1 cdaq 1.1 subroutine s_one_ev_geometry
2 *
3 * This routine will get the detector position and size information from CTP,
4 * then use this information for defining the different GEANT geometry structures
5 *
6 * August, 1994, Pat Welch, Oregon State University, tpw@physics.orst.edu
7 *
8 * Note: Subdivided volumes won't work for doing coordinate transforms. Or
9 * at least I didn't see a method around them. So I have defined all
10 * the subvolumes explicitly. (TPW)
11 *
12 * Modified from HMS version, h_one_ev_geometry, March 1995 by
13 * Derek van Westrum (vanwestr@cebaf.gov)
14 *
15 * $Log:$ h_one_ev_geometry.f,v $
16
17 implicit none
18
19 include 'sos_data_structures.cmn'
20 include 'sos_geometry.cmn'
21 include 'sos_calorimeter.cmn'
22 cdaq 1.1 include 'sos_scin_parms.cmn'
23 include 'sos_one_ev.par'
24
25 integer SHUTMEDIA ! non-sensitive tracking media
26 integer DETMEDIA ! sensitive tracking media
27 parameter (SHUTMEDIA = 1, DETMEDIA = 2)
28 real*4 hodoscale
29 parameter (hodoscale = 3.)
30 real*4 wcscale
31 * parameter (wcscale = 5.)
32 parameter (wcscale = 1.)
33 real*4 xwirelength
34 real*4 ywirelength
35 real*4 uwirelength
36 real*4 vwirelength
37
38 character*5 scinname
39 character*5 layername
40 character*5 planename
41 character*5 wirename
42 character*5 chamber
43 cdaq 1.1 character*5 plane
44 character*5 wire
45 character*5 blockname
46 integer isector
47 integer iplane
48 integer iwire
49 integer ichamber
50 integer ilayer
51 integer irow
52
53 integer ivolu ! internal volume number
54 real par(10) ! geometry parameters
55 real x, y, z ! offset position for placement of dets
56 integer i ! index variable
57 real*4 raddeg
58 parameter (raddeg = 3.14159265/180.)
59
60 * First define two general media that everything is made of
61 * one is insensitive, and the other is sensitive
62
63 call gstmed (SHUTMEDIA, 'air', 15, 0, 0,0.,20.,1.,0.5,1.,1.,0,0)
64 cdaq 1.1 call gstmed (DETMEDIA, 'det', 15, 1, 0,0.,20.,1.,0.5,1.,1.,0,0)
65
66 * Now define the mother volume that the detectors sit in
67 par(1) = SHUT_WIDTH / 2. ! half width in x of mother volume
68 par(2) = SHUT_WIDTH / 2. ! half width in y of mother volume
69 par(3) = SHUT_HEIGHT / 2. ! half height in z of mother volume
70 call g_ugsvolu ('SHUT', 'BOX ', SHUTMEDIA, par, 3, ivolu)
71 call gsatt ('SHUT', 'SEEN', 0) ! can't see the hut
72
73 * Define some wire lengths..
74
75 xwirelength = 40.0
76 ywirelength = 60.0
77 uwirelength = xwirelength / SIN(sdc_alpha_angle(1))
78 vwirelength = xwirelength / SIN(sdc_alpha_angle(2))
79
80
81 * Now define the wire chambers as a collection of planes
82 * First the U and V planes.
83 *
84 par(1) = ywirelength/2.
85 cdaq 1.1 par(2) = xwirelength/2.
86 par(3) = wcscale * (sdc_zpos(2) - sdc_zpos(1))/ 2. ! half width of chamber planes
87 do ichamber = 1,2
88 do iplane = 1,2
89 write(planename,'(a,a,a,a)') "W",char(64+ichamber),char(64+iplane),"U"
90 call g_ugsvolu (planename, 'BOX ', DETMEDIA, par, 3, ivolu)
91 write(planename,'(a,a,a,a)') "W",char(64+ichamber),char(64+iplane),"V"
92 call g_ugsvolu (planename, 'BOX ', DETMEDIA, par, 3, ivolu)
93 enddo
94 enddo
95 *
96 * Now do the X planes.
97 *
98 par(1) = ywirelength/2.
99 par(2) = xwirelength/2.
