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Commit c20c231a authored by ESCOBAR MUNOZ Juan's avatar ESCOBAR MUNOZ Juan
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Juan 21/04/2022:ZSOLVER/ , remove now identical file from ZSOLVER versus MNH

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src/ZSOLVER/ice_adjust.f90 deleted 100644 → 0
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src/ZSOLVER/tridiag_thermo.f90 deleted 100644 → 0
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!MNH_LIC Copyright 2003-2022 CNRS, Meteo-France and Universite Paul Sabatier
!MNH_LIC This is part of the Meso-NH software governed by the CeCILL-C licence
!MNH_LIC version 1. See LICENSE, CeCILL-C_V1-en.txt and CeCILL-C_V1-fr.txt
!MNH_LIC for details. version 1.
!-----------------------------------------------------------------
! ###################
MODULE MODI_TRIDIAG_THERMO
! ###################
!
INTERFACE
!
SUBROUTINE TRIDIAG_THERMO(KKA,KKU,KKL,PVARM,PF,PDFDDTDZ,PTSTEP,PIMPL, &
PDZZ,PRHODJ,PVARP )
!
INTEGER, INTENT(IN) :: KKA !near ground array index
INTEGER, INTENT(IN) :: KKU !uppest atmosphere array index
INTEGER, INTENT(IN) :: KKL !vert. levels type 1=MNH -1=AR
REAL, DIMENSION(:,:,:), INTENT(IN) :: PVARM ! variable at t-1 at mass point
REAL, DIMENSION(:,:,:), INTENT(IN) :: PF ! flux in dT/dt=-dF/dz at flux point
REAL, DIMENSION(:,:,:), INTENT(IN) :: PDFDDTDZ! dF/d(dT/dz) at flux point
REAL, INTENT(IN) :: PTSTEP ! Double time step
REAL, INTENT(IN) :: PIMPL ! implicit weight
REAL, DIMENSION(:,:,:), INTENT(IN) :: PDZZ ! Dz at flux point
REAL, DIMENSION(:,:,:), INTENT(IN) :: PRHODJ ! (dry rho)*J at mass point
!
REAL, DIMENSION(:,:,:), INTENT(OUT):: PVARP ! variable at t+1 at mass point
!
END SUBROUTINE TRIDIAG_THERMO
!
END INTERFACE
!
END MODULE MODI_TRIDIAG_THERMO
!
! #################################################
SUBROUTINE TRIDIAG_THERMO(KKA,KKU,KKL,PVARM,PF,PDFDDTDZ,PTSTEP,PIMPL, &
PDZZ,PRHODJ,PVARP )
! #################################################
!
!
!!**** *TRIDIAG_THERMO* - routine to solve a time implicit scheme
!!
!!
!! PURPOSE
!! -------
! The purpose of this routine is to give a field PVARP at t+1, by
! solving an implicit TRIDIAGonal system obtained by the
! discretization of the vertical turbulent diffusion. It should be noted
! that the degree of implicitness can be varied (PIMPL parameter) and that
! the function of F(dT/dz) must have been linearized.
! PVARP is localized at a mass point.
!
!!** METHOD
!! ------
!!
!! [T(+) - T(-)]/2Dt = -d{ F + dF/d(dT/dz) * [impl*dT/dz(+) + expl* dT/dz(-)] }/dz
!!
!! It is discretized as follows:
!!
