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|
SUBROUTINE DBASE
C
C DRIVER FOR DATABASE MODULE
C
C THIS UTILITY MODULE TRANSFERS GRID POINT DATA, CONNECTING ELEMENT
C DATA, AND MOST OF THE OFP DATA BLOCKS (DISPLACEMENT, VELOCITY,
C ACCELERTION, LOAD, GRID POINT FORCE, EIGENVECTOR, ELEMENT STRESS
C AND ELEMENT FORCE) TO A FORTRAN FILE, FORMATTED OR UNFORMATTED.
C THE GRID POINT DATA ARE IN BASIC COORDINATE SYSTEM, AND THE
C DISPLACEMENT DATA IF REQUESTED, CAN BE IN BASIC SYSTEM (DEFAULT)
C OR IN GLOBAL COORDINATE SYSTEM. GRID POINTS ARE IN EXTERNAL GRID
C NUMBERING SYSTEM.
C THE FORMATTED OUTTP FILE CAN BE PRINTED, OR EDITTED BY SYSTEM
C EDITOR. ALL OUTPUT LINES ARE 132 COLUMNS OR LESS.
C
C
C WRITTEN ON THE LAST DAY OF 1988 BY G.CHAN/UNISYS.
C REVISED 10/89, EXPANDED TO INCLUDE THREE OFP FILES
C
C DATABASE EQEXIN,BGPDT,GEOM2,CSTM,O1,O2,O3//C,N,OUTTP/C,N,FORMAT
C /C,N,BASIC $
C
C EQEXIN - MUST BE PRESENT
C BGPDT - IF PURGE, NO GRID POINT DATA SENT TO OUTTP
C GEOM2 - IF PURGE, NO ELEMENT CONNECTIVITY DATA SENT TO
C OUTTP
C CSTM - IF PURGE, DISPLACEMENT VECTOR IN GLOBAL COORD.
C Oi - ANY ONE OF NASTRAN STANDARD OFP FILES LISTED
C BELOW. IF PURGE, NO DATA SENT TO OUTTP.
C IF THE DATA IN THIS OFP FILE IS COORDINATE
C SENSITIVE, SUCH AS DISPLACEMENT, THE DATA CAN
C BE SENT OUT TO OUTTP IN BASIC OR GLOBAL
C COORDINATES AS SPECIFIED THE PARAMETER BASIC.
C OUTTP - MUST BE ONE OF THE UT1,UT2,INPT,INP1,...,9 FILE
C FORMAT = 0, UNFORMATTED OUTPUT TO OUTTP FILE (DEFAULT)
C = 1, FORMATTED
C BASIC = 0, DISPLACEMENT VECTORS REMAIN IN GLOBAL COORD.
C SYSTEM (DEFAULT)
C = 1, DISPLACEMENT VECTORS IN BASIC COORD. SYSTEM
C (NOT USED IN ELEMENT FORCES AND STRESSES)
C
C LIST OF AVAILABLE OFP FILES (Oi)
C OUDV1, OUDVC1, OUGV1, OUHV1, OUHVC1, OUPV1, OUPVC1,
C OUDV2, OUDVC2, OUGV2, OUHV2, OUHVC2, OUPV2, OUPVC2,
C OUBGV1, OPHID, OPHIG, OPHIH, OCPHIP,
C OPG1, OPP1, OPPC1, OQG1, OQP1, OQPC1, OQBG1,
C OPG2, OPP2, OPPC2, OQG2, OQP2, OQPC2, OQBG2,
C OEF1, OEFC1, OES1, OESC1, OEFB1, OBEF1,
C OEF2, OEFC2, OES2, OESC2, OESB1, OBES1
C OES1A,
C HOUDV1, HOUGV1, HOPG1, HOQG1, HOEF1, HOES1, HOPNL1,
C HOUDV2, HOUGV2, HOPP2, HOQP2, HOEF2, HOEFIX, HOPNL2
C
C
C MAP THIS ROUTINE IN LINK2, LINK4 AND LINK14
C
IMPLICIT INTEGER (A-Z)
LOGICAL FMTTD,BASC,NOCSTM,NOBGPT,NOGEOM,DEBUG,EFS,ECXYZ
INTEGER SUB(2),B(5),NAM(8),A(10),FMT(4),ONAME(6),SUBN(3),
1 A1(80),F(79),F8(6),INPX(3),IX(1),FSTF(4),INP(8)
REAL RX(200),RZ(1),RA(1),T(9),FREQ
CHARACTER*8 CA,MO,CAMO,BA,GL,BAGL,GPT,ELM,DIS,LOD,FORC,VELO,
1 ACC,EIGN,STR,ELF,DXX,DYY(3),DASH,BLK8
CHARACTER UFM*23,UWM*25,UIM*29
COMMON /XMSSG / UFM,UWM,UIM
COMMON /SYSTEM/ SYSBUF,NOUT,NOGO
COMMON /ZZZZZZ/ Z(1)
COMMON /BLANK / OUTTP,FORMTD,BASIC
COMMON /GPTA1 / NEL,LAST,INCR,E(1)
COMMON /MACHIN/ MACH
COMMON /NAMES / RD,RDREW,WRT,WRTREW,REW,NOREW,EOFNRW
EQUIVALENCE (Z(1),RZ(1)), (B(1),NAM(1)),
1 (A(1),RA(1),A1(3)), (RX(1),IX(1))
DATA EQEXIN, BGPDT, GEOM2, CSTM, SCR1, SUB /
1 101, 102, 103, 104, 301, 4HDBAS,4HE /
DATA END1, END2, END3, FMT /
1 4H -EN, 2HD-, 2H--, 4H, UN,4HFORM,4HATTE,1HD /
DATA FMT1, MONE, BLANK, BZERO, IZERO, DEBUG /
1 1H,, -1, 4H , 4H 0.0,4H-0 , .FALSE. /
DATA LS, INPX, LIMAF, LIMRX /
1 1HS, 4H INP,4HINPT, 4H UT, 78, 200 /
DATA GPT, ELM, DIS, DASH /
1 'GRID PTS', 'ELEMENTS', 'DISPLCNT', '--------' /
DATA LOD, FORC, VELO, BLK8 /
1 'LOADINGS', 'GD FORCE', 'VELOCITY', ' ' /
DATA ACC, EIGN, STR, ELF /
1 'ACCELERN', 'EIGENVCR', 'E.STRESS', 'E.FORCES' /
DATA CA, MO, BA, GL /
1 ' CASE = ', ' MODE = ', ' BASIC ', ' GLOBAL ' /
DATA FSTF / 4H1ST , 4H2ND ,4H3RD , 4H4TH / , INP /
1 4HEQEX,2HIN , 4HBGPD,2HT , 4HGEOM,4H2 ,4HCSTM,1H /
C
C
IF (DEBUG) WRITE (NOUT,10)
10 FORMAT (/5X,'-- DBASE LOCAL DEBUG --')
NAM(1) = 106
CALL RDTRL (NAM(1))
IF (NAM(1) .GT. 0) GO TO 20
CALL PAGE
WRITE (NOUT,15) UIM
15 FORMAT (A29,', DATABASE NEW DMAP FORMAT', //5X,
1 'DATABASE EQEXIN,BGPDT,GEOM2,CSTM,O1,O2,O3//C,N,OUTTP/',
2 'C,N,FORMAT/C,N,BASIC $', /5X,'FIRST 4 FILES ARE FIXED ',
3 'IN NAMES AND ORDER, NEXT 3 FILES CAN BE SELECTED BY USER',
4 /5X,'FIRST EQEXIN FILE MUST BE PRESENT, OTHERS CAN BE ',
5 'SELECTIVELY OMITTED')
20 IF (OUTTP.GE.11 .AND. OUTTP.LE.24) GO TO 30
WRITE (NOUT,25) UFM,OUTTP
25 FORMAT (A23,', OUTPUT FILE SPEC. ERROR')
CALL MESAGE (-37,0,SUB)
30 EFS = .FALSE.
FMTTD = .FALSE.
BASC = .FALSE.
ECXYZ = .FALSE.
IF (FORMTD .EQ. 1) FMTTD = .TRUE.
IF (BASIC .EQ. 1) BASC = .TRUE.
IF (FMTTD) FMT(1) = FMT1
CALL FNAME (101,NAM(1))
IF (NAM(1).EQ.INP(1) .AND. NAM(2).EQ.INP(2)) GO TO 34
CALL PAGE2 (3)
WRITE (NOUT,32) FSTF(1),NAM(1),NAM(2)
32 FORMAT (//,' *** USER FATAL ERROR IN DATABASE MODULE, THE ',A4,
1 'INPUT DATA BLOCK ',2A4,' IS ILLEGAL.', /5X,'THE FIRST 4 INPUT',
2 ' DATA BLOCKS MUST BE ''EQEXIN,BGPDT,GEOM2,CSTM'', AND IN ',
3 'EXACT ORDER SHOWN')
NOGO = 1
34 NOBGPT = .FALSE.
NOGEOM = .FALSE.