100 par(3) = wcscale * (sdc_zpos(2) - sdc_zpos(1))/ 2. ! half width of chamber planes
101 do ichamber = 1,2
102 do iplane = 1,2
103 write(planename,'(a,a,a,a)') "W",char(64+ichamber),char(64+iplane),"X"
104 call g_ugsvolu (planename, 'BOX ', DETMEDIA, par, 3, ivolu)
105 enddo
106 cdaq 1.1 enddo
107
108 ! make a volume for 6 planes. The size here should be cool. DVW 18 jul 95
109 par(1) = ywirelength/2.
110 par(2) = xwirelength/2.
111 par(3) = wcscale * (6./5. * (sdc_zpos(6) - sdc_zpos(1))) / 2.
112 call g_ugsvolu ('WCHA', 'BOX ', DETMEDIA, par, 3, ivolu) ! Wire chamber
113 call g_ugsvolu ('WCHB', 'BOX ', DETMEDIA, par, 3, ivolu) ! Wire chamber
114
115 * Now place the planes within the wire chamber. Start with U
116 z = - wcscale * (5. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
117 call gspos ('WAAU', 1, 'WCHA', 0., 0., z, 0, 'ONLY') ! U plane
118 z = - wcscale * (3. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
119 call gspos ('WABU', 1, 'WCHA', 0., 0., z, 0, 'ONLY') ! U plane
120 z = - wcscale * (5. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
121 call gspos ('WBAU', 1, 'WCHB', 0., 0., z, 0, 'ONLY') ! U plane
122 z = - wcscale * (3. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
123 call gspos ('WBBU', 1, 'WCHB', 0., 0., z, 0, 'ONLY') ! U plane
124 *
125 z = - wcscale * (1. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
126 call gspos ('WAAX', 1, 'WCHA', 0., 0., z, 0, 'ONLY') ! X plane
127 cdaq 1.1 z = wcscale * (1. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
128 call gspos ('WABX', 1, 'WCHA', 0., 0., z, 0, 'ONLY') ! X plane
129 z = - wcscale * (1. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
130 call gspos ('WBAX', 1, 'WCHB', 0., 0., z, 0, 'ONLY') ! X plane
131 z = wcscale * (1. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
132 call gspos ('WBBX', 1, 'WCHB', 0., 0., z, 0, 'ONLY') ! X plane
133 *
134 z = wcscale * (3. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
135 call gspos ('WAAV', 1, 'WCHA', 0., 0., z, 0, 'ONLY') ! V plane
136 z = wcscale * (5. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
137 call gspos ('WABV', 1, 'WCHA', 0., 0., z, 0, 'ONLY') ! V plane
138 z = wcscale * (3. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
139 call gspos ('WBAV', 1, 'WCHB', 0., 0., z, 0, 'ONLY') ! V plane
140 z = wcscale * (5. / 2.) * (sdc_zpos(2) -sdc_zpos(1))
141 call gspos ('WBBV', 1, 'WCHB', 0., 0., z, 0, 'ONLY') ! V plane
142
143 * Now place the wire chambers in the mother volume
144 *
145 x = sdc_xcenter(1)
146 y = - sdc_ycenter(1)
147 z = sdc_1_zpos
148 cdaq 1.1 call gspos ('WCHA', 1, 'SHUT', x, y, z, 0, 'ONLY') ! upper chamber
149 x = sdc_xcenter(2)
150 y = - sdc_ycenter(2)
151 z = sdc_2_zpos
152 call gspos ('WCHB', 1, 'SHUT', x, y, z, 0, 'ONLY') ! bottom chamber
153 *
154 * Define the individual wire cells
155 * See the file "displaynumbering.help" for a description of the numbering of the
156 * various detector elements
157 *
158 *****
159 *UUUU
160 *****
161 par(1) = sdc_pitch(1) / 2./1000. ! make the cells "wire" thin
162 par(2) = uwirelength/2.
163 par(3) = (sdc_zpos(2) - sdc_zpos(1))/ 2./1000. ! half width of chamber planes
164 *
165 * First define all the "boxes" for all the U wires in both chambers...
