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|
*DECK FLDDRV
SUBROUTINE FLDDRV (CMODUL,IPTRK,IPSYS,REC,NEL,LL4,ITY,NUN,NBMIX,
1 MAT,VOL,IDL,NGRP,TITR,LREL,IPFLUX)
*
*-----------------------------------------------------------------------
*
*Purpose:
* Solution of the neutron flux as an eigenvalue problem.
*
*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): A. Hebert
*
*Parameters: input
* CMODUL name of the assembly door ('BIVAC' or 'TRIVAC').
* IPTRK L_TRACK pointer to the tracking information.
* IPSYS L_SYSTEM pointer to system matrices.
* REC flux recovery flag:
* .true.: recover the existing solution as initial estimate;
* .false.: use a uniform initial estimate.
* NEL total number of finite elements.
* LL4 order of the system matrices.
* ITY type of solution (2: classical Trivac; 3: Thomas-Raviart).
* NUN total number of unknowns per group.
* NBMIX number of material mixtures.
* MAT index-number of the mixture type assigned to each volume.
* VOL volumes.
* IDL position of the average flux component associated with each
* volume.
* NGRP number of energy groups.
* TITR title.
* LREL flag set to .true. if a RHS estimate of the solution is
* available.
* IPFLUX L_FLUX pointer to the solution.
*
*-----------------------------------------------------------------------
*
USE GANLIB
*----
* SUBROUTINE ARGUMENTS
*----
CHARACTER CMODUL*12,TITR*72
TYPE(C_PTR) IPTRK,IPSYS,IPFLUX
INTEGER NEL,LL4,ITY,NUN,NBMIX,MAT(NEL),IDL(NEL),NGRP
REAL VOL(NEL)
LOGICAL REC,LREL
*----
* GENERIC INTERFACE
*----
INTERFACE
FUNCTION FLDMX_TEMPLATE(F,N,IBLSZ,ITER,IPTRK,IPSYS,IPFLUX)
1 RESULT(X)
USE GANLIB
INTEGER, INTENT(IN) :: N,IBLSZ,ITER
COMPLEX(KIND=8), DIMENSION(N,IBLSZ), INTENT(IN) :: F
COMPLEX(KIND=8), DIMENSION(N,IBLSZ) :: X
TYPE(C_PTR) IPTRK,IPSYS,IPFLUX
END FUNCTION FLDMX_TEMPLATE
END INTERFACE
PROCEDURE(FLDMX_TEMPLATE) :: FLDBMX,FLDTMX
*----
* LOCAL VARIABLES
*----
PARAMETER (NSTATE=40,IOUT=6)
CHARACTER TEXT4*4,HSMG*131
DOUBLE PRECISION DFLOTT
LOGICAL ADJ,RAND
INTEGER ISTATE(NSTATE)
REAL EPSCON(5),RELAX
REAL, DIMENSION(:), ALLOCATABLE :: FKEFFV
REAL, DIMENSION(:,:), ALLOCATABLE :: EVECT
REAL, DIMENSION(:,:,:), ALLOCATABLE :: EV,AD
COMPLEX, DIMENSION(:), ALLOCATABLE :: CFKEFFV
COMPLEX, DIMENSION(:,:,:), ALLOCATABLE :: CEV
TYPE(C_PTR) JPFLUX,KPFLUX,MPFLUX,NPFLUX
*----
* SCRATCH STORAGE ALLOCATION
*----
ALLOCATE(EVECT(NUN,NGRP))
*
*-----------------------------------------------------------------------
* INFORMATION RECOVERED FROM L_SYSTEM AT IPSYS:
* 'A 1 1' : SYSTEM MATRIX RELATED TO FAST LEAKAGE AND REMOVAL.
* 'A 2 2' : SYSTEM MATRIX RELATED TO THERMAL LEAKAGE AND REMOVAL.
* 'A 1 2' : SYSTEM MATRIX RELATED TO UP-SCATTERING.
* 'A 2 1' : SYSTEM MATRIX RELATED TO DOWN-SCATTERING.
* 'B 1 1' : SYSTEM MATRIX RELATED TO FAST FISSION.
* 'B 1 2' : SYSTEM MATRIX RELATED TO THERMAL FISSION.
*-----------------------------------------------------------------------
*
*----
* READ THE INPUT DATA
*----
IMPX=1
IMPH=0
RAND=.FALSE.