NOCSTM = .FALSE.
NAM(1) = BGPDT
CALL RDTRL (NAM)
IF (NAM(1) .LE. 0) NOBGPT = .TRUE.
IF (NOBGPT) GO TO 35
CALL FNAME (102,NAM(1))
IF (NAM(1).EQ.INP(3) .AND. NAM(2).EQ.INP(4)) GO TO 35
CALL PAGE2 (3)
WRITE (NOUT,32) FSTF(2),NAM(1),NAM(2)
NOGO = 1
35 NAM(1) = GEOM2
CALL RDTRL (NAM)
IF (NAM(1) .LE. 0) NOGEOM = .TRUE.
IF (NOGEOM) GO TO 36
CALL FNAME (103,NAM(1))
IF (NAM(1).EQ.INP(5) .AND. NAM(2).EQ.INP(6)) GO TO 36
CALL PAGE2 (3)
WRITE (NOUT,32) FSTF(3),NAM(1),NAM(2)
NOGO = 1
36 NAM(1) = CSTM
CALL RDTRL (NAM)
IF (NAM(1) .LE. 0) NOCSTM = .TRUE.
IF (NOCSTM) GO TO 37
CALL FNAME (104,NAM(1))
IF (NAM(1).EQ.INP(7) .AND. NAM(2).EQ.INP(8)) GO TO 37
CALL PAGE2 (3)
WRITE (NOUT,32) FSTF(4),NAM(1),NAM(2)
NOGO = 1
37 IF (NOGO .EQ. 1) RETURN
C
NZ = KORSZ(Z(1))
BUF1 = NZ - SYSBUF
BUF2 = BUF1 - SYSBUF
NZ = BUF2 - 1
COOR = 0
C
C OPEN EQEXIN, READ FIRST RECORD, AND SORT EX-INT TABLE BY INTERNAL
C NUMBERS, Z(1) THRU Z(NEQ)
C
FILE = EQEXIN
CALL OPEN (*1300,EQEXIN,Z(BUF1),RDREW)
CALL FWDREC (*1300,EQEXIN)
CALL READ (*1300,*60,EQEXIN,Z(1),NZ,1,NEQ)
J = 0
40 CALL READ (*1300,*50,EQEXIN,Z(1),NZ,1,NEQ)
J = J + NZ
GO TO 40
50 J = J + NEQ
J = J*2
CALL MESAGE (-8,J,SUB)
C
60 CALL CLOSE (EQEXIN,REW)
LEFT = NZ - NEQ - 1
NEQ2 = NEQ/2
J = NEQ2*5 - LEFT
IF (J .GT. 0) CALL MESAGE (-8,J,SUB)
CALL SORT (0,0,2,2,Z(1),NEQ)
C
C IF BGPDT FILE NOT REQUESTED, SKIP PROCESSING GRID POINT DATA
C
IF (NOBGPT) GO TO 170
C
C
C GRID POINTS PROCESSING
C ======================
C
C OPEN BGPDT, READ THE ENTIRE RECORD, AND REPLACE THE COORD.SYSTEM
C WORD BY THE EXTERNAL GRID POINT NUMBER.
C NOTE - EXT.GRID IDS ARE NO LONGER SORTED.
C WRITE THE NEW DATA TO SCR1 FILE - EXT.GIRD ID, X,Y,Z BASIC COORD.
C
FILE = SCR1
CALL OPEN (*1300,SCR1,Z(BUF1),WRTREW)
FILE = BGPDT
CALL OPEN (*170,BGPDT,Z(BUF2),RDREW)
CALL FWDREC (*1300,BGPDT)
NGD = 0
100 CALL READ (*110,*110,BGPDT,B(2),4,0,FLAG)
NGD = NGD + 1
K = NGD*2 - 1
B(1) = Z(K)
B(2) = 0
CALL WRITE (SCR1,B,5,0)
GO TO 100
110 CALL WRITE (SCR1,0,0,1)
CALL CLOSE (SCR1 ,REW)
CALL CLOSE (BGPDT,REW)
C
C OPEN SCR1 AND OUTTP
C SORT THE GRID POINT DATA BY THEIR EXTERNAL NUMBERS
C
C FOR UNFORMATTED TPAE, TRANSFER GRID DATA FROM SCR1 TO OUTTP IN ONE
C LONG RECORD
C
C WORD CONTENT (UNFORMATTED, 2ND RECORD)
C ------ ----------------------------------------------------
C 1 NO. OF WORDS (THIS FIRST WORD NOT INCLUDED) IN THIS
C RECORD (INTEGER)
C 2 EXTERNAL GRID ID (SORTED)
C 3 0 (NOT USED, RESERVED FOR FUTURE USE. INTEGER)
C 4,5,6 X,Y,Z COORDINATES IN BASIC COORD SYSTEM (REAL)
C : REPEAT 2 THRU 6 AS MANY TIMES AS THERE ARE GRIDS.
C
FILE = SCR1
JB = NEQ+ 1
JBP1 = JB + 1
JBM1 = JB - 1
K = NGD*5
CALL OPEN (*1300,SCR1,Z(BUF1),RDREW)
CALL READ (*1300,*1310,SCR1,Z(JBP1),K,1,FLAG)
CALL CLOSE (SCR1,REW)
CALL SORT (0,0,5,1,Z(JBP1),K)
C
C FIRST GRID POINT IDENTIFICATION RECORD TO OUTTP
C
IF (.NOT.FMTTD) WRITE (OUTTP ) GPT,DASH
IF ( FMTTD) WRITE (OUTTP,120) GPT,DASH
120 FORMAT (1X,2A8)
C
IF (FMTTD) GO TO 130
Z(JB) = K
JE = K + JB
WRITE (OUTTP) (Z(J),J=JB,JE)
GO TO 170
C
C FOR FORMATTED TAPE
C
C RECORD WORD CONTENT FORMAT
C ------ ---- ----------------------------------------------
C 2 1 TOTAL NUMBER OF GRID POINTS I8
C 3 1 EXTERNAL GRID ID (NOT SORTED) I8
C 2 0 (NOT USED, RESERVED FOR FUTURE USE) I8
C 3,4,5 X,Y,Z COORDINATES IN BASIC SYSTEM 3(1P,E12.5)
C : 1-5 REPEAT RECORD 3 AS MANY TIMES AS THERE
C ARE GRIDS
C
130 WRITE (OUTTP,140) NGD
140 FORMAT (1X,I8,'= TOTAL NUMBER OF GRID POINTS')
K = JB
DO 160 I = 1,NGD
WRITE (OUTTP,150) Z(K+1),Z(K+2),RZ(K+3),RZ(K+4),RZ(K+5)
150 FORMAT (1X,2I8,3(1P,E12.5))
160 K = K + 5
C
C IF GEOM2 IS NOT REQUESTED, SKIP PROCESSING ELEMENT DATA
C
170 IF (NOGEOM) GO TO 490
C
C
C ELEMENT CONNECTIVITY PROCESSING
C ===============================
C
C OPEN GEOM2 AND SCR1. TRANSFER ELEMENT DATA TO SCR1 FILE
C
FILE = GEOM2
CALL OPEN (*490,GEOM2,Z(BUF2),RDREW)
CALL FWDREC (*1300,GEOM2)
C
C FIRST ELEMENT IDENTIFICATION RECORD TO OUTTUP
C
IF (.NOT.FMTTD) WRITE (OUTTP ) ELM,DASH
IF ( FMTTD) WRITE (OUTTP,120) ELM,DASH
C
200 CALL READ (*420,*420,GEOM2,B,3,0,FLAG)
IF (B(1).EQ.B(2) .AND. B(2).EQ.B(3)) GO TO 420
DO 210 I = 4,LAST,INCR
IF (B(1) .EQ. E(I)) GO TO 220
210 CONTINUE
CALL MESAGE (-61,0,0)
220 NAM(1) = E(I-3)
NAM(2) = E(I-2)
ELTYP = E(I-1)
NWDS = E(I+2)
PID = E(I+3)
SYMBOL = E(I+12)
NG = E(I+6)
G1 = E(I+9) - 1
NG3 = NG +3
NE = 0
MID = 0
C TETRA,WEDGE,HEXA1,HEXA2 FHEX1 FHEX2
IF (ELTYP.GE.39 .AND. ELTYP.LE.42 .OR. ELTYP.EQ.76.OR.ELTYP.EQ.77)
1 MID = 2
NAM(3) = ELTYP
NAM(4) = SYMBOL
NAM(5) = NG
NAM(6) = NE
NAM(7) = NG3
NAM(8) = 1
IF (NG .GT. 13) NAM(8) = 2
IF (NG .GT. 28) NAM(8) = 3
C
C FOR UNFORMATTED TAPE -
C
C ELEMENT HEADER RECORD WRITTEN TO SCR1
C
C WORD CONTENT (UNFORMATTED)
