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|
*DECK D2PADF
SUBROUTINE D2PADF (IPDAT,IPRINT,NG,NMIL, ADF, NSF, DIFC,CURRN,
1 SRFLX,ZAFLX,RPAR,IPAR,ADF_T,STAIDX,NVAR)
*
*-----------------------------------------------------------------------
*
*Purpose:
* CALL to GET_SAP_ADF to recover ADF information.
*
*Author(s):
* J. Taforeau
*
*Parameters:
* IPDAT
* IPRINT
* NG
* NMIL
* ADF
* NSF
* DIFC
* CURRN
* SRFLX
* ZAFLX
* RPAR
* IPAR
* ADF_T
* STAIDX
* NVAR
*
*-----------------------------------------------------------------------
*
USE GANLIB
*----
* SUBROUTINE ARGUMENTS
*----
TYPE(C_PTR) IPDAT,IPTH,KPTH
INTEGER IPRINT,NG,NMIL,NSF,IPAR(3,NSF),NVAR
REAL ADF(NSF,NG,10),DIFC(NG),CURRN(NSF,NG,2),SRFLX(NSF,NG),
1 ZAFLX(NMIL,NG)
DOUBLE PRECISION RPAR(6,NSF)
CHARACTER*3 ADF_T
INTEGER STAIDX(NVAR) ! Index of current branch state values
*----
* LOCAL VARIABLES
*----
REAL SIDE,APOTHEM,VOLUME
INTEGER :: NSD = 4
INTEGER TOS(-1:1,-1:1)
REAL SIGF(4)
INTEGER DX, DY, SOT, IAXIS
INTEGER NAXIS,NPAIR(2),CAXIS(4),PAXIS(0:1,2),TRF_I(2,4)
INTEGER ICELL(2),NSURF(2)
INTEGER IND, NZ, NC, IPAIR, IA, IP, NSURFAC,P, TR,NS,NGRP
REAL*8 :: J_NET,J_PLUS,J_MINOS,FI_HET,TRANSV_CURR,FI_HOMOG,FAVE
REAL*8 :: J_SUMM
REAL :: B2_VECT(NMIL,NG), DIFF_C(NMIL,NG) ! B2 and D vectors
REAL :: APOTH(NMIL,4)
LOGICAL :: HASSYM(2,NMIL)
INTEGER INTCORR(0:1,1,2)
REAL CURR_INFO(1:(NMIL+1),NG,NSF,9)
IF(NMIL > 1) CALL XABORT ('@D2P: MORE THAN 1 MIXTRURE ')
IF(NSF .NE. NSD) CALL XABORT('@D2PADF: NUMBER OF SURFACE NE 4')
SIDE= REAL(MAXVAL(RPAR(5,:)))
APOTHEM= SIDE/2.0
VOLUME= NSF*SIDE*APOTHEM/2.0
CURR_INFO= 0.0
! TOS is the interface number corresponding to the cell
! to the right of the equation number (interface)
TOS= 0
TOS( 0, 1)= 4 !DX=0 DY>0 west
TOS( 0,-1)= 2 !DX=0 DY<0 east
TOS( 1, 0)= 1 !DX>0 DY=0 north
TOS(-1, 0)= 3 !DX<0 DY=0 south
SIGF(1)= 1.
SIGF(2)= 1.
SIGF(3)= 1.
SIGF(4)= 1.
!deltas in sense counterclokwise around the geometry
!AXIS 1 DX>0 DY=0
!AXIS 2 DX=0 DY>0
NPAIR= 0
NAXIS= 2
INTCORR= 0
!AXIS 1
INTCORR(0,1,1)= 1
INTCORR(1,1,1)= 3
NPAIR(1)= 1
!AXIS 2
INTCORR(0,1,2)= 2
INTCORR(1,1,2)= 4
NPAIR(2)= 1
!axis not crossing the surface
CAXIS(1)= 1
CAXIS(2)= 2
CAXIS(3)= CAXIS(1)
CAXIS(4)= CAXIS(2)
!axis crossing a surface
PAXIS(0,1)= 2
PAXIS(1,1)= 4
PAXIS(0,2)= 1
PAXIS(1,2)= 3
HASSYM= .FALSE.
! coefficient related to the transversal component of the J+.
