def attenuation(self, x=None):
'''Read or set the attenuation'''
if self.test: return 0
from PyTango import DeviceProxy
Attenuator = DeviceProxy('i11-ma-c05/ex/att.1')
labels = [
'00 None', '01 Carbon 200um', '02 Carbon 250um', '03 Carbon 300um',
'04 Carbon 500um', '05 Carbon 1mm', '06 Carbon 2mm',
'07 Carbon 3mm', '10 Ref Fe 5um', '11 Ref Pt 5um'
]
if x == None:
status = Attenuator.Status()
print 'status', status
status = status[:status.index(':')]
value = status
return value
NumToLabel = dict([(int(l.split()[0]), l) for l in labels])
Attenuator.write_attribute(NumToLabel[x], True)
self.wait(Attenuator)
class BLEnergy(Device):
stateEnergy = {
'ALARM': 'error',
'FAULT': 'error',
'RUNNING': 'moving',
'MOVING': 'moving',
'STANDBY': 'ready',
'UNKNOWN': 'unknown',
'DISABLE': 'disable',
'EXTRACT': 'outlimits'
}
def init(self):
self.moving = None
self.deviceOk = True
self.prev_state = None
self.doBacklashCompensation = False
# Channel and commands for monochormator pitch.
# it will be used here to make sure it is on before moving energy (PX2)
# not needed on PX1
self.mono_mt_rx_statech = None
self.mono_mt_rx_oncmd = None
# Connect to device BLEnergy defined "tangoname" in the xml file
try:
self.BLEnergydevice = DeviceProxy(self.getProperty("tangoname"))
except:
self.errorDeviceInstance(self.getProperty("tangoname"))
# Connect to device mono defined "tangoname2" in the xml file
# used for conversion in wavelength
try:
self.monodevice = DeviceProxy(self.getProperty("tangoname2"))
except:
self.errorDeviceInstance(self.getProperty("tangoname2"))
# Nom du device bivu (Energy to gap) : necessaire pour amelioration du positionnement de l'onduleur (Backlash)
try:
# self.U20Energydevice = DeviceProxy(self.getProperty("tangoname3"), movingState="RUNNING")
# Modif suite a changement par ICA de l etat du device U20 RUNNING devient MOVING
self.U20Energydevice = DeviceProxy(self.getProperty("tangoname3"))
except:
self.errorDeviceInstance(self.getProperty("tangoname3"))
self.doBacklashCompensation = self.getProperty("backlash")
# print self.doBacklashCompensation
try:
self.mono_mt_rx_statech = self.getChannelObject("mono_mt_rx_state")
self.mono_mt_rx_oncmd = self.getCommandObject("mono_mt_rx_on")
except KeyError:
logging.info(
"Beware that mt_rx control is not properly defined for BLEnergy"
)
try:
self.mono_mt_rx_fine_statech = self.getChannelObject(
"mono_mt_rx_fine_state")
self.mono_mt_rx_fine_oncmd = self.getCommandObject(
"mono_mt_rx_fine_on")
except KeyError:
logging.info(
"Beware that mt_rx control is not properly defined for BLEnergy"
)
self.get_energy_limits = self.getEnergyLimits
self.get_wavelength_limits = self.getWavelengthLimits
# parameters for polling
if self.deviceOk:
self.isConnected()
self.prev_state = str(self.BLEnergydevice.State())
energyChan = self.getChannelObject("energy")
energyChan.connectSignal("update", self.energyChanged)
stateChan = self.getChannelObject(
"state"
) # utile seulement si statechan n'est pas defini dans le code
stateChan.connectSignal("update", self.stateChanged)
self.can_move_energy = self.canMoveEnergy
self.move_energy = self.startMoveEnergy
self.move_wavelength = self.startMoveWavelength
def stateChanged(self, value):
if (str(value) == 'MOVING'):
self.moveEnergyCmdStarted()
if self.prev_state == 'MOVING' or self.moving == True:
if str(value) != 'MOVING':
self.moveEnergyCmdFinished()
self.prev_state = str(value)
