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|
*DECK EDIPXS
SUBROUTINE EDIPXS(IPEDIT,IADJ,IPRINT,NL,NDEL,NALBP,ITRANC,NSAVES,
> NGCOND,NMERGE,ILEAKS,NW,NTAUXT,EIGENK,B2,IGOVE,
> CUREIN,NIFISS,CURNAM,NEDMAC,VOLMER,WLETYC,
> WENERG,SCATTD,RATECM,FLUXCM,FADJCM,SIGS,SCATTS,
> DISFCT,ALBP,TAUXE,HVECT,OVERV,HFACT,HSPH,NENER,
> TIMEF,LH,LSPH)
*
*-----------------------------------------------------------------------
*
*Purpose:
* Save homogenized/condensed macroscopic cross sections.
*
*Copyright:
* Copyright (C) 2002 Ecole Polytechnique de Montreal
* This library is free software; you can redistribute it and/or
* modify it under the terms of the GNU Lesser General Public
* License as published by the Free Software Foundation; either
* version 2.1 of the License, or (at your option) any later version
*
*Author(s): G. Marleau
*
*Parameters: input
* IPEDIT pointer to the edition LCM object.
* IADJ type of flux weighting:
* = 0 direct flux weighting;
* = 1 direct-adjoint flux weighting.
* IPRINT print level;
* = 0 no print;
* = 1 print fluxes;
* = 2 1+print reaction rates;
* = 3 2+print homogenized cross sections.
* NL number of Legendre orders.
* NDEL number of delayed precursor groups.
* NALBP number of physical albedos.
* ITRANC type of transport correction.
* NSAVES homogenized cross section compute/save flag:
* = 0 no compute, no save;
* = 1 compute, no save;
* = 2 compute and save.
* NGCOND number of groups condensed.
* NMERGE number of regions merged.
* ILEAKS type of leakage calculation:
* = 0 no leakage;
* = 1 homogeneous leakage (Diffon);
* = 2 isotropic streaming (Ecco);
* = 3 anisotropic streaming (Tibere);
* = 4 inconsistent model (1/3*strd);
* = 10 isotropic diffusion coefficients recovered from input
* macrolib;
* = 11 anisotropic diffusion coefficients recovered from input
* macrolib.
* NW type of weighting for PN cross section info (=0 P0; =1 P1).
* NTAUXT number of reaction rate edits (=15+2*NDEL).
* EIGENK eigenvalue for problem.
* B2 square buckling:
* for ILEAKS=1,2,4: B2(4) is homogeneous;
* for ILEAKS=3: B2(1),B2(2),B2(3) are directional heterogeneous
* and B2(4) is homogeneous.
* IGOVE Golfier-Vergain flag (=0/1: don't/use Golfier-Vergain equ'n).
* CUREIN infinite multiplication factor.
* NIFISS number of fissile isotopes.
* CURNAM name of LCM directory where the merged/condensed cross
* sections are stored.
* NEDMAC number of extra edit vectors.
* VOLMER volume of region merged.
* WLETYC lethargy width condensed.
* WENERG energy group limits.
* SCATTD double precision scattering rates.
* NENER number of energy groups limits.
* TIMEF time stamp in day/burnup/irradiation.
* LH flag set to true if H-factors are set.
* LSPH flag set to true if SPH factors are set.
*
*Parameters: output
* RATECM averaged region/group cross sections:
* = RATECM(*,1) = total P0;
* = RATECM(*,2) = total P1;
* = RATECM(*,NW+2) = absorption;
* = RATECM(*,NW+3) = fission;
* = RATECM(*,NW+4) = fixed sources / productions;
* = RATECM(*,NW+5) = leakage;
* = RATECM(*,NW+6) = total out of group scattering;
* = RATECM(*,NW+7) = diagonal scattering x-s;
* = RATECM(*,NW+8) = chi;
* = RATECM(*,NW+9) = wims type transport correction;
* = RATECM(*,NW+10) = x-directed leakage;
* = RATECM(*,NW+11) = y-directed leakage;
* = RATECM(*,NW+12) = z-directed leakage;
* = RATECM(*,NW+13) = nu-sigf for delayed neutrons;
* = RATECM(*,NW+13+NDEL) = fission spectra for delayed neutrons.