!! PRHODJ(k)*PVARP(k)/PTSTEP
!! =
!! PRHODJ(k)*PVARM(k)/PTSTEP
!! - (PRHODJ(k+1)+PRHODJ(k) )/2. * PF(k+1)/PDZZ(k+1)
!! + (PRHODJ(k) +PRHODJ(k-1))/2. * PF(k) /PDZZ(k)
!! + (PRHODJ(k+1)+PRHODJ(k) )/2. * ZEXPL* PDFDDTDZ(k+1) * PVARM(k+1)/PDZZ(k+1)**2
!! - (PRHODJ(k+1)+PRHODJ(k) )/2. * PIMPL* PDFDDTDZ(k+1) * PVARP(k+1)/PDZZ(k+1)**2
!! - (PRHODJ(k+1)+PRHODJ(k) )/2. * ZEXPL* PDFDDTDZ(k+1) * PVARM(k) /PDZZ(k+1)**2
!! + (PRHODJ(k+1)+PRHODJ(k) )/2. * PIMPL* PDFDDTDZ(k+1) * PVARP(k) /PDZZ(k+1)**2
!! - (PRHODJ(k) +PRHODJ(k-1))/2. * ZEXPL* PDFDDTDZ(k) * PVARM(k) /PDZZ(k)**2
!! + (PRHODJ(k) +PRHODJ(k-1))/2. * PIMPL* PDFDDTDZ(k) * PVARP(k) /PDZZ(k)**2
!! + (PRHODJ(k) +PRHODJ(k-1))/2. * ZEXPL* PDFDDTDZ(k) * PVARM(k-1)/PDZZ(k)**2
!! - (PRHODJ(k) +PRHODJ(k-1))/2. * PIMPL* PDFDDTDZ(k) * PVARP(k-1)/PDZZ(k)**2
!!
!!
!! The system to solve is:
!!
!! A*PVARP(k-1) + B*PVARP(k) + C*PVARP(k+1) = Y(k)
!!
!!
!! The RHS of the linear system in PVARP writes:
!!
!! y(k) = PRHODJ(k)*PVARM(k)/PTSTEP
!! - (PRHODJ(k+1)+PRHODJ(k) )/2. * PF(k+1)/PDZZ(k+1)
!! + (PRHODJ(k) +PRHODJ(k-1))/2. * PF(k) /PDZZ(k)
!! + (PRHODJ(k+1)+PRHODJ(k) )/2. * ZEXPL* PDFDDTDZ(k+1) * PVARM(k+1)/PDZZ(k+1)**2
!! - (PRHODJ(k+1)+PRHODJ(k) )/2. * ZEXPL* PDFDDTDZ(k+1) * PVARM(k) /PDZZ(k+1)**2
!! - (PRHODJ(k) +PRHODJ(k-1))/2. * ZEXPL* PDFDDTDZ(k) * PVARM(k) /PDZZ(k)**2
!! + (PRHODJ(k) +PRHODJ(k-1))/2. * ZEXPL* PDFDDTDZ(k) * PVARM(k-1)/PDZZ(k)**2
!!
!!
!! Then, the classical TRIDIAGonal algorithm is used to invert the
!! implicit operator. Its matrix is given by:
!!
!! ( b(ikb) c(ikb) 0 0 0 0 0 0 )
!! ( 0 a(ikb+1) b(ikb+1) c(ikb+1) 0 ... 0 0 0 )
!! ( 0 0 a(ikb+2) b(ikb+2) c(ikb+2). 0 0 0 )
!! .......................................................................
!! ( 0 ... 0 a(k) b(k) c(k) 0 ... 0 0 )
!! .......................................................................
!! ( 0 0 0 0 0 ...a(ike-1) b(ike-1) c(ike-1))
!! ( 0 0 0 0 0 ... 0 a(ike) b(ike) )
!!
!! ikb and ike represent the first and the last inner mass levels of the
!! model. The coefficients are:
!!
!! a(k) = + (PRHODJ(k) +PRHODJ(k-1))/2. * PIMPL* PDFDDTDZ(k) /PDZZ(k)**2
!! b(k) = PRHODJ(k) / PTSTEP
!! - (PRHODJ(k+1)+PRHODJ(k) )/2. * PIMPL* PDFDDTDZ(k+1)/PDZZ(k+1)**2
!! - (PRHODJ(k) +PRHODJ(k-1))/2. * PIMPL* PDFDDTDZ(k) /PDZZ(k)**2
!! c(k) = + (PRHODJ(k+1)+PRHODJ(k) )/2. * PIMPL* PDFDDTDZ(k+1)/PDZZ(k+1)**2
!!
!! for all k /= ikb or ike
!!
!!