! each surface has its 2 transversal components
! first surface
TRF_I(1,1)= 2
TRF_I(2,1)= 4
! 2-nd surface
TRF_I(1,2)= 1
TRF_I(2,2)= 3
! 3-th surface
TRF_I(1,3)= 2
TRF_I(2,3)= 4
! 4-th surface
TRF_I(1,4)= 1
TRF_I(2,4)= 3
ADF=0.0
SOT=0
CURR_INFO= 0.0 !this is needed to know where to apply simmetries
DO NS= 1,NSF
ICELL(1)= IPAR(2,NS)
ICELL(2)= IPAR(3,NS)
IF(RPAR(3,NS).LT.-1.E-3) THEN
DX = -1
ELSEIF(RPAR(3,NS).GT.1.E-3) THEN
DX = 1
ELSE
DX = 0
ENDIF
IF(RPAR(4,NS).LT.-1.E-3) THEN
DY = -1
ELSEIF(RPAR(4,NS).GT.1.E-3) THEN
DY = 1
ELSE
DY = 0
ENDIF
! check for the boundary regions
IF(ICELL(1).LE.0) THEN
ICELL(1)= NMIL+1
! WRITE (*,*) 'BORDER TO THE RIGHT! MESH CH ', ICELL(1)
ENDIF
IF(ICELL(2).LE.0) THEN
ICELL(2)= NMIL+1
! WRITE (*,*) 'BORDER TO THE LEFT! MESH CH ', ICELL(2)
ENDIF
! equations at the boundary:
! mesh on the left indicator of the surface ------------
IF(TOS(DX,DY).EQ.1) SOT= 3
IF(TOS(DX,DY).EQ.2) SOT= 4
IF(TOS(DX,DY).EQ.3) SOT= 1
IF(TOS(DX,DY).EQ.4) SOT= 2
!
!-------------------------------------------------------
! loop for the values of the J+-, J, FI
DO NGRP= 1,NG
! J+
CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),1)=
> CURRN(NS,NGRP,2)/REAL(RPAR(5,NS))
CURR_INFO(ICELL(2),NGRP,SOT,1)=
> CURRN(NS,NGRP,1)/REAL(RPAR(5,NS))
! J-
CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),2)=
> CURRN(NS,NGRP,1)/REAL(RPAR(5,NS))
CURR_INFO(ICELL(2),NGRP,SOT ,2)=
> CURRN(NS,NGRP,2)/REAL(RPAR(5,NS))
! J
CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),3)=
> CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),1) -
> CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),2)
CURR_INFO(ICELL(2),NGRP,SOT ,3)=
> CURR_INFO(ICELL(2),NGRP,SOT ,1) -
> CURR_INFO(ICELL(2),NGRP,SOT ,2)
! F-surf(het)
IF(ICELL(1).EQ.(NMIL+1)) THEN
IF(HASSYM(CAXIS(SOT),ICELL(2))) THEN
CURR_INFO(ICELL(2),NGRP,SOT,4) = 0.0
ELSE
CURR_INFO(ICELL(2),NGRP,SOT,4) = SRFLX(NS,NGRP)
> / REAL(RPAR(5,NS))
ENDIF
ELSEIF(ICELL(2).EQ.(NMIL+1)) THEN
IF(HASSYM(CAXIS(TOS(DX,DY)),ICELL(1))) THEN
CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),4) = 0.0
ELSE
CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),4) =
> SRFLX(NS,NGRP)/REAL(RPAR(5,NS))
ENDIF
ELSE ! both cells are real
CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),4) =
> SRFLX(NS,NGRP)/REAL(RPAR(5,NS))
CURR_INFO(ICELL(2),NGRP,SOT ,4) =
> SRFLX(NS,NGRP)/REAL(RPAR(5,NS))
ENDIF
! side dimension
CURR_INFO(ICELL(1),NGRP,TOS(DX,DY),9)= REAL(RPAR(5,NS))
CURR_INFO(ICELL(2),NGRP,SOT ,9)= REAL(RPAR(5,NS))
NSURF(1)= TOS(DX,DY)
NSURF(2)= SOT
DO IND= 1,2
IF(ICELL(IND) < (NMIL+1)) THEN
NZ= ICELL(IND)
! FI
CURR_INFO(NZ,NGRP,:,5)=ZAFLX(NZ,NGRP)
ENDIF
ENDDO
ENDDO
ENDDO ! NS
DO NC= 1,NMIL
DO IAXIS= 1,NAXIS
IF(HASSYM(IAXIS,NC)) THEN
DO IPAIR= 1,NPAIR(IAXIS)
! put current value in the interface in front of it
IF(CURR_INFO(NC,1,INTCORR(0,IPAIR,IAXIS),4).NE.0.) THEN
CURR_INFO(NC,:,INTCORR(1,IPAIR,IAXIS),1:9)=
> CURR_INFO(NC,:,INTCORR(0,IPAIR,IAXIS),1:9)
ELSEIF(CURR_INFO(NC,1,INTCORR(1,IPAIR,IAXIS),4).NE.0.)