* FLUXCM integrated region/group fluxes:
* = FLUXCM(*,1) = fluxes P0;
* = FLUXCM(*,2) = fluxes P1.
* FADJCM averaged region/group afjoint fluxes:
* = FADJCM(*,1) = adjoint fluxes P0;
* = FADJCM(*,2) = adjoint fluxes P1.
* SIGS Legendre dependent scattering cross sections.
* SCATTS homogenized scattering cross sections.
* DISFCT disadvantage factor.
* ALBP physical albedos.
* TAUXE extra edit rates.
* HVECT extra edit names.
* OVERV 1/v merge condensed.
* HFACT H-factors condensed.
* HSPH SPH factors condensed.
*
*-----------------------------------------------------------------------
*
USE GANLIB
*----
* SUBROUTINE ARGUMENTS
*----
TYPE(C_PTR) IPEDIT
INTEGER IADJ,IPRINT,NL,NDEL,NALBP,ITRANC,NSAVES,NGCOND,NMERGE,
> ILEAKS,NW,NTAUXT,NIFISS,NEDMAC,NENER,IGOVE
REAL EIGENK,B2(4),CUREIN,VOLMER(NMERGE),WLETYC(NGCOND),
> WENERG(NGCOND+1),RATECM(NMERGE,NGCOND,NTAUXT),
> FLUXCM(NMERGE,NGCOND,NW+1),FADJCM(NMERGE,NGCOND,NW+1),
> SIGS(NMERGE,NGCOND,NL),
> SCATTS(NMERGE,NGCOND,NGCOND,NL),DISFCT(NGCOND),
> ALBP(NALBP,NGCOND,NGCOND),TAUXE(NMERGE,NGCOND,NEDMAC),
> OVERV(NMERGE,NGCOND),HFACT(NMERGE,NGCOND),
> HSPH(NMERGE,NGCOND),TIMEF(3)
LOGICAL LH,LSPH
CHARACTER CURNAM*12,HVECT(NEDMAC)*8
DOUBLE PRECISION SCATTD(NMERGE,NGCOND,NGCOND,NL)
*----
* LOCAL VARIABLES
*----
TYPE(C_PTR) JPEDIT,KPEDIT
CHARACTER APG*3
PARAMETER (IUNOUT=6,APG=' > ',ILCMUP=1,ILCMDN=2,NSTATE=40)
CHARACTER CEDNAM*12,HSIGN*12,CM*2
INTEGER IDATA(NSTATE),ISTATE(NSTATE)
DOUBLE PRECISION SCATWG,SCATTN,FAC1,FAC2
LOGICAL LAL1D
*----
* ALLOCATABLE ARRAYS
*----
INTEGER, ALLOCATABLE, DIMENSION(:) ::IJJ,NJJ,IPOS
REAL, ALLOCATABLE, DIMENSION(:) ::SCATC,ALPHA
REAL, ALLOCATABLE, DIMENSION(:,:) :: FACT,ALB1
*----
* SCRATCH STORAGE ALLOCATION
*----
ALLOCATE(IJJ(NMERGE),NJJ(NMERGE),IPOS(NMERGE))
ALLOCATE(SCATC(NMERGE*NGCOND),FACT(NMERGE,NW+1),ALPHA(NGCOND))
*----
* COMPUTE MERGED/CONDENSED X-S
*----
IF(NSAVES.GE.1) THEN
IDATA(4)=0
DO 200 IGR=1,NGCOND
DO 40 IKK=1,NMERGE
DO 5 IL=1,NW+1
IF(FLUXCM(IKK,IGR,1).EQ.0.0) THEN
FACT(IKK,IL)=0.0
ELSE
FACT(IKK,IL)=1.0/FLUXCM(IKK,IGR,IL)
ENDIF
5 CONTINUE
RATECM(IKK,IGR,NW+3)=RATECM(IKK,IGR,NW+3)*FACT(IKK,1)
IF((RATECM(IKK,IGR,NW+3).NE.0.0).OR.
