MODEL_COUPLING_OCN_WAV
USE coupling_var, only : MatrixBelongingWAV
USE coupling_var, only : NnodesWAV, MyRankLocal
USE coupling_var, only : WAV_COMM_WORLD
# endif
# ifdef ROMS_WWM_PGMCL_COUPLING
USE mod_coupler, only : MatrixBelongingWAV, NnodesWAV
USE mod_coupler, only : MyRankLocal, eGrid_wav, WAV_COMM_WORLD
# endif
implicit none
integer, allocatable :: rbuf_int(:)
integer, allocatable :: TheIndex(:)
integer, allocatable :: NumberNode(:), NumberTrig(:)
integer, allocatable :: All_LocalToGlobal(:,:)
integer i, eIdx, iProc, MNPloc, MNEloc, idx
integer IPc, IP
integer ierror
# ifdef DEBUG
integer MinValIndex, MinValIndexInv, eVal
# endif
CALL ALLOCATE_node_partition(np_global, NnodesWAV, MatrixBelongingWAV)
allocate(NumberNode(NnodesWAV), NumberTrig(NnodesWAV), stat=istat)
IF (istat/=0) CALL WWM_ABORT('WWM_CreateMatrixPartition, allocate error 1')
IF (myrank.ne.MyRankLocal) THEN
CALL WWM_ABORT('die from ignominious death')
END IF
IF (MyRankLocal.eq.0) THEN
allocate(All_LocalToGlobal(np_global, NnodesWAV), stat=istat)
IF (istat/=0) CALL WWM_ABORT('WWM_CreateMatrixPartition, allocate error 2')
All_LocalToGlobal=0
MatrixBelongingWAV % TheMatrix=0
DO i=1,MNP
eIdx=iplg(i)
MatrixBelongingWAV % TheMatrix(eIdx,1)=i
All_LocalToGlobal(i,1)=eIdx
ENDDO
NumberNode(1)=MNP
DO iProc=2,NnodesWAV
allocate(rbuf_int(1), stat=istat)
IF (istat/=0) CALL WWM_ABORT('WWM_CreateMatrixPartition, allocate error 3')
CALL MPI_RECV(rbuf_int,1,MPI_INTEGER, iProc-1, 194, WAV_COMM_WORLD, istatus, ierror)
MNPloc=rbuf_int(1)
NumberNode(iProc)=MNPloc
deallocate(rbuf_int)
!
allocate(rbuf_int(MNPloc), stat=istat)
IF (istat/=0) CALL WWM_ABORT('WWM_CreateMatrixPartition, allocate error 4')
CALL MPI_RECV(rbuf_int,MNPloc,MPI_INTEGER, iProc-1, 195, WAV_COMM_WORLD, istatus, ierror)
DO IP=1,MNPloc
eIdx=rbuf_int(IP)
MatrixBelongingWAV % TheMatrix(eIdx,iProc)=IP
All_LocalToGlobal(IP,iProc)=eIdx
END DO
deallocate(rbuf_int)
END DO
!
allocate(rbuf_int(np_global*NnodesWAV), stat=istat)
IF (istat/=0) CALL WWM_ABORT('WWM_CreateMatrixPartition, allocate error 5')
idx=0
DO iProc=1,NnodesWAV
DO IP=1,np_global
idx=idx+1
rbuf_int(idx)=MatrixBelongingWAV % TheMatrix(IP,iProc)
END DO
END DO
DO iProc=2,NnodesWAV
CALL MPI_SEND(rbuf_int,np_global*NnodesWAV,MPI_INTEGER, iProc-1, 196, WAV_COMM_WORLD, ierror)
END DO
deallocate(rbuf_int)
ELSE
allocate(rbuf_int(1), stat=istat)
IF (istat/=0) CALL WWM_ABORT('WWM_CreateMatrixPartition, allocate error 6')
rbuf_int(1)=MNP
CALL MPI_SEND(rbuf_int,1,MPI_INTEGER, 0, 194, WAV_COMM_WORLD, ierror)
deallocate(rbuf_int)
CALL MPI_SEND(iplg,MNP,MPI_INTEGER, 0, 195, WAV_COMM_WORLD, ierror)
!
allocate(rbuf_int(np_global*NnodesWAV), stat=istat)
IF (istat/=0) CALL WWM_ABORT('WWM_CreateMatrixPartition, allocate error 7')
CALL MPI_RECV(rbuf_int,np_global*NnodesWAV,MPI_INTEGER, 0, 196, WAV_COMM_WORLD, istatus, ierror)
idx=0
DO iProc=1,NnodesWAV
DO IP=1,np_global
idx=idx+1
MatrixBelongingWAV % TheMatrix(IP,iProc)=rbuf_int(idx)
END DO
END DO
deallocate(rbuf_int)
ENDIF
deallocate(NumberNode, NumberTrig)
END SUBROUTINE
# else
SUBROUTINE WWM_CreateMatrixPartition
USE DATAPOOL
# ifdef ROMS_WWM_PGMCL_COUPLING
USE mod_coupler
# endif
# if defined MODEL_COUPLING_ATM_WAV || defined MODEL_COUPLING_OCN_WAV
USE coupling_var
# endif
IMPLICIT NONE
integer IP
CALL ALLOCATE_node_partition(MNP, 1, MatrixBelongingWAV)
DO IP=1,MNP
MatrixBelongingWAV % TheMatrix(IP,1)=IP
ENDDO
END SUBROUTINE
# endif
!**********************************************************************
!* *
!**********************************************************************
SUBROUTINE WWM_common_coupl_initialize
USE pgmcl_library, only : GET_GRID_ARRAY_FE_R8
USE DATAPOOL, only : DBG, XPtotal, YPtotal, INEtotal
USE DATAPOOL, only : NE_TOTAL, NP_TOTAL
# if defined MODEL_COUPLING_ATM_WAV || defined MODEL_COUPLING_OCN_WAV
USE coupling_var
# endif
# ifdef ROMS_WWM_PGMCL_COUPLING
USE mod_coupler, only : eGrid_wav
# endif
implicit none
CALL WWM_CreateMatrixPartition
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 1.3'
FLUSH(DBG%FHNDL)
# endif
CALL GET_GRID_ARRAY_FE_r8(NP_TOTAL, NE_TOTAL, XPtotal, YPtotal, INEtotal, eGrid_wav)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 2'
FLUSH(DBG%FHNDL)
# endif
END SUBROUTINE
!**********************************************************************
!* *
!**********************************************************************
SUBROUTINE WWM_a_OCN_COUPL_INITIALIZE
! We have to keep the DATAPOOL uses that way.