> THEN
CURR_INFO(NC,:,INTCORR(0,IPAIR,IAXIS),1:9)=
> CURR_INFO(NC,:,INTCORR(1,IPAIR,IAXIS),1:9)
ENDIF
ENDDO
ENDIF
ENDDO
! now put the possible zero dimension values
DO IA= 1,NAXIS
DO IP= 1,NPAIR(IA)
! put current value in the interface in front of it
IF(CURR_INFO(NC,1,INTCORR(0,IP,IA),9) .NE. 0.) THEN
ELSE
CURR_INFO(NC,:,INTCORR(0,IP,IA),1:9) =
> CURR_INFO(NC,:,INTCORR(1,IP,IA),1:9)
ENDIF
IF(CURR_INFO(NC,1,INTCORR(1,IP,IA),9) .NE. 0.)THEN
ELSE
CURR_INFO(NC,:,INTCORR(1,IP,IA),1:9) =
> CURR_INFO(NC,:,INTCORR(0,IP,IA),1:9)
ENDIF
ENDDO
ENDDO
ENDDO ! NC
!-------------------------------------------------------
DO NC= 1,NMIL
DO NSURFAC= 1,NSD
DO NGRP= 1,NG
DIFF_C(NC,NGRP)= DIFC(NGRP)
J_PLUS = CURR_INFO(NC,NGRP,NSURFAC,1)
J_MINOS= CURR_INFO(NC,NGRP,NSURFAC,2)
J_NET = CURR_INFO(NC,NGRP,NSURFAC,3)
FI_HET = CURR_INFO(NC,NGRP,NSURFAC,4)
FAVE = CURR_INFO(NC,NGRP,NSURFAC,5)
APOTH(NC,NSURFAC)=
> CURR_INFO(NC,NGRP,PAXIS(0,CAXIS(NSURFAC)),9)/2.0
CURR_INFO(NC,NGRP,NSURFAC,8)= APOTH(NC,NSURFAC)
FI_HOMOG = SIGF(NSURFAC)*J_NET * APOTH(NC,NSURFAC)
> / DIFF_C(NC,NGRP) + FAVE
! FG:
CURR_INFO(NC,NGRP,NSURFAC,6)= REAL(FI_HET / FI_HOMOG)
! FS:
CURR_INFO(NC,NGRP,NSURFAC,7)= REAL(2. *
> ( J_PLUS + J_MINOS ) / FI_HOMOG)
ENDDO !NGRP
ENDDO !NSURFAC
ENDDO !NC
!
! B2 loop:
!
DO NCELL= 1,NMIL
DO NGRP= 1,NG
J_SUMM = SUM(CURR_INFO(NCELL,NGRP,:,3))
B2_VECT(NCELL,NGRP)= REAL(J_SUMM / ( DIFF_C(NCELL,NGRP)
> * CURR_INFO(NCELL,NGRP,1,5) ))
ENDDO
ENDDO
DO NCELL= 1,NMIL
DO NGRP= 1,NG
DO NSURFAC= 1,NSD
! TRANSVERSAL CURRENTS SUMMATION
TRANSV_CURR= 0.
DO TR= 1,2
TRANSV_CURR= TRANSV_CURR +
> CURR_INFO(NCELL,NGRP,TRF_I(TR,NSURFAC),3)
ENDDO
! no need to be stored !!!!
! CURR_INFO(NCELL,NGRP,NSURFAC,8)= TRANSV_CURR
ENDDO
ENDDO
ENDDO
! store new IDF in the corresponding module to be used in
! writenemtab
DO NCELL= 1,NMIL
DO NGRP= 1,NG
! B2XS(K,NCELL,NGRP)=B2_VECT(NCELL,NGRP)
DO NSURFAC= 1,NSD
DO P=1,9
! 1 -> J+
! 2 -> J-
! 3 -> J
! 4 -> F-surf
! 5 -> F-ave
! 6 -> GET_IDF
! 7 -> SEL_IDF
! 8 -> apotheme
! 9 -> side length
ADF(NSURFAC,NGRP,P)=CURR_INFO(NCELL,NGRP,NSURFAC,P)
ENDDO
ENDDO
ENDDO
ENDDO
IF(IPRINT > 1) THEN
WRITE(6,*) "*** RECOVER ASSEMBLY DISCONTINUITY FACTOR ***"
IF(ADF_T.EQ.'GET') WRITE(6,*) "ADF TYPE : GET "
IF(ADF_T.EQ.'SEL') WRITE(6,*) "ADF TYPE : SELENGUT "
DO NGRP=1, NG
WRITE(6,*) "GROUP :",NGRP
IF(ADF_T.EQ.'GET') WRITE(6,*)"ADF(N/E/S/W) :",ADF (:,NGRP,6)
IF(ADF_T.EQ.'SEL') WRITE(6,*)"ADF(N/E/S/W) :",ADF (:,NGRP,7)
ENDDO
ENDIF
CALL LCMSIX(IPDAT,' ',0)
CALL LCMSIX(IPDAT,'SAPHYB_INFO',1)
CALL LCMSIX(IPDAT,' ',0)
CALL LCMSIX(IPDAT,'BRANCH_INFO',1)
IPTH=LCMGID(IPDAT,'CROSS_SECT')
KPTH=LCMDIL(IPTH,STAIDX(NVAR))
CALL LCMSIX(KPTH,'MACROLIB_XS',1)
IF(ADF_T.EQ.'GET') THEN
CALL LCMPUT(KPTH,'ADF',NSF*NG,2,ADF(:,:,6))
ELSEIF(ADF_T.EQ.'SEL') THEN
CALL LCMPUT(KPTH,'ADF',NSF*NG,2,ADF(:,:,7))
ELSE
CALL XABORT('@D2PADF: UNKNOW ADF TYPE'//ADF_T//'.')
ENDIF
END
|