self.emit('stateChanged', BLEnergy.stateEnergy[str(value)])
# function called during polling
def energyChanged(self, value):
#logging.getLogger("HWR").debug("%s: BLEnergy.energyChanged: %.3f", self.name(), value)
#logging.info(">>>>>>>> %s: BLEnergy.energyChanged: %.3f", self.name(), value)
wav = self.monodevice.read_attribute("lambda").value
if wav is not None:
self.emit('energyChanged', (value, wav))
def connectNotify(self, signal):
logging.getLogger("HWR").info("%s: BLEnergy.connectNotify, : %s",
self.name(), signal)
if signal == 'energyChanged':
self.energyChanged(self.BLEnergydevice.energy)
if signal == 'stateChanged':
self.stateChanged(str(self.BLEnergydevice.State()))
self.setIsReady(True)
# called by brick : not useful
def isSpecConnected(self):
logging.getLogger("HWR").debug("%s: BLEnergy.isSpecConnected",
self.name())
return True
def isConnected(self):
logging.getLogger("HWR").debug("%s: BLEnergy.isConnected", self.name())
return True
def sConnected(self):
logging.getLogger("HWR").debug("%s: BLEnergy.sConnected", self.name())
self.deviceOk = True
self.emit('connected', ())
def sDisconnected(self):
logging.getLogger("HWR").debug("%s: BLEnergy.sDisconnected",
self.name())
self.deviceOk = False
self.emit('disconnected', ())
def isDisconnected(self):
logging.getLogger("HWR").debug("%s: BLEnergy.isDisconnected",
self.name())
return True
# Definit si la beamline est a energie fixe ou variable
def canMoveEnergy(self):
logging.getLogger("HWR").debug("%s: BLEnergy.canMoveEnergy",
self.name())
return True
def getPosition(self):
return self.getCurrentEnergy()
def getCurrentEnergy(self):
if self.deviceOk:
return self.BLEnergydevice.energy
else:
return None
def getState(self):
return self.BLEnergydevice.State().name
def getEnergyComputedFromCurrentGap(self):
logging.getLogger("HWR").debug("%s: BLEnergy.getCurrentEnergy",
self.name())
if self.deviceOk:
# PL. Rq: if the device is not redy, it send a NaN...
return self.U20Energydevice.energy
else:
return None
def getCurrentUndulatorGap(self):
logging.getLogger("HWR").debug("%s: BLEnergy.getCurrentEnergy",
self.name())
if self.deviceOk:
return self.U20Energydevice.gap
else:
return None
def getCurrentWavelength(self):
logging.getLogger("HWR").debug("%s: BLEnergy.getCurrentWavelength",
self.name())
# Pb with the attribute name "lamdda" which is a keyword for python
if self.deviceOk:
# using calculation of the device mono
return self.monodevice.read_attribute("lambda").value
else:
return None
def getEnergyLimits(self):
logging.getLogger("HWR").debug("%s: BLEnergy.getEnergyLimits",
self.name())
if self.deviceOk:
# limits defined in tango
enconfig = self.BLEnergydevice.get_attribute_config("energy")
max = float(enconfig.max_value)
min = float(enconfig.min_value)
lims = (min, max)
logging.getLogger("HWR").info("HOS : energy Limits: %.4f %.4f" %
lims)
return lims
else:
return None
def getWavelengthLimits(self):
logging.getLogger("HWR").debug("%s: BLEnergy.getWavelengthLimits",
self.name())
if self.deviceOk:
lims = []
# Recuperation des limites en energie
energylims = self.getEnergyLimits()
# Conversion de la limite inferieure en wavelength superieure (Utilisation des fonctions de conversion du device mono)
self.monodevice.simEnergy = energylims[1]
lims.append(self.monodevice.simLambda)
# Conversion de la limite superieure en wavelength inferieure (Utilisation des fonctions de conversion du device mono)
self.monodevice.simEnergy = energylims[0]
