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* |
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* $Id: gptrdv.F,v 3.1.1.1 2002/07/11 16:02:01 cafagna Exp $ |
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* |
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* $Log: gptrdv.F,v $ |
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* Revision 3.1.1.1 2002/07/11 16:02:01 cafagna |
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* First GPAMELA release on CVS |
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* |
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* |
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*CMZ : 2.01/00 05/04/2000 14.35.18 by Marialuigia Ambriola |
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*CMZ : 2.00/00 03/03/2000 15.39.05 by Francesco Cafagna |
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*CMZ : 1.02/00 09/02/2000 13.11.57 by Francesco Cafagna |
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*CMZ : 1.00/02 15/03/96 16.04.21 by Francesco Cafagna |
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*-- Author : Francesco Cafagna 05/12/95 |
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SUBROUTINE GPTRDV |
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************************************************************************ |
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* * |
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* Volume definition for TRD * |
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* Called by: GPGEO * |
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* Author: Francesco Cafagna, 05/12/95 17.25.32 * |
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* * |
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************************************************************************ |
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#include "gpgeo.inc" |
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#include "gpmed.inc" |
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* |
| 25 |
INTEGER IROT,IVOLU,N,NMED,NUM,NAN |
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REAL X,Y,Z |
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* |
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* Define the TRDB volume |
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* |
| 30 |
NMED=MN2 |
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CALL GSVOLU('TRDB','BOX ',NMED,TRDB, 3,IVOLU) |
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* |
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* Define the TRAN volume |
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* |
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NMED=MAL |
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CALL GSVOLU('TRAN','BOX ',NMED,TRAN, 3,IVOLU) |
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* |
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* Define the TRAI volume |
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* |
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NMED=MN2 |
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CALL GSVOLU('TRAI','BOX ',NMED,TRAI, 3,IVOLU) |
| 42 |
* |
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* Define the TRBS volumes |
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* |
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NMED=MN2 |
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CALL GSVOLU('TRBS','BOX ',NMED,TRBS, 3,IVOLU) |
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*ml: 10/11/66: |
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* |
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* Define the TRAL volumes |
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* |
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NMED=MAL |
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CALL GSVOLU('TRAL','BOX ',NMED,TRAL, 3,IVOLU) |
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*end ml. |
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* |
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* Define the TRSO volumes |
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* |
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NMED=MKAP |
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CALL GSVOLU('TRSO','TUBE',NMED,TRSO, 3,IVOLU) |
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* |
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* Define the TRSI volumes |
| 61 |
* |
| 62 |
NMED=MXE |
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CALL GSVOLU('TRSI','TUBE',NMED,TRSI, 3,IVOLU) |
| 64 |
* |
| 65 |
* Define the TRRA volumes |
| 66 |
* |
| 67 |
NMED=MTRAD |
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CALL GSVOLU('TRRA','BOX ',NMED,TRRA, 3,IVOLU) |
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c ml: 11/11/04: |
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* |