> (RATECM(IKK,IGR,NW+8).NE.0.0)) IDATA(4)=1
IF(IADJ.EQ.0) THEN
DO IW=1,NW+1
RATECM(IKK,IGR,IW)=RATECM(IKK,IGR,IW)*FACT(IKK,IW)
ENDDO
RATECM(IKK,IGR,NW+2)=RATECM(IKK,IGR,NW+2)*FACT(IKK,1)
RATECM(IKK,IGR,NW+4)=RATECM(IKK,IGR,NW+4)*FACT(IKK,1)
IF(NENER.GT.0) OVERV(IKK,IGR)=OVERV(IKK,IGR)*FACT(IKK,1)
IF(LH) HFACT(IKK,IGR)=HFACT(IKK,IGR)*FACT(IKK,1)
IF(LSPH) HSPH(IKK,IGR)=HSPH(IKK,IGR)*FACT(IKK,1)
IF(ITRANC.NE.0) RATECM(IKK,IGR,NW+9)=RATECM(IKK,IGR,NW+9)
> *FACT(IKK,1)
DO 10 IL=1,NL
IW=MIN(IL,NW+1,2)
SIGS(IKK,IGR,IL)=SIGS(IKK,IGR,IL)*FACT(IKK,IW)
10 CONTINUE
ELSE IF(IADJ.EQ.1) THEN
DO IL=1,NW+1
FAD1=FADJCM(IKK,IGR,IL)
RATECM(IKK,IGR,IL)=RATECM(IKK,IGR,IL)*FACT(IKK,IL)/FAD1
ENDDO
FAD1=FADJCM(IKK,IGR,1)
RATECM(IKK,IGR,NW+2)=RATECM(IKK,IGR,NW+2)*FACT(IKK,1)/FAD1
RATECM(IKK,IGR,NW+4)=RATECM(IKK,IGR,NW+4)*FACT(IKK,1)/FAD1
IF(NENER.GT.0) OVERV(IKK,IGR)=OVERV(IKK,IGR)*FACT(IKK,1)
> /FAD1
IF(LH) HFACT(IKK,IGR)=HFACT(IKK,IGR)*FACT(IKK,1)/FAD1
IF(LSPH) HSPH(IKK,IGR)=HSPH(IKK,IGR)*FACT(IKK,1)/FAD1
IF(ITRANC.NE.0) RATECM(IKK,IGR,NW+9)=RATECM(IKK,IGR,NW+9)
> *FACT(IKK,1)/FAD1
DO 20 IL=1,NL
IW=MIN(IL,NW+1,2)
SIGS(IKK,IGR,IL)=SIGS(IKK,IGR,IL)*FACT(IKK,IW)/
> FADJCM(IKK,IGR,IW)
20 CONTINUE
ENDIF
DO 30 IDEL=1,NDEL
K=NW+12+IDEL
RATECM(IKK,IGR,K)=RATECM(IKK,IGR,K)*FACT(IKK,1)
30 CONTINUE
40 CONTINUE
IF((ILEAKS.EQ.1).OR.(ILEAKS.EQ.2).OR.(ILEAKS.EQ.4)) THEN
IF(IADJ.EQ.0) THEN
DO 50 IKK=1,NMERGE
RATECM(IKK,IGR,NW+5)=RATECM(IKK,IGR,NW+5)*FACT(IKK,1)
50 CONTINUE
ELSE IF(IADJ.EQ.1) THEN
DEN2=0.0
DO 60 IKK=1,NMERGE
DEN2=DEN2+FADJCM(IKK,IGR,1)
RATECM(IKK,IGR,NW+5)=RATECM(IKK,IGR,NW+5)*FACT(IKK,1)/
> FADJCM(IKK,IGR,1)
60 CONTINUE
ENDIF
ELSE IF(ILEAKS.GT.0) THEN
DO 70 IKK=1,NMERGE
RATECM(IKK,IGR,NW+5)=RATECM(IKK,IGR,NW+5)*FACT(IKK,1)