IF(REC) THEN
* RECOVER EXISTING OPTIONS.
CALL LCMGET(IPFLUX,'STATE-VECTOR',ISTATE)
ADJ=MOD(ISTATE(3)/10,10).EQ.1
LMOD=ISTATE(4)
ICL1=ISTATE(8)
ICL2=ISTATE(9)
IREBAL=ISTATE(10)
MAXINR=ISTATE(11)
MAXOUT=ISTATE(12)
NADI=ISTATE(13)
IBLSZ=ISTATE(14)
NSTARD=ISTATE(15)
CALL LCMGET(IPFLUX,'EPS-CONVERGE',EPSCON)
EPSINR=EPSCON(1)
EPSOUT=EPSCON(2)
EPSMSR=EPSCON(4)
RELAX=EPSCON(5)
ELSE
* DEFAULT OPTIONS.
ADJ=.FALSE.
LMOD=0
ICL1=3
ICL2=3
MAXINR=0
IREBAL=0
MAXOUT=200
IBLSZ=0
NSTARD=0
CALL LCMGET(IPTRK,'STATE-VECTOR',ISTATE)
NADI=ISTATE(33)
EPSINR=1.0E-5
EPSOUT=1.0E-4
EPSMSR=1.0E-6
RELAX=1.0
ENDIF
*
10 CALL REDGET(INDIC,NITMA,FLOTT,TEXT4,DFLOTT)
IF(INDIC.EQ.10) GO TO 50
20 IF(INDIC.NE.3) CALL XABORT('FLDDRV: CHARACTER DATA EXPECTED.')
IF(TEXT4.EQ.'EDIT') THEN
CALL REDGET(INDIC,IMPX,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) CALL XABORT('FLDDRV: INTEGER DATA EXPECTED(3).')
ELSE IF((TEXT4.EQ.'VAR1').OR.(TEXT4.EQ.'ACCE')) THEN
CALL REDGET(INDIC,ICL1,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) CALL XABORT('FLDDRV: INTEGER DATA EXPECTED(1).')
CALL REDGET(INDIC,ICL2,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) CALL XABORT('FLDDRV: INTEGER DATA EXPECTED(2).')
ELSE IF(TEXT4.EQ.'IRAM') THEN
CALL REDGET(INDIC,IBLSZ,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) CALL XABORT('FLDDRV: INTEGER DATA EXPECTED(3).')
CALL REDGET(INDIC,LMOD,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) CALL XABORT('FLDDRV: INTEGER DATA EXPECTED(4).')
NADI=MAX(NADI,5)
CALL REDGET(INDIC,NITMA,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) THEN
IF((ITY.EQ.2).OR.(ITY.EQ.3).OR.(ITY.EQ.11).OR.(ITY.EQ.13))
1 NADI=MAX(NADI,20)
GO TO 20
ENDIF
IF(CMODUL.EQ.'BIVAC') CALL XABORT('FLDDRV: NSTARD OPTION NOT A'
1 //'VAILABLE WITH BIVAC.')
NSTARD=NITMA
NADI=MAX(NADI,20)
ELSE IF(TEXT4.EQ.'EPSG') THEN
CALL REDGET(INDIC,NITMA,EPSMSR,TEXT4,DFLOTT)
IF(INDIC.NE.2) CALL XABORT('FLDDRV: REAL DATA EXPECTED.')
ELSE IF(TEXT4.EQ.'ADI') THEN
CALL REDGET(INDIC,NADI,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) CALL XABORT('FLDDRV: INTEGER DATA EXPECTED(5).')
ELSE IF(TEXT4.EQ.'ADJ') THEN
ADJ=.TRUE.
ELSE IF(TEXT4.EQ.'EXTE') THEN
30 CALL REDGET(INDIC,NITMA,FLOTT,TEXT4,DFLOTT)
IF(INDIC.EQ.1) THEN
MAXOUT=NITMA
ELSE IF(INDIC.EQ.2) THEN
EPSOUT=FLOTT
ELSE
GO TO 20
ENDIF
GO TO 30
ELSE IF(TEXT4.EQ.'THER') THEN
IREBAL=1
40 CALL REDGET(INDIC,NITMA,FLOTT,TEXT4,DFLOTT)
IF(INDIC.EQ.1) THEN
MAXINR=NITMA
ELSE IF(INDIC.EQ.2) THEN
EPSINR=FLOTT
ELSE
GO TO 20
ENDIF
GO TO 40
ELSE IF(TEXT4.EQ.'MONI') THEN
CALL REDGET(INDIC,LMOD,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) CALL XABORT('FLDDRV: INTEGER DATA EXPECTED(6).')
