def load(self):
positionsList=[]
for scannable in self.listOfScannables:
pos1 = self.config.getProperty(scannable.getName())
pos([scannable, pos1])
positionsList.append(pos1)
return positionsList
def scan_fpitch(start, step, n):
posns = []
izeros = []
pos(fpitch2, start)
sleep(1)
less = 0
for i in range(n):
posn = start + step * i
pos(fpitch2, posn)
sleep(0.12)
posns.append(posn)
caput("BL11I-EA-COUNT-01.CNT", 1)
sleep(0.12)
izero = Io.getPosition()
izeros.append(izero)
if len(izeros) < 3:
continue
if izeros[-1] > izeros[-2]:
less = 0
else:
less += 1
if less > 5:
break
return (posns, izeros)
def returnToInitialPositions(self, initialPositionsDict):
for scannable in initialPositionsDict.keys():
# to ensure nothing is moving even in case the scan is interrupted
scannable.waitWhileBusy()
posargs = reduce(operator.add, initialPositionsDict.items())
pos(posargs)
def __call__(self):
for scannable in self.scannables:
print pos(scannable)
print "Creating reffile and setting crystal"
reffile('dummy_test_with_cubic')
mode euler 1
latt([1,1,1,90,90,90])
print "Moving Energy..."
#pos energy 12.398 #moves bragg, undulator, mirros, diffractometer, optics table
print "...complete"
print "Going to first 001"
c2th([0,0,1])
pos delta c2th([0,0,1]) eta c2th([0,0,1])/2
pos() mu 0 gam 0
pos phi 0
saveref('001',[0,0,1])
ubm('001',[1,0,0]) # assumes [1,0,0] is in the vertical plane, and determines azimuth normallly found from or2
#array('d',[-0.9999723587733832, 0.007435165380914164, 2.2260001343412905E-6, -0.00743516540177009, -0.9999723587304612, -9.51241620544971E-6, 2.1552122170511666E-6, -9.528703949842119E-6, 0.9999999999522796])
hkl_calc([0,1,1])
print "Going to first 011"
pos hkl [0 1 1]
# Normaly scan phi to find reflection
pos phi
saveref('011',[0,1,1])
ubm('001','011')
if less > 5:
break
return (posns, izeros)
# scan fine pitch (coarse)
posns, izeros = scan_fpitch(start, step, n)
# scan fine pitch (fine)
step = step / 20.0
index = izeros.index(max(izeros))
start = posns[index] - (n * step * 0.8)
posns, izeros = scan_fpitch(start, step, n)
# move to maximum
maximum = posns[izeros.index(max(izeros))]
pos(fpitch2, maximum)
print "Optimisation max Izero: %.1f cts" % max(izeros)
print "Optimisation fpitch2 value: %.3f mDeg" % maximum
'''
print "Moving slit blades in"
pos s4ygap ysize
diff = float(caget("BL11I-AL-SLITS-04:Y:PLUS:I")) - float(caget("BL11I-AL-SLITS-04:Y:MINUS:I"))
sum = abs(float(caget("BL11I-AL-SLITS-04:Y:PLUS:I"))) + abs(float(caget("BL11I-AL-SLITS-04:Y:MINUS:I"))) / 2
while abs(diff) > 0.02:
print diff / sum * 0.2
p = s4ycentre.getPosition() + (diff / sum * 0.2)
pos s4ycentre p
diff = float(caget("BL11I-AL-SLITS-04:Y:PLUS:I")) - float(caget("BL11I-AL-SLITS-04:Y:MINUS:I"))
sum = abs(float(caget("BL11I-AL-SLITS-04:Y:PLUS:I")) + float(caget("BL11I-AL-SLITS-04:Y:MINUS:I"))) / 2
'''
def returnToInitialPositions(self, initialPositionsDict):
for scannable in initialPositionsDict.keys():
# to ensure nothing is moving even in case the scan is interrupted
scannable.waitWhileBusy()
posargs = reduce(operator.add, initialPositionsDict.items())
pos(posargs)