RATECM(IKK,IGR,NW+10)=RATECM(IKK,IGR,NW+10)*FACT(IKK,1)
RATECM(IKK,IGR,NW+11)=RATECM(IKK,IGR,NW+11)*FACT(IKK,1)
RATECM(IKK,IGR,NW+12)=RATECM(IKK,IGR,NW+12)*FACT(IKK,1)
70 CONTINUE
ENDIF
DO 100 JGR=1,NGCOND
DO 90 IKK=1,NMERGE
DO 80 IL=1,NL
IW=MIN(IL,NW+1)
IF(IADJ.EQ.0) THEN
SCATTS(IKK,JGR,IGR,IL)=REAL(SCATTD(IKK,JGR,IGR,IL)
> *FACT(IKK,IW))
ELSE IF(IADJ.EQ.1) THEN
SCATTS(IKK,JGR,IGR,IL)=REAL(SCATTD(IKK,JGR,IGR,IL)
> *FACT(IKK,IW)/FADJCM(IKK,JGR,IW))
ENDIF
80 CONTINUE
90 CONTINUE
100 CONTINUE
DO 110 IKK=1,NMERGE
RATECM(IKK,IGR,NW+7)=SCATTS(IKK,IGR,IGR,1)
110 CONTINUE
DO 130 IED=1,NEDMAC
DO 120 IKK=1,NMERGE
IF(IADJ.EQ.0) THEN
TAUXE(IKK,IGR,IED)=TAUXE(IKK,IGR,IED)*FACT(IKK,1)
ELSE IF(IADJ.EQ.1) THEN
TAUXE(IKK,IGR,IED)=TAUXE(IKK,IGR,IED)*FACT(IKK,1)/
> FADJCM(IKK,IGR,1)
ENDIF
120 CONTINUE
130 CONTINUE
200 CONTINUE
IF(NSAVES.EQ.2) THEN
*----
* COMPUTE THE GOLFIER-VERGAIN FACTORS
*----
IF(IGOVE.EQ.1) THEN
DO 205 IGR=1,NGCOND
FAC1=0.0D0
FAC2=0.0D0
DO 204 IKK=1,NMERGE
FAC1=FAC1+RATECM(IKK,IGR,NW+5)*FLUXCM(IKK,IGR,1)
FAC2=FAC2+FLUXCM(IKK,IGR,1)/(3.0*(RATECM(IKK,IGR,1)-
> SIGS(IKK,IGR,2)))
204 CONTINUE
ALPHA(IGR)=REAL(FAC1/FAC2)
205 CONTINUE
IF(IPRINT.GE.3) WRITE(IUNOUT,6000) ALPHA(:)
ENDIF
*----
* SAVE MERGED/CONDENSED X-S ON LCM
*----
CALL LCMSIX(IPEDIT,CURNAM,ILCMUP)
CALL LCMSIX(IPEDIT,'MACROLIB',ILCMUP)
CALL LCMPUT(IPEDIT,'TIMESTAMP',3,2,TIMEF)
IDATA(1)=NGCOND
IDATA(2)=NMERGE
IDATA(3)=NL
IDATA(5)=NEDMAC
IDATA(6)=ITRANC
IDATA(7)=NDEL
IDATA(15)=IADJ
IF(NEDMAC.GT.0) THEN
CALL LCMPTC(IPEDIT,'ADDXSNAME-P0',8,NEDMAC,HVECT)
ENDIF
JPEDIT=LCMLID(IPEDIT,'GROUP',NGCOND)
DO 210 IGR=1,NGCOND
KPEDIT=LCMDIL(JPEDIT,IGR)
IF(NEDMAC.GT.0) THEN
DO 211 IED=1,NEDMAC
CEDNAM=HVECT(IED)
IF((CEDNAM(:2).EQ.'NW').OR.