!! b(ikb) = PRHODJ(ikb) / PTSTEP
!! -(PRHODJ(ikb+1)+PRHODJ(ikb))/2.*PIMPL*PDFDDTDZ(ikb+1)/PDZZ(ikb+1)**2
!! c(ikb) = +(PRHODJ(ikb+1)+PRHODJ(ikb))/2.*PIMPL*PDFDDTDZ(ikb+1)/PDZZ(ikb+1)**2
!!
!! b(ike) = PRHODJ(ike) / PTSTEP
!! -(PRHODJ(ike)+PRHODJ(ike-1))/2.*PIMPL*PDFDDTDZ(ike)/PDZZ(ike)**2
!! a(ike) = +(PRHODJ(ike)+PRHODJ(ike-1))/2.*PIMPL*PDFDDTDZ(ike)/PDZZ(ike)**2
!!
!!
!! EXTERNAL
!! --------
!!
!! NONE
!!
!! IMPLICIT ARGUMENTS
!! ------------------
!!
!! REFERENCE
!! ---------
!! Press et al: Numerical recipes (1986) Cambridge Univ. Press
!!
!! AUTHOR
!! ------
!! V. Masson * Meteo-France *
!!
!! MODIFICATIONS
!! -------------
!! Original 04/2003 (from tridiag.f90)
!! M.Moge 04/2016 Use openACC directives to port the TURB part of Meso-NH on GPU
!! ---------------------------------------------------------------------
!
!* 0. DECLARATIONS
!
USE MODD_PARAMETERS, ONLY : JPVEXT_TURB
use mode_mppdb
#ifndef MNH_OPENACC
USE MODI_SHUMAN
#else
USE MODI_SHUMAN_DEVICE
#endif
#ifdef MNH_BITREP
USE MODI_BITREP
#endif
!
#ifdef MNH_OPENACC
USE MODE_MNH_ZWORK, ONLY: MNH_MEM_GET, MNH_MEM_POSITION_PIN, MNH_MEM_RELEASE
#endif
!
IMPLICIT NONE
!
!
!* 0.1 declarations of arguments
!
INTEGER, INTENT(IN) :: KKA !near ground array index
INTEGER, INTENT(IN) :: KKU !uppest atmosphere array index
INTEGER, INTENT(IN) :: KKL !vert. levels type 1=MNH -1=ARO
REAL, DIMENSION(:,:,:), INTENT(IN) :: PVARM ! variable at t-1 at mass point
REAL, DIMENSION(:,:,:), INTENT(IN) :: PF ! flux in dT/dt=-dF/dz at flux point
REAL, DIMENSION(:,:,:), INTENT(IN) :: PDFDDTDZ! dF/d(dT/dz) at flux point
REAL, INTENT(IN) :: PTSTEP ! Double time step
REAL, INTENT(IN) :: PIMPL ! implicit weight
REAL, DIMENSION(:,:,:), INTENT(IN) :: PDZZ ! Dz at flux point
REAL, DIMENSION(:,:,:), INTENT(IN) :: PRHODJ ! (dry rho)*J at mass point
!
REAL, DIMENSION(:,:,:), INTENT(OUT):: PVARP ! variable at t+1 at mass point
!
!* 0.2 declarations of local variables
!
REAL, DIMENSION(:,:,:), pointer , contiguous :: ZRHODJ_DFDDTDZ_O_DZ2
REAL, DIMENSION(:,:,:), pointer , contiguous :: ZMZM_RHODJ
REAL, DIMENSION(:,:,:), pointer , contiguous :: ZA, ZB, ZC
REAL, DIMENSION(:,:,:), pointer , contiguous :: ZY ,ZGAM
! RHS of the equation, 3D work array
REAL, DIMENSION(:,:), pointer , contiguous :: ZBET
! 2D work array
INTEGER :: JI,JJ,JK ! loop counter
INTEGER :: IKB,IKE ! inner vertical limits
INTEGER :: IKT ! array size in k direction
INTEGER :: IKTB,IKTE ! start, end of k loops in physical domain
!
!
