apl_arome.F90

    DO JLEV=1,KLEV
      WRITE(NULOUT,*)JLEV,ZTHS__(NPTP,JLEV)
    ENDDO
  ENDIF

!!$
!!$! Allocation des variables SV (NGFL_EXT + NLIMA)
!!$  KSV_TURB=NGFL_EXT+NLIMA
!!$!
!!$  IF (NGFL_EXT/=0) THEN
!!$     DO JGFL=1,NGFL_EXT
!!$        DO JLON=KIDIA,KFDIA
!!$           ZSFTURB(JLON,JGFL)=ZSFSV_(JLON,JGFL)
!!$           DO JLEV = 1, KLEV
!!$              ZTURBM(JLON,JLEV,JGFL)=ZSVM_(JLON,1,JLEV,JGFL)
!!$              ZTURBS(JLON,JLEV,JGFL)=ZSVSIN_(JLON,1,JLEV,JGFL)
!!$           ENDDO
!!$        ENDDO
!!$     ENDDO
!!$  ENDIF
!!$!
!!$  IF (NLIMA/=0) THEN
!!$     DO JGFL=1,NLIMA
!!$        DO JLON=KIDIA,KFDIA
!!$           ZSFTURB(JLON,NGFL_EXT+JGFL)=0.
!!$           DO JLEV = 1, KLEV
!!$              ZTURBM(JLON,JLEV,NGFL_EXT+JGFL)=ZLIMAM_(JLON,JLEV,JGFL)
!!$              ZTURBS(JLON,JLEV,NGFL_EXT+JGFL)=ZLIMASIN_(JLON,JLEV,JGFL)
!!$           ENDDO
!!$        ENDDO
!!$     ENDDO
!!$  ENDIF

  ! Input variable indeed. REK
  ZSFSVLIMA_(KIDIA:KFDIA,1:NLIMA)=0._JPRB

  ! 10.2 calcul TURB
  ZZTOP_(KIDIA:KFDIA)=ZAPHIM(KIDIA:KFDIA,0)*ZINVG

  IF (LGRADHPHY) THEN
  !   
    DO JLEV = 1,KLEV
      DO JGR=1,NGRADIENTS
        ZTURB3D__(KIDIA:KFDIA,JLEV,JGR)=PTURB3D(KIDIA:KFDIA,JGR,JLEV)
      ENDDO
    ENDDO
  
  ENDIF

! Appel avec les arguments modifiés pour variables LIMA :
! KSV_TURB, ZSFTURB, ZTURBM, ZTURBS, ZTENDSV_TURB
  CALL ARO_TURB_MNH(KKA=IKA,KKU=IKU,KKL=IKL,KLON=KFDIA,KLEV=KLEV,&
   & KRR=NRR, KRRL=NRRL,KRRI= NRRI,&
   & KSV=NLIMA,KTCOUNT=KSTEP+1,KGRADIENTS=NGRADIENTS,LDHARATU=LHARATU,PTSTEP=ZDT,&
   & PZZ=ZZZ_,PZZF=ZZZ_F_,&
   & PZZTOP=ZZTOP_,PRHODJ=ZRHODJM__,PTHVREF=ZTHVREFM__,&
   & PRHODREF=ZRHODREFM__,HINST_SFU='M',&
   & HMF_UPDRAFT=CMF_UPDRAFT,HCLOUD=CMICRO,&
   & PSFTH=ZSFTH_,PSFRV=ZSFRV_,&
   & PSFSV=ZSFSVLIMA_,PSFU=ZSFU_,&
   & PSFV=ZSFV_,PPABSM=ZPABSM__,&
   & PUM=ZUM__,PVM=ZVM__,PWM=ZWM__,PTKEM=ZTKEM__,PEPSM=ZEPSM,&
   & PSVM=ZLIMAM_,&
   & PSRCM=ZSRCS__,PTHM=ZTHM__,&
   & PRM=ZRM_,&
   & PRUS=ZUS__,PRVS=ZVS__,PRWS=ZWS__,PRTHS=ZTHS__,&
   & PRRS=ZRS_,&
   & PRSVSIN=ZLIMASIN_,PRSVS=ZLIMAS_,&
   & PRTKES=ZTKES_,PRTKES_OUT=ZTKES_OUT__,&
   & PREPSS=ZEPSS,PHGRAD=ZTURB3D__,PSIGS=ZSIGS__,&
   & OSUBG_COND=LOSUBG_COND,&
   & PFLXZTHVMF=ZFLXZTHVMF_SUM__,&
   & PLENGTHM=ZLENGTHM__,PLENGTHH=ZLENGTHH__,MFMOIST=ZMF_UP__,PDRUS_TURB=ZTENDU_TURB__, &
   & PDRVS_TURB=ZTENDV_TURB__,PDRTHLS_TURB=ZTENDTHL_TURB__,PDRRTS_TURB=ZTENDRT_TURB__,&
   & PDRSVS_TURB=ZTENDSV_TURBLIMA_,&
   & PDP=ZDP__, PTP=ZTP__,PTPMF=ZTPMF__,PTDIFF=ZTDIFF__,PTDISS=ZTDISS__,PEDR=ZEDR__,YDDDH=YDDDH,&
   & YDLDDH=YDMODEL%YRML_DIAG%YRLDDH,YDMDDH=YDMODEL%YRML_DIAG%YRMDDH)


! Séparation des variables SV (NGFL_EXT + NLIMA)
!!$  IF (NGFL_EXT/=0) THEN
!!$     DO JGFL=1,NGFL_EXT
!!$        DO JLON=KIDIA,KFDIA
!!$           ZSFSV_(JLON,JGFL)=ZSFTURB(JLON,JGFL)
!!$           DO JLEV = 1, KLEV
!!$              ZSVM_(JLON,1,JLEV,JGFL)=ZTURBM(JLON,JLEV,JGFL)
!!$              ZSVS_(JLON,1,JLEV,JGFL)=ZTURBS(JLON,JLEV,JGFL)
!!$           ENDDO
!!$        ENDDO
!!$     ENDDO
!!$  ENDIF
!!$!
!!$  IF (NLIMA/=0) THEN
!!$     DO JGFL=1,NLIMA
!!$        DO JLON=KIDIA,KFDIA
!!$           DO JLEV = 1, KLEV
!!$              ZLIMAM_(JLON,JLEV,JGFL)=ZTURBM(JLON,JLEV,NGFL_EXT+JGFL)
!!$              ZLIMAS_(JLON,JLEV,JGFL)=ZTURBS(JLON,JLEV,NGFL_EXT+JGFL)
!!$           ENDDO
!!$        ENDDO
!!$     ENDDO
!!$  ENDIF