! a single USE DATAPOOL creates compilation problem
! because MPI_COMM_WORLD comes from two sources.
USE DATAPOOL, only : DBG, rkind, STAT, np_total, ne_total
USE DATAPOOL, only : XPtotal, YPtotal, INEtotal
USE DATAPOOL, only : MNP, istat
USE DATAPOOL, only : DEP, XP, YP
# ifdef ROMS_WWM_PGMCL_COUPLING
USE mod_coupler
# endif
# if defined MODEL_COUPLING_ATM_WAV || defined MODEL_COUPLING_OCN_WAV
USE coupling_var, only : MatrixBelongingWAV
USE coupling_var, only : MatrixBelongingOCN_rho
USE coupling_var, only : MatrixBelongingOCN_u
USE coupling_var, only : MatrixBelongingOCN_v
USE coupling_var, only : ArrLocal
USE coupling_var, only : eGrid_wav, eGrid_ocn_rho, eGrid_ocn_u, eGrid_ocn_v
USE coupling_var, only : WAV_COMM_WORLD
USE coupling_var, only : mMat_OCNtoWAV_rho
USE coupling_var, only : mMat_OCNtoWAV_u
USE coupling_var, only : mMat_OCNtoWAV_v
USE coupling_var, only : mMat_WAVtoOCN_rho
USE coupling_var, only : mMat_WAVtoOCN_u
USE coupling_var, only : mMat_WAVtoOCN_v
USE coupling_var, only : TheAsync_OCNtoWAV_rho
USE coupling_var, only : TheAsync_OCNtoWAV_uvz
USE coupling_var, only : TheArr_OCNtoWAV_rho
USE coupling_var, only : TheArr_OCNtoWAV_u
USE coupling_var, only : TheArr_OCNtoWAV_v
USE coupling_var, only : TheArr_WAVtoOCN_rho
USE coupling_var, only : TheArr_WAVtoOCN_u
USE coupling_var, only : TheArr_WAVtoOCN_v
USE coupling_var, only : TheAsync_OCNtoWAV_u
USE coupling_var, only : TheAsync_OCNtoWAV_v
USE coupling_var, only : TheAsync_WAVtoOCN_stat
USE coupling_var, only : TheAsync_WAVtoOCN_u
USE coupling_var, only : TheAsync_WAVtoOCN_v
USE coupling_var, only : NnodesWAV, Nlevel
USE coupling_var, only : OCNid => tOCNid
USE coupling_var, only : WAVid => tWAVid
# endif
USE PGMCL_LIBRARY
USE pgmcl_interp
implicit none
integer status(MPI_STATUS_SIZE)
logical DoNearest
integer ierror
integer rbuf_int(4)
integer IP, iNodeSel, idx, eRankRecv
real(rkind) eDiff, AbsDiff, SumDep1, SumDep2, SumDiff
real(rkind) minBathy, maxBathy
real(rkind) SumDepReceive
character(len=40) :: FileSave_OCNtoWAV_rho
character(len=40) :: FileSave_OCNtoWAV_u
character(len=40) :: FileSave_OCNtoWAV_v
!
! First part: initializations of the code
!
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 1'
FLUSH(DBG%FHNDL)
WRITE(STAT%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 1'
FLUSH(STAT%FHNDL)
# endif
CALL SetComputationalNodes(ArrLocal, NnodesWAV, OCNid)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 1.2'
FLUSH(DBG%FHNDL)
# endif
!
! Second part: exchanging grids
!
IF (MyRankLocal.eq.0) THEN
CALL M2M_send_grid(ArrLocal, OCNid, eGrid_wav)
CALL M2M_send_node_partition(ArrLocal, OCNid, &
& MatrixBelongingWAV)
ENDIF
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 3'
FLUSH(DBG%FHNDL)
# endif
CALL M2M_recv_grid(ArrLocal, OCNid, eGrid_ocn_rho)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 4'
FLUSH(DBG%FHNDL)
# endif
CALL M2M_recv_grid(ArrLocal, OCNid, eGrid_ocn_u)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 5'
FLUSH(DBG%FHNDL)
# endif
CALL M2M_recv_grid(ArrLocal, OCNid, eGrid_ocn_v)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'eGrid_ocn_rho : '
CALL GRID_PRINT_KEY_INFO(DBG%FHNDL, eGrid_ocn_rho)
WRITE(DBG%FHNDL,*) 'eGrid_ocn_u : '
CALL GRID_PRINT_KEY_INFO(DBG%FHNDL, eGrid_ocn_u)
WRITE(DBG%FHNDL,*) 'eGrid_ocn_v : '
CALL GRID_PRINT_KEY_INFO(DBG%FHNDL, eGrid_ocn_v)
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 6'
FLUSH(DBG%FHNDL)
# endif
CALL M2M_recv_node_partition(ArrLocal, OCNid, &
& MatrixBelongingOCN_rho)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 7'
FLUSH(DBG%FHNDL)
# endif
CALL M2M_recv_node_partition(ArrLocal, OCNid, &
& MatrixBelongingOCN_u)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 8'
FLUSH(DBG%FHNDL)
# endif
CALL M2M_recv_node_partition(ArrLocal, OCNid, &
& MatrixBelongingOCN_v)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 9'
FLUSH(DBG%FHNDL)
# endif
eRankRecv=ArrLocal % ListFirstRank(OCNid)
CALL MPI_RECV(rbuf_int,4,MPI_INTEGER, eRankRecv, 103, MPI_COMM_WORLD, status, ierror)
Nlevel=rbuf_int(1)
NlevelVert=rbuf_int(2)
IF (rbuf_int(3) .eq. 1) THEN
L_FIRST_ORDER_ARDHUIN=.TRUE.
NlevelPartial=1
ELSE
L_FIRST_ORDER_ARDHUIN=.FALSE.
NlevelPartial=Nlevel
END IF
IF (rbuf_int(4) .eq. 1) THEN
L_STOKES_DRIFT_USING_INTEGRAL=.TRUE.