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* Define the TRR2 volumes |
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* |
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NMED=MTRAD |
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CALL GSVOLU('TRR2','BOX ',NMED,TRR2, 3,IVOLU) |
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* |
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* Define the TRR0 volumes |
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* |
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NMED=MCF |
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CALL GSVOLU('TRR0','BOX ',NMED,TRR0, 3,IVOLU) |
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* |
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* Define the TRI0 volumes |
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* |
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NMED=MN2 |
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CALL GSVOLU('TRI0','BOX ',NMED,TRI0, 3,IVOLU) |
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* |
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* Define the TRRF volumes |
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* |
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NMED=MMAG |
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CALL GSVOLU('TRRF','BOX ',NMED,TRRF, 3,IVOLU) |
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* |
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* Define the TRRI volumes |
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* |
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NMED=MN2 |
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CALL GSVOLU('TRRI','BOX ',NMED,TRRI, 3,IVOLU) |
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c end ml. |
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* |
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* Define the TRFR volumes |
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* |
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NMED=MCF |
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CALL GSVOLU('TRFR','BOX ',NMED,TRFR, 3,IVOLU) |
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c ml: 12/11/04: |
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c* |
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c* Define the TRFI volumes |
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c* |
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c NMED=MN2 |
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c CALL GSVOLU('TRFI','BOX ',NMED,TRFI, 3,IVOLU) |
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* |
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* Define the TRFD volumes |
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* |
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NMED=MCF |
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CALL GSVOLU('TRFD','BOX ',NMED,TRFD, 3,IVOLU) |
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* |
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* Define the TRFU volumes |
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* |
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NMED=MCF |
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CALL GSVOLU('TRFU','BOX ',NMED,TRFU, 3,IVOLU) |
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* |
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* Define the TRFM volumes |
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* |
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NMED=MCF |
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CALL GSVOLU('TRFM','BOX ',NMED,TRFM, 3,IVOLU) |
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* |
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* Define the TRFL volumes |
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* |
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NMED=MCF |
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CALL GSVOLU('TRFL','BOX ',NMED,TRFL, 3,IVOLU) |
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c end ml. |
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* |
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* Define the TRDT volumes |
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* |
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NMED=MAL |
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CALL GSVOLU('TRDT','BOX ',NMED,TRDT, 3,IVOLU) |
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*ml: 10/11/04: |
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* |
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* Positioning the volumes TRAL into mothers TRBS |
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* |
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X=0. |
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Z=0. |
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DO I=1,2 |
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Y=(-1)**I*(TRBS(2)-TRAL(2)) |