lims.append(self.monodevice.simLambda)
# logging.getLogger("HWR").info("HOS : wavelength Limits: %.4f %.4f" % lims)
logging.getLogger("HWR").info("HOS : wavelength Limits: %s" % lims)
return lims
else:
return None
def startMoveEnergy(self, value, wait=False):
logging.getLogger("HWR").debug("%s: BLEnergy.startMoveEnergy: %.3f",
self.name(), float(value))
# MODIFICATION DE CETTE FONCTION POUR COMPENSER LE PROBLEME D'HYSTERESIS DE L"ONDULEUR
# PAR CETTE METHODE ON APPLIQUE TOUJOURS UN GAP CROISSANT
backlash = 0.1 # en mm
gaplimite = 5.5 # en mm
if self.mono_mt_rx_statech is not None and self.mono_mt_rx_oncmd is not None:
while str(self.mono_mt_rx_statech.getValue()) == 'OFF':
logging.getLogger("HWR").info(
"BLEnergy : turning mono1-mt_rx on")
self.mono_mt_rx_oncmd()
time.sleep(0.2)
if self.mono_mt_rx_fine_statech is not None and self.mono_mt_rx_fine_oncmd is not None:
while str(self.mono_mt_rx_fine_statech.getValue()) == 'OFF':
logging.getLogger("HWR").info(
"BLEnergy : turning mono1-mt_rx_fine on")
self.mono_mt_rx_fine_oncmd()
time.sleep(0.2)
if (str(self.BLEnergydevice.State()) != "MOVING" and self.deviceOk):
if self.doBacklashCompensation:
try:
# Recuperation de la valeur de gap correspondant a l'energie souhaitee
self.U20Energydevice.autoApplyComputedParameters = False
self.U20Energydevice.energy = value
newgap = self.U20Energydevice.computedGap
actualgap = self.U20Energydevice.gap
self.U20Energydevice.autoApplyComputedParameters = True
# On applique le backlash que si on doit descendre en gap
if newgap < actualgap + backlash:
# Envoi a un gap juste en dessous (backlash)
if newgap - backlash > gaplimite:
self.U20Energydevice.gap = newgap - backlash
else:
self.U20Energydevice.gap = gaplimite
self.U20Energydevice.gap = newgap + backlash
time.sleep(1)
except:
logging.getLogger("HWR").error(
"%s: Cannot move undulator U20 : State device = %s",
self.name(), str(self.U20Energydevice.State()))
try:
# Envoi a l'energie desiree
self.BLEnergydevice.energy = value
except:
logging.getLogger("HWR").error(
"%s: Cannot move BLEnergy : State device = %s",
self.name(), str(self.BLEnergydevice.State()))
else:
statusBLEnergydevice = self.BLEnergydevice.Status()
logging.getLogger("HWR").error(
"%s: Cannot move : State device = %s", self.name(),
str(self.BLEnergydevice.State()))
for i in statusBLEnergydevice.split("\n"):
logging.getLogger().error("\t%s\n" % i)
logging.getLogger().error("\tCheck devices")
def startMoveWavelength(self, value, wait=False):
logging.getLogger("HWR").debug(
"%s: BLEnergy.startMoveWavelength: %.3f", self.name(), value)
self.monodevice.simLambda = value
self.startMoveEnergy(self.monodevice.simEnergy)
# return self.startMoveEnergy(energy_val)
def cancelMoveEnergy(self):
logging.getLogger("HWR").debug("%s: BLEnergy.cancelMoveEnergy",
self.name())
self.BLEnergydevice.Stop()
self.moving = False
def energyLimitsChanged(self, limits):
logging.getLogger("HWR").debug(
"%s: BLEnergy.energyLimitsChanged: %.3f", self.name(), value)
self.monodevice.simEnergy = limits[0]
wav_limits.append[self.monodevice.simLambda]
self.monodevice.simEnergy = limits[1]
wav_limits.append[self.monodevice.simLambda]
self.emit('energyLimitsChanged', (limits, ))
if wav_limits[0] != None and wav_limits[1] != None:
self.emit('wavelengthLimitsChanged', (wav_limits, ))
else:
self.emit('wavelengthLimitsChanged', (None, ))
def moveEnergyCmdReady(self):
logging.getLogger("HWR").debug("%s: BLEnergy.moveEnergyCmdReady",
self.name())
if not self.moving:
self.emit('moveEnergyReady', (True, ))
def moveEnergyCmdNotReady(self):
logging.getLogger("HWR").debug("%s: BLEnergy.moveEnergyCmdNotReady",
self.name())
if not self.moving:
self.emit('moveEnergyReady', (False, ))
def moveEnergyCmdStarted(self):
logging.getLogger("HWR").debug("%s: BLEnergy.moveEnergyCmdStarted",
self.name())
self.moving = True
#self.emit('moveEnergyStarted',(BLEnergy.stateEnergy[str(self.BLEnergydevice.State())]))
self.emit('moveEnergyStarted', ())
def moveEnergyCmdFailed(self):
logging.getLogger("HWR").debug("%s: BLEnergy.moveEnergyCmdFailed",
self.name())
self.moving = False
self.emit('moveEnergyFailed', ())
def moveEnergyCmdAborted(self):
self.moving = False
logging.getLogger("HWR").debug("%s: BLEnergy.moveEnergyCmdAborted",
self.name())
def moveEnergyCmdFinished(self):
logging.getLogger("HWR").debug("%s: BLEnergy.moveEnergyCmdFinished",
self.name())
self.moving = False
print 'moveEnergyFinished'
#self.emit('moveEnergyFinished',(BLEnergy.stateEnergy[str(self.BLEnergydevice.State())]))
self.emit('moveEnergyFinished', ())
def getPreviousResolution(self):
logging.getLogger("HWR").debug("%s: BLEnergy.getPreviousResolution",
self.name())
return (None, None)
def restoreResolution(self):
logging.getLogger("HWR").debug("%s: BLEnergy.restoreResolution",
self.name())
return (False, "Resolution motor not defined")
def errorDeviceInstance(self, device):
logging.getLogger("HWR").debug("%s: BLEnergy.errorDeviceInstance: %s",
self.name(), device)
db = DeviceProxy("sys/database/dbds1")
logging.getLogger().error("Check Instance of Device server %s" %
db.DbGetDeviceInfo(device)[1][3])
self.sDisconnected()
class AttenuatorsPX2(Device):
stateAttenuator = {
'ALARM': 0,
'EXTRACT': 1,
'INSERT': 1,
'UNKNOWN': 3,
'ALARM': 'error',
'OFF': 'error',
'RUNNING': 'moving',
'MOVING': 'moving',
'STANDBY': 'ready',
'UNKNOWN': 'changed',
'EXTRACT': 'outlimits'
}
def __init__(self, name):
Device.__init__(self, name)
self.labels = []
self.bits = []
self.attno = 0
self.deviceOk = True
self.NumToLabel = {}
def init(self):
#cmdToggle = self.getCommandObject('toggle')
#cmdToggle.connectSignal('connected', self.connected)
#cmdToggle.connectSignal('disconnected', self.disconnected)
# Connect to device Attenuator defined "tangoname" in the xml file
try:
#self.Attenuatordevice = SimpleDevice(self.getProperty("tangoname"), verbose=False)
self.Attenuatordevice = DeviceProxy(self.getProperty("tangoname"))
self.Attenuatordevice.waitMoves = False
self.Attenuatordevice.timeout = 5000
except:
self.errorDeviceInstance(self.getProperty("tangoname"))
if self.deviceOk:
#self.connected()
#self.chanAttState = self.getChannelObject('State')
#print "self.chanAttState : ", self.chanAttState
#self.chanAttState.connectSignal('update', self.attStateChanged)
##self.chanAttFactor = self.getChannelObject('appliedTransmission')
##self.chanAttFactor = self.getChannelObject('computedTransmission')
##self.chanAttFactor.connectSignal('update', self.attFactorChanged)
##self.chanAttToggle = self.getChannelObject('filtersCombination')
##self.chanAttToggle.connectSignal('update', self.attToggleChanged)
#self.getAtteConfig()
self.connected()
self.chanAttState = self.getChannelObject('State')
print "self.chanAttState : ", self.chanAttState