166 *
167 do ichamber=1,2
168 do isector=1,4
169 cdaq 1.1 do iwire = 1,24
170 write (wire,'(a,a,a,a)') char(64 + ichamber),'U',
171 $ char(64 + isector),char(64 + iwire)
172 call g_ugsvolu (wire, 'BOX ', DETMEDIA, par, 3, ivolu) ! U cell
173 call gsatt (wire, 'SEEN', 0) ! can't see the wire cells
174 enddo
175 enddo
176 enddo
177 *
178 par(1) = sdc_pitch(1) / SIN(sdc_alpha_angle(1))
179 *
180 * Now position the U wires plane by plane...
181 do ichamber=1,2
182 x = -(sdc_nrwire(1) + 1.) / 2. * par(1)
183 do isector=1,2
184 do iwire = 1,24
185 write (plane,'(a,a,a,a)') 'W',char(64 + ichamber),'AU'
186 write (wire,'(a,a,a,a)') char(64 + ichamber),'U',
187 $ char(64 + isector),char(64 + iwire)
188 x = x + par(1)
189 call gspos (wire, 1, plane, x, 0., 0., 3, 'ONLY')
190 cdaq 1.1 enddo
191 enddo
192 x = -(sdc_nrwire(1) + 1.) / 2. * par(1)
193 do isector = 3,4
194 do iwire = 1,24
195 write (plane,'(a,a,a,a)') 'W',char(64 + ichamber),'BU'
196 write (wire,'(a,a,a,a)') char(64 + ichamber),'U',
197 $ char(64 + isector),char(64 + iwire)
198 x = x + par(1)
199 call gspos (wire, 1, plane, x, 0., 0., 3, 'ONLY')
200 enddo
201 enddo
202 enddo
203 *
204 *
205 * Now position the X wires plane by plane...
206 *****
207 *XXX
208 *****
209 par(1) = sdc_pitch(3) / 2. /1000. ! half width of cell
210 par(2) = xwirelength/2. ! the length of the xwirelengths
211 cdaq 1.1 par(3) = (sdc_zpos(4) - sdc_zpos(3))/ 2./1000. ! half width of chamber planes
212 *
213 * First define all the "boxes" for all the X wires in both chambers...
214 *
215 do ichamber=1,2
216 do isector=1,8
217 do iwire = 1,16
218 write (wire,'(a,a,a,a)') char(64 + ichamber),'X',
219 $ char(64 + isector),char(64 + iwire)
220 call g_ugsvolu (wire, 'BOX ', DETMEDIA, par, 3, ivolu) ! X cell
221 call gsatt (wire, 'SEEN', 0) ! can't see the wire cells
222 enddo
223 enddo
224 enddo
225 *
226 par(1) = sdc_pitch(3)
227 *
228 * Now position the X wires plane by plane...
229 do ichamber=1,2
230 x = -(sdc_nrwire(3) + 1.) / 2. * par(1)
231 do isector=1,4
232 cdaq 1.1 do iwire = 1,16
233 write (plane,'(a,a,a,a)') 'W',char(64 + ichamber),'AX'
234 write (wire,'(a,a,a,a)') char(64 + ichamber),'X',
235 $ char(64 + isector),char(64 + iwire)
236 x = x + par(1)
237 call gspos (wire, 1, plane, x, 0., 0., 0, 'ONLY')
238 enddo
239 enddo
240 x = -(sdc_nrwire(3) + 1.) / 2. * par(1)
241 do isector = 5,8
242 do iwire = 1,16
243 write (plane,'(a,a,a,a)') 'W',char(64 + ichamber),'BX'
244 write (wire,'(a,a,a,a)') char(64 + ichamber),'X',
245 $ char(64 + isector),char(64 + iwire)
246 x = x + par(1)
247 call gspos (wire, 1, plane, x, 0., 0., 0, 'ONLY')
248 enddo
249 enddo
250 enddo
251 *
252 *
253 cdaq 1.1 *****
254 *VVVV
255 *****
256 par(1) = sdc_pitch(5) / 2./1000. ! half width of cell
257 par(2) = vwirelength/2.
258 par(3) = (sdc_zpos(6) - sdc_zpos(5))/ 2./1000. ! half width of chamber planes
259 *
260 * First define all the "boxes" for all the V wires in both chambers...