> (CEDNAM.EQ.'H-FACTOR')) GO TO 211
CALL LCMPUT(KPEDIT,CEDNAM,NMERGE,2,TAUXE(1,IGR,IED))
211 CONTINUE
ENDIF
IF(NENER.GT.0) CALL LCMPUT(KPEDIT,'OVERV',NMERGE,2,
> OVERV(1,IGR))
IF(LH) CALL LCMPUT(KPEDIT,'H-FACTOR',NMERGE,2,HFACT(1,IGR))
IF(LSPH) CALL LCMPUT(KPEDIT,'NSPH',NMERGE,2,HSPH(1,IGR))
DO IW=1,MIN(NW+1,10)
WRITE(CEDNAM,'(4HNTOT,I1)') IW-1
CALL LCMPUT(KPEDIT,CEDNAM,NMERGE,2,RATECM(1,IGR,IW))
ENDDO
CALL LCMPUT(KPEDIT,'ABS',NMERGE,2,RATECM(1,IGR,NW+2))
CALL LCMPUT(KPEDIT,'PRODUCTION',NMERGE,2,RATECM(1,IGR,NW+4))
DO 212 IKK=1,NMERGE
RATECM(IKK,IGR,NW+6)=RATECM(IKK,IGR,1)-RATECM(IKK,IGR,NW+2)
212 CONTINUE
IF(IDATA(4).EQ.1) THEN
CALL LCMPUT(KPEDIT,'NUSIGF',NMERGE,2,RATECM(1,IGR,NW+3))
CALL LCMPUT(KPEDIT,'CHI',NMERGE,2,RATECM(1,IGR,NW+8))
DO 901 IDEL=1,NDEL
K=NW+12+IDEL
WRITE(CEDNAM,'(6HNUSIGF,I2.2)') IDEL
CALL LCMPUT(KPEDIT,CEDNAM,NMERGE,2,RATECM(1,IGR,K))
WRITE(CEDNAM,'(3HCHI,I2.2)') IDEL
CALL LCMPUT(KPEDIT,CEDNAM,NMERGE,2,RATECM(1,IGR,NDEL+K))
901 CONTINUE
ENDIF
IF(ITRANC.NE.0) THEN
CALL LCMPUT(KPEDIT,'TRANC',NMERGE,2,RATECM(1,IGR,NW+9))
ENDIF
IF(IGOVE.EQ.1) THEN
! use the Golfier-Vergain formula
SCATC(:NMERGE)=ALPHA(IGR)/(3.0*(RATECM(:NMERGE,IGR,1)
> -SIGS(:NMERGE,IGR,2)))
CALL LCMPUT(KPEDIT,'DIFF',NMERGE,2,SCATC)
ELSE IF((ILEAKS.EQ.1).OR.(ILEAKS.EQ.2).OR.(ILEAKS.EQ.10))
> THEN
CALL LCMPUT(KPEDIT,'DIFF',NMERGE,2,RATECM(1,IGR,NW+5))
ELSE IF(ILEAKS.EQ.3) THEN
CALL LCMPUT(KPEDIT,'DIFF',NMERGE,2,RATECM(1,IGR,NW+5))
CALL LCMPUT(KPEDIT,'DIFFX',NMERGE,2,RATECM(1,IGR,NW+10))
CALL LCMPUT(KPEDIT,'DIFFY',NMERGE,2,RATECM(1,IGR,NW+11))
CALL LCMPUT(KPEDIT,'DIFFZ',NMERGE,2,RATECM(1,IGR,NW+12))
ELSE IF(ILEAKS.EQ.11) THEN
CALL LCMPUT(KPEDIT,'DIFFX',NMERGE,2,RATECM(1,IGR,NW+10))
CALL LCMPUT(KPEDIT,'DIFFY',NMERGE,2,RATECM(1,IGR,NW+11))
CALL LCMPUT(KPEDIT,'DIFFZ',NMERGE,2,RATECM(1,IGR,NW+12))
ENDIF
CALL LCMPUT(KPEDIT,'FLUX-INTG',NMERGE,2,FLUXCM(1,IGR,1))
DO IL=2,MIN(NW+1,10)
WRITE(CEDNAM,'(11HFLUX-INTG-P,I1)') IL-1
CALL LCMPUT(KPEDIT,CEDNAM,NMERGE,2,FLUXCM(1,IGR,IL))
ENDDO
IF(IADJ.EQ.1) THEN
DO IL=1,MIN(NW+1,10)