IF(LMOD.LE.0) CALL XABORT('FLDDRV: INVALID VALUE OF LMOD.')
ELSE IF(TEXT4.EQ.'RAND') THEN
RAND=.TRUE.
ELSE IF(TEXT4.EQ.'HIST') THEN
CALL REDGET(INDIC,IMPH,FLOTT,TEXT4,DFLOTT)
IF(INDIC.NE.1) CALL XABORT('FLDDRV: INTEGER DATA EXPECTED(7).')
ELSE IF(TEXT4.EQ.'RELA') THEN
IF(.NOT.LREL) CALL XABORT('FLDDRV: ENTRY L_FLUX IN MODIFICATIO'
1 //'N MODE EXPECTED FOR RELAX KEYWORD.')
CALL REDGET(INDIC,NITMA,RELAX,TEXT4,DFLOTT)
IF(INDIC.NE.2) CALL XABORT('FLDDRV: REAL DATA EXPECTED.')
ELSE IF(TEXT4.EQ.';') THEN
GO TO 50
ELSE
CALL XABORT('FLDDRV: '//TEXT4//' IS AN INVALID KEY WORD.')
ENDIF
GO TO 10
*----
* FLUXES INITIALIZATION
*----
50 IF(REC.AND.(IMPH.EQ.0)) THEN
CALL LCMLEN(IPFLUX,'FLUX',ILONG,ITYLCM)
IF(ILONG.NE.NGRP) CALL XABORT('FLDDRV: UNABLE TO RECOVER ''FLU'
1 //'X''.')
JPFLUX=LCMGID(IPFLUX,'FLUX')
DO 60 IGR=1,NGRP
CALL LCMGDL(JPFLUX,IGR,EVECT(1,IGR))
60 CONTINUE
ELSE
* INITIAL ESTIMATE OF THE DIRECT FLUXES.
EVECT(:NUN,:NGRP)=1.0
ENDIF
*
DNORM=1.0
ANORM=1.0
IF((LMOD.GT.0).AND.(IBLSZ.EQ.0)) THEN
* BI-ORTHOGONAL HARMONIC CALCULATION.
IF(CMODUL.NE.'TRIVAC') CALL XABORT('FLDDRV: HARMONIC CALCULAT'
1 //'ION IS ONLY POSSIBLE WITH TRIVAC.')
ALLOCATE(FKEFFV(LMOD),EV(NUN,NGRP,LMOD),AD(NUN,NGRP,LMOD))
CALL FLDMON(IPTRK,IPSYS,IPFLUX,LL4,ITY,NUN,NGRP,LMOD,ICL1,
1 ICL2,IMPX,IMPH,TITR,EPSOUT,NADI,MAXOUT,MAXINR,EPSINR,RAND,
2 FKEFFV,EV,AD)
JPFLUX=LCMLID(IPFLUX,'MODE',LMOD)
DO 90 IMOD=1,LMOD
* CREATE A DIRECTORY AT IMOD-TH LIST ELEMENT.
KPFLUX=LCMDIL(JPFLUX,IMOD)
* PUT NODES IN DIRECTORY KPFLUX.
CALL LCMPUT(KPFLUX,'K-EFFECTIVE',1,2,FKEFFV(IMOD))
CALL LCMPUT(KPFLUX,'K-INFINITY',1,2,FKEFFV(IMOD))
MPFLUX=LCMLID(KPFLUX,'FLUX',NGRP)
NPFLUX=LCMLID(KPFLUX,'AFLUX',NGRP)
* STORE FLUX AND ADJOINT FLUX IN THE IGR-TH COMPONENT OF EACH
* LIST.