NlevelIntegral=Nlevel+1
ELSE
L_STOKES_DRIFT_USING_INTEGRAL=.FALSE.
NlevelIntegral=1
END IF
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 10'
FLUSH(DBG%FHNDL)
# endif
DoNearest=.TRUE.
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 11'
FLUSH(DBG%FHNDL)
# endif
!
! Third part: computing interpolation matrices
!
FileSave_OCNtoWAV_rho='InterpSave_OCNtoWAV_rho'
FileSave_OCNtoWAV_u='InterpSave_OCNtoWAV_u'
FileSave_OCNtoWAV_v='InterpSave_OCNtoWAV_v'
CALL SAVE_CreateInterpolationSparseMatrix_Parall( &
& FileSave_OCNtoWAV_rho, mMat_OCNtoWAV_rho, DoNearest, &
& eGrid_ocn_rho, eGrid_wav, &
& WAV_COMM_WORLD, MatrixBelongingWAV)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'After mMat_OCNtoWAV_rho'
FLUSH(DBG%FHNDL)
# endif
CALL SAVE_CreateInterpolationSparseMatrix_Parall( &
& FileSave_OCNtoWAV_u, mMat_OCNtoWAV_u, DoNearest, &
& eGrid_ocn_u, eGrid_wav, &
& WAV_COMM_WORLD, MatrixBelongingWAV)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'After mMat_OCNtoWAV_u'
FLUSH(DBG%FHNDL)
# endif
CALL SAVE_CreateInterpolationSparseMatrix_Parall( &
& FileSave_OCNtoWAV_v, mMat_OCNtoWAV_v, DoNearest, &
& eGrid_ocn_v, eGrid_wav, &
& WAV_COMM_WORLD, MatrixBelongingWAV)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'After mMat_OCNtoWAV_v'
FLUSH(DBG%FHNDL)
# endif
CALL M2M_recv_sparseMatrix(ArrLocal, OCNid, mMat_WAVtoOCN_rho)
CALL M2M_recv_sparseMatrix(ArrLocal, OCNid, mMat_WAVtoOCN_u)
CALL M2M_recv_sparseMatrix(ArrLocal, OCNid, mMat_WAVtoOCN_v)
IF (MyRankLocal .eq. 0) THEN
CALL M2M_send_sparseMatrix(ArrLocal, OCNid, mMat_OCNtoWAV_rho)
CALL M2M_send_sparseMatrix(ArrLocal, OCNid, mMat_OCNtoWAV_u)
CALL M2M_send_sparseMatrix(ArrLocal, OCNid, mMat_OCNtoWAV_v)
END IF
CALL DEALLOCATE_GRID_ARRAY(eGrid_wav)
CALL DEALLOCATE_GRID_ARRAY(eGrid_ocn_rho)
CALL DEALLOCATE_GRID_ARRAY(eGrid_ocn_u)
CALL DEALLOCATE_GRID_ARRAY(eGrid_ocn_v)
!
! Fourth part: Computing restricted interpolation matrices
! and asynchronous arrays
!
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 14'
FLUSH(DBG%FHNDL)
# endif
CALL MPI_INTERP_GetSystemOutputSide(ArrLocal, OCNid, WAVid, &
& MatrixBelongingOCN_rho, MatrixBelongingWAV, &
& mMat_OCNtoWAV_rho, TheArr_OCNtoWAV_rho)
CALL MPI_INTERP_GetAsyncOutput_r8(TheArr_OCNtoWAV_rho, &
& 3, TheAsync_OCNtoWAV_uvz)
CALL MPI_INTERP_GetAsyncOutput_r8(TheArr_OCNtoWAV_rho, &
& Nlevel+1, TheAsync_OCNtoWAV_rho)
CALL MPI_INTERP_GetSystemOutputSide(ArrLocal, OCNid, WAVid, &
& MatrixBelongingOCN_u, MatrixBelongingWAV, &
& mMat_OCNtoWAV_u, TheArr_OCNtoWAV_u)
CALL MPI_INTERP_GetAsyncOutput_r8(TheArr_OCNtoWAV_u, &
& NlevelVert, TheAsync_OCNtoWAV_u)
CALL MPI_INTERP_GetSystemOutputSide(ArrLocal, OCNid, WAVid, &
& MatrixBelongingOCN_v, MatrixBelongingWAV, &
& mMat_OCNtoWAV_v, TheArr_OCNtoWAV_v)
CALL MPI_INTERP_GetAsyncOutput_r8(TheArr_OCNtoWAV_v, &
& NlevelVert, TheAsync_OCNtoWAV_v)
CALL MPI_INTERP_GetSystemInputSide(ArrLocal, WAVid, OCNid, &
& MatrixBelongingWAV, MatrixBelongingOCN_rho, &
& mMat_WAVtoOCN_rho, TheArr_WAVtoOCN_rho)
CALL MPI_INTERP_GetAsyncInput_r8(TheArr_WAVtoOCN_rho, &
& 19, TheAsync_WAVtoOCN_stat)
CALL MPI_INTERP_GetSystemInputSide(ArrLocal, WAVid, OCNid, &
& MatrixBelongingWAV, MatrixBelongingOCN_u, &
& mMat_WAVtoOCN_u, TheArr_WAVtoOCN_u)
CALL MPI_INTERP_GetAsyncInput_r8(TheArr_WAVtoOCN_u, &
& NlevelIntegral, TheAsync_WAVtoOCN_u)
CALL MPI_INTERP_GetSystemInputSide(ArrLocal, WAVid, OCNid, &
& MatrixBelongingWAV, MatrixBelongingOCN_v, &
& mMat_WAVtoOCN_v, TheArr_WAVtoOCN_v)
CALL MPI_INTERP_GetAsyncInput_r8(TheArr_WAVtoOCN_v, &
& NlevelIntegral, TheAsync_WAVtoOCN_v)
CALL DEALLOCATE_node_partition(MatrixBelongingWAV)
CALL DEALLOCATE_node_partition(MatrixBelongingOCN_rho)
CALL DEALLOCATE_node_partition(MatrixBelongingOCN_u)
CALL DEALLOCATE_node_partition(MatrixBelongingOCN_v)
CALL DeallocSparseMatrix(mMat_OCNtoWAV_rho)
CALL DeallocSparseMatrix(mMat_OCNtoWAV_u)
CALL DeallocSparseMatrix(mMat_OCNtoWAV_v)
CALL DeallocSparseMatrix(mMat_WAVtoOCN_rho)
CALL DeallocSparseMatrix(mMat_WAVtoOCN_u)
CALL DeallocSparseMatrix(mMat_WAVtoOCN_v)
!