self.chanAttState.connectSignal('update', self.attStateChanged)
#self.chanAttFactor = self.getChannelObject('appliedTransmission')
self.chanAttFactor = self.getChannelObject('Status')
self.chanAttFactor.connectSignal('update', self.attFactorChanged)
self.chanAttToggle = self.getChannelObject('State')
self.chanAttToggle.connectSignal('update', self.attToggleChanged)
self.getAtteConfig()
logging.getLogger().debug(
"AttenuatorsPX2: self.labels, self.bits, self.attno, %s, %s, %s" %
(self.labels, self.bits, self.attno))
def getAtteConfig(self):
pass
def getAtteConfig_OLD(self):
logging.getLogger().debug("HOS Attenuator: passe dans getAtteConfig")
self.attno = len(self['atte'])
for att_i in range(self.attno):
obj = self['atte'][att_i]
self.labels.append(obj.label)
self.bits.append(obj.bits)
self.NumToLabel = dict([(int(l.split()[0]), l) for l in self.labels])
def getAttState(self):
logging.getLogger().debug("HOS Attenuator: passe dans getAttState")
logging.getLogger().debug("Attenuator state read from the device %s",
self.Attenuatordevice.State().name)
try:
#print "HEYO", self.Attenuatordevice.StatefiltersCombination
print self.Attenuatordevice.Status()
value = AttenuatorsPX2.stateAttenuator[
self.Attenuatordevice.State().name]
except:
logging.getLogger("HWR").error(
'%s: received value on channel is not a integer value',
str(self.name()))
value = None
return value
def getAttFactor(self):
logging.getLogger().debug("HOS Attenuator: passe dans getAttFactor")
print 'self.Attenuatordevice.Status()', self.Attenuatordevice.Status()
try:
#value = float(self.Attenuatordevice.appliedTransmission)
status = self.Attenuatordevice.Status()
status = status[:status.index(':')]
print 'status', status
value = status #self.Attenuatordevice.Status() #1. #float(self.Attenuatordevice.computedTransmission)
except:
logging.getLogger("HWR").error(
'%s: received value on channel is not a float value',
str(self.name()))
value = None
return value
def connected(self):
self.setIsReady(True)
def disconnected(self):
self.setIsReady(False)
def attStateChanged(self, channelValue):
logging.getLogger("HWR").debug(
"%s: AttenuatorsPX2.attStateChanged: %s", self.name(),
channelValue)
self.emit('attStateChanged',
(AttenuatorsPX2.stateAttenuator[str(channelValue)], ))
def attFactorChanged(self, channelValue):
print 'attFactorChanged', channelValue
print 'self.Attenuatordevice.Status()', self.Attenuatordevice.Status()
try:
status = self.Attenuatordevice.Status()
status = status[:status.index(':')]
print 'status', status
value = status
#value = float(channelValue)
except:
logging.getLogger("HWR").error(
'%s: received value on channel is not a float value',
str(self.name()))
else:
logging.getLogger("HWR").info(
'%s: AttenuatorsPX2, received value on channel',
str(self.name()))
self.emit('attFactorChanged', (value, ))
def attToggleChanged(self, channelValue):
# print "Dans attToggleChanged channelValue = %s" %channelValue
logging.getLogger().debug(
"HOS Attenuator: passe dans attToggleChanged")
try:
value = int(channelValue)
except:
logging.getLogger("HWR").error(
'%s: received value on channel is not a float value',
str(self.name()))
else:
self.emit('toggleFilter', (value, ))
def setTransmission(self, value):
logging.getLogger("HWR").debug(
"%s: AttenuatorsPX2.setTransmission: %s", self.name(), value)
print value
self.Attenuatordevice.write_attribute(