DO 70 IGR=1,NGRP
CALL FLDTRI(IPTRK,NEL,NUN,EV(1,IGR,IMOD),MAT,VOL,IDL)
CALL FLDTRI(IPTRK,NEL,NUN,AD(1,IGR,IMOD),MAT,VOL,IDL)
70 CONTINUE
IF(IMOD.EQ.1) THEN
CALL FLDNOR(IPSYS,NUN,NGRP,NEL,NBMIX,MAT,VOL,IDL,'DIRE',
1 EV(1,1,IMOD),DNORM)
CALL FLDNOR(IPSYS,NUN,NGRP,NEL,NBMIX,MAT,VOL,IDL,'ADJO',
1 AD(1,1,IMOD),ANORM)
ELSE
EV(:NUN,:NGRP,IMOD)=EV(:NUN,:NGRP,IMOD)*DNORM
AD(:NUN,:NGRP,IMOD)=AD(:NUN,:NGRP,IMOD)*DNORM
ENDIF
IF(LREL) THEN
CALL FLDREL(RELAX,MPFLUX,NGRP,NUN,EV(1,1,IMOD))
CALL FLDREL(RELAX,NPFLUX,NGRP,NUN,AD(1,1,IMOD))
ENDIF
DO 80 IGR=1,NGRP
CALL LCMPDL(MPFLUX,IGR,NUN,2,EV(1,IGR,IMOD))
CALL LCMPDL(NPFLUX,IGR,NUN,2,AD(1,IGR,IMOD))
80 CONTINUE
90 CONTINUE
CALL LCMPUT(IPFLUX,'K-EFFECTIVE',1,2,FKEFFV(1))
DEALLOCATE(AD,EV,FKEFFV)
IF(IMPX.GT.1) THEN
* TEST ORTHOGONALITY OF EIGENVECTORS.
CALL FLDORT(IPSYS,IPFLUX,NUN,NGRP,LMOD)
ENDIF
ELSE IF(IBLSZ.GT.0) THEN
* IMPLICIT RESTARTED ARNOLDI METHOD (IRAM).
IF(LMOD.EQ.0) CALL XABORT('FLDDRV: LMOD>0 EXPECTED WITH IRAM.')
ALLOCATE(CFKEFFV(LMOD),CEV(NUN,NGRP,LMOD))
EPSCON(1)=EPSINR
EPSCON(4)=EPSMSR
CALL LCMPUT(IPFLUX,'EPS-CONVERGE',5,2,EPSCON)
ISTATE(:NSTATE)=0
ISTATE(3)=1
ISTATE(8)=ICL1
ISTATE(9)=ICL2
ISTATE(10)=IREBAL
ISTATE(11)=MAXINR
ISTATE(13)=NADI
ISTATE(15)=NSTARD
ISTATE(40)=IMPX
*
* DIRECT CALCULATION
CALL LCMPUT(IPFLUX,'STATE-VECTOR',NSTATE,1,ISTATE)
IF(CMODUL.EQ.'BIVAC') THEN
CALL FLDARN(FLDBMX,IPTRK,IPSYS,IPFLUX,LL4,NUN,NGRP,LMOD,
1 IBLSZ,.FALSE.,IMPX,EPSOUT,MAXOUT,CEV,CFKEFFV)
ELSE IF(CMODUL.EQ.'TRIVAC') THEN
CALL FLDARN(FLDTMX,IPTRK,IPSYS,IPFLUX,LL4,NUN,NGRP,LMOD,
1 IBLSZ,.FALSE.,IMPX,EPSOUT,MAXOUT,CEV,CFKEFFV)
ENDIF
JPFLUX=LCMLID(IPFLUX,'MODE',LMOD)
DO 120 IMOD=1,LMOD
IF(AIMAG(CFKEFFV(IMOD)).NE.0.0) THEN
WRITE(HSMG,'(8H FLDDRV:,I4,27H-TH DIRECT MODE IS COMPLEX.)')
1 IMOD
WRITE(IOUT,'(A)') HSMG
IF(IMOD.EQ.1)CALL XABORT('FLDDRV: COMPLEX FUNDAMENTAL MODE.')
GO TO 120
ENDIF
* CREATE A DIRECTORY AT IMOD-TH LIST ELEMENT.
KPFLUX=LCMDIL(JPFLUX,IMOD)
* PUT NODES IN DIRECTORY KPFLUX.
EVECT(:NUN,:NGRP)=REAL(CEV(:NUN,:NGRP,IMOD))
CALL LCMPUT(KPFLUX,'K-EFFECTIVE',1,2,REAL(CFKEFFV(IMOD)))
CALL LCMPUT(KPFLUX,'K-INFINITY',1,2,REAL(CFKEFFV(IMOD)))
* STORE FLUX IN THE IGR-TH COMPONENT OF EACH LIST.