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C # print*,'gptrdv.F: tral: y=',y |
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CALL GSPOS('TRAL',I,'TRBS',X,Y,Z,0,'ONLY') |
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ENDDO |
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*end ml. |
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|
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* |
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* Positioning volumes TRSI into mothers TRSO |
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* |
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N= 1 |
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X= 0. |
| 151 |
Y= 0. |
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Z= 0. |
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* CALL GSPOS('TRSI',N,'TRSO',X,Y,Z,0,'ONLY') |
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*Positioning volumes TRSO into mothers TRSI, because now TRSO is included in |
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*TRSI and TRSI is included in TRBS |
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CALL GSPOS('TRSO',N,'TRSI',X,Y,Z,0,'ONLY') |
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* |
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* |
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* Positioning volumes TRSO into mothers TRBS. Remember we have to put |
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* tubes one over each other |
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* |
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Y=0. |
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NUM = 0 |
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DO II=1,2 |
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#if defined(GPAMELA_UNIX) |
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Z= TRSO(2) * COS(30./180.*ACOS(-1.)) * (-1)**II |
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#endif |
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#if !defined(GPAMELA_UNIX) |
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Z= TRSO(2) * COSD(30.) * (-1)**II |
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#endif |
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DO I=1, 16 |
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NUM = NUM + 1 |
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X= -TRBS(1) + II*TRSO(2) + (I-1)*2.*TRSO(2) |
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* CALL GSPOS('TRSO',NUM,'TRBS',X,Y,Z,2,'ONLY') |
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*now TRSI is into TRBS (I don't change TRSO(2) in TRSI(2) because they |
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*are equal and the velue of X does not change: |
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CALL GSPOS('TRSI',NUM,'TRBS',X,Y,Z,2,'ONLY') |
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ENDDO |
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ENDDO |
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c ml: 11/11/04: |
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C* |
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C* Positioning volumes TRFI into mothers TRFR |
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C* |
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C N= 1 |
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C X= 0. |
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C Y= 0. |
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C Z= 0. |
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C CALL GSPOS('TRFI',N,'TRFR',X,Y,Z,0,'ONLY') |
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* |
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* Positioning volume TRI0 into mother TRR0 |
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* |
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N= 1 |
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X= 0. |
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Y= 0. |
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c Z= 0. |
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c CALL GSPOS('TRI0',N,'TRR0',X,Y,Z,0,'ONLY') |
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ZTRI0=TRR0(3)-TRI0(3) |
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CALL GSPOS('TRI0',N,'TRR0',X,Y,ZTRI0,0,'MANY') |
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* |
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* Positioning volume TRRI into mother TRRF |
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* |
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N= 1 |
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X= 0. |
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Y= 0. |
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Z= 0. |
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CALL GSPOS('TRRI',N,'TRRF',X,Y,Z,0,'ONLY') |
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* |