  DO JLEV = 1 , KLEV
     PEDR(KIDIA:KFDIA,JLEV)=ZEDR__(KIDIA:KFDIA,JLEV)
  ENDDO
   
  IF (LFLEXDIA) THEN
    DO JLEV = 1,KLEV
      DO JLON = KIDIA,KFDIA
        ZDP__(JLON,JLEV)=ZDP__(JLON,JLEV)*PDELPM(JLON,JLEV)*ZINVG
        ZTP__(JLON,JLEV)=(ZTP__(JLON,JLEV)-ZTPMF__(JLON,JLEV))*PDELPM(JLON,JLEV)*ZINVG
        ZTPMF__(JLON,JLEV)=ZTPMF__(JLON,JLEV)*PDELPM(JLON,JLEV)*ZINVG
        ZTDIFF__(JLON,JLEV)=ZTDIFF__(JLON,JLEV)*PDELPM(JLON,JLEV)*ZINVG
        ZTDISS__(JLON,JLEV)=ZTDISS__(JLON,JLEV)*PDELPM(JLON,JLEV)*ZINVG
      ENDDO
    ENDDO
    IF (LDDH_OMP) THEN
      CALL NEW_ADD_FIELD_3D(YDMODEL%YRML_DIAG%YRMDDH,ZDP__(:,1:KLEV),'TKEPRDY',YDDDH)
      CALL NEW_ADD_FIELD_3D(YDMODEL%YRML_DIAG%YRMDDH,ZTP__(:,1:KLEV),'TKEPRTH',YDDDH)
      CALL NEW_ADD_FIELD_3D(YDMODEL%YRML_DIAG%YRMDDH,ZTPMF__(:,1:KLEV),'TKEPRTHMF',YDDDH)
      CALL NEW_ADD_FIELD_3D(YDMODEL%YRML_DIAG%YRMDDH,ZTDIFF__(:,1:KLEV),'TKEDIFF',YDDDH)
      CALL NEW_ADD_FIELD_3D(YDMODEL%YRML_DIAG%YRMDDH,ZTDISS__(:,1:KLEV),'TKEDISS',YDDDH)
    ELSE
      CALL ADD_FIELD_3D(YLDDH,ZDP__(:,1:KLEV),'TKEPRDY','T','ARO',.TRUE.,.TRUE.)
      CALL ADD_FIELD_3D(YLDDH,ZTP__(:,1:KLEV),'TKEPRTH','T','ARO',.TRUE.,.TRUE.)
      CALL ADD_FIELD_3D(YLDDH,ZTPMF__(:,1:KLEV),'TKEPRTHMF','T','ARO',.TRUE.,.TRUE.)
      CALL ADD_FIELD_3D(YLDDH,ZTDIFF__(:,1:KLEV),'TKEDIFF','T','ARO',.TRUE.,.TRUE.)
      CALL ADD_FIELD_3D(YLDDH,ZTDISS__(:,1:KLEV),'TKEDISS','T','ARO',.TRUE.,.TRUE.)
    ENDIF
  ENDIF 

  IF(MOD(KSTEP+1,NPRINTFR)==0) THEN
    WRITE(NULOUT,*)'u v w a S apres turb'
    DO JLEV=1,KLEV
      WRITE(NULOUT,*)JLEV,ZUS__(NPTP,JLEV),ZVS__(NPTP,JLEV),ZWS__(NPTP,JLEV),ZTKES_OUT__(NPTP,JLEV)
    ENDDO
    WRITE(NULOUT,*)'THS TKES SIGS apres turb'
    DO JLEV=1,KLEV
      WRITE(NULOUT,*)JLEV,ZTHS__(NPTP,JLEV),ZTKES_OUT__(NPTP,JLEV),ZSIGS__(NPTP,JLEV)
    ENDDO
  ENDIF

  ! avance temporelle et inversion niveau pour ZSIGS__
  IF (LOSUBG_COND .AND. LOSIGMAS) THEN
    IF (CMF_CLOUD=='DIRE'.OR.CMF_CLOUD=='BIGA'.OR.CMF_CLOUD=='NONE') THEN
      DO JLEV = 1,KLEV
        PSIGS(KIDIA:KFDIA,JLEV)=ZSIGS__(KIDIA:KFDIA,JLEV)
      ENDDO
    ELSEIF (CMF_CLOUD=='STAT') THEN
      DO JLEV = 1,KLEV
        DO JLON = KIDIA,KFDIA
          PSIGS(JLON,JLEV)=SQRT(ZSIGS__(JLON,JLEV)**2+ZSIGMF_(JLON,JLEV)**2 )
        ENDDO
      ENDDO
    ENDIF
  ENDIF


  !10.3. traitement des sorties pour repasser dans le monde Aladin
  !calcul de tendance et inversion des niveaux pour le vent horizontal et la TKE

  DO JLEV = 1,KLEV
    DO JLON = KIDIA,KFDIA
      PTENDU(JLON,JLEV)=PTENDU(JLON,JLEV)+ZTENDU_TURB__(JLON,JLEV)
      PTENDV(JLON,JLEV)=PTENDV(JLON,JLEV)+ZTENDV_TURB__(JLON,JLEV)
      ! for the moment, turbulence do not compute w tendency:
      PTENDW(JLON,JLEV)=0.0_JPRB
      ! PTENDW(JLON,JLEV)+(ZWS__(JLON,JLEV)-&
      ! & ZWS_AVE(JLON,1,JLEV))
      !conversion de la tendance de theta en tendance de T et inversion niveau
      PTENDT(JLON,JLEV)=PTENDT(JLON,JLEV)+ZTENDTHL_TURB__(JLON,JLEV)*ZEXNREFM_(JLON,JLEV)
  !inversion niveaux tendances des rv et conversion en qv en multipliant par qd
      PTENDR(JLON,JLEV,1)= PTENDR(JLON,JLEV,1)+ZTENDRT_TURB__(JLON,JLEV)*ZQDM(JLON,JLEV)
    ENDDO
  ENDDO


  IF (LHARATU) THEN
    DO JLEV = 1,KLEV
      DO JLON = KIDIA,KFDIA
          PTENDTKE(JLON,JLEV)=PTENDTKE(JLON,JLEV)+(ZTKEEDMFS(JLON,JLEV)-ZTKES_(JLON,JLEV))
      ENDDO
    ENDDO
  ELSE
    DO JLEV = 1,KLEV
      DO JLON = KIDIA,KFDIA
         PTENDTKE(JLON,JLEV)=PTENDTKE(JLON,JLEV)+(ZTKES_OUT__(JLON,JLEV)-ZTKES_(JLON,JLEV))
      ENDDO
    ENDDO
  ENDIF

  DO JGFL=1,NGFL_EXT
    DO JLEV = 1,KLEV
      DO JLON = KIDIA,KFDIA
        PTENDEXT(JLON,JLEV,JGFL)=PTENDEXT(JLON,JLEV,JGFL)+(ZSVS_(JLON,JLEV,JGFL)-ZSVSIN_(JLON,JLEV,JGFL))
      ENDDO
    ENDDO
  ENDDO