! Fifth part: more allocations and exchanges
!
allocate(A_wav_ur_3D(NlevelVert,MNP), A_wav_vr_3D(NlevelVert,MNP), U_wav(NlevelVert,MNP), V_wav(NlevelVert,MNP), stat=istat)
IF (istat/=0) CALL WWM_ABORT('wwm_coupl_roms, allocate error 23.4')
allocate(CosAng(MNP), SinAng(MNP), dep_rho(MNP), A_wav_rho_3D(Nlevel+1,MNP), A_wav_stat(19,MNP), A_wav_uvz(3,MNP), A_wav_rho(MNP), stat=istat)
IF (istat/=0) CALL WWM_ABORT('wwm_coupl_roms, allocate error 16.1')
allocate(A_wav_u_3D(NlevelIntegral,MNP), A_wav_v_3D(NlevelIntegral,MNP), stat=istat)
IF (istat/=0) CALL WWM_ABORT('wwm_coupl_roms, allocate error 17')
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 24'
FLUSH(DBG%FHNDL)
# endif
CALL MPI_INTERP_RECV_r8(TheArr_OCNtoWAV_rho, 23, A_wav_rho)
DO IP=1,MNP
CosAng(IP)=COS(A_wav_rho(IP))
SinAng(IP)=SIN(A_wav_rho(IP))
END DO
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, step 25'
WRITE(DBG%FHNDL,*) 'MyRankGlobal=', MyRankGlobal
FLUSH(DBG%FHNDL)
# endif
CALL MPI_INTERP_RECV_r8(TheArr_OCNtoWAV_rho, 217, A_wav_rho)
# ifdef DEBUG
SumDepReceive=0
# endif
DO IP=1,MNP
dep_rho(IP)=A_wav_rho(IP)
# ifdef DEBUG
SumDepReceive=SumDepReceive + abs(A_wav_rho(IP))
# endif
END DO
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'SumDepReceive=', SumDepReceive
WRITE(DBG%FHNDL,*) 'WAV, WWM_a_OCN_COUPL_INITIALIZE, WAV, step 33'
FLUSH(DBG%FHNDL)
AbsDiff=0
SumDep1=0
SumDep2=0
SumDiff=0
WRITE(DBG%FHNDL,*) 'dep_rho, min=', minval(dep_rho), ' max=', maxval(dep_rho)
WRITE(DBG%FHNDL,*) 'DEP, min=', minval(DEP), ' max=', maxval(DEP)
FLUSH(DBG%FHNDL)
iNodeSel=-1
DO IP=1,MNP
DEP(IP)=dep_rho(IP)
eDiff=abs(dep_rho(IP) - DEP(IP))
SumDiff=SumDiff + eDiff
SumDep1=SumDep1 + dep_rho(IP)
SumDep2=SumDep2 + DEP(IP)
IF (eDiff.gt.AbsDiff) THEN
AbsDiff=eDiff
iNodeSel=IP
END IF
IF ((DEP(IP).ge.200).and.(eDiff.ge.10)) THEN
WRITE(DBG%FHNDL,*) 'AD, IP=', IP, dep_rho(IP), DEP(IP)
WRITE(DBG%FHNDL,*) 'AD, xp, yp=', XP(IP), YP(IP)
FLUSH(DBG%FHNDL)
END IF
END DO
WRITE(DBG%FHNDL,*) 'AD, SumDep1=', SumDep1, ' SumDep2=', SumDep2
WRITE(DBG%FHNDL,*) 'AD, SumDiff=', SumDiff
FLUSH(DBG%FHNDL)
# endif
allocate(z_w_wav(0:Nlevel, MNP), USTOKES_wav(Nlevel,MNP), VSTOKES_wav(Nlevel,MNP), ZETA_CORR(MNP), J_PRESSURE(MNP), stat=istat)
IF (istat/=0) CALL WWM_ABORT('wwm_coupl_roms, allocate error 20')
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'End WWM_a_OCN_COUPL_INITIALIZE'
FLUSH(DBG%FHNDL)
# endif
CALL DEALLOCATE_Arr(TheArr_OCNtoWAV_rho)
CALL DEALLOCATE_Arr(TheArr_OCNtoWAV_u)
CALL DEALLOCATE_Arr(TheArr_OCNtoWAV_v)
CALL DEALLOCATE_Arr(TheArr_WAVtoOCN_rho)
CALL DEALLOCATE_Arr(TheArr_WAVtoOCN_u)
CALL DEALLOCATE_Arr(TheArr_WAVtoOCN_v)
END SUBROUTINE
!**********************************************************************
!* *
!**********************************************************************
SUBROUTINE WWM_a_OCN_COUPL_DEALLOCATE
USE DATAPOOL
# ifdef ROMS_WWM_PGMCL_COUPLING
USE mod_coupler
# endif
USE PGMCL_LIBRARY
USE pgmcl_interp
implicit none
logical DoNearest
integer IP, iNodeSel, idx, eRankRecv
real(rkind) eDiff, AbsDiff, SumDep1, SumDep2, SumDiff
real(rkind) minBathy, maxBathy
real(rkind) SumDepReceive
deallocate(CosAng, SinAng, dep_rho)
deallocate(A_wav_rho_3D, A_wav_stat, A_wav_uvz, A_wav_rho)
deallocate(A_wav_u_3D, A_wav_v_3D, A_wav_ur_3D, A_wav_vr_3D)
deallocate(z_w_wav, U_wav, V_wav)
deallocate(USTOKES_wav, VSTOKES_wav)
deallocate(ZETA_CORR, J_PRESSURE)
END SUBROUTINE
!**********************************************************************
!* *
!**********************************************************************
SUBROUTINE STOKES_STRESS_INTEGRAL_ROMS