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* Positioning volume TRRF into mother TRR0 |
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* |
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N= 1 |
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X= 0. |
| 212 |
Y= 0. |
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C Z= 0. |
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Z=-TRR0(3)+TRRF(3) |
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CALL GSPOS('TRRF',N,'TRR0',X,Y,Z,0,'ONLY') |
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c end ml. |
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* |
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* Positioning volumes TRAI into mothers TRAN |
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* |
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c ml: 17/11/04: |
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N= 1 |
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c X= 0. |
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c Y= TRAN(2)-TRAI(2) |
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X=0.8 |
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Y=0.8 |
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Z= 0. |
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CALL GSPOS('TRAI',N,'TRAN',X,Y,Z,0,'ONLY') |
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*end ml. |
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* |
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* Positioning volumes TRAI, TRFR, TRBS&TRRA into the mother TRDB |
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* |
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NAN = 0 |
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c ml: 12/11/04: |
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c positioning TRRO (frame 0 del TRD) |
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X=0. |
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Y=0. |
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c Z= -TRDB(3) + TRAN(3) |
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Z= -TRDB(3) + TRR0(3) |
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C CALL GSPOS('TRR0',1,'TRDB',X,Y,Z,0,'ONLY') |
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CALL GSPOS('TRR0',1,'TRDB',X,Y,Z,0,'MANY') |
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C Z=Z+TRR0(3) |
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Z=Z+TRR0(3)-0.1 |
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M=3 |
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num=0 |
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DO I=1,4 |
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C # print*,'z,ztrfu=',z,ztrfu |
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Z=Z+TRAN(3) |
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ZTRBS=Z |
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c positioning TRAN: |
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c ml:17/11/04: |
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c DO III = 1,2 |
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c X = (-1)**(III-1)*TRAN(1)+ (-1)**III*TRDB(1) |
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c Y = -TRAN(2)+ TRDB(2) |
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c NAN = NAN + 1 |
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c CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,0,'ONLY') |
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c Y = +TRAN(2)- TRDB(2) |
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c NAN = NAN + 1 |
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c CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,4,'ONLY') |
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c ENDDO |
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X = -TRFR(1)+TRAN(1) |
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Y = -TRFR(2)+ TRAN(2) |
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NAN = NAN + 1 |
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CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,0,'ONLY') |
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X = -TRFR(1)+TRAN(1) |
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Y = +TRFR(2)- TRAN(2) |
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NAN = NAN + 1 |
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CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,6,'ONLY') |
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X = TRFR(1)-TRAN(1) |
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Y = +TRFR(2)- TRAN(2) |
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NAN = NAN + 1 |
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CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,4,'ONLY') |
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X = TRFR(1)-TRAN(1) |
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Y = -TRFR(2)+ TRAN(2) |