DO 100 IGR=1,NGRP
IF(CMODUL.EQ.'BIVAC') THEN
CALL FLDBIV(IPTRK,NEL,NUN,EVECT(1,IGR),MAT,VOL,IDL)
ELSE IF(CMODUL.EQ.'TRIVAC') THEN
CALL FLDTRI(IPTRK,NEL,NUN,EVECT(1,IGR),MAT,VOL,IDL)
ENDIF
100 CONTINUE
IF(IMOD.EQ.1) THEN
CALL FLDNOR(IPSYS,NUN,NGRP,NEL,NBMIX,MAT,VOL,IDL,'DIRE',
1 EVECT(1,1),DNORM)
ELSE
EVECT(:NUN,:NGRP)=EVECT(:NUN,:NGRP)*DNORM
ENDIF
MPFLUX=LCMLID(KPFLUX,'FLUX',NGRP)
IF(LREL) CALL FLDREL(RELAX,MPFLUX,NGRP,NUN,EVECT(1,1))
DO 110 IGR=1,NGRP
CALL LCMPDL(MPFLUX,IGR,NUN,2,EVECT(1,IGR))
110 CONTINUE
120 CONTINUE
CALL LCMPUT(IPFLUX,'K-EFFECTIVE',1,2,REAL(CFKEFFV(1)))
IF(.NOT.ADJ) GO TO 160
*
* ADJOINT CALCULATION
IF(CMODUL.NE.'TRIVAC') CALL XABORT('FLDDRV: ADJOINT CALCULATI'
1 //'ON IS ONLY POSSIBLE WITH TRIVAC.')
ISTATE(3)=10
CALL LCMPUT(IPFLUX,'STATE-VECTOR',NSTATE,1,ISTATE)
CALL FLDARN(FLDTMX,IPTRK,IPSYS,IPFLUX,LL4,NUN,NGRP,LMOD,IBLSZ,
1 .TRUE.,IMPX,EPSOUT,MAXOUT,CEV,CFKEFFV)
JPFLUX=LCMLID(IPFLUX,'MODE',LMOD)
DO 150 IMOD=1,LMOD
IF(AIMAG(CFKEFFV(IMOD)).NE.0.0) THEN
WRITE(HSMG,'(8H FLDDRV:,I4,28H-TH ADJOINT MODE IS COMPLEX.)')
1 IMOD
WRITE(IOUT,'(A)') HSMG
IF(IMOD.EQ.1)CALL XABORT('FLDDRV: COMPLEX FUNDAMENTAL MODE.')
GO TO 150
ENDIF
* CREATE A DIRECTORY AT IMOD-TH LIST ELEMENT.
KPFLUX=LCMDIL(JPFLUX,IMOD)
* PUT NODES IN DIRECTORY KPFLUX.
EVECT(:NUN,:NGRP)=REAL(CEV(:NUN,:NGRP,IMOD))
CALL LCMPUT(KPFLUX,'AK-EFFECTIVE',1,2,REAL(CFKEFFV(IMOD)))
CALL LCMPUT(KPFLUX,'AK-INFINITY',1,2,REAL(CFKEFFV(IMOD)))
* STORE FLUX IN THE IGR-TH COMPONENT OF EACH LIST.
DO 130 IGR=1,NGRP
CALL FLDTRI(IPTRK,NEL,NUN,EVECT(1,IGR),MAT,VOL,IDL)
130 CONTINUE
IF(IMOD.EQ.1) THEN
CALL FLDNOR(IPSYS,NUN,NGRP,NEL,NBMIX,MAT,VOL,IDL,'ADJO',
1 EVECT(1,1),ANORM)
ELSE
EVECT(:NUN,:NGRP)=EVECT(:NUN,:NGRP)*ANORM
ENDIF
NPFLUX=LCMLID(KPFLUX,'AFLUX',NGRP)
IF(LREL) CALL FLDREL(RELAX,NPFLUX,NGRP,NUN,EVECT(1,1))
DO 140 IGR=1,NGRP
CALL LCMPDL(NPFLUX,IGR,NUN,2,EVECT(1,IGR))
140 CONTINUE
150 CONTINUE
160 DEALLOCATE(CEV,CFKEFFV)
IF(ADJ.AND.(IMPX.GT.1)) THEN
* TEST ORTHOGONALITY OF EIGENVECTORS.