! Tendances LIMA
  DO JGFL=1,NLIMA
    DO JLEV = 1, KLEV
      DO JLON=KIDIA,KFDIA
        PTENDLIMA(JLON,JLEV,JGFL)=PTENDLIMA(JLON,JLEV,JGFL)+ZTENDSV_TURBLIMA_(JLON,JLEV,JGFL)
!        PTENDLIMA(JLON,JLEV,:)=PTENDLIMA(JLON,JLEV,:)+ (ZLIMAS_(JLON,JLEV,:)-ZLIMASIN_(JLON,JLEV,:))
      ENDDO
    ENDDO
  ENDDO

ENDIF
!    ------------------------------------------------------------------
!     11 - MICROPHYSIQUE. 
!     --------------------------------------------------------------------

IF (LMICRO) THEN

  ! Swap pointers because input values of THS and RS should be saved
  CALL SWAP_THS
  CALL SWAP_RS
  CALL SWAP_LIMAS

  ! for now a copy is needed (see below, inside). I don't like than :-( REK
  ZTHS__(KIDIA:KFDIA,1:KLEV)=ZTHSIN_(KIDIA:KFDIA,1:KLEV)
  ZRS_(KIDIA:KFDIA,1:KLEV,1:NRR)=ZRSIN_(KIDIA:KFDIA,1:KLEV,1:NRR)
  ! for now a copy is needed (see below, inside). I don't like than :-( REK
  ZLIMAS_(KIDIA:KFDIA,1:KLEV,1:NLIMA)=ZLIMASIN_(KIDIA:KFDIA,1:KLEV,1:NLIMA)
     
  !prints
  IF (MOD(KSTEP+1,NPRINTFR)==0) THEN
    WRITE(NULOUT,*)'avant rain_ice sous apl_arome'
    WRITE(NULOUT,*)'JLEV   ZZZ_F_      ZZZ_      ZRHODREF',&
     & '    ZRHODJ      ZPABSM__        ZTHSIN_       ZTHM__      '   
    DO JLEV=1,KLEV+1 
      WRITE(NULOUT,'(I2,X,7F10.3)')JLEV,ZZZ_F_(NPTP,JLEV),ZZZ_(NPTP,JLEV), ZRHODREFM__(NPTP,JLEV),&
       & ZRHODJM__(NPTP,JLEV), ZPABSM__(NPTP,JLEV), ZTHSIN_(NPTP,JLEV), ZTHM__(NPTP,JLEV)  
    ENDDO 
    WRITE(NULOUT,*)'JLEV        PDELPM        ZPABSM__         ZEXNREF','          ZSIGS__'
    DO JLEV=2,KLEV
      WRITE(NULOUT,'(I2,X,4f10.3)')JLEV, PDELPM(NPTP,JLEV),&
       & ZPABSM__(NPTP,JLEV),ZEXNREFM_(NPTP,JLEV),ZSIGS__(NPTP,JLEV)  
    ENDDO
    WRITE(NULOUT,*)'JLEV    PTM       PRM          PCPM'
    DO JLEV=1,KLEV
      WRITE(NULOUT,'(I2,X,3f10.3)')JLEV,ZTM(NPTP,KLEV+1-JLEV), ZRHM(NPTP,KLEV+1-JLEV) ,ZCPM(NPTP,KLEV+1-JLEV)  
    ENDDO
    WRITE (NULOUT,*)'JLEV  rhoQv  rhoQc   rhoQr   rhoQi   rhoQs   rhoQg'
    DO JLEV=1,KLEV
      WRITE(NULOUT,'(I2,X,6E11.4)')JLEV,ZRM_(NPTP,JLEV,1), ZRM_(NPTP,JLEV,2),&
       & ZRM_(NPTP,JLEV,3),ZRM_(NPTP,JLEV,4),ZRM_(NPTP,JLEV,5), ZRM_(NPTP,JLEV,6)  
    ENDDO
    WRITE (NULOUT,*)'JLEV  ZRSQv  ZRSQc   ZRSQr   ZRSQi   ZRSQs   ZRSQg'
    DO JLEV=1,KLEV
      WRITE(NULOUT,'(I2,X,6E11.4)')JLEV,ZRS_(NPTP,JLEV,1), ZRS_(NPTP,JLEV,2),&
       & ZRSIN_(NPTP,JLEV,3),ZRSIN_(NPTP,JLEV,4),ZRSIN_(NPTP,JLEV,5), ZRSIN_(NPTP,JLEV,6)  
    ENDDO
    WRITE(NULOUT,*)'ZDT=',ZDT
    WRITE(NULOUT,*)'NRR and co',NRR,KSTEP+1,NSPLITR,LOSUBG_COND, LOSIGMAS, CSUBG_AUCV_RC,LOWARM  
  ENDIF
  

  ZSEA_(KIDIA:KFDIA)=0.0_JPRB
  IF (LOLSMC) THEN
    DO JLON = KIDIA, KFDIA
      IF (PLSM(JLON) < 0.5) THEN
        ZSEA_(JLON) = 1.0_JPRB
      ENDIF
    ENDDO
  ENDIF
         
  IF (LOTOWNC) THEN
    ZTOWN_(KIDIA:KFDIA) = ZTOWNS_(KIDIA:KFDIA)
  ELSE
    ZTOWN_(KIDIA:KFDIA)=0.0_JPRB
  ENDIF  

  IF (CMICRO == 'LIMA') THEN

    IF (LTURB) THEN
      DO JLON=KIDIA,KFDIA
        DO JLEV=1,KLEV
          ZWNU_(JLON,JLEV) = ZWM__(JLON,JLEV) + 0.66*SQRT(ZTKEM__(JLON,JLEV))
        ENDDO
      ENDDO
      ZPTRWNU_ => ZWNU_(1:KFDIA,1:KLEV)
    ELSE
      ZPTRWNU_ => ZWM__(1:KFDIA,1:KLEV)
    ENDIF
    CALL ARO_LIMA(KLEV,IKU,IKL,KFDIA,KLEV,NRR,NLIMA,KSTEP+1,NSPLITR,NSPLITG, ZDT,ZDZZ_ ,&
     & ZRHODJM__(:,1:KLEV),ZRHODREFM__(:,1:KLEV), ZEXNREFM_, ZPABSM__(:,1:KLEV), ZPTRWNU_, &
     & ZTHM__(:,1:KLEV),ZRM_, ZLIMAM_,  ZTHS__(:,1:KLEV),ZRS_,  ZLIMAS_,  ZEVAP_, &
     & ZINPRR_NOTINCR_, ZINPRS_NOTINCR_, ZINPRG_NOTINCR_, ZINPRH_NOTINCR_,ZPFPR_,&
     & YDDDH, YDMODEL%YRML_DIAG%YRLDDH, YDMODEL%YRML_DIAG%YRMDDH )
  ELSE
    CALL ARO_RAIN_ICE (NPROMICRO,KLEV,IKU,IKL,KFDIA,KLEV,NRR,KSTEP+1,NSPLITR,NGFL_EZDIAG,&
     & LOSUBG_COND, CSUBG_AUCV_RC, CSUBG_AUCV_RI, LOSEDIC,CSEDIM, CMICRO, ZDT,ZDZZ_ ,&
     & ZRHODJM__(:,1:KLEV),ZRHODREFM__(:,1:KLEV), ZEXNREFM_, ZPABSM__(:,1:KLEV),&
     & ZHLC_HRC__(:,1:KLEV), ZHLC_HCF__(:,1:KLEV),&
     & ZHLI_HRI__(:,1:KLEV), ZHLI_HCF__(:,1:KLEV),&
     & ZTHM__(:,1:KLEV),ZRM_, ZSIGS__(:,1:KLEV), ZNEBMNH_, ZTHS__(:,1:KLEV),ZRS_,&
     & ZEVAP_, ZCIT_,LOWARM,ZSEA_,ZTOWN_, LOCND2,LGRSN,&
     & ZINPRR_NOTINCR_, ZINPRS_NOTINCR_, ZINPRG_NOTINCR_, ZINPRH_NOTINCR_,ZPFPR_,&
     & PGP2DSPP,PEZDIAG, &
     & YDDDH, YDMODEL%YRML_DIAG%YRLDDH, YDMODEL%YRML_DIAG%YRMDDH)
  ENDIF