C ---- ----------------------------------------------------
C 1-2 ELEMENT BCD NAME
C 3 ELEMENT TYPE NUMBER, ACCORDING TO GPTABD ORDER
C 4 ELEMENT SYMBOL (2 LETTERS)
C 5 NG= NUMBER OF GRID POINTS
C 6 NE= TOTAL NO. OF ELEMENTS OF THIS CURRENT ELEMENT TYPE
C 7 NO. OF WORDS IN NEXT RECORD PER ELEMENT = NG+2
C 8 NO. OF 132-COLUMN LINES NEEDED IN NEXT RECORD IF OUTTP
C IS WRITTED WITH A FORMAT
C
FILE = SCR1
CALL OPEN (*1300,SCR1,Z(BUF1),WRTREW)
CALL WRITE (SCR1,NAM,8,0)
FILE = GEOM2
230 CALL READ (*490,*250,GEOM2,A,NWDS,0,FLAG)
A1(1) = A(1)
A1(2) = A(2)
A1(3) = 0
IF (PID .EQ. 0) A1(2) = 0
IF (MID .EQ. 2) A1(2) =-A(2)
DO 240 J = 1,NG
240 A1(J+3) = A(G1+J)
CALL WRITE (SCR1,A1,NG3,0)
NE = NE + 1
GO TO 230
250 CALL WRITE (SCR1,0,0,1)
CALL CLOSE (SCR1,REW)
FILE = SCR1
CALL OPEN (*1300,SCR1,Z(BUF1),RDREW)
CALL READ (*1300,*290,SCR1,Z(JB),LEFT,1,NWDS)
CALL BCKREC (SCR1)
IF (.NOT.FMTTD) GO TO 370
J = 0
CALL READ (*1300,*270,SCR1,Z(JB),LEFT,0,FLAG)
270 CALL READ (*1300,*280,SCR1,Z(JB),LEFT,0,FLAG)
J = J + LEFT
GO TO 270
280 J = J + FLAG
CALL MESAGE (-8,J,SUB)
290 CALL CLOSE (SCR1,REW)
Z(JB+5) = NE
IF (FMTTD) GO TO 300
K = JB + 7
WRITE (OUTTP) (Z(J),J=JB,K)
I = K + 1
K = NWDS + JB - 1
WRITE (OUTTP) (Z(J),J=I,K)
GO TO 200
C
C ELEMENT RECORD TO SCR1
C
C WORD CONTENT, ALL INTEGERS (UNFORMATTED)
C ---- ------------------------------------------------
C 1 ELEMENT ID
C 2 POSITIVE INTEGER = PROPERTY ID
C ZERO IF ELEM HAS NO PROPERTY ID
C NEGATIVE INTEGER = MATERIAL ID (ELEMENT HAS NO
C PROPERTY ID, BUT IT HAS A MATERIAL ID)
C 3 0 (NOT USED. RESERVED FOR FUTURE USE)
C 4,5,... ELEMENT CONNECTING GRID POINTS
C : REPEAT 1,2,3,4,... AS MANY TIMES AS THERE ARE ELEMENTS
C OF THIS SAME TYPE
C
C
C
C FOR FORMATTED TAPE -
C
C ELEMENT HEADER RECORD, IN 8-COLUMN FORMAT
C (LINE ---+++ IS FOR VIDEO AID, NOT PART OF A RECORD)
C
C --------++++++++--------++++++++--------++++++++--------++++++++
C ELEMENT CBAR TYPE = 34 BR GRIDS = 2 TOTAL = ETC...
C
C RECORD COLUMNS CONTENT FORMAT
C ------ ------- -----------------------------------------------
C 2 1- 8 'ELEMENT ' 8 LETTERS
C 9-16 ELEMENT NAME 2A4
C 17-24 ' TYPE =' 8 LETTERS
C 25-28 ELEM. TYPE NO. ACCORDING TO GPTABD I4
C 29,30 BLANK 2X
C 31-32 ELEMENT SYMBOL A2
C 33-40 ' GRIDS =' 8 LETTERS
C 41-48 NO. OF GRIDS PER ELEMENT I8
C 49-56 ' TOTAL =' 8 LETTERS
C 57-64 TOTAL NO. OF ELEMENTS OF THIS ELEM. TYPE I8
C 65-72 ' WDS/EL=' 8 LETTERS
C 73-80 NO. OF WORDS PER ELEMENT IN NEXT RECORDS I8
C 81-88 ' LINES =' 8 LETTERS
C 89-96 NO. OF LINES (RECORDS) NEEDED ON NEXT I8
C RECORD FOR THIS ELEMENT TYPE
C
C ELEMENT RECORD
C THERE SHOULD BE (TOTAL X LINES) RECORDS IN THIS GROUP
C
C RECORD WORD CONTENT FORMAT
C ------ ---- -----------------------------------------------
C 3 1 ELEMENT ID I8
C 2 POSITIVE INTEGER = PROPERTY ID I8
C ZERO IF ELEM HAS NO PROPERTY ID
C NEGATIVE INTEGER = MATERIAL ID (ELEMENT HAS
C NO PROPERTY ID, BUT IT HAS A MATERIAL ID)
C 3 0 (NOT USED. RESERVED FOR FUTURE USE) I8
C 4,5,...16 FIRST 13 EXTERNAL CONNECTING GRID PTS. 13I8
C 4 (IF NEEDED)
C 1,2,...15 NEXT 15 GRID POINTS 8X,15I8
C 5 (IF NEEDED)
C 1,2,...15 MORE GRID POINTS 8X,15I8
C
C
C REPEAT FORMATTED RECORD 3 (AND POSSIBLE 4 AND 5) AS MANY TIMES AS
C THERE ARE ELEMENTS
C
300 WRITE (OUTTP,310) (Z(J+JBM1),J=1,8)
310 FORMAT (1X,'ELEMENT ',2A4,' TYPE =',I4,2X,A2,' GRIDS =',I8,
1 ' TOTAL =',I8,' WDS/EL=',I8,' LINES =',I8)
I = JB + 8
DO 360 J = 9,NWDS,NG3
JE = I + NG3 - 1
IF (NG3 .GT. 16) GO TO 330
WRITE (OUTTP,320,ERR=1390) (Z(K),K=I,JE)
C
C 320 FORMAT (1X,16I8,/,(1X,8X,15I8))
C THIS FORMAT MAY CAUSE AN EXTRA LINE IN SOME MACHINE IF NG3=16
C
320 FORMAT (1X,16I8)
GO TO 360
330 J16 = I + 15
J17 = I + 16
WRITE (OUTTP,320,ERR=1390) (Z(K),K= I,J16)
IF (NG3 .GT. 31) GO TO 350
WRITE (OUTTP,340,ERR=1390) (Z(K),K=J17,JE)
340 FORMAT (1X,8X,15I8)
GO TO 200
350 J31 = I + 30
J32 = I + 31
WRITE (OUTTP,340,ERR=1390) (Z(K),K=J17,J31)
WRITE (OUTTP,340,ERR=1390) (Z(K),K=J32,JE )
360 I = JE + 1
GO TO 200
C
C BYPASSING INSUFF. CORE SITUATION, FORMATTED TAPE ONLY
C
370 CALL READ (*1300,*1300,SCR1,A,8,0,FLAG)
A(6) = NE
WRITE (OUTTP,310,ERR=1390) (A(J),J=1,8)
380 CALL READ (*1300,*410,SCR1,A,NG3,0,FLAG)
IF (NG3 .GT. 16) GO TO 390
WRITE (OUTTP,320,ERR=1390) (A(J),J=1,NG3)
GO TO 380
390 WRITE (OUTTP,320,ERR=1390) (A(J),J=1,16)
IF (NG3 .GT. 32) GO TO 400
WRITE (OUTTP,340,ERR=1390) (A(J),J=17,NG3)
GO TO 380
400 WRITE (OUTTP,340,ERR=1390) (A(J),J=17,32)
WRITE (OUTTP,340,ERR=1390) (A(J),J=33,NG3)
GO TO 380
410 CALL CLOSE (SCR1,REW)
GO TO 200
C
C
C LAST RECORD FOR ELEMENT DATA, UNFORMATTED AND FORMATTED
C
C --------++++++++--------++++++++--------++++++++--------++++++++
C ELEMENT -END- TYPE = 0 -- GRIDS = 0 TOTAL = ETC...