CALL FLDORT(IPSYS,IPFLUX,NUN,NGRP,LMOD)
ENDIF
ELSE
* DIRECT NEUTRON FLUX CALCULATION WITH SVAT.
IF(CMODUL.EQ.'BIVAC') THEN
CALL FLDSMB(IPTRK,IPSYS,IPFLUX,LL4,ITY,NUN,NGRP,ICL1,ICL2,
1 IMPX,IMPH,TITR,EPSOUT,MAXOUT,MAXINR,EPSINR,EVECT,FKEFF)
DO 210 IGR=1,NGRP
CALL FLDBIV(IPTRK,NEL,NUN,EVECT(1,IGR),MAT,VOL,IDL)
210 CONTINUE
ELSE IF(CMODUL.EQ.'TRIVAC') THEN
CALL FLDDIR(IPTRK,IPSYS,IPFLUX,LL4,ITY,NUN,NGRP,ICL1,ICL2,
1 IMPX,IMPH,TITR,EPSOUT,NADI,MAXOUT,MAXINR,EPSINR,EVECT,FKEFF)
DO 220 IGR=1,NGRP
CALL FLDTRI(IPTRK,NEL,NUN,EVECT(1,IGR),MAT,VOL,IDL)
220 CONTINUE
ENDIF
CALL FLDNOR(IPSYS,NUN,NGRP,NEL,NBMIX,MAT,VOL,IDL,'DIRE',
1 EVECT(1,1),DNORM)
CALL LCMPUT(IPFLUX,'K-EFFECTIVE',1,2,FKEFF)
CALL LCMPUT(IPFLUX,'K-INFINITY',1,2,FKEFF)
JPFLUX=LCMLID(IPFLUX,'FLUX',NGRP)
IF(LREL) CALL FLDREL(RELAX,JPFLUX,NGRP,NUN,EVECT(1,1))
DO 230 IGR=1,NGRP
CALL LCMPDL(JPFLUX,IGR,NUN,2,EVECT(1,IGR))
230 CONTINUE
IF(.NOT.ADJ) GO TO 280
*
IF(CMODUL.NE.'TRIVAC') CALL XABORT('FLDDRV: ADJOINT CALCULATI'
1 //'ON IS ONLY POSSIBLE WITH TRIVAC.')
* ADJOINT FLUX INITIALIZATION.
IF(REC.AND.(IMPH.EQ.0)) THEN
CALL LCMLEN(IPFLUX,'AFLUX',ILONG,ITYLCM)
IF(ILONG.NE.NGRP) CALL XABORT('FLDDRV: UNABLE TO RECOVER AF'
1 //'LUX.')
JPFLUX=LCMGID(IPFLUX,'AFLUX')
DO 240 IGR=1,NGRP
CALL LCMGDL(JPFLUX,IGR,EVECT(1,IGR))
240 CONTINUE
ELSE
* INITIAL ESTIMATE OF THE ADJOINT FLUXES.
EVECT(:NUN,:NGRP)=1.0
ENDIF
*
CALL FLDADJ(IPTRK,IPSYS,IPFLUX,LL4,ITY,NUN,NGRP,ICL1,ICL2,IMPX,
1 EPSOUT,NADI,MAXOUT,MAXINR,EPSINR,EVECT,FKEFF)
CALL LCMPUT(IPFLUX,'AK-EFFECTIVE',1,2,FKEFF)
CALL LCMPUT(IPFLUX,'AK-INFINITY',1,2,FKEFF)
JPFLUX=LCMLID(IPFLUX,'AFLUX',NGRP)
DO 260 IGR=1,NGRP
CALL FLDTRI(IPTRK,NEL,NUN,EVECT(1,IGR),MAT,VOL,IDL)
260 CONTINUE
CALL FLDNOR(IPSYS,NUN,NGRP,NEL,NBMIX,MAT,VOL,IDL,'ADJO',
1 EVECT(1,1),ANORM)
IF(LREL) CALL FLDREL(RELAX,JPFLUX,NGRP,NUN,EVECT(1,1))
DO 270 IGR=1,NGRP
CALL LCMPDL(JPFLUX,IGR,NUN,2,EVECT(1,IGR))
270 CONTINUE
ENDIF
*----
* SET STATE-VECTOR AND EPS-CONVERGE
*----
280 ISTATE(:NSTATE)=0
ISTATE(1)=NGRP
ISTATE(2)=NUN
ISTATE(3)=1
IF(ADJ) ISTATE(3)=11
ISTATE(4)=LMOD
ISTATE(5)=0
ISTATE(6)=2
ISTATE(7)=0
ISTATE(8)=ICL1
ISTATE(9)=ICL2