  DO JLON=KIDIA,KFDIA
    ZINPRR_(JLON)=ZINPRR_(JLON)+ZINPRR_NOTINCR_(JLON)
    ZINPRS_(JLON)=ZINPRS_(JLON)+ZINPRS_NOTINCR_(JLON)
    ZINPRG_(JLON)=ZINPRG_(JLON)+ZINPRG_NOTINCR_(JLON)
    ZINPRH_(JLON)=ZINPRH_(JLON)+ZINPRH_NOTINCR_(JLON)
  ENDDO

  !conversion de la tendance de theta en tendance de T et inversion niveau
  DO JLEV = 1,KLEV
    DO JLON = KIDIA,KFDIA
      PTENDT(JLON,JLEV)= PTENDT(JLON,JLEV)+(ZTHS__(JLON,JLEV)-ZTHSIN_(JLON,JLEV))*ZEXNREFM_(JLON,JLEV)  
      ZTENDT(JLON,JLEV)= ZTENDT(JLON,JLEV)+ZTHS__(JLON,JLEV)-ZTHSIN_(JLON,JLEV)
    ENDDO
  ENDDO
  
  !inversion niveaux tendances des ri et conversion en qi en multipliant par qd
  DO JR=1,NRR
    DO JLEV=1,KLEV
      DO JLON=KIDIA,KFDIA
        PTENDR(JLON,JLEV,JR)=PTENDR(JLON,JLEV,JR)+(ZRS_(JLON,JLEV,JR)-ZRSIN_(JLON,JLEV,JR))*ZQDM(JLON,JLEV)  
      ENDDO
    ENDDO
  ENDDO

  ! Tendances des variables LIMA
  DO JGFL=1,NLIMA
    DO JLEV = 1, KLEV
      DO JLON=KIDIA,KFDIA
        PTENDLIMA(JLON,JLEV,JGFL)=PTENDLIMA(JLON,JLEV,JGFL)+(ZLIMAS_(JLON,JLEV,JGFL)-ZLIMASIN_(JLON,JLEV,JGFL))  
      ENDDO
    ENDDO
  ENDDO

  IF (LINTFLEX) THEN
    !inversion of levels of upper-air precipitation
    DO JR=2,NRR ! no precip for qv
      ZFPR(KIDIA:KFDIA,0,JR)=0._JPRB  ! zero precip at top of atmosphere
      DO JLEV=1,KLEV
        ZFPR(KIDIA:KFDIA,JLEV,JR)=ZPFPR_(KIDIA:KFDIA,JLEV,JR)
      ENDDO
    ENDDO
  ENDIF

  !store cumulative 3D precipitations for mocage      
  IF (LFPREC3D) THEN
    DO JR=2,NRR ! no precip for qv
      DO JLEV=1,KLEV
        DO JLON=KIDIA,KFDIA
          PEZDIAG(JLON,JLEV,4)=PEZDIAG(JLON,JLEV,4)+ZPFPR_(JLON,JLEV,JR)*1000._JPRB*PDT
        ENDDO
      ENDDO
    ENDDO
  ENDIF
  !prints    
  IF(MOD(KSTEP+1,NPRINTFR)==0) THEN
    WRITE(NULOUT,*)'PTENDT en sortie de rain_ice'
    WRITE(NULOUT,*)'ZTHS__ en sortie de rain_ice'
    DO JLEV=1,KLEV
      WRITE(NULOUT,*)PTENDT(NPTP,JLEV),ZTHS__(NPTP,JLEV)
    ENDDO
    WRITE (NULOUT,*)'JLEV  ZTENDQv  ZTZNDQc   ZTENDQr   ZTENDQi' ,'ZTENDQs   ZTENDQg'  
    DO JLEV=1,KLEV
      WRITE(NULOUT,'(I2,X,6E11.4)')JLEV,PTENDR(NPTP,JLEV,1),PTENDR(NPTP,JLEV,2),&
       & PTENDR(NPTP,JLEV,3),PTENDR(NPTP,JLEV,4),PTENDR(NPTP,JLEV,5),PTENDR(NPTP,JLEV,6)  
    ENDDO
    WRITE (NULOUT,*) 'ZSRCS__ et ZNEBMNH_',MAXVAL(ZSRCS__),MAXVAL(ZNEBMNH_) 
  ENDIF
  
  IF (LRDEPOS) THEN
    ISPLITR=NSPLITR
    ! Swapp because IN and OUT will be needed simultaneously
    CALL SWAP_SVM
    CALL ARO_RAINAERO(KFDIA,KLEV,NGFL_EXT,NRR, PDT,ZSVMIN_,ZZZ_,&
     & ZPABSM__(:,1:KLEV),ZTHM__(:,1:KLEV),ZRHODREFM__(:,1:KLEV),&
     & KSTEP+1,ZRM_,ZEVAP_, ISPLITR, ZSVM_           )
    ! return to tendency
    DO JGFL=1,NGFL_EXT
      DO JLEV = 1,KLEV
        DO JLON = KIDIA,KFDIA
          PTENDEXT(JLON,JLEV,JGFL)=PTENDEXT(JLON,JLEV,JGFL)+(ZSVM_(JLON,JLEV,JGFL)-ZSVMIN_(JLON,JLEV,JGFL))*ZINVDT
        ENDDO
      ENDDO
    ENDDO
  ENDIF ! LRDEPOS