WRITE(CEDNAM,'(4HNWAT,I1)') IL-1
CALL LCMPUT(KPEDIT,CEDNAM,NMERGE,2,FADJCM(1,IGR,IL))
ENDDO
ENDIF
DO 350 IL=1,NL
WRITE (CM,'(I2.2)') IL-1
IPOSIT=0
DO 214 IKK=1,NMERGE
J2=IGR
J1=IGR
DO 215 JGR=1,NGCOND
IF(SCATTS(IKK,IGR,JGR,IL).NE.0.0) THEN
J2=MAX(J2,JGR)
J1=MIN(J1,JGR)
ENDIF
215 CONTINUE
NJJ(IKK)=J2-J1+1
IJJ(IKK)=J2
IPOS(IKK)=IPOSIT+1
DO 216 JGR=J2,J1,-1
IPOSIT=IPOSIT+1
SCATC(IPOSIT)=SCATTS(IKK,IGR,JGR,IL)
216 CONTINUE
214 CONTINUE
CALL LCMPUT(KPEDIT,'SIGS'//CM,NMERGE,2,SIGS(1,IGR,IL))
CALL LCMPUT(KPEDIT,'SIGW'//CM,NMERGE,2,SCATTS(1,IGR,IGR,IL))
CALL LCMPUT(KPEDIT,'SCAT'//CM,IPOSIT,2,SCATC)
CALL LCMPUT(KPEDIT,'NJJS'//CM,NMERGE,1,NJJ)
CALL LCMPUT(KPEDIT,'IJJS'//CM,NMERGE,1,IJJ)
CALL LCMPUT(KPEDIT,'IPOS'//CM,NMERGE,1,IPOS)
350 CONTINUE
IF(IPRINT.GE.4) THEN
WRITE(IUNOUT,'(/14H G R O U P :,I4)') IGR
CALL LCMLIB(KPEDIT)
ENDIF
210 CONTINUE
IF((ILEAKS.EQ.1).OR.(ILEAKS.EQ.2).OR.(ILEAKS.EQ.10)) THEN
CALL LCMPUT(IPEDIT,'B2 B1HOM',1,2,B2(4))
ELSE IF((ILEAKS.EQ.3).OR.(ILEAKS.EQ.11)) THEN
CALL LCMPUT(IPEDIT,'B2 B1HOM',1,2,B2(4))
CALL LCMPUT(IPEDIT,'B2 HETE',3,2,B2)
ENDIF
IDATA(8)=NALBP
DO 217 I=9,NSTATE
IDATA(I)=0
217 CONTINUE
IF((ILEAKS.EQ.1).OR.(ILEAKS.EQ.2).OR.(ILEAKS.EQ.4).OR.
> (ILEAKS.EQ.10)) THEN
IDATA(9)=1
ELSE IF((ILEAKS.EQ.3).OR.(ILEAKS.EQ.11)) THEN
IDATA(9)=2
ENDIF
IDATA(10)=NW
IF(LSPH) THEN
IDATA(14)=1
CALL LCMSIX(IPEDIT,'SPH',1)
ISTATE(:)=0
ISTATE(1)=4
ISTATE(2)=1
ISTATE(6)=1
ISTATE(7)=1
ISTATE(8)=NGCOND
CALL LCMPUT(IPEDIT,'STATE-VECTOR',NSTATE,1,ISTATE)
CALL LCMSIX(IPEDIT,' ',2)
ENDIF
CALL LCMPUT(IPEDIT,'STATE-VECTOR',NSTATE,1,IDATA)
HSIGN='L_MACROLIB'
CALL LCMPTC(IPEDIT,'SIGNATURE',12,HSIGN)
IF(NENER.GT.0) THEN
CALL LCMPUT(IPEDIT,'ENERGY',NGCOND+1,2,WENERG)
CALL LCMPUT(IPEDIT,'DELTAU',NGCOND,2,WLETYC)
ENDIF
CALL LCMPUT(IPEDIT,'VOLUME',NMERGE,2,VOLMER)
IF((EIGENK.NE.0.0).AND.(NIFISS.GT.0)) THEN
CALL LCMPUT(IPEDIT,'K-EFFECTIVE',1,2,EIGENK)
ENDIF
IF((CUREIN.NE.0.0).AND.(NIFISS.GT.0)) THEN
CALL LCMPUT(IPEDIT,'K-INFINITY',1,2,CUREIN)
ENDIF
CALL LCMPUT(IPEDIT,'FLUXDISAFACT',NGCOND,2,DISFCT)
IF(NALBP.GT.0) THEN
LAL1D=.TRUE.