C
420 CALL CLOSE (GEOM2,REW)
DO 430 I = 3,8
430 NAM(I) = 0
NAM(1) = END1
NAM(2) = END2
NAM(4) = END3
IF (.NOT.FMTTD) WRITE (OUTTP ) NAM
IF ( FMTTD) WRITE (OUTTP,310) NAM
C
C
C PROCESS OFP DATA BLOCKS SIGNITURE
C ======================= =========
C DISPLACEMENT 1
C VELOCITIES 10
C ACCELERATIONS 11
C LOADS 2
C GRID POINT OR SPC FORCES 3
C EIGENVECTORS 7
C ELEMENT STRESSES, AND 5
C ELEMENT STRAIN 21
C ELEMENT FORCES 4
C
C (GINO INPUT FILE 105,106,107)
C
490 OFPSET = 0
OFP = 0
C
C SETUP 500-1000 BIG LOOP FOR 3 OFP DATA BLOCKS
C
500 OFP = OFP + 1
OFPX = CSTM + OFP
NAM(1) = OFPX
CALL RDTRL (NAM)
C
C SKIP CURRENT OFP DATA BLOCK IF IT IS PURGED
C
IF (NAM(1) .LE. 0) GO TO 1000
C
FILE = OFPX
CALL OPEN (*1000,OFPX,Z(BUF1),RDREW)
CALL FWDREC (*980,OFPX)
JOS = 2*OFPSET + 1
OFPSET = OFPSET + 1
CALL FNAME (OFPX,ONAME(JOS))
IF (BASC .AND. NOBGPT .AND. .NOT.NOCSTM) GO TO 660
IF (NOBGPT .OR. NOCSTM) BASC = .FALSE.
KOUNT = 0
510 KOUNT = KOUNT + 1
FILE = OFPX
DO 515 I = 1,6
515 F8(I) = 0
C
C IDENTIFY CURRENT OFP DATA BLOCK IS A DISPLACEMENT FILE OR A NON-
C DISPLACEMENT FILE
C
CALL READ (*980,*980,OFPX,A,10,0,FLAG)
DSPL = MOD(A(2),100)
NWDS = A(10)
DXX = BLK8
IF (NWDS.NE.8 .AND. NWDS.NE.14) GO TO 530
C
C CURRENT OFP DATA BLOCK IS A DISPLACEMENT FILE
C
CALL BCKREC (OFPX)
IF (DSPL .EQ. 1) DXX = DIS
IF (DSPL .EQ. 2) DXX = LOD
IF (DSPL .EQ. 3) DXX = FORC
IF (DSPL.EQ. 7 .OR. DSPL.EQ.14) DXX = EIGN
IF (DSPL.EQ.15 .OR. DSPL.EQ.10) DXX = VELO
IF (DSPL.EQ.16 .OR. DSPL.EQ.11) DXX = ACC
IF (DXX .EQ. BLK8) GO TO 530
F(1) = 1
F(2) = 1
DO 520 I = 3,NWDS
520 F(I) = 2
F8(1) = 11222222
KK = 1
NA4 = 22
IF (NWDS .EQ. 8) GO TO 600
F8(2) = 22222200
KK = 2
NA4 = 40
GO TO 600
C
C CURRENT OFP DATA BLOCK IS STRESS OR EL FORCE FILE.
C THE DATA RECORDS HAVE VARIABLE LENGTH (I.E NWDS IS NOT A CONSTANT
C OF 8 OR 14)
C CONSTRUCT THE FORMAT CODE IN F AND F8
C 1 = INTEGER
C 2 = REAL
C 3 = BCD
C AND TURN OFF GLOBAL TO BASIC CONVERSION FLAG BASC
C
530 IF (DSPL .EQ. 4) DXX = ELF
IF (DSPL .EQ. 5) DXX = STR
IF (DXX .EQ. BLK8) GO TO 1260
IF (NWDS .GT. LIMAF) GO TO 1350
IF (BASC) GO TO 1370
EFS = .TRUE.
CALL FWDREC (*980,OFPX)
CALL READ (*980,*980,OFPX,A,NWDS,0,FLAG)
DO 540 I = 1,NWDS
J = NUMTYP(A(I))
IF (J.EQ.0 .AND. I.GT.1) J = F(I-1)
540 F(I) = J
IF (DEBUG) WRITE (NOUT,545) NWDS,(F(I),I=1,NWDS)
545 FORMAT (/,' NWDS/@540=',I3,' F=',50I2, /,(14X,50I2))
AGAIN = 0
CALL READ (*980,*570,OFPX,A,NWDS,0,FLAG)
DO 550 I = 1,NWDS
J = NUMTYP(A(I))
IF (F(I) .EQ. J) GO TO 550
IF (J .NE. 0) F(I) = -J
AGAIN = 1
550 CONTINUE
IF (AGAIN .EQ. 0) GO TO 570
CALL READ (*980,*570,OFPX,A,NWDS,0,FLAG)
DO 560 I = 1,NWDS
IF (F(I) .GT. 0) GO TO 560
J = NUMTYP(A(I))
IF (J .NE. 0) F(I) = J
560 CONTINUE
IMHERE = 560
IF (DEBUG) WRITE (NOUT,545) IMHERE,(F(I),I=1,NWDS)
570 F(NWDS+1) = -9
CALL BCKREC (OFPX)
CALL BCKREC (OFPX)
NA4= 0
KK = 0
DO 580 I = 1,NWDS,8
KK = KK + 1
K = I + 7
IF (K .GT. NWDS) K = NWDS
L = 10000000
DO 580 J = I,K
F8(KK) = F8(KK) + F(J)*L
NA4 = NA4 + F(J)+ 1
IF (F(J) .EQ. 3) NA4 = NA4 - 3
580 L = L/10
IF (DEBUG) WRITE (NOUT,590) NA4,(F8(I),I=1,KK)
590 FORMAT (/,' NA4 =',I4,' FORMAT CODE/@590 =',6I10)
C
600 IF (KOUNT .GT. 1) GO TO 605
IF (.NOT.FMTTD) WRITE (OUTTP ) DXX,DASH
IF ( FMTTD) WRITE (OUTTP,120) DXX,DASH
C
605 IF (ECXYZ) GO TO 680
ECXYZ = .TRUE.
NCSTM = 0
NSUB = 0
IF (.NOT.BASC) GO TO 680
C
C DISPLACEMENT OFP FILE IS PRESENT, USER IS REQUESTING DISPLACEMENT
C OUTPUT.
C
C REMEMBER, WE STILL HAVE THE EXT-INT GRID TABLE IN Z(1) THRU Z(NEQ)
C IN INTERNAL GIRD NUMBER (2ND WORD OF THE EXT-INT PAIR) SORT.
C NOW, OPEN BGPDT, READ IN THE BASIC GRID POINT DATA (4 WORDS EACH
C GRID) AND ADD THE EXTERNAL GRID POINT ID IN FRONT OF THE DATA SET.
C THUS WE CREATE A NEW TABLE AFTER THE EXT-INT TABLE.
C
C THE FOLLOWING 5 DATA WORDS FOR EACH GRID POINT:
C EXTERNAL GRID ID
C COORDINATE SYSTEM ID
C X,Y,Z COORDINATES, IN BASIC COORD. SYSTEM
C
C MOVE THIS NEW TABLE TO THE BEGINNING OF OPEN CORE SPACE
C OVERWRITING THE OLD EXT-INT TABLE WHICH HAS NO LONGER NEEDED,
C FROM Z(1) THRU Z(NBGT)
C SORT THIS NEW TABLE BY THE EXTERNAL GRID NUMBERS.
C
FILE = BGPDT
CALL OPEN (*1300,BGPDT,Z(BUF2),RDREW)
CALL FWDREC (*1300,BGPDT)
K = -1
J = JB
610 CALL READ (*620,*620,BGPDT,Z(J+1),4,0,FLAG)
K = K + 2
Z(J) = Z(K)
J = J + 5
GO TO 610
620 CALL CLOSE (BGPDT,REW)
IF (K+1 .NE. NEQ) CALL MESAGE (-61,0,0)
NBGT = J - JB
NBG5 = NBGT/5
DO 630 J = 1,NBGT
630 Z(J) = Z(J+JBM1)
CALL SORT (0,0,5,1,Z(1),NBGT)
IF (DEBUG) WRITE (NOUT,640)
1 (Z(J),Z(J+1),RZ(J+2),RZ(J+3),RZ(J+4),J=1,NBGT,5)
640 FORMAT (/11X,'EXT.GRID - COOR - X,Y,Z/@640',/,(10X,2I8,3E11.4))
C
C OPEN CSTM FILE IF IT EXISTS. SAVE ALL COORDINATE TRANSFORMATION
C MATRICES IN THE OPEN CORE SPACE IN Z(ICSTM) THRU Z(NCSTM), EITHER
C AFTER THE EXT-COORD-X,Y,X TABLE, OR IN FRONT OF THE TABLE
C
ICSTM = NBGT + 1
NCSTM = NBGT
FILE = CSTM
CALL OPEN (*1300,CSTM,Z(BUF2),RDREW)
CALL FWDREC (*1300,CSTM)
CALL READ (*650,*650,CSTM,Z(ICSTM),LEFT,1,FLAG)
CALL MESAGE (-8,0,SUB)
650 CALL CLOSE (CSTM,REW)
NCSTM = NCSTM+FLAG
CALL PRETRS (Z(ICSTM),FLAG)
GO TO 680
C
660 WRITE (NOUT,670) UIM
670 FORMAT (A29,' FROM DATABASE MODULE - DISPLACEMENT VECTORS REMAIN',
1 ' IN GLOBAL COOR. SYSTEM', /5X,
2 'DUE TO BGPDT OR CSTM FILE BEING PURGED',/)
BASC = .FALSE.