ENDIF ! LMICRO

! start LHN F.Meier 2020 ******

LNUDGLHNREAD=.TRUE.
IF(MYPROC==1.AND.KSTEP==1.AND.LNUDGLH)THEN
  CALL NUDGLHCLIMPROF(KLEV,LNUDGLHNREAD)
ENDIF
! save accumulated precipitation for LHN
IF (LNUDGLH.AND.KSTEP == NSTARTNUDGLH.AND.NSTARTNUDGLH > 0) THEN
  !IF(MYPROC==1) WRITE(NULOUT,*)'save precip for LHN - STEP:',KSTEP, &
  !  & 'NUDGINGINT:',NINTNUDGLH,'NSTARTNUDGLH:',NSTARTNUDGLH
  CALL NUDGLHPRECIP(KIDIA,KFDIA,KLON,ZACPRR_(KIDIA:KFDIA),&
         & ZACPRS_(KIDIA:KFDIA),ZACPRG_(KIDIA:KFDIA),KBL)
ENDIF
ISTEP=KSTEP-NSTARTNUDGLH
! if LNUDGLH and KSTEP in nudging interval
IF (LNUDGLH.AND.KSTEP > NSTARTNUDGLH.AND.KSTEP <= NSTOPNUDGLH) THEN
  ! safe LH profile for step before LHN step
  LLHN=.FALSE.
  IF(MOD(ISTEP+1,NINTNUDGLH)==0) THEN
    CALL NUDGLHPREP(KIDIA,KFDIA,KLON,KLEV,ZTENDT,KBL)
  ENDIF
  ! LHN step
  IF(MOD(ISTEP,NINTNUDGLH)==0) THEN
    !IF(MYPROC==1) WRITE(NULOUT,*)'LH nudging applied - STEP:',KSTEP, &
    !  & 'NUDGINGINT:',NINTNUDGLH
    ! get index for correctly reading observation from array
    ! first two indices are reserved for other LHN stuff
    JLHSTEP=NINT(1.0_JPRB*ISTEP/(NTIMESPLITNUDGLH*NINTNUDGLH))+2
    !IF(MYPROC==1) WRITE(NULOUT,*)'observation array:',JLHSTEP
    ! call nudging routine to modify LHN profile where necessary
    CALL NUDGLH(NGPTOT,NPROMA,NGPBLKS,KIDIA,KFDIA,KLON,KLEV,ZACPRR_(KIDIA:KFDIA),&
       & ZACPRS_(KIDIA:KFDIA),ZACPRG_(KIDIA:KFDIA),&
       & ZTENDT(KIDIA:KFDIA,1:KLEV),JLHSTEP,KBL,&
       & ZEXNREFM_(KIDIA:KFDIA,1:KLEV),.TRUE.,&
       & LLHN(KIDIA:KFDIA,1:KLEV),ZPABSM__(KIDIA:KFDIA,1:KLEV),ZDT,&
       & ZTHM__(KIDIA:KFDIA,1:KLEV),ZRM_(KIDIA:KFDIA,1:KLEV,:),&
       & ZQDM(KIDIA:KFDIA,1:KLEV),PTENDR(KIDIA:KFDIA,1:KLEV,1),NRR,LNUDGLHNREAD)
    !IF(MYPROC==1) WRITE(NULOUT,*)'calling LH successful - convert TH to T and
    !add temperature tendency'
    ! add LHN tendency to physics tendency, limit LHN tendency
    ZMAXTEND=0.0_JPRB
    ZMINTEND=0.0_JPRB
    DO JLEV = 1,KLEV
      DO JLON = KIDIA,KFDIA
        IF(LLHN(JLON,JLEV))THEN
          ZTENDT(JLON,JLEV)=MAX(ZTENDT(JLON,JLEV),RMINNUDGLH)
          ZTENDT(JLON,JLEV)=MIN(ZTENDT(JLON,JLEV),RMAXNUDGLH)
          PTENDT(JLON,JLEV)=PTENDT(JLON,JLEV)+ZTENDT(JLON,JLEV)*&
           & RAMPLIFY*ZEXNREFM_(JLON,JLEV)
          ZMINTEND=MIN(ZTENDT(JLON,JLEV),ZMINTEND)
          ZMAXTEND=MAX(ZTENDT(JLON,JLEV),ZMAXTEND)
          ! keep RH constant if LNUDGLHCOMPT=T
          IF(PTM(JLON,JLEV)>0.01_JPRB.AND.LNUDGLHCOMPT)THEN
            PTENDR(JLON,JLEV,1)=PTENDR(JLON,JLEV,1)+RLVTT/RV/((PTM(JLON,JLEV))**2._JPRB)* &
            & ZTENDT(JLON,JLEV)*RAMPLIFY*ZEXNREFM_(JLON,JLEV)*ZQSAT(JLON,JLEV)
          ENDIF
        ENDIF
      ENDDO
    ENDDO
    !IF(ZMINTEND<-0.01)WRITE(*,*)'ZMINTEND',ZMINTEND
    !IF(ZMAXTEND>0.01)WRITE(*,*)'ZMAXTEND',ZMAXTEND
    ! write LH profiles to array to save it for next time step
    CALL NUDGLHPREP(KIDIA,KFDIA,KLON,KLEV,ZTENDT,KBL)
    IF(MYPROC==1) WRITE(NULOUT,*)'calling LH successful finished'
    ! use LHN factor again on following time steps depending on NTAUNUDGLH
  ELSEIF(MOD(ISTEP,NINTNUDGLH)<NTAUNUDGLH.AND.MOD(ISTEP,NINTNUDGLH)>0 &
      & .AND.ISTEP>NINTNUDGLH) THEN
    IF(MYPROC==1)THEN
      WRITE(NULOUT,*)'LH nudging applied-STEP:',KSTEP,'NUDGINGINT:',NINTNUDGLH
      WRITE(NULOUT,*)'NTAUNUDGLH:',NTAUNUDGLH
    ENDIF
    ! get index for reading correctly most recent obs
    JLHSTEP=2+NINT(1.0_JPRB*(ISTEP-MOD(ISTEP,NINTNUDGLH))/(NTIMESPLITNUDGLH*NINTNUDGLH))
    !IF(MYPROC==1) WRITE(NULOUT,*)'observation array:',JLHSTEP
    ! call nudging routine to modify LHN profile where necessary
    ! LHN factor is not recalculated but might be damped by RDAMPNUDGLH
    CALL NUDGLH(NGPTOT,NPROMA,NGPBLKS,KIDIA,KFDIA,KLON,KLEV,ZACPRR_(KIDIA:KFDIA),&
        & ZACPRS_(KIDIA:KFDIA),ZACPRG_(KIDIA:KFDIA),&
        & ZTENDT(KIDIA:KFDIA,1:KLEV),JLHSTEP,KBL,&
        & ZEXNREFM_(KIDIA:KFDIA,1:KLEV),.FALSE.,&
        & LLHN(KIDIA:KFDIA,1:KLEV),ZPABSM__(KIDIA:KFDIA,1:KLEV),ZDT,&
        & ZTHM__(KIDIA:KFDIA,1:KLEV),ZRM_(KIDIA:KFDIA,1:KLEV,:),&
        & ZQDM(KIDIA:KFDIA,1:KLEV),PTENDR(KIDIA:KFDIA,1:KLEV,1),NRR,LNUDGLHNREAD)
    !IF(MYPROC==1) WRITE(NULOUT,*)'calling LH successful - convert TH to T and
    !add temperature tendency'
    ! add LHN tendency to physics tendency, limit LHN tendency
    DO JLEV = 1,KLEV
      DO JLON = KIDIA,KFDIA
        IF(LLHN(JLON,JLEV))THEN
          ZTENDT(JLON,JLEV)=MAX(ZTENDT(JLON,JLEV),RMINNUDGLH)
          ZTENDT(JLON,JLEV)=MIN(ZTENDT(JLON,JLEV),RMAXNUDGLH)
          PTENDT(JLON,JLEV)= PTENDT(JLON,JLEV)+ZTENDT(JLON,JLEV)*&
           & RAMPLIFY*ZEXNREFM_(JLON,JLEV)
          ZMINTEND=MIN(ZTENDT(JLON,JLEV),ZMINTEND)
          ZMAXTEND=MAX(ZTENDT(JLON,JLEV),ZMAXTEND)
          ! keep RH constant if LNUDGLHCOMPT=T
          IF(PTM(JLON,JLEV)>0.01_JPRB.AND.LNUDGLHCOMPT)THEN
             PTENDR(JLON,JLEV,1)=PTENDR(JLON,JLEV,1)+RLVTT/RV/((PTM(JLON,JLEV))**2._JPRB)*&
              & ZTENDT(JLON,JLEV)*RAMPLIFY*ZEXNREFM_(JLON,JLEV)*ZQSAT(JLON,JLEV)
          ENDIF
        ENDIF
      ENDDO
    ENDDO
    !IF(ZMAXTEND>0.01) WRITE(*,*)'ZMAXTEND',ZMAXTEND
    !IF(ZMINTEND<-0.01) WRITE(*,*)'ZMINTEND',ZMINTEND
    ! write LHN profiles to array for next timestep
    CALL NUDGLHPREP(KIDIA,KFDIA,KLON,KLEV,ZTENDT,KBL)
    IF(MYPROC==1) WRITE(NULOUT,*)'calling LH successful finished'
  ENDIF
ENDIF
! **end latent heat nudging***********