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NAN = NAN + 1 |
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CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,1,'ONLY') |
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Z= Z + TRAN(3) |
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c positioning TRBS (the modules): |
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Y=0. |
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DO II=1, M |
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NUM = NUM + 1 |
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* shift of modules to have the right overlap: |
| 282 |
X= (II-1)*2.*TRBS(1) - ( M*TRBS(1) - TRBS(1) ) - |
| 283 |
+ (II-2)*TRSI(2) |
| 284 |
* now there two different volumes interested at same time: |
| 285 |
* CALL GSPOS('TRBS',NUM,'TRDB',X,Y,Z,0,'ONLY') |
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CALL GSPOS('TRBS',NUM,'TRDB',X,Y,ZTRBS,0,'MANY') |
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ENDDO |
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c end ml. |
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c positioning TRFD: |
| 290 |
X=0. |
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ZTRFD=Z-TRFD(3) |
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CALL GSPOS('TRFD',I,'TRDB',X,Y,ZTRFD,0,'MANY') |
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C # print*,'gptrdv: n. of trfd: i=',i |
| 294 |
c positioning TRFR: |
| 295 |
Z= Z + TRFR(3) |
| 296 |
ZRAD=Z |
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CALL GSPOS('TRFR',I,'TRDB',X,Y,Z,0,'MANY') |
| 298 |
C Z= Z + TRFR(3) + TRBS(3) |
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Z=Z+TRFR(3) |
| 300 |
c positioning TRFU: |
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ZTRFU= Z + TRFU(3) |
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CALL GSPOS('TRFU',I,'TRDB',X,Y,ZTRFU,0,'MANY') |
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X = 0. |
| 304 |
Y = 0. |
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cc Z = Z + TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) + TRRA(3) |
| 306 |
cc print*,'z del radiatore=',z |
| 307 |
C # print*,'cos(1+....)=',1 + COS(30./180.*ACOS(-1.)) |
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C # Z= Z + 2*TRSO(2) + TRRA(3) |
| 309 |
c CALL GSPOS('TRRA',I,'TRDB',X,Y,Z,0,'ONLY') |
| 310 |
CALL GSPOS('TRRA',I,'TRDB',X,Y,ZRAD,0,'ONLY') |
| 311 |
C # Z= Z - (2*TRSO(2) + TRRA(3)) + TRBS(3) |
| 312 |
CC Z = Z - ( TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) + TRRA(3)) |
| 313 |
CC + + TRBS(3) |
| 314 |
cc GOTO 151 |
| 315 |
cc DO III = 1,2 |
| 316 |
cc X = (-1)**(III-1)*TRAN(1)+ (-1)**III*TRDB(1) |
| 317 |
cc Y = -TRAN(2)+ TRDB(2) |
| 318 |
cc NAN = NAN + 1 |
| 319 |
cc CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,0,'ONLY') |
| 320 |
cc Y = TRAN(2) - TRDB(2) |
| 321 |
cc NAN = NAN + 1 |
| 322 |
cc CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,4,'ONLY') |
| 323 |
cc ENDDO |
| 324 |
cc X = 0. |
| 325 |
cc Y = 0. |
| 326 |
cc Z = Z + TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) + TRRA(3) |
| 327 |
C # Z= Z + 2*TRSO(2) + TRRA(3) |
| 328 |
cc CALL GSPOS('TRRA',I,'TRDB',X,Y,Z,0,'ONLY') |
| 329 |
C # Z= Z - (2*TRSO(2) + TRRA(3)) + TRBS(3) |
| 330 |
cc Z = Z - ( TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) + TRRA(3)) |
| 331 |
cc + + TRBS(3) |
| 332 |
ENDDO |
| 333 |
M=4 |
| 334 |
DO I=1,5 |
| 335 |
Z=Z+TRAN(3) |
| 336 |
ZTRBS=Z |
| 337 |
c positioning TRAN: |
| 338 |
c ml:17/11/04: |
| 339 |
c DO III = 1,2 |
| 340 |
c X = (-1)**(III-1)*TRAN(1)+ (-1)**III*TRDB(1) |
| 341 |
c Y = -TRAN(2)+ TRDB(2) |
| 342 |
c NAN = NAN + 1 |
| 343 |
c CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,0,'ONLY') |
| 344 |
c Y = +TRAN(2)- TRDB(2) |
| 345 |
c NAN = NAN + 1 |
| 346 |
c CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,4,'ONLY') |
| 347 |
c ENDDO |
| 348 |
X = -TRFR(1)+TRAN(1) |
| 349 |
Y = -TRFR(2)+ TRAN(2) |
| 350 |
NAN = NAN + 1 |
| 351 |
CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,0,'ONLY') |
| 352 |
X = -TRFR(1)+TRAN(1) |
| 353 |
Y = +TRFR(2)- TRAN(2) |
| 354 |
NAN = NAN + 1 |
| 355 |
CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,6,'ONLY') |
| 356 |
X = TRFR(1)-TRAN(1) |
| 357 |
Y = +TRFR(2)- TRAN(2) |
| 358 |
NAN = NAN + 1 |
| 359 |
CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,4,'ONLY') |
| 360 |
X = TRFR(1)-TRAN(1) |
| 361 |
Y = -TRFR(2)+ TRAN(2) |
| 362 |
NAN = NAN + 1 |
| 363 |
CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,1,'ONLY') |
| 364 |
Z=Z+TRAN(3) |
| 365 |
c positioning TRBS (the modules): |
| 366 |
Y=0. |
| 367 |
DO II=1, M |
| 368 |
NUM = NUM + 1 |
| 369 |
* shift of modules to have the right overlap: |
| 370 |
X= (II-1)*2.*TRBS(1) - ( M*TRBS(1) - TRBS(1) ) - |
| 371 |
+ (II-2)*TRSI(2) |
| 372 |
* now there two different volumes interested at same time: |
| 373 |
* CALL GSPOS('TRBS',NUM,'TRDB',X,Y,Z,0,'ONLY') |