C
C NOW READ THE DISPLACMENT VECTORS (SUBCASES) FROM CURRENT OFP DATA
C BLOCK, COMPUTE THE DISPLACEMENT FROM THE DISPLACMENT COORDINATE
C BACK TO SYSTEM BASIC COORDINATE. SAVE THE VECTOR IN SCR1 FOR RE-
C PROCESSING LATER.
C
C 2 (3 IF COMPLEX DATA) RECORDS PER ELEMENT TYPE,
C SAME FORMAT AS GINO OUGV1 FILE
C
C UNFORMATTED TAPE -
C
C HEADER RECORD (UNFORMATTED)
C
C RECORD WORD CONTENT (UNFORMATTED)
C ------ ---- -----------------------------------------------
C 1 1 SUBCASE OR MODE NUMBER, INTEGER
C 2 ZERO OR FREQUENCY, REAL
C 3 NWDS, NUMBER OF WORDS PER ENTRY IN NEXT RECORD,
C INTEGER. (=8 FOR REAL DATA, OR =14 FOR COMPLEX
C FOR ALL DISPLACEMENT RECORDS)
C 4-5 ORIGINAL GINO FILE NAME, BCD
C 6-7 ' BASIC ' OR 'GLOBAL ', BCD
C 8-13 FORMAT CODE FOR NEXT RECORD, INTEGER
C 8 DIGITS PER WORD, 1 FOR INTEGER
C 2 FOR REAL
C EX. 13222222 3 FOR BCD
C 0 NOT APPLICABLE
C 14-45 TITLE, BCD
C 46-77 SUBTITLE, BCD
C 78-109 LABEL, BCD
C
C DISPLACEMENT RECORDS (UNFORMATTED)
C
C RECORD WORD CONTENT (UNFORMATTED)
C ------ ---- -----------------------------------------------
C 2 1 LENGTH, THIS FIRST WORD EXCLUDED, OF THIS
C RECORD (INTEGER)
C 2 EXTERNAL GRID POINT NUMBER (INTEGER)
C 3 POINT TYPE (1=GRID PT. 2=SCALAR PT.
C 3=EXTRA PT. 4=MODAL PT., INTEGER)
C 4-9 DISPLACEMENTS (REAL PARTS, REAL
C T1,T2,T3,R1,R2,R3)
C 10-15 (COMPLEX DATA ONLY)
C DISPLACEMENTS (IMGAGINARY PARTS, REAL
C T1,T2,T3,R1,R2,R3)
C : REPEAT WORDS 2 THRU 9 (OR 15) AS MANY TIMES AS
C THERE ARE GRID POINT DISPLACEMENT DATA
C : : REPEAT RECORD 2 AS MANY TIMES AS THERE ARE
C SUBCASES (OR MODES)
C
C
C FORMATTED TAPE -
C
C HEADER RECORD (FORMATTED)
C
C RECORD WORD CONTENT (FORMATTED) FORMAT
C ------ ---- -----------------------------------------------
C 1 1-2 ' CASE = ' OR ' MODE = ' 8-LETTERS
C 3 SUBCASE NUMBER I8
C 4 ZERO OR FREQUENCY 1P,E12.5
C 5-6 ' WORDS =' 8-LETTERS
C 7 NWDS, NUMBER OF WORDS PER ENTRY IN NEXT I8
C RECORD (=8 FOR REAL DATA, OR =14 COMPLEX,
C FOR ALL DISPLACEMENT RECORDS)
C 8-9 ' INPUT =' 8-LETTERS
C 10-11 ORIGINAL GINO FILE NAME 2A4
C 12-13 ' COORD =' 8-LETTERS
C 14-15 ' BASIC ' OR 'GLOBAL ' 2A4
C 16-17 ' CODE =' 8-LETTERS
C 18-23 FORMAT CODE 6I8
C 8 DIGITS PER WORD, 1 FOR INTEGER
C 2 FOR REAL
C EX. 13222200 3 FOR BCD
C 0 NOT APPLICABLE
C 23 NA4, NUMBER OF WORDS PER ENTRY IN NEXT (I8)
C RECORD, IN A4-WORD COUNT (ONLY IF THE
C LAST FORMAT CODE WORD IS NOT USED)
C 2 1-32 TITLE, 32 BCD WORDS 32A4
C 3 33-64 SUBTITLE, 32 BCD WORDS 32A4
C 4 65-96 LABEL, 32 BCD WORDS 32A4
C (95-96 ELEMENT ID, STRESS AND FORCE ONLY 2A4)
C
C
C DISPLACEMENT RECORDS (FORMATTED)
C
C RECORD WORD CONTENT (FORMATTED) FORMAT
C ------ ------------------------------------------------------
C 5 1 EXTERNAL GRID POINT NUMBER I8
C 2 POINT TYPE (1=GRID PT. 2=SCALAR PT. I8
C 3=EXTRA PT. 4=MODAL PT.)
C 3-8 DISPLACEMENTS (REAL PARTS, 6(1P,E12.5)
C T1,T2,T3,R1,R2,R3)
C 6 (COMPLEX DATA ONLY)
C 1-6 DISPLACEMENTS (IMAGINARY PARTS, 6(1P,E12.5)
C T1,T2,T3,R1,R2,R3)
C : : REPEAT RECORD 5 (OR RECORDS 5 AND 6) AS MANY
C TIMES AS THERE ARE GRID POINT DISPLACMENT DATA
C LAST 1 MINUS 0 I8
C 2 MINUS 0 I8
C 3-8 ZEROS 6(1P,E12.5)
C LAST+1 (COMPLEX DATA ONLY)
C 1-6 ZEROS 6(1P,E12.5)
C
C IF CURRENT OFP DATA BLOCK IS AN ELEMENT STRESS OR ELEMENT FORCE
C FILE, THE STRESS OR FORCE DATA HAVE VARIABLE LENGTH. (NWDS IS NO
C LONGER 8 OR 14.)
C
C THE ELEMENT STRESS OR FORCE RECORDS -
C
C RECORD WORD CONTENT (UNFORMATTED)
C ------ ------------------------------------------------------
C 2 1 NO. OF WORDS, EXCLUDING THIS FIRST WORD,
C IN THIS RECORD. (INTEGER)
C 2-NWDS+1 ELEMENT ID, STRESS OR FORCE DATA
C (VARIABLE DATA TYPES ARE DESCRIBED IN 'CODE')
C : REPEAT (2-NWDS+1) WORDS AS MANY TIMES AS
C THERE ARE ELEMENTS
C : : REPEAT RECORD 2 AS MANY TIMES AS THERE ARE
C SUBCASES.
C
C WHERE NWDS IS THE NUMBER OF COMPUTER WORDS PER ENTRY, AND
C CODE IS THE 6-WORD FORMAT CODE, AS DESCRIBED IN THE
C HEADER RECORD.
C
C
C RECORD WORD CONTENT (FORMATTED) FORMAT
C ------ ------------------------------------------------------
C 5 1-NA4 ELEMENT ID, STRESS OR FORCE DATA 33A4
C (THE DATA TYPES ARE DESCRIBED IN
C 'CODE'; ALL INTEGERS IN 2A4, REAL
C NUMBERS IN 3A4, AND BCD IN A4)
C : : (MAXIMUM RECORD LENGTH IS 132 COLUMNS (33A4)
C CONTINUATION AND FOLDED INTO NEXT
C RECORD(S) IF NECESSARY.
C : : A CARRIAGE CONTROL WORD ALWAYS PRECEEDS
C AN OUTPUT RECORD. THUS 1+132=133 COLUMNS
C LAST DATA VALUE ON A RECORD MAY SPILL
C TO THE NEXT RECORD)
C : : REPEAT ABOVE RECORD(S) AS MANY TIMES
C AS THERE ARE ELEMENTS.