    
!    ------------------------------------------------------------------
!     11 - SAVE FIELDS FOR EXT. SURFACE.
!     --------------------------------------------------------------------
!    Cette partie n'est plus necessaire apres branchement de la physique 
!    de surface sous apl_arome

!    ------------------------------------------------------------------
!     12 - CALL CHEMICAL SCHEME.
!     --------------------------------------------------------------------
IF (LUSECHEM) THEN

  ! ANNEE
  IYEAR = NINDAT / 10000
  ! MOIS
  IMONTH = (NINDAT - 10000*IYEAR ) / 100
  ! JOUR DU MOIS
  IDAY = NINDAT - 10000*IYEAR - 100*IMONTH

  DO JLON = KIDIA,KFDIA
    ZLAT_(JLON) = 180. * ASIN(PGEMU(JLON)) / (2.*ASIN(1.))
    ZLON_(JLON) = 180. * PGELAM(JLON) / (2.*ASIN(1.))
    ZZENITH_(JLON) = ACOS( PMU0(JLON) )
    ZZS_(JLON)=POROG(JLON)/RG
    ZALB_UV_(JLON)=ZALBP(JLON,1)
  ENDDO

  ! Swapp because IN and OUT will be needed simultaneously
  CALL SWAP_SVS

  DO JGFL=1,NGFL_EXT
    DO JLEV=1,KLEV
      DO JLON= KIDIA,KFDIA
        ! modify input
        ZSVSIN_(JLON,JLEV,JGFL)=MAX(0.0_JPRB, ZSVSIN_(JLON,JLEV,JGFL))
      ENDDO
    ENDDO
  ENDDO
  IEZDIAG_CHEM=NGFL_EZDIAG-IOFF_MFSHAL+1
  CALL ARO_MNHC(ZSVSIN_,&
   & ZRHODREFM__(:,1:KLEV),PDT, ZTHM__(:,1:KLEV), ZPABSM__(:,1:KLEV), ZRM_, ZLAT_, ZLON_, ZALB_UV_, &
   & ZZS_, ZZENITH_,ZZZ_, IYEAR,IMONTH,IDAY, REAL(RHGMT,JPRB)+PDT/2._JPRB,&
   & KFDIA,KLEV,NGFL_EXT, NRR, KSTEP+1,NULOUT,IEZDIAG_CHEM, ZPEZDIAG_(:,:,IOFF_MFSHAL:NGFL_EZDIAG),ZSVS_ )
 
  PEZDIAG(KIDIA:KFDIA,1:KLEV,IOFF_MFSHAL:NGFL_EZDIAG)=ZPEZDIAG_(KIDIA:KFDIA,1:KLEV,IOFF_MFSHAL:NGFL_EZDIAG)

  !inversion niveau de la tendance des scalaires passifs
  DO JGFL=1,NGFL_EXT
    DO JLEV = 1,KLEV
      DO JLON = KIDIA,KFDIA
        PTENDEXT(JLON,JLEV,JGFL)=PTENDEXT(JLON,JLEV,JGFL)+(ZSVS_(JLON,JLEV,JGFL)-ZSVSIN_(JLON,JLEV,JGFL))
      ENDDO
    ENDDO
  ENDDO

ENDIF ! LUSECHEM

!    ------------------------------------------------------------------
!     13 - STOCHASTIC PHYSICS : PERTURB TENDENCIES
!     -----------------------------------------------------------------

IF(YSPPT_CONFIG%LSPSDT) THEN

  ZDUMMY(KIDIA:KFDIA,1:KLEV)=0.0_JPRB               ! Dummy nonphys tendency for compatibility with ecmwf stochphy
  CALL SPPTEN (YDMODEL%YRML_PHY_EC%YRECLDP,YGFL, &
   & KIDIA,KFDIA,KLON,KLEV,1,PDT,         &  ! In: block indices, physicstimestep
   & PTSL=PTM,PQSL=PQVM, PA=PCLFS, PAP=PAPRSFM, PAPH=PAPRSM,   &  ! In: (T,Q,cloud) forsupersatcheck, Pfull, Phalf
   & PDYN_U=ZDUMMY,PDYN_V=ZDUMMY,PDYN_T=ZDUMMY,PDYN_Q=ZDUMMY,  &  ! In: dummy nonphys tendencies
   & PUNP_U=PTENDU,PUNP_V=PTENDV,PUNP_T=PTENDT,PUNP_Q=PTENDR(:,:,1), &  ! In: (u,v,t,qv) tendencies to perturb
   & PMULNOISE=PGP2DSDT(1,1,1),                           &  ! In: stochphy 3D random multiplicative pattern (less one)
   & PTENU=PTENDU,PTENV=PTENDV,PTENT=PTENDT,PTENQ=PTENDR(:,:,1) )    ! Out: (u,v,t,qv) total perturbed tendencies
ENDIF