# ifdef ROMS_WWM_PGMCL_COUPLING
USE mod_coupler
# endif
# if defined MODEL_COUPLING_ATM_WAV || defined MODEL_COUPLING_OCN_WAV
USE coupling_var
# endif
USE DATAPOOL
implicit none
integer IP, k, ID, IS
real(rkind) eF1, eF2, eDelta, TheInt, eDep, eHeight
real(rkind) eFrac, eFracB, eQuot, TheIntChk
real(rkind) eFct, eQuot1, eQuot2, eQuot3, eScal, eZeta
real(rkind) eOmega, eMult, MFACT, kD, eSinc
real(rkind) USTOKES1, USTOKES2, USTOKES3
real(rkind) VSTOKES1, VSTOKES2, VSTOKES3
real(rkind) USTOKESpart, VSTOKESpart, eJPress
real(rkind) ACLOC, eWk, eSigma, eLoc, eSinhkd, eSinh2kd, eSinhkd2
real(rkind) zMid, HS, ETOT, MinVal_MFACT, MaxVal_MFACT, MaxVal_eQuot1
real(rkind) MinVal_MFACT_gl, MaxVal_MFACT_gl, MaxHS, SumHS, AvgHS
real(rkind) WLM, KLM, AvgStokesNormA, AvgStokesNormB
real(rkind) PPTAIL, CETAIL, CKTAIL
real(rkind) ETOT1, EKTOT
real(rkind) eQuotDispersion, eMaxAC, TotSumAC, eQuotAC, eQuotK
real(rkind) StokesNormA, StokesNormB, cPhase
integer IDsel, ISsel, SelectedK
logical DoTail
real(rkind) SumNormStokesA(Nlevel), SumNormStokesB(Nlevel)
real(rkind) SumZetaCorr, MaxZetaCorr, AvgZetaCorr
real(rkind) eMinMfact, eMaxMfact, SelectedHS
real(rkind) MaxStokesNorm, MaxValSinc, StokesNorm, SelectedDEP
real(rkind) CritError, USTOKES_bar, VSTOKES_bar
real(rkind) USTOKES_bar_int, VSTOKES_bar_int
real(rkind) eSum_tot, eSum_tot_int, eWkReal
real(rkind) eSum_totA, eSum_totA_int
real(rkind) eSum_totB, eSum_totB_int
real(rkind) TotalBarotropicErrorUstokes, TotalBarotropicErrorVstokes
real(rkind) TotalSumUstokes, TotalSumVstokes
real(rkind) SumHeight
real(rkind) eJPress_loc, eZetaCorr_loc, eProd, eUint, eVint
real(rkind) z_r(Nlevel)
real(rkind) z_w_loc(0:Nlevel), eUSTOKES_loc(Nlevel), eVSTOKES_loc(Nlevel)
real(rkind) PartialU1(NlevelPartial), PartialV1(NlevelPartial)
real(rkind) PartialU2(NlevelPartial), PartialV2(NlevelPartial)
IF (.NOT. L_FIRST_ORDER_ARDHUIN) THEN
eMinMfact=-3
eMaxMfact=5
END IF
DO IP=1,MNP
DO k=1,Nlevel
z_r(k)=(z_w_wav(k,IP)+z_w_wav(k-1,IP))/2
END DO
z_w_loc=z_w_wav(:,IP)
eDep=z_w_loc(Nlevel)-z_w_loc(0)
IF (L_FIRST_ORDER_ARDHUIN) THEN
PartialU1(1)=(U_wav(2,IP) - U_wav(1,IP))/(z_r(Nlevel)-z_r(Nlevel-1))
PartialV1(1)=(V_wav(2,IP) - V_wav(1,IP))/(z_r(Nlevel)-z_r(Nlevel-1))
ELSE
DO k=2,Nlevel
PartialU1(k)=(U_wav(k,IP) - U_wav(k-1,IP))/(z_r(k)-z_r(k-1))
PartialV1(k)=(V_wav(k,IP) - V_wav(k-1,IP))/(z_r(k)-z_r(k-1))
END DO
PartialU1(1)=PartialU1(2)
PartialV1(1)=PartialV1(2)
DO k=2,Nlevel-1
!we compute second differential with three values.
!We have classic formula
! d2f/dx2 = (f(x+h) + f(x-h) -2f(x))/h^2
! and this is extended to three arbitrary positions
! but only first order accuracy.
eF1=(z_r(k)-z_r(k-1))/(z_r(k+1)-z_r(k-1))
eF2=(z_r(k+1)-z_r(k))/(z_r(k+1)-z_r(k-1))
eDelta=(z_r(k) - z_r(k+1))*(z_r(k-1) - z_r(k))
PartialU2(k)=(U_wav(k+1,IP)*eF1 + U_wav(k-1,IP)*eF2 - U_wav(k,IP))/eDelta
PartialV2(k)=(V_wav(k+1,IP)*eF1 + V_wav(k-1,IP)*eF2 - V_wav(k,IP))/eDelta
END DO
PartialU2(1)=PartialU2(2)
PartialV2(1)=PartialV2(2)
PartialU2(Nlevel)=PartialU2(Nlevel-1)
PartialV2(Nlevel)=PartialV2(Nlevel-1)
END IF
eUSTOKES_loc=0
eVSTOKES_loc=0
eJpress_loc=0
eZetaCorr_loc=0
IF (L_FIRST_ORDER_ARDHUIN) THEN
DO IS=1,MSC
eMult=SPSIG(IS)*DDIR*DS_INCR(IS)
eWk=WK(IS,IP)
kD=MIN(KDMAX, eWk*eDep)
eWkReal=kD/eDep
eSinh2kd=MySINH(2*kD)
eSinhkd=MySINH(kD)
eSinhkd2=eSinhkd**2
eSigma=SPSIG(IS)
IF (L_STOKES_DRIFT_USING_INTEGRAL) THEN
eUint=0
eVint=0
END IF
DO ID=1,MDC
eLoc=AC2(IS,ID,IP)*eMult
eScal=COSTH(ID)*PartialU1(1)+SINTH(ID)*PartialV1(1)
eZeta=eWk/eSinhkd + (eWk/eSigma)*eScal
eZetaCorr_loc=eZetaCorr_loc + eLoc*eZeta