261 *
262 do ichamber=1,2
263 do isector=1,4
264 do iwire = 1,24
265 write (wire,'(a,a,a,a)') char(64 + ichamber),'V',
266 $ char(64 + isector),char(64 + iwire)
267 call g_ugsvolu (wire, 'BOX ', DETMEDIA, par, 3, ivolu) ! V cell
268 call gsatt (wire, 'SEEN', 0) ! can't see the wire cells
269 enddo
270 enddo
271 enddo
272 *
273 par(1) = sdc_pitch(5) / SIN(sdc_alpha_angle(5))
274 cdaq 1.1
275 * Now position the V wires plane by plane...
276 do ichamber=1,2
277 x = -(sdc_nrwire(5) + 1.) / 2. * par(1)
278 do isector=1,2
279 do iwire = 1,24
280 write (plane,'(a,a,a,a)') 'W',char(64 + ichamber),'AV'
281 write (wire,'(a,a,a,a)') char(64 + ichamber),'V',
282 $ char(64 + isector),char(64 + iwire)
283 x = x + par(1)
284 call gspos (wire, 1, plane, x, 0., 0., 4, 'ONLY')
285 enddo
286 enddo
287 x = -(sdc_nrwire(5) + 1.) / 2. * par(1)
288 do isector = 3,4
289 do iwire = 1,24
290 write (plane,'(a,a,a,a)') 'W',char(64 + ichamber),'BV'
291 write (wire,'(a,a,a,a)') char(64 + ichamber),'V',
292 $ char(64 + isector),char(64 + iwire)
293 x = x + par(1)
294 call gspos (wire, 1, plane, x, 0., 0., 4, 'ONLY')
295 cdaq 1.1 enddo
296 enddo
297 enddo
298 *
299 *
300 * Now define the hodoscope layers
301 * See the file "displaynumbering.help" for a description of the numbering of the
302 * various detector elements
303
304 ! half width of hodoscope in x
305 par(1) = sscin_1x_size * LOWER_HODO_X_PADDLES / 2.
306 ! half width of hodoscope in y
307 par(2) = sscin_1y_size * LOWER_HODO_Y_PADDLES / 2.
308 ! half thickness of hodoscope in z, times 2 because of stagger
309 par(3) = HODO_THICKNESS * hodoscale
310 call g_ugsvolu ('HDX1', 'BOX ', DETMEDIA, par, 3, ivolu) ! X plane hodo
311 call g_ugsvolu ('HDY1', 'BOX ', DETMEDIA, par, 3, ivolu) ! Y plane hodo
312
313 ! half width of hodoscope in x
314 par(1) = sscin_2x_size * UPPER_HODO_X_PADDLES / 2.
315 ! half width of hodoscope in y
316 cdaq 1.1 par(2) = sscin_2y_size * UPPER_HODO_Y_PADDLES / 2.
317 ! half thickness of hodoscope in z, times 2 because of stagger
318 par(3) = HODO_THICKNESS * hodoscale
319 call g_ugsvolu ('HDX2', 'BOX ', DETMEDIA, par, 3, ivolu) ! X plane hodo
320 call g_ugsvolu ('HDY2', 'BOX ', DETMEDIA, par, 3, ivolu) ! Y plane hodo
321
322 ! box for front hodos
323 ! half width of hodoscope in x
324 par(1) = sscin_1x_size * LOWER_HODO_X_PADDLES / 2.
325 ! half width of hodoscope in y
326 par(2) = sscin_1y_size * LOWER_HODO_Y_PADDLES / 2.
327 par(3) = HODO_THICKNESS*hodoscale + (sscin_1y_zpos-sscin_1x_zpos)/2.
328 call g_ugsvolu ('HOD1', 'BOX ', DETMEDIA, par, 3, ivolu) ! hodoscope box
329 call gsatt ('HOD1', 'SEEN', 0) ! can't see the hodo box
330
331 ! box for back hodos
332 ! half width of hodoscope in x
333 par(1) = sscin_2x_size * UPPER_HODO_X_PADDLES / 2.
334 ! half width of hodoscope in y
335 par(2) = sscin_2y_size * UPPER_HODO_Y_PADDLES / 2.
336 par(3) = HODO_THICKNESS*hodoscale + (sscin_2y_zpos-sscin_2x_zpos)/2.