IF(LFORCENL.AND.(KSTEP*(TSPHY/RHOUR)>=NFORCESTART).AND.&
              & (KSTEP*(TSPHY/RHOUR)<=NFORCEEND)) THEN
  DO JLEV=1,KLEV
    DO JLON=KIDIA,KFDIA
      PTENDU(JLON,JLEV)=PTENDU(JLON,JLEV)+AMAGSTOPH_CASBS*PFORCEU(JLON,JLEV)
      PTENDV(JLON,JLEV)=PTENDV(JLON,JLEV)+AMAGSTOPH_CASBS*PFORCEV(JLON,JLEV)
      PTENDT(JLON,JLEV)=PTENDT(JLON,JLEV)+AMAGSTOPH_CASBS*PFORCET(JLON,JLEV)
      PTENDR(JLON,JLEV,1)=PTENDR(JLON,JLEV,1)+AMAGSTOPH_CASBS*PFORCEQ(JLON,JLEV)
    ENDDO
  ENDDO
ENDIF

!    ------------------------------------------------------------------
!     14 - FINAL CALCULATIONS.
!     --------------------------------------------------------------------

!forcage pour declencher la ligne de grain 
IF (LSQUALL) THEN
  IF (LTWOTL) THEN
    ZDT2=2*ZDT
  ELSE
    ZDT2=ZDT
  ENDIF
  IF((KSTEP+1)*ZDT2 < 600._JPRB) THEN
    WRITE(NULOUT, *)'refroidissement impose de',NREFROI1,' a ',NREFROI2
    DO JLEV=KLEV,KLEV-20,-1
      PTENDT(NREFROI1:NREFROI2,JLEV)=-0.01_JPRB
    ENDDO
  ENDIF
ENDIF


!ecriture du buffer
IF(LLMSE.OR.LSFORCS) THEN
  DO JLON = KIDIA,KFDIA
    PGPAR(JLON,MINPRR)=ZINPRR_(JLON)+ZSURFPREP(JLON)/1000._JPRB
    PGPAR(JLON,MINPRS)=ZINPRS_(JLON)+ZSURFSNOW(JLON)/1000._JPRB
    PGPAR(JLON,MINPRG)=ZINPRG_(JLON)+ZINPRH_(JLON)
    PGPAR(JLON,MACPRR)=PGPAR(JLON,MACPRR)+(ZINPRR_(JLON)+ZSURFPREP(JLON)/1000._JPRB)*PDT
    PGPAR(JLON,MACPRS)=PGPAR(JLON,MACPRS)+(ZINPRS_(JLON)+ZSURFSNOW(JLON)/1000._JPRB)*PDT
    PGPAR(JLON,MACPRG)=PGPAR(JLON,MACPRG)+(ZINPRG_(JLON)+ZINPRH_(JLON))*PDT
  ENDDO
  PGPAR(KIDIA:KFDIA,MVTS)=ZTSURF(KIDIA:KFDIA)
  PGPAR(KIDIA:KFDIA,MVEMIS)=ZEMIS(KIDIA:KFDIA)
  PGPAR(KIDIA:KFDIA,MVQS)=ZQS(KIDIA:KFDIA)
  DO JSW=1,NSW
    PGPAR(KIDIA:KFDIA,MALBDIR-1+JSW)=ZALBP(KIDIA:KFDIA,JSW)
    PGPAR(KIDIA:KFDIA,MALBSCA-1+JSW)=ZALBD(KIDIA:KFDIA,JSW)
  ENDDO
ENDIF

IF (LMUSCLFA) CALL ECR1D(NMUSCLFA,'PCLCT_apl',PCLCT,1,KLON)
! initialisations for CFU for Rainfalls
DO JLEV = 0,KLEV
  DO JLON = KIDIA,KFDIA
    ! conversion from m/s in mm/s
    PFPLSL(JLON,JLEV)= ZINPRR_(JLON)*1000._JPRB+ZSURFPREP(JLON)
    PFPLSN(JLON,JLEV)= ZINPRS_(JLON)*1000._JPRB+ZSURFSNOW(JLON)
    PFPLSG(JLON,JLEV)= ZINPRG_(JLON)*1000._JPRB
    PFPLSH(JLON,JLEV)= ZINPRH_(JLON)*1000._JPRB
    ! conversion in correct Unit for BADP (same as ALADIN)
    PSTRTU(JLON,JLEV)= ZSFU_(JLON)*ZRHODREFM__(JLON,IKB) 
    PSTRTV(JLON,JLEV)= ZSFV_(JLON)*ZRHODREFM__(JLON,IKB) 
  ENDDO
ENDDO
!Hail diagnostic
PDIAGH(KIDIA:KFDIA)=0._JPRB
IF (LXXDIAGH) THEN
  DO JLEV=1,KLEV
    DO JLON=KIDIA,KFDIA
      PDIAGH(JLON)=PDIAGH(JLON)+ZQGM(JLON,JLEV)*PDELPM(JLON,JLEV)*ZINVG
    ENDDO
  ENDDO
ENDIF
! lightening density
IF (LFLASH) THEN
  IF (KSTEP==0) PFLASH=0._JPRB

  CALL DIAGFLASH(YDCFU,KIDIA,KFDIA,KLON,KLEV,KSTEP,&
    &ZQCM,ZQIM,ZQRM,ZQSM,ZQGM,ZQHM,&
    &PDELPM,ZTM,PWM,PLSM,PFLASH)
ENDIF
!!! modif pour LMSE non activee
IF (LLMSE) THEN
  DO JLEV=1,KSGST+1
    DO JLON = KIDIA,KFDIA
      PFCS(JLON,JLEV)=-ZSFTH_(JLON)*ZRHODREFM__(JLON,IKB)*RCPD
      PFCLL(JLON,JLEV) = PFCLL(JLON,JLEV)*ZRHODREFM__(JLON,IKB)
      PFCLN(JLON,JLEV) = PFCLN(JLON,JLEV)*ZRHODREFM__(JLON,IKB)
      PFEVL(JLON,JLEV) = PFEVL(JLON,JLEV)*ZRHODREFM__(JLON,IKB)
      PFEVN(JLON,JLEV) = PFEVN(JLON,JLEV)*ZRHODREFM__(JLON,IKB)
    ENDDO
  ENDDO
ENDIF
IF (LSFORCS) THEN
  DO JLEV=1,KSGST+1
    DO JLON = KIDIA,KFDIA
      PFCS(JLON,JLEV)=-ZSFTH_(JLON)*ZRHODREFM__(JLON,IKB)*RCPD
      ZDELTA=MAX(0.0_JPRB,SIGN(1.0_JPRB,RTT-ZTSURF(JLON)))
      PFCLL(JLON,JLEV)=-ZSFRV_(JLON)*ZRHODREFM__(JLON,IKB)* FOLH (ZTSURF(JLON),0._JPRB)*(1.0_JPRB-ZDELTA)
      PFCLN(JLON,JLEV)=-ZSFRV_(JLON)*ZRHODREFM__(JLON,IKB)* FOLH (ZTSURF(JLON),0._JPRB)*ZDELTA
    ENDDO
  ENDDO
ENDIF  