eJPress=G9*(kD/eSinh2kd)*(1/eDep) * eLoc
eJPress_loc=eJPress_loc + eJPress
IF (L_STOKES_DRIFT_USING_INTEGRAL) THEN
eUint=eUint + eLoc*COSTH(ID)
eVint=eVint + eLoc*SINTH(ID)
END IF
END DO
IF (L_STOKES_DRIFT_USING_INTEGRAL) THEN
DO k=1,Nlevel
eFrac=(z_r(k) - z_w_loc(0))/eDep
eHeight=z_w_loc(k)-z_w_loc(k-1)
eFracB=eHeight/eDep
eSinc=SINH(kD*eFracB)/(kD*eFracB)
eQuot1=eSinc*MyCOSH(2*kD*eFrac)/eSinhkd2
eProd=eSigma*eWkReal*eQuot1
eUSTOKES_loc(k)=eUSTOKES_loc(k) + eUint*eProd
eVSTOKES_loc(k)=eVSTOKES_loc(k) + eVint*eProd
END DO
END IF
END DO
ELSE
DO IS=1,MSC
eMult=SPSIG(IS)*DDIR*DS_INCR(IS)
eWk=WK(IS,IP)
kD=MIN(KDMAX, eWk*eDep)
eWkReal=kD/eDep
eSinh2kd=MySINH(2*kD)
eSinhkd=MySINH(kD)
eSinhkd2=eSinhkd**2
eSigma=SPSIG(IS)
DO ID=1,MDC
eLoc=AC2(IS,ID,IP)*eMult
TheInt=0
DO k=1,Nlevel
eHeight=z_w_loc(k)-z_w_loc(k-1)
zMid=0.5*(z_w_loc(k)+z_w_loc(k-1))
eFrac=(zMid - z_w_loc(0))/eDep
eFracB=eHeight/eDep
eSinc=MySINH(eFracB*kD)/(eFracB*kD)
eQuot=eWkReal*2*MyCOSH(2*kD*eFrac)/eSinh2kd
eFct=U_wav(k,IP)*COSTH(ID)+V_wav(k,IP)*SINTH(ID)
TheInt=TheInt+eHeight*eFct*eQuot*eSinc
END DO
eOmega=eSigma + TheInt*eWkReal
IF (L_STOKES_DRIFT_USING_INTEGRAL) THEN
DO k=1,Nlevel
MFACT=eSigma/(eOmega - (U_wav(k,IP)*COSTH(ID)+V_wav(k,IP)*SINTH(ID))*eWkReal)
MFACT=MAX(MFACT, eMinMfact)
MFACT=MIN(MFACT, eMaxMfact)
eFrac=(z_r(k) - z_w_loc(0))/eDep
eHeight=z_w_loc(k)-z_w_loc(k-1)
eFracB=eHeight/eDep
eSinc=SINH(kD*eFracB)/(kD*eFracB)
eQuot1=eSinc*MyCOSH(2*kD*eFrac)/eSinhkd2
USTOKES1=MFACT*eSigma*COSTH(ID)*eWkReal*eQuot1
VSTOKES1=MFACT*eSigma*SINTH(ID)*eWkReal*eQuot1
eQuot2=eSinc*MySINH(2*kD*eFrac)/eSinhkd2
eQuot3=eSinc*(MySINH(kD*eFrac)/eSinhkd)**2
eScal=PartialU1(k)*COSTH(ID) + PartialV1(k)*SINTH(ID)
USTOKES2=0.5*(MFACT**2)*COSTH(ID)*eWkReal*eQuot2*eScal
USTOKES3=0.5*MFACT*PartialU2(k)*eQuot3
VSTOKES2=0.5*(MFACT**2)*SINTH(ID)*eWkReal*eQuot2*eScal
VSTOKES3=0.5*MFACT*PartialV2(k)*eQuot3
USTOKESpart=eLoc*(USTOKES1+USTOKES2+USTOKES3)
VSTOKESpart=eLoc*(VSTOKES1+VSTOKES2+VSTOKES3)
eUSTOKES_loc(k)=eUSTOKES_loc(k) + USTOKESpart
eVSTOKES_loc(k)=eVSTOKES_loc(k) + VSTOKESpart
END DO
ELSE
MFACT=eSigma/(eOmega - (U_wav(Nlevel,IP)*COSTH(ID)+V_wav(Nlevel,IP)*SINTH(ID))*eWkReal)
END IF
eScal=COSTH(ID)*PartialU1(Nlevel)+SINTH(ID)*PartialV1(Nlevel)
eZeta=eWk/eSinhkd + (MFACT*eWk/eSigma)*eScal
eZetaCorr_loc=eZetaCorr_loc + MFACT*eLoc*eZeta
eJPress=G9*(kD/eSinh2kd)*(1/eDep) * eLoc
eJPress_loc=eJPress_loc + eJPress
END DO
END DO
END IF
USTOKES_wav(:,IP)=eUSTOKES_loc
VSTOKES_wav(:,IP)=eVSTOKES_loc
ZETA_CORR(IP)=eZetaCorr_loc
J_PRESSURE(IP)=eJPress_loc
ENDDO
END SUBROUTINE
!**********************************************************************
!* *
!**********************************************************************
SUBROUTINE WAV_ocnAwav_import(K,IFILE,IT)
USE pgmcl_library
USE datapool
# ifdef ROMS_WWM_PGMCL_COUPLING
USE mod_coupler
# endif
# if defined MODEL_COUPLING_ATM_WAV || defined MODEL_COUPLING_OCN_WAV
USE coupling_var
# endif
implicit none
INTEGER, INTENT(IN) :: K,IFILE,IT
integer IP, kLev, i, idx
real(rkind) u1, v1, u2, v2, z1
# ifdef DEBUG
real(rkind) :: MaxUwind, SumUwind, avgUwind
real(rkind) :: MaxVwind, SumVwind, avgVwind
real(rkind) :: NbPoint
# endif
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WWM: Begin WAV_ocnAwav_import'
FLUSH(DBG%FHNDL)
# endif
CALL MPI_INTERP_ARECV_3D_r8(TheAsync_OCNtoWAV_uvz, 201, A_wav_uvz)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_import, After Data receive'
FLUSH(DBG%FHNDL)
# endif
# ifdef DEBUG
MaxUwind=0
SumUwind=0
MaxVwind=0
SumVwind=0
NbPoint=0
# endif
WATLEVOLD=WATLEV
LCALC=.TRUE.