337 cdaq 1.1 call g_ugsvolu ('HOD2', 'BOX ', DETMEDIA, par, 3, ivolu) ! hodoscope box
338 call gsatt ('HOD2', 'SEEN', 0) ! can't see the hodo box
339 * added by Derek
340 *
341 x = HODO_LOWER_X_OFFSET
342 y = HODO_LOWER_Y_OFFSET
343 z = sscin_1x_zpos
344 call gspos ('HOD1', 1, 'SHUT', x, y, z, 0, 'ONLY') ! lower hodo
345 x = HODO_UPPER_X_OFFSET
346 y = HODO_UPPER_Y_OFFSET
347 z = sscin_2x_zpos
348 call gspos ('HOD2', 1, 'SHUT', x, y, z, 0, 'ONLY') ! upper hodo
349
350 z= -(HODO_THICKNESS*hodoscale + (sscin_1y_zpos-sscin_1x_zpos))/2.
351 call gspos ('HDX1', 1, 'HOD1', 0., 0., z, 0, 'ONLY') ! X plane
352 call gspos ('HDY1', 1, 'HOD1', 0., 0., -z, 0, 'ONLY') ! Y plane
353 z= -(HODO_THICKNESS*hodoscale + (sscin_2y_zpos-sscin_2x_zpos))/2.
354 call gspos ('HDX2', 1, 'HOD2', 0., 0., z, 0, 'ONLY') ! X plane
355 call gspos ('HDY2', 1, 'HOD2', 0., 0., -z, 0, 'ONLY') ! Y plane
356
357 * Now define the strips for the hodoscopes
358 cdaq 1.1
359 x = (LOWER_HODO_X_PADDLES + 1.) * sscin_1x_size / 2. ! starting loci
360 do i = 1, LOWER_HODO_X_PADDLES
361 x = x - sscin_1x_size
362 write (scinname,'(a,a)') 'H1X',char(64 + i)
363 * call gspos ('HOX1', i, 'HDX1', x, 0., 0., 0, 'ONLY')
364 par(1) = sscin_1x_size / 2. ! half width of X strips
365 par(2) = sscin_1y_size * LOWER_HODO_Y_PADDLES / 2.
366 ! half width of hodoscope in y
367 par(3) = HODO_THICKNESS * hodoscale / 2. !half thickness of hodoscope in z
368 call g_ugsvolu (scinname, 'BOX ', DETMEDIA, par, 3, ivolu) ! X plane hodo
369 call gspos (scinname, i, 'HDX1', x, 0., 0., 0, 'ONLY')
370 enddo
371 y = (LOWER_HODO_Y_PADDLES + 1.) * sscin_1y_size / 2. ! starting loci
372 do i = 1, LOWER_HODO_Y_PADDLES
373 y = y - sscin_1y_size
374 write (scinname,'(a,a)') 'H1Y',char(64 + i)
375 par(1) = sscin_1x_size * LOWER_HODO_X_PADDLES / 2.
376 ! half width of hodoscope in x
377 par(2) = sscin_1y_size / 2. ! half width of X strips
378 par(3) = HODO_THICKNESS * hodoscale / 2. !half thickness of hodoscope in z
379 cdaq 1.1 call g_ugsvolu (scinname, 'BOX ', DETMEDIA, par, 3, ivolu) ! Y plane hodo
380 call gspos (scinname, i, 'HDY1', 0., y, 0., 0, 'ONLY')
381 enddo
382 x = (UPPER_HODO_X_PADDLES + 1.) * sscin_2x_size / 2. ! starting loci
383 do i = 1,UPPER_HODO_X_PADDLES
384 x = x - sscin_2x_size
385 write (scinname,'(a,a)') 'H2X',char(64 + i)
386 par(1) = sscin_2x_size / 2. ! half width of X strips
387 par(2) = sscin_2y_size * UPPER_HODO_Y_PADDLES / 2.
388 ! half width of hodoscope in y
389 par(3) = HODO_THICKNESS * hodoscale / 2. !half thickness of hodoscope in z
390 call g_ugsvolu (scinname, 'BOX ', DETMEDIA, par, 3, ivolu) ! X plane hodo
391 call gspos (scinname, i, 'HDX2', x, 0., 0., 0, 'ONLY')
392 enddo
393 y = (UPPER_HODO_Y_PADDLES + 1.) * sscin_2y_size / 2. ! starting loci
394 do i = 1, UPPER_HODO_Y_PADDLES
395 y = y - sscin_2y_size
396 write (scinname,'(a,a)') 'H2Y',char(64 + i)
397 par(1) = sscin_2x_size * UPPER_HODO_X_PADDLES / 2.