DO IAL=1,NALBP
DO IGR=1,NGCOND
DO JGR=1,NGCOND
IF((IGR.NE.JGR).AND.(ALBP(IAL,IGR,JGR).NE.0.0)) THEN
LAL1D=.FALSE.
GO TO 218
ENDIF
ENDDO
ENDDO
ENDDO
218 IF(LAL1D) THEN
* diagonal physical albedos
ALLOCATE(ALB1(NALBP,NGCOND))
DO IAL=1,NALBP
DO IGR=1,NGCOND
ALB1(IAL,IGR)=ALBP(IAL,IGR,IGR)
ENDDO
ENDDO
CALL LCMPUT(IPEDIT,'ALBEDO',NALBP*NGCOND,2,ALB1)
DEALLOCATE(ALB1)
ELSE
* matrix physical albedos
CALL LCMPUT(IPEDIT,'ALBEDO',NALBP*NGCOND*NGCOND,2,ALBP)
ENDIF
ENDIF
CALL LCMSIX(IPEDIT,' ',ILCMDN)
CALL LCMSIX(IPEDIT,' ',ILCMDN)
IF(IPRINT.GT.0) WRITE(IUNOUT,6031) CURNAM
ENDIF
ENDIF
*----
* PRINT X-S
*----
IF(IPRINT.GE.3) THEN
IF(IGOVE.EQ.1) THEN
WRITE(IUNOUT,'(/41H EDIPXS: USE THE GOLFIER-VERGAIN APPROXIM,
> 43HATION FOR DIFFUSION COEFFICIENT CALCULATION)')
ENDIF
WRITE(IUNOUT,6010)
DO 170 IGR=1,NGCOND
IF((ILEAKS.EQ.1).OR.(ILEAKS.EQ.2).OR.(ILEAKS.EQ.4).OR.
> (ILEAKS.EQ.10)) THEN
WRITE(IUNOUT,6020) IGR
ELSE
WRITE(IUNOUT,6021) IGR
ENDIF
DO 171 IKK=1,NMERGE
*----
* UNCOMMENT THE 4 LINES TO PERFORM TRANSPORT CORRECTION
*----
TOTAL=RATECM(IKK,IGR,1)
SCATWG=SCATTS(IKK,IGR,IGR,1)
* IF(ITRANC.NE.0) THEN
* TOTAL=TOTAL-RATECM(IKK,IGR,NW+9)
* SCATWG=SCATWG-RATECM(IKK,IGR,NW+9)
* ENDIF
*
IF (FLUXCM(IKK,IGR,1).NE.0.0) THEN
FLXAVG=FLUXCM(IKK,IGR,1)/VOLMER(IKK)
SCATTN=0.0D0
DO 172 JGR=1,NGCOND
IF(JGR.NE.IGR) SCATTN=SCATTN+SCATTS(IKK,JGR,IGR,1)
172 CONTINUE
IF((ILEAKS.EQ.1).OR.(ILEAKS.EQ.2).OR.(ILEAKS.EQ.4).OR.