DO IP=1,MNP
u1=A_wav_uvz(1,IP)
v1=A_wav_uvz(2,IP)
# ifdef DEBUG
IF (abs(u1).gt.MaxUwind) THEN
MaxUwind=abs(u1)
ENDIF
IF (abs(v1).gt.MaxVwind) THEN
MaxVwind=abs(v1)
ENDIF
SumUwind=SumUwind + abs(u1)
SumVwind=SumVwind + abs(v1)
NbPoint=NbPoint+1
# endif
u2=u1*CosAng(IP)-v1*SinAng(IP)
v2=v1*CosAng(IP)+u1*SinAng(IP)
z1=A_wav_uvz(3,IP)
WINDXY(IP,1)=u2
WINDXY(IP,2)=v2
WATLEV(IP)=z1
END DO
DEPDT = (WATLEV - WATLEVOLD) / MAIN%DTCOUP
# ifdef DEBUG
avgUwind=SumUwind/NbPoint
avgVwind=SumVwind/NbPoint
WRITE(DBG%FHNDL,*) 'WAV, MaxUwind=', MaxUwind, ' avgUwind=', avgUwind
WRITE(DBG%FHNDL,*) 'WAV, MaxVwind=', MaxVwind, ' avgVwind=', avgVwind
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_import, step 2'
FLUSH(DBG%FHNDL)
# endif
CALL MPI_INTERP_ARECV_3D_r8(TheAsync_OCNtoWAV_rho, 203, A_wav_rho_3D)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_import, step 3'
FLUSH(DBG%FHNDL)
# endif
DO IP=1,MNP
DO kLev=0,Nlevel
z_w_wav(kLev,IP)=A_wav_rho_3D(kLev+1,IP)
END DO
END DO
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_import, step 4'
FLUSH(DBG%FHNDL)
# endif
CALL MPI_INTERP_ARECV_3D_r8(TheAsync_OCNtoWAV_u, 204, A_wav_ur_3D)
DO IP=1,MNP
U_wav(:,IP)=A_wav_ur_3D(:,IP)
END DO
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_import, step 5'
FLUSH(DBG%FHNDL)
# endif
CALL MPI_INTERP_ARECV_3D_r8(TheAsync_OCNtoWAV_v, 205, A_wav_vr_3D)
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'After the receive'
FLUSH(DBG%FHNDL)
# endif
DO IP=1,MNP
V_wav(:,IP)=A_wav_vr_3D(:,IP)
END DO
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_import, step 6'
FLUSH(DBG%FHNDL)
# endif
DO IP=1,MNP
DO kLev=1,NlevelVert
u1=U_wav(kLev,IP)
v1=V_wav(kLev,IP)
u2=u1*CosAng(IP)-v1*SinAng(IP)
v2=v1*CosAng(IP)+u1*SinAng(IP)
U_wav(kLev,IP)=u2
V_wav(kLev,IP)=v2
END DO
CURTXY(IP,1)=u2
CURTXY(IP,2)=v2
END DO
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_import, step 7'
FLUSH(DBG%FHNDL)
# endif
END SUBROUTINE WAV_ocnAwav_import
!**********************************************************************
!* *
!**********************************************************************
SUBROUTINE WAV_ocnAwav_export(K)
USE DATAPOOL
USE pgmcl_library
# ifdef ROMS_WWM_PGMCL_COUPLING
USE mod_coupler
# endif
# if defined MODEL_COUPLING_ATM_WAV || defined MODEL_COUPLING_OCN_WAV
USE coupling_var
# endif
implicit none
INTEGER, INTENT(IN) :: K
integer IP, kLev, idx
real(rkind) u1, v1, u2, v2
real(rkind) HS, TM01, TM02, KLM, WLM, TM10
real(rkind) UBOT, ORBITAL, BOTEXPER, TMBOT
real(rkind) FPP, TPP, CPP, WNPP, CGPP, KPP, LPP, PEAKDSPR, PEAKDM, DPEAK
real(rkind) ETOTS,ETOTC,DM,DSPR
REAL(RKIND) :: ACLOC(MSC,MDC)
real(rkind) cPhase, eStokesNorm
real(rkind) kD
real(rkind) :: TPPD, KPPD, CGPD, CPPD
# ifdef DEBUG
real(rkind) SumNormTau, MaxNormTau, AvgNormTau, eNorm
real(rkind) AvgUFRICsqr, SumUFRICsqr
real(rkind) AvgCd, SumCd
real(rkind) AvgStressCd, SumStressCd, eStressCd, eMag
real(rkind) AvgAlpha, SumAlpha, eAlpha, NbAlpha
real(rkind) SumWind, AvgWind
real(rkind) :: MaxHwave, SumHwave, avgHwave, NbPoint
real(rkind) :: MaxLwave, SumLwave, avgLwave
real(rkind) :: MaxTM02, SumTM02, AvgTM02
real(rkind) :: MaxStokesNorm, SumStokesNorm, avgStokesNorm
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_export, step 1'
FLUSH(DBG%FHNDL)
SumNormTau=0
MaxNormTau=0
# endif
CALL STOKES_STRESS_INTEGRAL_ROMS
DO IP=1,MNP
IF (L_STOKES_DRIFT_USING_INTEGRAL) THEN
DO kLev=1,Nlevel
u1=USTOKES_wav(kLev,IP)
v1=VSTOKES_wav(kLev,IP)
u2=u1*CosAng(IP)+v1*SinAng(IP)
v2=v1*CosAng(IP)-u1*SinAng(IP)
A_wav_u_3D(kLev,IP)=u2
A_wav_v_3D(kLev,IP)=v2
END DO
END IF
u1=TAUWX(IP)