#ifdef MNH_OPENACC
REAL, DIMENSION(:,:,:), pointer , contiguous :: ZTMP1_DEVICE
#endif
INTEGER :: JIU,JJU,JKU
! ---------------------------------------------------------------------------
!$acc data present( PVARM, PF, PDFDDTDZ, PDZZ, PRHODJ, PVARP )
if ( mppdb_initialized ) then
!Check all in arrays
call Mppdb_check( pvarm, "Tridiag_thermo beg:pvarm" )
call Mppdb_check( pf, "Tridiag_thermo beg:pf" )
call Mppdb_check( pdfddtdz, "Tridiag_thermo beg:pdfddtdz" )
call Mppdb_check( pdzz, "Tridiag_thermo beg:pdzz" )
call Mppdb_check( prhodj, "Tridiag_thermo beg:prhodj" )
end if
JIU = size( pvarm, 1 )
JJU = size( pvarm, 2 )
JKU = size( pvarm, 3 )
#ifndef MNH_OPENACC
allocate( zrhodj_dfddtdz_o_dz2(JIU,JJU,JKU ) )
allocate( zmzm_rhodj (JIU,JJU,JKU ) )
allocate( za (JIU,JJU,JKU ) )
allocate( zb (JIU,JJU,JKU ) )
allocate( zc (JIU,JJU,JKU ) )
allocate( zy (JIU,JJU,JKU ) )
allocate( zgam (JIU,JJU,JKU ) )
allocate( zbet (JIU,JJU ) )
#else
!Pin positions in the pools of MNH memory
CALL MNH_MEM_POSITION_PIN()
CALL MNH_MEM_GET( zrhodj_dfddtdz_o_dz2, JIU, JJU, JKU )
CALL MNH_MEM_GET( zmzm_rhodj , JIU, JJU, JKU )
CALL MNH_MEM_GET( za , JIU, JJU, JKU )
CALL MNH_MEM_GET( zb , JIU, JJU, JKU )
CALL MNH_MEM_GET( zc , JIU, JJU, JKU )
CALL MNH_MEM_GET( zy , JIU, JJU, JKU )
CALL MNH_MEM_GET( zgam , JIU, JJU, JKU )
CALL MNH_MEM_GET( zbet , JIU, JJU )
CALL MNH_MEM_GET( ztmp1_device, JIU, JJU, JKU )
#endif
!$acc data present( zrhodj_dfddtdz_o_dz2, zmzm_rhodj, za, zb, zc, zy, zgam, zbet, ztmp1_device )
!
!* 1. Preliminaries
! -------------
!
IKT=SIZE(PVARM,3)
IKTB=1+JPVEXT_TURB
IKTE=IKT-JPVEXT_TURB
IKB=KKA+JPVEXT_TURB*KKL
IKE=KKU-JPVEXT_TURB*KKL
!
#ifndef MNH_OPENACC
ZMZM_RHODJ = MZM(PRHODJ)
#else
CALL MZM_DEVICE(PRHODJ,ZMZM_RHODJ)
#endif
!$acc kernels present_cr(ZRHODJ_DFDDTDZ_O_DZ2) ! async
#ifndef MNH_BITREP
ZRHODJ_DFDDTDZ_O_DZ2(:,:,:) = ZMZM_RHODJ(:,:,:)*PDFDDTDZ(:,:,:)/PDZZ(:,:,:)**2
#else
!$acc_nv loop independent collapse(3)
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU,JK=1:JKU)
ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK) = ZMZM_RHODJ(JI,JJ,JK)*PDFDDTDZ(JI,JJ,JK)/BR_P2(PDZZ(JI,JJ,JK))
END DO !CONCURRENT
#endif
!$acc end kernels
!
!$acc kernels ! async
ZA=0.
ZB=0.
ZC=0.
ZY=0.
!$acc end kernels
! acc wait
!
!
!* 2. COMPUTE THE RIGHT HAND SIDE
! ---------------------------
!