C
C WHERE NA4 IS THE NUMBER OF WORDS PER ENTRY IN A4-WORD COUNT,
C AND CODE IS 5-WORD FORMAT CODE
C
680 FILE = OFPX
IOUGV = NCSTM + 1
CALL READ (*980,*700,OFPX,Z(IOUGV),NZ-IOUGV,1,FLAG)
CALL MESAGE (-37,FILE,SUB)
700 IF (FLAG .NE. 146) GO TO 1320
DSPL = MOD(Z(IOUGV+1),100)
NWDS = Z(IOUGV+9)
IF (.NOT.EFS .AND. NWDS.NE.8 .AND. NWDS.NE.14) GO TO 1320
NSUB = NSUB + 1
CAMO = CA
CASE = Z(IOUGV+3)
FREQ = 0.0
IF (DSPL.NE.7 .AND. DSPL.NE.14) GO TO 710
CAMO = MO
CASE = Z (IOUGV+4)
FREQ = RZ(IOUGV+5)
710 BAGL = BA
IF (.NOT.BASC) BAGL = GL
IF (FMTTD .AND. F8(6).EQ.0) F8(6) = NA4
IF (.NOT.EFS) GO TO 715
J = (Z(IOUGV+2)-1)*INCR
Z(IOUGV+144) = E(J+1)
Z(IOUGV+145) = E(J+2)
715 IF (.NOT.FMTTD) WRITE (OUTTP)
1 CASE,FREQ,NWDS,ONAME(JOS),ONAME(JOS+1),F8,(Z(J+IOUGV),J=50,145)
IF ( FMTTD) WRITE (OUTTP,720) CAMO,CASE,
1 FREQ,NWDS,ONAME(JOS),ONAME(JOS+1),BAGL,F8,(Z(J+IOUGV),J=50,145)
720 FORMAT (1X,A8,I8,1P,E12.5,' WORDS =',I8,' INPUT =',2A4,
1 ' COORD =',A8,' CODE =',6I8, /1X,32A4, /1X,32A4, /1X,32A4)
IF (FMTTD) GO TO 730
FILE = SCR1
CALL OPEN (*1300,SCR1,Z(BUF2),WRTREW)
FILE = OFPX
730 CALL READ (*970,*870,OFPX,A,NWDS,0,FLAG)
A(1) = A(1)/10
IF (EFS) GO TO 790
IF (DEBUG) WRITE (NOUT,740) A(1)
740 FORMAT (10X,'EXT.GRID/@740 =',I8)
IF (BASC) GO TO 1200
750 IF (COOR .LE. 0) GO TO 790
C
C TRANSFORM THE DISPLACEMENT VECTOR FROM GLOBAL TO BASIC
C UPON RETURN FROM 800, TRANSFORMATION MATRIX IN T
C
DO 760 I = 3,NWDS
760 RX(I) = RA(I)
CMPLX = 0
770 CALL GMMATS (T,3,3,0, RX(3),3,1,0, RA(3+CMPLX))
CALL GMMATS (T,3,3,0, RX(6),3,1,0, RA(6+CMPLX))
IF (NWDS.NE.14 .OR. CMPLX.EQ.6) GO TO 790
CMPLX = 6
DO 780 I = 3,8
780 RX(I) = RX(I+CMPLX)
GO TO 770
C
C WRITE THE 8 (OR 14) DATA WORDS OUT TO SCR1 FILE IF OUTTP IS
C UNFORMATTED, OR WRITE TO OUTTP DIRECTLY IF OUTTP IS FORMATTED
C
790 IF (FMTTD) GO TO 800
CALL WRITE (SCR1,A,NWDS,0)
GO TO 730
800 IF (EFS) GO TO 830
WRITE (OUTTP,810,ERR=1390) A(1),A(2),(RA(K),K=3,8)
810 FORMAT (1X,2I8,6(1P,E12.5))
IF (NWDS .EQ. 14) WRITE (OUTTP,820,ERR=1390) (RA(K),K=9,14)
820 FORMAT (17X,6(1P,E12.5))
GO TO 730
C
C ELEMENT STRESS AND ELEMENT FORCE HAVE MIXED DATA, CHANGE THEM ALL
C TO BCD WORDS, AND WRITE THEM OUT TO OUTTP UNDER A4 FORMAT
C MAXIMUM OF 132 COLUMNS PER LINE.
C NOTE - LAST DATA VALUE ON OUTPUT LINE MAY SPILL INTO NEXT RECORD.
C
830 L = 0
K = 0
840 K = K + 1
IF (F(K) .EQ. -9) GO TO 850
IF (L+3 .GT. LIMRX) GO TO 1340
CALL IFB2AR (F(K),A(K),IX,L)
GO TO 840
850 WRITE (OUTTP,860,ERR=1390) (IX(K),K=1,L)
860 FORMAT (1X,33A4)
GO TO 730
C
C
C JUST FINISH ONE VECTOR
C
C UNFORMATTED TAPE -
C TRANSFER THIS VECTOR FROM SCR1 TO OUTTP IN ONE LONG RECORD
C (NO ZERO RECORD)
C LOOP BACK FOR NEXT VECTOR
C
870 IF (FMTTD) GO TO 890
CALL WRITE (SCR1,0,0,1)
CALL CLOSE (SCR1,REW)
FILE = SCR1
CALL OPEN (*1300,SCR1,Z(BUF2),RDREW)
CALL READ (*880,*880,SCR1,Z(IOUGV+1),NZ-IOUGV,1,K)
CALL MESAGE (-8,FILE,SUB)
880 CALL CLOSE (SCR1,REW)
Z(IOUGV) = K
KIOUGV = K + IOUGV
WRITE (OUTTP) (Z(J),J=IOUGV,KIOUGV)
GO TO 510
C
C FORMATTED TAPE -
C (DISPLACEMENTS ALREDY WRITTEN OUT IN SHORT RECORDS)
C WRITE A ZERO RECORD
C AND LOOP BACK FOR NEXT VECTOR
C
890 IF (EFS) GO TO 920
DO 900 I = 1,6
900 RX(I) = 0.0
WRITE (OUTTP,910,ERR=1390) (RX(I),I=1,6)
910 FORMAT (1X,2(6X,2H-0),6(1P,E12.5))
IF (NWDS .EQ. 14) WRITE (OUTTP,820,ERR=1390) (RX(I),I=1,6)
GO TO 510
C
C WRITE A ZERO RECORD FOR EL.STRESS OR EL.FORCE TYPE OF DATA
C
920 L = 0
DO 960 I = 1,NWDS
IX(L+2) = BLANK
FI = F(I)
GO TO (930,940,950), FI
930 IX(L+1) = IZERO
L = L + 2
GO TO 960
940 IX(L+1) = BZERO
IX(L+3) = BLANK
L = L + 3
GO TO 960
950 L = L + 1
960 CONTINUE
WRITE (OUTTP,860,ERR=1390) (IX(I),I=1,L)
GO TO 510
C
C END OF CURRENT OFP FILE
C ADD AN ENDING RECORD TO OUTTP FILE AND ENDFILE
C
970 CALL CLOSE (SCR1,REW)
980 CALL CLOSE (OFPX,REW)
C
DYY(OFPSET) = DXX
SUBN(OFPSET) = NSUB
CASE = 0
FREQ = 0.0
Z(1) = 0
J = 0
Z(J+2) = END1
Z(J+3) = END2
Z(J+4) = BLANK
DO 985 J = 5,10
985 Z(J) = 0
DO 990 J = 11,106
990 Z(J) = BLANK
IF (.NOT.FMTTD) WRITE (OUTTP) CASE,FREQ,(Z(J),J=1,106)
IF ( FMTTD) WRITE (OUTTP,720,ERR=1390) CAMO,CASE,FREQ,
1 (Z(J),J=1,106)
1000 IF (OFP .LT. 3) GO TO 500
C
C JOB DONE. WRITE A USER FRIENDLY MESSAGE OUT
C
ENDFILE OUTTP
REWIND OUTTP
SET = OFPSET
IF (.NOT.NOBGPT) SET = SET + 1
IF (.NOT.NOGEOM) SET = SET + 1
J = BLANK
IF (SET .GT. 1) J = LS
K = 3 + 2*SET
CALL PAGE2 (K)
IF (OUTTP .GT. 12) GO TO 1010
NAM(1) = INPX(3)
NAM(2) = OUTTP - 10
GO TO 1020
1010 NAM(1) = INPX(1)
NAM(2) = OUTTP - 14
IF (OUTTP.NE.14 .AND. OUTTP.NE.25) GO TO 1020
WRITE (NOUT,1030) UIM,SET,J,INPX(2)
GO TO 1040
1020 WRITE (NOUT,1030) UIM,SET,J,NAM(1),NAM(2)
1030 FORMAT (A29,' -', /5X,'DATABASE MODULE TRANSFERRED THE FOLLOWING',
1 I3,' SET',A1,' OF DATA TO OUTPUT FILE ',A4,I1)
1040 WRITE (NOUT,1050) OUTTP,FMT
1050 FORMAT (1H+,85X,'(FORTRAN UNIT',I3,1H),4A4)
SET = 0
IF (NOBGPT) GO TO 1070
SET = SET + 1
WRITE (NOUT,1060) SET
1060 FORMAT (/4X,I2,'. GRID POINT DATA - EXTERNAL NUMBERS AND BASIC ',
1 'RECTANGULAR COORDINATES')
1070 IF (NOGEOM) GO TO 1090
SET = SET + 1
WRITE (NOUT,1080) SET
1080 FORMAT (/4X,I2,'. ELEMENT CONNECTIVITY DATA - ALL GRID POINTS ',
1 'ARE EXTERNAL NUMBERS')
1090 IF (OFPSET .EQ. 0) GO TO 1190
JSO = 1
DO 1180 J = 1,OFPSET
SET = SET + 1
NSUB = SUBN(J)
WRITE (NOUT,1100) SET,DYY(J),ONAME(JSO),ONAME(JSO+1)
1100 FORMAT (/4X,I2,2H. ,A8,' DATA FROM INPUT FILE ',2A4)
IF (EFS) GO TO 1120
IF ( BASC) WRITE (NOUT,1110)
IF (.NOT.BASC) WRITE (NOUT,1115)
1110 FORMAT (1H+,46X,', CONVERTED TO BASIC RECT. COORDINATES,')
1115 FORMAT (1H+,46X,', IN NASTRAN GLOBAL COORDINATE SYSTEM,')
IF (DSPL.EQ.7 .OR. DSPL.EQ.14) GO TO 1140
1120 IF (.NOT.EFS) WRITE (NOUT,1125) NSUB
IF ( EFS) WRITE (NOUT,1130) NSUB
1125 FORMAT (1H+,87X,I4,' SUBCASES')
1130 FORMAT (1H+,46X,I4,' SUBCASES')
GO TO 1160
1140 WRITE (NOUT,1150) NSUB
1150 FORMAT (1H+,87X,I4,' FRQUENCIES')
1160 IF (NOBGPT .AND. NOGEOM) WRITE (NOUT,1170)
1170 FORMAT (/6X,'1. NONE')
1180 JSO = JSO + 2
RETURN
C
1190 WRITE (NOUT,1170)
RETURN
C
C INTERNAL ROUTINE TO SEARCH FOR THE EXTERNAL GRID POINT AND RETURN
C THE DISPLACEMENT COORDINATE ID ASSOCIATE WITH THAT POINT, AND SET
C THE POINTER TO WHERE THE COORDINATE TRANSFORMATION MATRIX DATA
C BEGINS.