| 374 |
CALL GSPOS('TRBS',NUM,'TRDB',X,Y,ZTRBS,0,'MANY') |
| 375 |
ENDDO |
| 376 |
c end ml. |
| 377 |
c IF((I+4).LE.8)THEN |
| 378 |
c positioning TRFD: |
| 379 |
X=0. |
| 380 |
ZTRFD=Z-TRFD(3) |
| 381 |
CALL GSPOS('TRFD',I+4,'TRDB',X,Y,ZTRFD,0,'MANY') |
| 382 |
C # print*,'gptrdv: n. of trfd: i+4=',i+4,ztrfd |
| 383 |
IF((I+4).LE.8)THEN |
| 384 |
c positioning TRFR: |
| 385 |
Z= Z + TRFR(3) |
| 386 |
ZRAD=Z |
| 387 |
CALL GSPOS('TRFR',I+4,'TRDB',X,Y,Z,0,'MANY') |
| 388 |
C Z= Z + TRFR(3) + TRBS(3) |
| 389 |
Z=Z+TRFR(3) |
| 390 |
c positioning TRFU: |
| 391 |
ZTRFU= Z + TRFU(3) |
| 392 |
CALL GSPOS('TRFU',I+4,'TRDB',X,Y,ZTRFU,0,'MANY') |
| 393 |
ELSE |
| 394 |
ZRAD=Z-TRFD(3)+TRFM(3)+TRFL(3) |
| 395 |
c positioning TRFD: |
| 396 |
c X=0. |
| 397 |
c ZTRFD=Z-TRFD(3) |
| 398 |
c CALL GSPOS('TRFD',I+4,'TRDB',X,Y,ZTRFD,0,'MANY') |
| 399 |
c print*,'gptrdv: n. of trfd: i+4=',i+4,ztrfd |
| 400 |
c positioning TRFM: |
| 401 |
Z= Z + TRFM(3) |
| 402 |
C ZRAD=Z |
| 403 |
CALL GSPOS('TRFM',I+4,'TRDB',X,Y,Z,0,'MANY') |
| 404 |
C Z= Z + TRFR(3) + TRBS(3) |
| 405 |
Z=Z+TRFM(3) |
| 406 |
c positioning TRFL: |
| 407 |
ZTRFL= Z + TRFL(3) |
| 408 |
CALL GSPOS('TRFL',I+4,'TRDB',X,Y,ZTRFL,0,'MANY') |
| 409 |
ENDIF |
| 410 |
X = 0. |
| 411 |
Y = 0. |
| 412 |
cc Z = Z + TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) + TRRA(3) |
| 413 |
cc print*,'z del radiatore=',z |
| 414 |
C # print*,'cos(1+....)=',1 + COS(30./180.*ACOS(-1.)) |
| 415 |
C # Z= Z + 2*TRSO(2) + TRRA(3) |
| 416 |
c CALL GSPOS('TRRA',I,'TRDB',X,Y,Z,0,'ONLY') |
| 417 |
IF((I+4).LE.8) THEN |
| 418 |
CALL GSPOS('TRRA',I+4,'TRDB',X,Y,ZRAD,0,'ONLY') |
| 419 |
ELSE |
| 420 |
CALL GSPOS('TRR2',I+4,'TRDB',X,Y,ZRAD,0,'ONLY') |
| 421 |
ENDIF |
| 422 |
ENDDO |
| 423 |
goto 151 |
| 424 |
M=4 |
| 425 |
DO I=1,5 |
| 426 |
X= 0. |
| 427 |
Z= Z + TRFR(3) |
| 428 |
CALL GSPOS('TRFR',(I+4),'TRDB',X,Y,Z,0,'ONLY') |
| 429 |
Z= Z + TRFR(3) + TRBS(3) |
| 430 |
DO II=1, M |
| 431 |
NUM = NUM + 1 |
| 432 |
*shift of modules to have the right overlap: |
| 433 |
X= (II-1)*2.*TRBS(1) - ( M*TRBS(1) - TRBS(1) ) |
| 434 |
+ + (3/2 -(II-1))*TRSI(2) |
| 435 |
*now there two different volumes interested at same time: |
| 436 |
* CALL GSPOS('TRBS',NUM,'TRDB',X,Y,Z,0,'ONLY') |
| 437 |
CALL GSPOS('TRBS',NUM,'TRDB',X,Y,Z,0,'MANY') |
| 438 |
ENDDO |
| 439 |
DO III = 1,2 |
| 440 |
X = (-1)**(III-1)*TRAN(1)+ (-1)**III*TRDB(1) |
| 441 |
Y = -TRAN(2)+ TRDB(2) |
| 442 |
NAN = NAN + 1 |
| 443 |
CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,0,'ONLY') |
| 444 |
Y = TRAN(2) - TRDB(2) |
| 445 |
NAN = NAN + 1 |
| 446 |
CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,4,'ONLY') |
| 447 |
ENDDO |
| 448 |
X= 0. |
| 449 |
Y= 0. |
| 450 |
c ml: 12/11/04: |
| 451 |
IF((I+4).LE.8) THEN |
| 452 |
c end ml. |
| 453 |
Z = Z + TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) + TRRA(3) |
| 454 |
CALL GSPOS('TRRA',(I+4),'TRDB',X,Y,Z,0,'ONLY') |
| 455 |
Z = Z - (TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) + TRRA(3) ) |
| 456 |
+ + TRBS(3) |
| 457 |
c ml: |
| 458 |
ELSE |
| 459 |
* |
| 460 |
* Positioning an extra radiator plane on top |
| 461 |
* |
| 462 |
Z = Z + TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) + TRR2(3) |
| 463 |
NUM=1 |
| 464 |
CALL GSPOS('TRR2',NUM,'TRDB',X,Y,Z,0,'ONLY') |
| 465 |
Z = Z + TRBS(3) -( TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) |
| 466 |
+ + 3*TRR2(3) ) |
| 467 |
ENDIF |
| 468 |
C end ml. |
| 469 |
ENDDO |
| 470 |
c ml: 12/11/04: |
| 471 |
C* |
| 472 |
C* Positioning an extra radiator plane on top |
| 473 |
C* |
| 474 |
C Z = Z - TRBS(3) + TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) |
| 475 |
C + + 3*TRRA(3) |
| 476 |
C CALL GSPOS('TRRA',NUM,'TRDB',X,Y,Z,0,'ONLY') |
| 477 |
C Z = Z + TRBS(3) -( TRSO(2)*( 1 + COS(30./180.*ACOS(-1.))) |
| 478 |
C + + 3*TRRA(3) ) |
| 479 |
C end ml. |
| 480 |
* |
| 481 |
* Positioning the TOP frame |
| 482 |
* |
| 483 |
X = 0. |
| 484 |
Y = 0. |
| 485 |
Z = Z + TRFR(3) |
| 486 |
CALL GSPOS('TRFR',10,'TRDB',X,Y,Z,0,'ONLY') |
| 487 |
* |
| 488 |
* Positioning the angular pieces to hold the TOF. TRAN & TRDT |
| 489 |
* |
| 490 |
Z = Z + TRFR(3) + TRAN(3) |
| 491 |
DO I = 1,2 |
| 492 |
X = (-1)**(I-1)*TRAN(1)+ (-1)**I*TRDB(1) |
| 493 |
Y = -TRAN(2)+ TRDB(2) |
| 494 |
NAN = NAN + 1 |
| 495 |
CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,0,'ONLY') |
| 496 |
Y = +TRAN(2)- TRDB(2) |
| 497 |
NAN = NAN + 1 |
| 498 |
CALL GSPOS('TRAN',NAN,'TRDB',X,Y,Z,4,'ONLY') |
| 499 |
ENDDO |
| 500 |
Z = Z + TRAN(3) + TRDT(3) |
| 501 |
NDT = 0 |
| 502 |
DO I = 1,2 |
| 503 |
X = (-1)**(I-1)*(2*TRAN(1)-TRDT(1))+ (-1)**I*TRDB(1) |
| 504 |
Y = -(2*TRAN(2)-TRDT(2)) + TRDB(2) |
| 505 |
NDT = NDT + 1 |
| 506 |
CALL GSPOS('TRDT',NDT,'TRDB',X,Y,Z,0,'ONLY') |
| 507 |
Y = +(2*TRAN(2)-TRDT(2)) - TRDB(2) |
| 508 |
NDT = NDT + 1 |
| 509 |
CALL GSPOS('TRDT',NDT,'TRDB',X,Y,Z,0,'ONLY') |
| 510 |
ENDDO |
| 511 |
151 continue |
| 512 |
RETURN |
| 513 |
END |
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