!$acc kernels ! async
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(2)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
ZY(JI,JJ,IKB) = PRHODJ(JI,JJ,IKB)*PVARM(JI,JJ,IKB)/PTSTEP &
- ZMZM_RHODJ(JI,JJ,IKB+KKL) * PF(JI,JJ,IKB+KKL)/PDZZ(JI,JJ,IKB+KKL) &
+ ZMZM_RHODJ(JI,JJ,IKB ) * PF(JI,JJ,IKB )/PDZZ(JI,JJ,IKB ) &
+ ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,IKB+KKL) * PIMPL * PVARM(JI,JJ,IKB+KKL) &
- ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,IKB+KKL) * PIMPL * PVARM(JI,JJ,IKB )
END DO !CONCURRENT
!$acc end kernels
!
!$acc kernels ! async
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(3)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU,JK=IKTB+1:IKTE-1)
ZY(JI,JJ,JK) = PRHODJ(JI,JJ,JK)*PVARM(JI,JJ,JK)/PTSTEP &
- ZMZM_RHODJ(JI,JJ,JK+KKL) * PF(JI,JJ,JK+KKL)/PDZZ(JI,JJ,JK+KKL) &
+ ZMZM_RHODJ(JI,JJ,JK ) * PF(JI,JJ,JK )/PDZZ(JI,JJ,JK ) &
+ ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK+KKL) * PIMPL * PVARM(JI,JJ,JK+KKL) &
- ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK+KKL) * PIMPL * PVARM(JI,JJ,JK ) &
- ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK ) * PIMPL * PVARM(JI,JJ,JK ) &
+ ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK ) * PIMPL * PVARM(JI,JJ,JK-KKL)
END DO !CONCURRENT
!$acc end kernels
!
!$acc kernels ! async
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(2)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
ZY(JI,JJ,IKE) = PRHODJ(JI,JJ,IKE)*PVARM(JI,JJ,IKE)/PTSTEP &
- ZMZM_RHODJ(JI,JJ,IKE+KKL) * PF(JI,JJ,IKE+KKL)/PDZZ(JI,JJ,IKE+KKL) &
+ ZMZM_RHODJ(JI,JJ,IKE ) * PF(JI,JJ,IKE )/PDZZ(JI,JJ,IKE ) &
- ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,IKE ) * PIMPL * PVARM(JI,JJ,IKE ) &
+ ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,IKE ) * PIMPL * PVARM(JI,JJ,IKE-KKL)
END DO !CONCURRENT
!$acc end kernels
!
! acc wait
!
!* 3. INVERSION OF THE TRIDIAGONAL SYSTEM
! -----------------------------------
!
IF ( PIMPL > 1.E-10 ) THEN
!
!* 3.1 arrays A, B, C
! --------------
!
!$acc kernels ! async
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(2)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
ZB(JI,JJ,IKB) = PRHODJ(JI,JJ,IKB)/PTSTEP &
- ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,IKB+KKL) * PIMPL
END DO !CONCURRENT
!$acc end kernels
!
!$acc kernels ! async
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(2)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
ZC(JI,JJ,IKB) = ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,IKB+KKL) * PIMPL
END DO !CONCURRENT
!$acc end kernels
!
!$acc kernels ! async
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(3)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU,JK=IKTB+1:IKTE-1)
ZA(JI,JJ,JK) = ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK) * PIMPL
ZB(JI,JJ,JK) = PRHODJ(JI,JJ,JK)/PTSTEP &
- ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK+KKL) * PIMPL &
- ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK) * PIMPL
ZC(JI,JJ,JK) = ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,JK+KKL) * PIMPL
END DO !CONCURRENT
!$acc end kernels
!
!$acc kernels ! async
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(2)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
ZA(JI,JJ,IKE) = ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,IKE ) * PIMPL
ZB(JI,JJ,IKE) = PRHODJ(JI,JJ,IKE)/PTSTEP &
- ZRHODJ_DFDDTDZ_O_DZ2(JI,JJ,IKE ) * PIMPL
END DO !CONCURRENT
!$acc end kernels
!
! acc wait
!
!
!* 3.2 going up
! --------
!