DO JSG  = 1, KSGST+1
  DO JLEV = 0, KLEV
    DO JLON = KIDIA, KFDIA
      PFRTH(JLON,JLEV,JSG)=PFRTH(JLON,JLEV,JSG)+ZBUDTH_(JLON)
    ENDDO
  ENDDO
ENDDO

! daand: radflex
IF (LINTFLEX) THEN
  ! account for radiation separately
  LLRAD=.NOT.LRADFLEX
    
  CALL APL_AROME2INTFLEX(YGFL,YDPARAR,YDPHY,KLON,KIDIA,KFDIA,KLEV, PDT,&
   & PRDELPM, PUM, PVM, PTM, PGPAR(1,MVTS), PCPM,&
   & ZFPR,&! precipitation fluxes
   & LLRAD, PFRTH, PFRSO,&! radiative fluxes
   & PTENDU, PTENDV, PTENDT,&! momentum and temperature tendencies
   & PTENDR, PTENDTKE, PTENDEXT,&! total gfl tendencies
   & YDPROCSET)
ENDIF


! Precipitation Type

! Compute wet-bulb temperature at 2 meters (suppose homogeneity of qv/ql/qi )
!ZPCLS(KIDIA:KFDIA)=PAPRSM(KIDIA:KFDIA,KLEV)-2._JPRB/ZZZF(KIDIA:KFDIA,1,KLEV)*&
!                 &(PAPRSM(KIDIA:KFDIA,KLEV)-PAPRSFM(KIDIA:KFDIA,KLEV))

CALL PPWETPOINT(YDPHY,KIDIA,KFDIA,KLON,PAPRSM(:,KLEV),PTCLS,&
  & PQCLS,ZQCM(:,KLEV),ZQIM(:,KLEV),PTPWCLS)

IF (LDPRECIPS.OR.LDPRECIPS2) THEN

  !initialisation de ZDZZ
  DO JLON = KIDIA,KFDIA
    ZDZZ(JLON,1)=ZAPHIM(JLON,0)*ZINVG-ZZZ_(JLON,1)
  ENDDO
  DO JLEV = 2, KLEV
    DO JLON = KIDIA,KFDIA
      ZDZZ(JLON,JLEV)=ZZZ_(JLON,JLEV+IKL)-ZZZ_(JLON,JLEV)
    ENDDO
  ENDDO


  ! Compute wet-bulb temperature
  DO JLEV=1,KLEV
      CALL PPWETPOINT(YDPHY,KIDIA,KFDIA,KLON,PAPRSFM(:,JLEV),ZTM(:,JLEV),&
       & ZQVM(:,JLEV),ZQCM(:,JLEV),ZQIM(:,JLEV),ZTPW(:,JLEV))
  ENDDO

  IF (LDPRECIPS) THEN
   ! Defined precipitation type 
   !
   NDTPRECCUR=INT(MOD(ZSTATI/TSTEP,REAL(NDTPREC)))+1_JPIM
   !PDPRECIPS(:,NDTPRECCUR)=HUGE(1._JPRB)
   PDPRECIPS(:,NDTPRECCUR)=0._JPRB

   !WRITE(NULOUT,*)'sous apl_arome NDTPRECCUR=',NDTPRECCUR,NDTPREC
   CALL DPRECIPS(YDPRECIPS,KIDIA,KFDIA,KLON,KLEV,POROG,PTPWCLS,PDIAGH,PAPHIFM,&
      & ZDZZ,ZTPW,ZQCM,PFPLSL(:,KLEV),PFPLSN(:,KLEV),PFPLSG(:,KLEV),PDPRECIPS(:,NDTPRECCUR))
  ENDIF

  IF (LDPRECIPS2) THEN

   !Idem for an other time step and an other period
   NDTPRECCUR2=INT(MOD(ZSTATI/TSTEP,REAL(NDTPREC2)))+1_JPIM
   PDPRECIPS2(:,NDTPRECCUR2)=0._JPRB

   CALL DPRECIPS(YDPRECIPS,KIDIA,KFDIA,KLON,KLEV,POROG,PTPWCLS,PDIAGH,PAPHIFM,&
      & ZDZZ,ZTPW,ZQCM,PFPLSL(:,KLEV),PFPLSN(:,KLEV),PFPLSG(:,KLEV),PDPRECIPS2(:,NDTPRECCUR2))

  ENDIF

ENDIF



!     --------------------------------------------------------------------------
END ASSOCIATE
END ASSOCIATE
IF (LHOOK) CALL DR_HOOK('APL_AROME',1,ZHOOK_HANDLE)

CONTAINS

SUBROUTINE SWAP_THS
IF (LLSWAP_THS) THEN
  ZTHSIN_ => ZTHSAVE__(:,1:KLEV)
  ZTHS__ => ZTHSWAP__
ELSE
  ZTHSIN_ => ZTHSWAP__(:,1:KLEV)
  ZTHS__ => ZTHSAVE__
ENDIF
LLSWAP_THS=.NOT.LLSWAP_THS
END SUBROUTINE SWAP_THS

SUBROUTINE SWAP_RS
IF (LLSWAP_RS) THEN
  ZRSIN_ => ZRSAVE_
  ZRS_   => ZRSWAP_
ELSE
  ZRSIN_ => ZRSWAP_
  ZRS_   => ZRSAVE_
ENDIF
LLSWAP_RS=.NOT.LLSWAP_RS
END SUBROUTINE SWAP_RS

SUBROUTINE SWAP_SVS
IF (LLSWAP_SVS) THEN
  ZSVSIN_ => ZSVSAVE_
  ZSVS_   => ZSVSWAP_
ELSE
  ZSVSIN_ => ZSVSWAP_
  ZSVS_   => ZSVSAVE_
ENDIF
LLSWAP_SVS=.NOT.LLSWAP_SVS
END SUBROUTINE SWAP_SVS

SUBROUTINE SWAP_SVM
IF (LLSWAP_SVM) THEN
  ZSVMIN_ => ZSVMSAVE_
  ZSVM_   => ZSVMSWAP_
ELSE
  ZSVMIN_ => ZSVMSWAP_
  ZSVM_   => ZSVMSAVE_
ENDIF
LLSWAP_SVM=.NOT.LLSWAP_SVM
END SUBROUTINE SWAP_SVM

SUBROUTINE SWAP_LIMAS
IF (LLSWAP_LIMAS) THEN
  ZLIMASIN_ => ZLIMASAVE_
  ZLIMAS_   => ZLIMASWAP_
ELSE
  ZLIMASIN_ => ZLIMASWAP_
  ZLIMAS_   => ZLIMASAVE_
ENDIF
LLSWAP_LIMAS=.NOT.LLSWAP_LIMAS
END SUBROUTINE SWAP_LIMAS

END SUBROUTINE APL_AROME