ISTATE(10)=IREBAL
ISTATE(11)=MAXINR
ISTATE(12)=MAXOUT
ISTATE(13)=NADI
ISTATE(14)=IBLSZ
ISTATE(15)=NSTARD
ISTATE(17)=NBMIX
CALL LCMPUT(IPFLUX,'STATE-VECTOR',NSTATE,1,ISTATE)
EPSCON(1)=EPSINR
EPSCON(2)=EPSOUT
EPSCON(3)=EPSOUT
EPSCON(4)=EPSMSR
EPSCON(5)=RELAX
CALL LCMPUT(IPFLUX,'EPS-CONVERGE',5,2,EPSCON)
CALL LCMPUT(IPFLUX,'KEYFLX',NEL,1,IDL)
*----
* PRINT STATE-VECTOR
*----
IF(IMPX.GT.0) THEN
WRITE (IOUT,300) IMPX,(ISTATE(I),I=1,9)
WRITE (IOUT,310) (ISTATE(I),I=10,15),ISTATE(17)
WRITE (IOUT,320) (EPSCON(I),I=1,5)
ENDIF
*----
* SCRATCH STORAGE DEALLOCATION
*----
DEALLOCATE(EVECT)
RETURN
300 FORMAT(/8H OPTIONS/8H -------/
1 7H IMPX ,I9,29H (0=NO PRINT/1=SHORT/2=MORE)/
2 7H NGRO ,I9,27H (NUMBER OF ENERGY GROUPS)/
3 7H NUN ,I9,39H (NUMBER OF UNKNOWNS PER ENERGY GROUP)/
4 7H IADJ ,I9,43H (1=DIRECT KEFF OR SOURCE/10=ADJOINT KEFF/,
5 31H100=DIRECT GPT/100=ADJOINT GPT)/
6 7H LMOD ,I9,23H (NUMBER OF HARMONICS)/
7 7H NGPT ,I9,27H (NUMBER OF GPT EQUATIONS)/
8 7H ITYPE ,I9,46H (TYPE OF SOLUTION: 0=FIXED SOURCE/1=FIXED SO,
9 57HURCE EIGENVALUE/2=TYPE K/3=TYPE K BUCK/4=TYPE B/5=TYPE L)/
1 7H ILEAK ,I9,25H (TYPE OF LEAKAGE MODEL)/
2 7H ICL1 ,I9,46H (NUMBER OF FREE ITERATIONS PER ACCELERATION ,
3 6HCYCLE)/
4 7H ICL2 ,I9,46H (NUMBER OF ACCELERATED ITERATIONS PER ACCELE,
5 14H RATION CYCLE))
310 FORMAT(7H IREBAL,I9,34H (0/1: THERMAL ITERATIONS OFF/ON)/
1 7H MAXINR,I9,40H (MAXIMUM NUMBER OF THERMAL ITERATIONS)/
2 7H MAXOUT,I9,38H (MAXIMUM NUMBER OF OUTER ITERATIONS)/
3 7H NADI ,I9,46H (INITIAL NUMBER OF ADI ITERATIONS IN TRIVAC)/
4 7H IBLSZ ,I9,46H (BLOCK SIZE OF THE ARNOLDI HESSENBERG MATRIX,
5 11H WITH IRAM)/
6 7H NSTARD,I9,46H (NUMBER OF RESTARTING ITERATIONS WITH GMRES ,
7 51HFOR SOLVING THE ADI-PRECONDITIONNED LINEAR SYSTEMS)/
8 7H NBMIX ,I9,31H (NUMBER OF MATERIAL MIXTURES))
320 FORMAT(7H EPSINR,1P,E9.2,29H (THERMAL ITERATION EPSILON)/
1 7H EPSOUT,1P,E9.2,32H (OUTER ITERATION KEFF EPSILON)/
2 7H EPSOUT,1P,E9.2,32H (OUTER ITERATION FLUX EPSILON)/
3 7H EPSMSR,1P,E9.2,33H (INNER ITERATION GMRES EPSILON)/
4 7H RELAX ,1P,E9.2,21H (RELAXATION FACTOR)/)
END
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