v1=TAUWY(IP)
u2=u1*CosAng(IP)+v1*SinAng(IP)
v2=v1*CosAng(IP)-u1*SinAng(IP)
IF (L_STOKES_DRIFT_USING_INTEGRAL) THEN
A_wav_u_3D(Nlevel+1,IP)=u2
A_wav_v_3D(Nlevel+1,IP)=v2
ELSE
A_wav_u_3D(1,IP)=u2
A_wav_v_3D(1,IP)=v2
END IF
# ifdef DEBUG
eNorm=SQRT(u2*u2 + v2*v2)
IF (eNorm.gt.MaxNormTau) THEN
MaxNormTau=eNorm
END IF
SumNormTau=SumNormTau + eNorm
# endif
END DO
# ifdef DEBUG
AvgNormTau=SumNormTau / MNP
WRITE(DBG%FHNDL,*) 'AvgNormTau=', AvgNormTau, 'MaxNormTau=', MaxNormTau
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_export, step 5.1'
FLUSH(DBG%FHNDL)
# endif
IF (L_STOKES_DRIFT_USING_INTEGRAL) THEN
CALL MPI_INTERP_ASEND_3D_r8(TheAsync_WAVtoOCN_u, 208, A_wav_u_3D)
CALL MPI_INTERP_ASEND_3D_r8(TheAsync_WAVtoOCN_v, 210, A_wav_u_3D)
CALL MPI_INTERP_ASEND_3D_r8(TheAsync_WAVtoOCN_u, 209, A_wav_v_3D)
CALL MPI_INTERP_ASEND_3D_r8(TheAsync_WAVtoOCN_v, 211, A_wav_v_3D)
ELSE
CALL MPI_INTERP_ASEND_3D_r8(TheAsync_WAVtoOCN_u, 208, A_wav_u_3D)
CALL MPI_INTERP_ASEND_3D_r8(TheAsync_WAVtoOCN_v, 211, A_wav_v_3D)
END IF
# ifdef DEBUG
WRITE(DBG%FHNDL,*) 'WWM: WAV_ocnAwav_export, step 5.3'
FLUSH(DBG%FHNDL)
# endif
# ifdef DEBUG
MaxHwave=0.0
SumHwave=0.0
MaxTM02=0
SumTM02=0
MaxLwave=0.0
SumLwave=0.0
SumStokesNorm=0
MaxStokesNorm=0
NbPoint=0.0
SumUFRICsqr=0
SumCd=0
SumWind=0
SumStressCd=0
SumAlpha=0
NbAlpha=0
# endif
DO IP = 1, MNP
ACLOC = AC2(:,:,IP)
CALL MEAN_PARAMETER(IP,ACLOC,MSC,HS,TM01,TM02,TM10,KLM,WLM)
CALL WAVE_CURRENT_PARAMETER(IP,ACLOC,UBOT,ORBITAL,BOTEXPER,TMBOT,'PGMCL_ROMS_OUT')
CALL MEAN_DIRECTION_AND_SPREAD(IP,ACLOC,MSC,ETOTS,ETOTC,DM,DSPR)
CALL PEAK_PARAMETER(IP,ACLOC,MSC,FPP,TPP,CPP,WNPP,CGPP,KPP,LPP,PEAKDSPR,PEAKDM,DPEAK,TPPD,KPPD,CGPD,CPPD)
# ifdef DEBUG
SumUFRICsqr=SumUFRICsqr + UFRIC(IP)*UFRIC(IP)
eMag=SQRT(WINDXY(IP,1)**2 + WINDXY(IP,2)**2)
eStressCd=CD(IP)*eMag*eMag
SumWind=SumWind + eMag
SumStressCd=SumStressCd + eStressCd
IF (UFRIC(IP).gt.0) THEN
eAlpha=G9*Z0(IP)/(UFRIC(IP) * UFRIC(IP))
SumAlpha=SumAlpha + eAlpha
NbAlpha=NbAlpha+1
END IF
IF (HS.gt.MaxHwave) THEN
MaxHwave=HS
ENDIF
SumHwave=SumHwave + HS
IF (TM02.gt.MaxTM02) THEN
MaxTM02=TM02
ENDIF
SumTM02=SumTM02 + TM02
IF (WLM.gt.MaxLwave) THEN
MaxLwave=WLM
ENDIF
SumLwave=SumLwave + WLM
kD=MIN(KDMAX, KLM*DEP(IP))
cPhase=SQRT((G9/KLM)*REAL(MySINH(kD)/MyCOSH(kD)) )
eStokesNorm=(G9*HS*HS/REAL(16))*2*(KLM/cPhase)
IF (eStokesNorm.ne.eStokesNorm) THEN
WRITE(DBG%FHNDL,*) 'eStokesNorm=', eStokesNorm
WRITE(DBG%FHNDL,*) 'KLM=', KLM, 'WLM=', WLM
WRITE(DBG%FHNDL,*) 'cPhase=', cPhase, 'kD=', kD
WRITE(DBG%FHNDL,*) 'HS=', HS, ' DEP=', DEP(IP)
FLUSH(DBG%FHNDL)
END IF
IF (eStokesNorm.gt.MaxStokesNorm) THEN
MaxStokesNorm=eStokesNorm
END IF
SumStokesNorm=SumStokesNorm + eStokesNorm
NbPoint=NbPoint + 1
# endif
A_wav_stat(1, IP)=HS
A_wav_stat(2, IP)=TM01
A_wav_stat(3, IP)=TM02
A_wav_stat(4, IP)=KLM
A_wav_stat(5, IP)=WLM
A_wav_stat(6, IP)=ORBITAL
A_wav_stat(7, IP)=TMBOT
A_wav_stat(8, IP)=DISSIPATION(IP)
A_wav_stat(9, IP)=QBLOCAL(IP)
A_wav_stat(10,IP)=DM
A_wav_stat(11,IP)=TPP
A_wav_stat(12,IP)=DSPR
A_wav_stat(13,IP)=PEAKDSPR
A_wav_stat(14,IP)=PEAKDM
A_wav_stat(15,IP)=UFRIC(IP)
A_wav_stat(16,IP)=Z0(IP)
A_wav_stat(17,IP)=CD(IP)
A_wav_stat(18,IP)=J_PRESSURE(IP)
A_wav_stat(19,IP)=ZETA_CORR(IP)
END DO
# ifdef DEBUG
avgHwave=SumHwave/NbPoint
avgLwave=SumLwave/NbPoint
AvgTM02=SumTM02/NbPoint
avgStokesNorm=SumStokesNorm/NbPoint
WRITE(DBG%FHNDL,*) 'WAV, MaxHwave=', MaxHwave, ' avgHwave=', avgHwave
WRITE(DBG%FHNDL,*) 'WAV, MaxLwave=', MaxLwave, ' avgLwave=', avgLwave
WRITE(DBG%FHNDL,*) 'WAV, MaxStokesNorm=', MaxStokesNorm
WRITE(DBG%FHNDL,*) 'WAV, avgStokesNorm=', avgStokesNorm