> (ILEAKS.EQ.10)) THEN
WRITE(IUNOUT,6022) IKK,FLXAVG,TOTAL,
> RATECM(IKK,IGR,NW+5),RATECM(IKK,IGR,NW+2),
> RATECM(IKK,IGR,NW+3),RATECM(IKK,IGR,NW+8),SCATWG,SCATTN
ELSE
WRITE(IUNOUT,6022) IKK,FLXAVG,TOTAL,
> RATECM(IKK,IGR,NW+2),RATECM(IKK,IGR,NW+3),
> RATECM(IKK,IGR,NW+8),SCATWG,SCATTN
ENDIF
ENDIF
171 CONTINUE
IF((ILEAKS.EQ.3).OR.(ILEAKS.EQ.11)) THEN
WRITE(IUNOUT,6024)
DO 173 IKK=1,NMERGE
WRITE(IUNOUT,6025) IKK,RATECM(IKK,IGR,NW+10),
> RATECM(IKK,IGR,NW+11),RATECM(IKK,IGR,NW+12),
> RATECM(IKK,IGR,NW+5)
173 CONTINUE
ENDIF
WRITE(IUNOUT,6026) DISFCT(IGR)
170 CONTINUE
ENDIF
IF(IPRINT.GE.4) THEN
DO 190 IKK=1,NMERGE
WRITE(IUNOUT,6027) IKK,(JGR,JGR=1,NGCOND)
DO 180 IGR=1,NGCOND
*----
* UNCOMMENT THE FOLLOWING LINE TO PERFORM TRANSPORT CORRECTION
*----
SCATWG=SCATTS(IKK,IGR,IGR,1)
* IF(ITRANC.NE.0) SCATWG=SCATWG-RATECM(IKK,IGR,NW+9)
*
WRITE(IUNOUT,6028) IGR,(SCATTS(IKK,JGR,IGR,1),JGR=1,IGR-1),
> SCATWG,(SCATTS(IKK,JGR,IGR,1),JGR=IGR+1,NGCOND)
180 CONTINUE
WRITE (IUNOUT,'(//)')
190 CONTINUE
ENDIF
*----
* SCRATCH STORAGE DEALLOCATION
*----
DEALLOCATE(ALPHA,FACT,SCATC)
DEALLOCATE(IPOS,NJJ,IJJ)
RETURN
*----
* FORMAT
*----
6000 FORMAT(/33H EDIPXS: Golfier-Vergain factors=,1P,10E12.4/(33X,
> 10E12.4))
6010 FORMAT(/' F L U X E S A N D H O M O G E N I Z E D X - S'/
> 1X,51(1H-))
6020 FORMAT(/' G R O U P :',I4/
>1X,'REGION',3X,'AVERAGE',9X,'NTOT0',7X,'DIFFUSION',5X,
>'ABSORPTION',5X,'NUSIGF',8X,'FISSION',10X,'SCATTERING X-S'/11X,
>'FLUX',12X,'X-S',7X,'COEFFICIENT',7X,'X-S',10X,'X-S',10X,
>'SPECTRUM',2X,'WITHIN GROUP',2X,'OUT OF GROUP')
6021 FORMAT(/' G R O U P :',I4/
>1X,'REGION',3X,'AVERAGE',9X,'NTOT0',7X,
>'ABSORPTION',5X,'NUSIGF',8X,'FISSION',10X,'SCATTERING X-S'/11X,
>'FLUX',12X,'X-S',11X,'X-S',10X,'X-S',10X,'SPECTRUM',2X,
>'WITHIN GROUP',2X,'OUT OF GROUP')
6022 FORMAT(1X,I4,1P,8E14.5)
6024 FORMAT(/' REGION X-LEAKAGE Y-LEAKAGE Z-LEAKAGE',
>' HOM-LEAKAGE'/' COEFFICIENT COEFFICIENT ',
>'COEFFICIENT COEFFICIENT')
6025 FORMAT(1X,I6,1X,1P,5E14.5)
6026 FORMAT(/' FLUX DISADVANTAGE FACTOR =',1P,E14.5)
6027 FORMAT(/47H SCATTERING TRANSFER X-S (I TOWARD J) IN REGION,I5,1H:
> //(11X,2HJ=,I4,:,6X,2HJ=,I4,:,6X,2HJ=,I4,:,6X,2HJ=,I4,:,6X,2HJ=,
> I4,:,6X,2HJ=,I4,:,6X,2HJ=,I4,:,6X,2HJ=,I4,:,6X,2HJ=,I4,:,6X,
> 2HJ=,I4))
6028 FORMAT(3H I=,I4,2H: ,1P,10E12.4/(9X,10E12.4))
6031 FORMAT(/53H MERGED/CONDENSED SET OF X-S SAVED IN LCM DIRECTORY ',
> A12,2H'./)
END
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