!$acc kernels
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(2)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
ZBET(JI,JJ) = ZB(JI,JJ,IKB) ! bet = b(ikb)
PVARP(JI,JJ,IKB) = ZY(JI,JJ,IKB) / ZBET(JI,JJ)
END DO !CONCURRENT
!
!$acc loop seq
DO JK = IKB+KKL,IKE-KKL,KKL
! gang+vector needed or parallisation vector only
!$acc_nv loop independent gang, vector collapse(2)
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
ZGAM(JI,JJ,JK) = ZC(JI,JJ,JK-KKL) / ZBET(JI,JJ)
! gam(k) = c(k-1) / bet
ZBET(JI,JJ) = ZB(JI,JJ,JK) - ZA(JI,JJ,JK) * ZGAM(JI,JJ,JK)
! bet = b(k) - a(k)* gam(k)
PVARP(JI,JJ,JK)= ( ZY(JI,JJ,JK) - ZA(JI,JJ,JK) * PVARP(JI,JJ,JK-KKL) ) / ZBET(JI,JJ)
! res(k) = (y(k) -a(k)*res(k-1))/ bet
END DO !CONCURRENT
END DO
! special treatment for the last level
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(2)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
ZGAM(JI,JJ,IKE) = ZC(JI,JJ,IKE-KKL) / ZBET(JI,JJ)
! gam(k) = c(k-1) / bet
ZBET(JI,JJ) = ZB(JI,JJ,IKE) - ZA(JI,JJ,IKE) * ZGAM(JI,JJ,IKE)
! bet = b(k) - a(k)* gam(k)
PVARP(JI,JJ,IKE)= ( ZY(JI,JJ,IKE) - ZA(JI,JJ,IKE) * PVARP(JI,JJ,IKE-KKL) ) / ZBET(JI,JJ)
! res(k) = (y(k) -a(k)*res(k-1))/ bet
END DO !CONCURRENT
!
!* 3.3 going down
! ----------
!
!$acc loop seq
DO JK = IKE-KKL,IKB,-1*KKL
! gang+vector needed or parallisation vector only
!$acc_nv loop independent gang, vector collapse(2)
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
PVARP(JI,JJ,JK) = PVARP(JI,JJ,JK) - ZGAM(JI,JJ,JK+KKL) * PVARP(JI,JJ,JK+KKL)
END DO !CONCURRENT
END DO
!$acc end kernels
!
ELSE
!
!$acc kernels
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(3)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU,JK=IKTB:IKTE)
PVARP(JI,JJ,JK) = ZY(JI,JJ,JK) * PTSTEP / PRHODJ(JI,JJ,JK)
END DO !CONCURRENT
!$acc end kernels
!
END IF
!
!
!* 4. FILL THE UPPER AND LOWER EXTERNAL VALUES
! ----------------------------------------
!
!$acc kernels
#ifdef MNH_COMPILER_NVHPC
!$acc loop independent collapse(2)
#endif
DO CONCURRENT ( JI=1:JIU,JJ=1:JJU)
PVARP(JI,JJ,KKA)=PVARP(JI,JJ,IKB)
PVARP(JI,JJ,KKU)=PVARP(JI,JJ,IKE)
END DO !CONCURRENT
!$acc end kernels
if ( mppdb_initialized ) then
!Check all out arrays
call Mppdb_check( pvarp, "Tridiag_thermo end:pvarp" )
end if
!$acc end data
#ifndef MNH_OPENACC
deallocate (zrhodj_dfddtdz_o_dz2,zmzm_rhodj,za,zb,zc,zy,zgam,zbet)
#else
!Release all memory allocated with MNH_MEM_GET calls since last call to MNH_MEM_POSITION_PIN
CALL MNH_MEM_RELEASE()
#endif
!$acc end data
!-------------------------------------------------------------------------------
!
END SUBROUTINE TRIDIAG_THERMO
src/ZSOLVER/turb_hor_thermo_flux.f90 deleted 100644 → 0
+ 0
− 1802
View file @ 605e8c26
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