C EXTERNAL GRID VS. COORD SYSTEM ID TABLE IN Z(1) THRU Z(NEQ), IN
C EXTERNAL GRID SORT
C THE COORDINATE TRANSFORMATION MATRICES IN Z(ICSTM) THRU Z(NCSTM),
C (14 WORDS PER MATRIX, FROM GLOBAL TO BASIC)
C
1200 GRID = A(1)
KLO = 0
KHI = NBG5
LASTK= 0
1210 K = (KLO+KHI+1)/2
IF (LASTK .EQ. K) CALL MESAGE (-61,0,0)
LASTK = K
K5 = K*5
IF (GRID-Z(K5-4)) 1220,1240,1230
1220 KHI = K
GO TO 1210
1230 KLO = K
GO TO 1210
1240 COOR = Z(K5-3)
IF (COOR .LE. 0) GO TO 750
CALL TRANSS (Z(K5-3),T)
IF (.NOT.DEBUG) GO TO 750
WRITE (NOUT,1250) GRID,COOR,T
1250 FORMAT (20X,'EXT GRID, COORD.ID AND TRANSF.MATRIX/@1250 =',2I8,
1 /,(25X,3E13.5))
GO TO 750
C
C ILLEGITIMATE DATA IN OUGV FILE, ADVANCE TO NEXT RECORD
C
1260 CALL FWDREC (*980,OUGV)
CALL FWDREC (*980,OUGV)
GO TO 510
C
C ERRORS
C
1300 J = -1
GO TO 1400
1310 J = -2
GO TO 1400
1320 WRITE (NOUT,1325) UIM,ONAME(JSO),ONAME(JSO+1)
1325 FORMAT (A29,', DATABASE MODULE SKIPS OUTPUTING ',2A4,
1 ' FILE (OR PART OF THE FILE), DUE TO')
WRITE (NOUT,1330) NWDS
1330 FORMAT (5X,'THE REQUEST OF AN ILLEGITIMATE DATA BLOCK.', 7X,
1 'NO. OF WORDS =',I6)
GO TO 1380
1340 WRITE (NOUT,1325) UIM,ONAME(JSO),ONAME(JSO+1)
WRITE (NOUT,1345) LIMRX
1345 FORMAT (5X,'THE RX WORKING ARRAY OF',I5,' WORDS IN DBASE ',
1 'SUBROUTINE IS NOT BIG ENOUGH TO RECEIVE OFP DATA.')
GO TO 1360
1350 WRITE (NOUT,1325) UIM,ONAME(JSO),ONAME(JSO+1)
WRITE (NOUT,1355) LIMAF
1355 FORMAT (5X,'THE A AND F WORKING ARRAYS OF',I4,' WORDS IN DBASE ',
1 'SUBROUTINE ARE NOT BIG ENOUGH TO RECEIVE OFP DATA.')
1360 WRITE (NOUT,1365)
1365 FORMAT (5X,'SUGGESTION - USE OUTPUT5 OR OUTPUT2 TO CAPTURE THE ',
1 'REQUESTED DATA BLOCK')
GO TO 1260
1370 WRITE (NOUT,1325) UIM,ONAME(JSO),ONAME(JSO+1)
WRITE (NOUT,1375)
1375 FORMAT (5X,'ELEMENT STRESSES OR FORCES CAN NOT BE OUTPUT IN ',
1 'BASIC COORDINATES AS REQUESTED')
1380 CALL CLOSE (OFPX,REW)
GO TO 1000
1390 WRITE (NOUT,1395)
1395 FORMAT ('0*** SYSTEM FATAL ERROR WRITING FORMATTED TAPE IN DATA',
1 'BASE MODULE')
IF (MACH .EQ. 3) WRITE (NOUT,1396)
1396 FORMAT (5X,'IBM USER - CHECK FILE ASSIGNMENT FOR DCB PARAMETER ',
1 'OF 133 BYTES')
J = -37
1400 CALL MESAGE (J,FILE,SUB)
RETURN
C END
C
C
C THE FOLLOWING PROGRAM WAS USED TO CHECKOUT THE UNFORMATTED TAPE
C GENERATED BY DBASE. IT CAN BE SERVED AS A GUIDE TO OTHER USER WHO
C WANTS TO ABSTRACT DATA FROM THAT TAPE.
C
C
C+ PROGRAM RDBASE
C
C THIS FORTRAN PROGRAM READS THE UNFORMATTED OUTPUT FILE INP1
C (FORTRAN UNIT 15) GENERATED BY DATABASE MODULE
C
C (1) GRID POINTS DATA ARE READ AND SAVED IN GRID-ARRAY
C (2) ELEMENTS DATA ARE READ AND SAVED IN ELM-ARRAY,
C WITH ELEMENT NAMES AND POINTERS IN SAVE-ARRAY
C (3) DISPLACEMENTS (VELOCITIES, ACCELERATIONS, LOADS, GRID-POINT
C FORCE, OR EIGENVECTORS) DATA ARE READ AND SAVED IN DIS-ARRAY,
C WITH SUBASES AND POINTERS IN SAVD-ARRAY
C
C TO READ ELEMENT FORCES OR ELEMENT STRESSES, (3) ABOVE NEEDS SOME
C CHANGES. PARTICULARLY WE NEED THE INFORMATION IN CODE TO GIVE US
C THE TYPE OF EACH DATA WORD IN THE DATA LINE.