398 ! half width of hodoscope in x
399 par(2) = sscin_2y_size / 2. ! half width of X strips
400 cdaq 1.1 par(3) = HODO_THICKNESS * hodoscale / 2. !half thickness of hodoscope in z
401 call g_ugsvolu (scinname, 'BOX ', DETMEDIA, par, 3, ivolu) ! Y plane hodo
402 call gspos (scinname, i, 'HDY2', 0., y, 0., 0, 'ONLY')
403 enddo
404
405 * Now define the shower detector
406 * See the file "displaynumbering.help" for a description of the numbering of the
407 * various detector elements
408
409 ! half width of the shower in x
410 par(1) = smax_cal_rows * scal_block_zsize / 2.
411 ! half width of the shower in y
412 par(2) = scal_block_ysize / 2.
413 ! half height of the shower detector
414 par(3) = smax_cal_columns * scal_block_xsize / 2.
415 call g_ugsvolu ('SHOW', 'BOX ', DETMEDIA, par, 3, ivolu)
416 x = SHOWER_X_OFFSET
417 y = SHOWER_Y_OFFSET
418 z = scal_1pr_zpos + smax_cal_columns*scal_block_xsize/2.
419 call gspos ('SHOW', 1, 'SHUT', x, y, z, 0, 'ONLY')
420 call gsatt ('SHOW','SEEN',0)
421 cdaq 1.1
422 ! half width of the shower in x
423 par(1) = smax_cal_rows * scal_block_zsize / 2.
424 ! half width of the shower in y
425 par(2) = scal_block_ysize / 2.
426 ! half height of the shower detector
427 par(3) = scal_block_xsize / 2.
428 call g_ugsvolu ('LAY1', 'BOX ', DETMEDIA, par, 3, ivolu)
429 call g_ugsvolu ('LAY2', 'BOX ', DETMEDIA, par, 3, ivolu)
430 call g_ugsvolu ('LAY3', 'BOX ', DETMEDIA, par, 3, ivolu)
431 call g_ugsvolu ('LAY4', 'BOX ', DETMEDIA, par, 3, ivolu)
432
433 z = -(smax_cal_columns + 1.) / 2. * scal_block_xsize
434 z = z + scal_block_xsize
435 call gspos('LAY1', 1, 'SHOW', 0., 0., z, 0, 'ONLY')
436 z = z + scal_block_xsize
437 call gspos('LAY2', 1, 'SHOW', 0., 0., z, 0, 'ONLY')
438 z = z + scal_block_xsize
439 call gspos('LAY3', 1, 'SHOW', 0., 0., z, 0, 'ONLY')
440 z = z + scal_block_xsize
441 call gspos('LAY4', 1, 'SHOW', 0., 0., z, 0, 'ONLY')
442 cdaq 1.1
443 par(1) = scal_block_zsize / 2. ! half width of a block
444 par(2) = scal_block_ysize / 2. ! half length of a block
445 par(3) = scal_block_xsize / 2. ! half height of a block
446 do ilayer =1,SMAX_CAL_COLUMNS
447 do irow = 1,SMAX_CAL_ROWS
448 write (blockname,'(a,i1,a)') 'BL',ilayer,char(64 + irow)
449 call g_ugsvolu (blockname, 'BOX ', DETMEDIA, par, 3, ivolu)
450 enddo
451 enddo
452 *
453 do ilayer =1,SMAX_CAL_COLUMNS
454 x = (smax_cal_rows - 1.) / 2. * scal_block_zsize
455 do irow = 1,SMAX_CAL_ROWS
456 write (blockname,'(a,i1,a)') 'BL',ilayer,char(64 + irow)
457 write (layername,'(a,i1)') 'LAY',ilayer
458 call gspos(blockname, 1, layername, x, 0., 0., 0, 'ONLY')
459 x = x - scal_block_zsize
460 enddo
461 enddo
462
463 cdaq 1.1 *
464
465 end
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