C ASSUME CODE(1) = 11222222
C CODE(2) = 31222000
C THIS MEANS
C THE 1ST, 2ND, AND 10TH DATA WORDS ARE INTEGERS;
C 9TH DATA WORD IS BCD; AND
C 3RD THRU 8TH, 11TH, 12TH AND 13TH WORDS ARE REAL NUMBERS
C
C
C ANY OF ABOVE 3 SETS OF DATA NEED NOT EXIST IN ORIGINAL INP1 FILE
C
C WRITTEN BY G.CHAN/UNISYS, JAN. 1989
C
C+ IMPLICIT INTEGER (A-Z)
C+ INTEGER GRID(5,500),ELM(35,300),DIS(11200),SAVE(4,10),
C+ 1 SAVD(3,20),NAME(2),TITLE(32),SUBTTL(32),
C+ 2 LABL(32),CODE(6)
C+ REAL GRIR(5,1),RIS(1),FREQ
C+ DOUBLE PRECISION GED,GD,EL,DS,ENDD,COORD
C+ EQUIVALENCE (GRID(1),GRIR(1)),(DIS(1),RIS(1))
C+ DATA INTAP, NOUT, MAXGRD, MAXELM, MAXDIS, MAXWDS /
C+ 1 15, 6, 500, 300, 11200, 35 /
C+ DATA GD, EL, DS, END1 /
C+ 1 8HGRID PTS, 8HELEMENTS, 8HDISPLCNT, 4H -EN /
C
C+ REWIND INTAP
C
C READ DATA IDENTICATION RECORD
C
C+ 10 READ (INTAP,END=500) GED
C+ IF (NOUT .EQ. 6) WRITE (NOUT,20) GED
C+ 20 FORMAT (1X,A8,'--------')
C+ IF (GED .EQ. GD) GO TO 100
C+ IF (GED .EQ. EL) GO TO 200
C+ IF (GED .EQ. DS) GO TO 310
C+ STOP 'DATA TYPE UNKNOWN'
C
C PROCESS GRID DATA
C =================
C
C READ GRID POINT DATA, ONE LONG RECORD OF MIXED INTEGERS AND REALS
C
C+100 READ (INTAP,END=500) L,(GRID(J,1),J=1,L)
C+ IF (NOUT .NE. 6) GO TO 10
C+ NGRID = L/5
C+ IF (NGRID .GT. MAXGRD) STOP 'GRID DIMENSION TOO SMALL'
C+ WRITE (NOUT,110) NGRID
C+110 FORMAT (1X,I8,'=TOTAL NO. OF GRID POINTS')
C+ DO 130 I = 1,NGRID
C+ WRITE (NOUT,120) GRID(1,I),GRID(2,I),GRIR(3,I),GRIR(4,I),GRIR(5,I)
C+120 FORMAT (1X,2I8,3(1P,E12.5))
C+130 CONTINUE
C+ GO TO 10
C
C PROCESS ELEMENT DATA
C ====================
C
C+200 JS = 0
C+ JE = 0
C+
C+ READ ELEMENT HEADER RECORD, 8 WORDS
C+
C+210 READ (INTAP,END=500) NAME,TYPE,SYMBOL,GRIDS,TOTAL,WDS,LINE
C+ IF (NAME(1).EQ.END1 .AND. TYPE.EQ.0) GO TO 250
C+ IF (WDS .GT. MAXWDS) STOP 'ELM ROW DIMENSION TOO SMALL'
C+ IF (JE .GT. MAXELM) STOP 'ELM COL DIMENSION TOO SMALL'
C+ JB = JE + 1
C+ JE = JE + TOTAL
C
C READ ELEMENT DATA, ONE LONG RECORD PER ELEMENT TYPE (ALL INTEGERS)
C
C+ READ (INTAP) ((ELM(I,J),I=1,WDS),J=JB,JE)
C+ JS = JS + 1
C+ IF (JS .GE. 10) STOP 'SAVE DIMENSION TOO SMALL'
C
C SAVE ELEMENT NAMES AND BEGINNING POINTERS IN SAVE-ARRAY
C FOR EASY IDENTIFICATION
C
C+ SAVE(1,JS) = NAME(1)
C+ SAVE(2,JS) = NAME(2)
C+ SAVE(3,JS) = JB
C+ SAVE(4,JS) = WDS
C+ IF (NOUT .NE. 6) GO TO 210
C+ WRITE (NOUT,220) NAME,TYPE,SYMBOL,GRIDS,TOTAL,WDS,LINE
C+220 FORMAT (1X,'ELEMNT =',2A4,' TYPE =',I4,2X,A2,' GRIDS =',I8,
C+ 1 ' TOTAL =',I8,' WDS/EL=',I8, ' LINE =',I8)
C+ DO 240 J = JB,JE
C+ WRITE (NOUT,230) (ELM(I,J),I=1,WDS)
C+230 FORMAT (1X,3I8,13I8, /,(1X,8X,15I8))
C+240 CONTINUE
C+ GO TO 210
C
C WRAP UP SAVE-ARRAY
C
C+250 JS = JS + 1
C+ SAVE(1,JS) = END1
C+ SAVE(2,JS) = NAME(2)
C+ SAVE(3,JS) = JE + 1
C+ SAVE(4,JS) = 0
C+ IF (NOUT .NE. 6) GO TO 10
C+ WRITE (NOUT,260)
C+ WRITE (NOUT,270) ((SAVE(I,J),I=1,4),J=1,JS)
C+260 FORMAT (/30X,'THIS REFERENCE TABLE IS NOT PART OF INPUT FILE')
C+270 FORMAT (40X,2A4,3H @ ,I4,', WORDS=',I3)
C+ GO TO 10
C
C PROCESS DISPLACEMENT DATA
C =========================
C
C
C+300 STOP 'ERROR IN READING DISPLACEMENT DATA'
C+
C+310 KB = 1
C+ KS = 0
C
C READ DISPLACEMENT HEADER RECORD
C
C+320 KS = KS + 1
C+ IF (KS .GT. 20) STOP 'SAVD DEMINSION TOO SMALL'
C+ READ (INTAP,END=390) CASE,FREQ,NWDS,NAME,COORD,CODE,TITLE,SUBTTL,
C+ LABEL
C+ IF (CASE+NWDS .EQ. 0) GO TO 390
C+ IF (NOUT .NE. 6) GO TO 340
C+ WRITE (NOUT,330) CASE,FREQ,NWDS,NAME,COORD,CODE(1),CODE(2),TITLE,
C+ SUBTTL,LABEL
C+330 FORMAT (' CASES =',I8,1P,E12.5,' WORDS =',I8,' INPUT =',2A4,
C+ 1 ' COORD =',A8,' CODE = ',2I8, /,(1X,32A4))
C
C DISPLACEMENT RECORS HAVE EITHER 8 OR 14 WORDS EACH DATA POINT
C WITH CODE(1)=11222222, CODE(2) THRU (6) ARE ZEROS.
C
C
C ------------------------------------------------------------------
C IF ELEMENT STRESS OR ELEMENT FORCE FILE IS READ HERE, NWDS IS A
C VARIABLE, NOT NECESSARY 8 OR 14. ALL INTEGERS ARE IN 2A4 FORMAT
C (8-DIGITS), ALL REAL NUMBERS IN 3A4 (12-DIGITS), AND BCD WORD IN
C A4 (4-LETTERS). THERE ARE NA4 A4-WORDS FOR EACH ELEMENT THAT HOLD
C NWDS DATA VALUES. MAXIMUM RECORD LENGTH IS 132 COLUMNS. ONE OR
C MORE RECORDS ARE NEEDED PER ELEMENT. LAST DATA VALUE OF A RECORD
C MAY SPILL INTO NEXT RECORD. NA4 IS THE 6TH WORD OF CODE. THE DATA
C TYPE OF THIS RECORD IS DESCRIBED IN CODE. 1 FOR INTEGER, 2 FOR
C REAL NUMBER, AND 3 FOR A BCD WORD. THERE ARE 5 CODE WORDS, EACH
C HOLDS 8 DIGITS, AND ARE ARRANGED FROM LEFT TO RIGHT.
C
C FOR EXAMPLE -
C CODE(1)=12212222, CODE(2)=22213200, CODE(3)=CODE(4)=CODE(5)=0
C INDICATE
C DATA VALUES 1, 4 AND 12 ARE INTEGERS, DATA VALUE 13 IS ABCD WORD,
C THE REST ARE REAL NUMBERS.
C IN THIS EXAMPLE, NWDS SHOULD BE 14,
C NA4 SHOULD = 3X2 + 10X3 + 1X1 = 37.
C 2 RECORDS ARE NEEDED, 1ST RECORD 132 CHARACTERS LONG, 2ND RECORD
C 16 CHARACTERS. THESE TWO RECORDS CAN BE READ BY ONE FORTRAN LINE
C
C READ (INTAP,10) (SS(J),J=1,NA4)
C 10 FORMAT (33A4) OR BY
C
C READ (INTAP,20) IS(1),RS(2),RS(3),IS(4),(RS(J),J=5,11),IS(12)
C READ (INTAP,30) IS(13),RS(14)
C 20 FORMAT (I8,2F12.0,I8,7F12.0,I8)
C 30 FORMAT (A4,F12.0)
C ------------------------------------------------------------------
C
C+340 IF (NWDS.NE.8 .AND. NWDS.NE.14) STOP 'WORD COUNT ERROR'
C+ IF (CODE(1) .NE. 11222222) STOP 'FORMAT CODE ERROR'
C
C SAVE SUBCASE NUMBER AND BEGINNING POINTERS IN SAVD-ARRAY
C FOR EASY IDENTIFICATION
C
C+ KBM1 = KB - 1
C+ SAVD(1,KS) = CASE
C+ SAVD(2,KS) = KB
C+ SAVD(3,KS) = NWDS
C
C READ DISPLACEMENT RECORD, ONE LONG RECORD PER SUBCASE (OR FREQ.)
C EACH GRID POINT DISPLACEMENT DATA IN EVERY 8 OR 14 WORDS,
C 2 INTEGERS + 6 (OR 12) REALS
C
C+350 READ (INTAP,ERR=300) L,(DIS(I+KBM1),I=1,L)
C+ KE = L + KBM1
C+ DO 380 K = KB,KE,NWDS
C+ WRITE (NOUT,360) DIS(K),DIS(K+1),(RIS(K+I),I=2, 7)
C+ IF (NWDS .EQ. 14) WRITE (NOUT,370) (RIS(K+I),I=8,13)
C+360 FORMAT (1X,2I8,6(1P,E12.5))
C+370 FORMAT (1X,16X,6(1P,E12.5))
C+380 CONTINUE
C+ KB = KE + 1
C+ GO TO 320
C
C WRAP UP SAVD-ARRAY
C
C+390 SAVD(1,KS) = 0
C+ SAVD(2,KS) = KE + 1
C+ SAVD(3,KS) = 0
C+ IF (NOUT .NE. 6) GO TO 10
C+ WRITE (NOUT,260)
C+ WRITE (NOUT,400) (SAVD(1,K),SAVD(2,K),SAVD(3,K),K=1,KS)
C+400 FORMAT (40X,'CASE',I8,3H @ ,I4,', WORDS=',I4)
C+ GO TO 10
C
C+500 REWIND INTAP
END
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