self.NumToLabel[value],
True) #.computedAttenuation = 1.0/(value/100.0)
#try:
#self.Attenuatordevice.write_attribute(value, True) #.computedAttenuation = 1.0/(value/100.0)
#except:
#logging.getLogger("HWR").error('%s: received value on channel is not valid', str(self.name()))
#value=None
return value
def toggle(self, value):
print "Toggle value = %s" % value
logging.getLogger().debug("HOS Attenuator: passe dans toggle")
self.Attenuatordevice.write_attribute(value, True)
# old_value = self.Attenuatordevice.filtersCombination
# try:
# self.Attenuatordevice.filtersCombination = old_value "sys/database/dbds1")+ (2**(value-1))
# except:
# logging.getLogger("HWR").error('%s: the filter doesn\'t exist', str(self.name()))
# value=None
return value
def errorDeviceInstance(self, device):
#db = SimpleDevice("sys/database/dbds1")
db = DeviceProxy("sys/database/dbds1")
logging.getLogger().error("Check Instance of Device server %s" %
db.DbGetDeviceInfo(device)[1][3])
self.sDisconnected()
class EnergyScanPX1(Equipment):
MANDATORY_HO={"BLEnergy":"BLEnergy"}
def init(self):
self.scanning = None
# self.moving = None
self.scanThread = None
self.pk = None
self.ip = None
self.roiwidth = 0.35 # en keV largeur de la roi
self.before = 0.10 # en keV Ecart par rapport au seuil pour le point de depart du scan
self.after = 0.20 # en keV Ecart par rapport au seuil pour le dernier point du scan
self.canScan = True
self.nbsteps = 100 #
self.integrationtime = 5.0
self.directoryPrefix = None
self.directoryPrefix=self.getProperty("directoryprefix")
if self.directoryPrefix is None:
logging.getLogger("HWR").error("EnergyScan: you must specify the directory prefix property")
else :
logging.getLogger("HWR").info("EnergyScan: directoryPrefix : %s" %(self.directoryPrefix))
# Load mandatory hardware objects
# for ho in EnergyScan.MANDATORY_HO:
# desc=EnergyScan.MANDATORY_HO[ho]
# name=self.getProperty(ho)
# if name is None:
# logging.getLogger("HWR").error('EnergyScan: you must specify the %s hardware object' % desc)
# hobj=None
# self.configOk=False
# else:
# hobj=HardwareRepository.HardwareRepository().getHardwareObject(name)
# if hobj is None:
# logging.getLogger("HWR").error('EnergyScan: invalid %s hardware object' % desc)
# self.configOk=False
# exec("self.%sHO=hobj" % ho)
#
# print "BLEnergyHO : ", self.BLEnergyHO
paramscan = self["scan"]
self.roiwidth = paramscan.roiwidth
self.before = paramscan.before
self.after = paramscan.after
self.nbsteps = paramscan.nbsteps
self.integrationTime = paramscan.integrationtime
print("self.roiwidth :", self.roiwidth)
print("self.before :", self.before)
print("self.after :", self.after)
print("self.nbsteps :", self.nbsteps)
print("self.integrationtime :", self.integrationtime)
self.dbConnection=self.getObjectByRole("dbserver")
if self.dbConnection is None:
logging.getLogger("HWR").warning('EnergyScan: you should specify the database hardware object')
self.scanInfo=None
if self.isSpecConnected():
self.sConnected()
def connectTangoDevices(self):
try :
self.BLEnergydevice = DeviceProxy(self.getProperty("blenergy")) #, verbose=False)
self.BLEnergydevice.waitMoves = True
self.BLEnergydevice.timeout = 30000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("blenergy")))
self.canScan = False
# Connect to device mono defined "tangoname2" in the xml file
# used for conversion in wavelength
try :
self.monodevice = DeviceProxy(self.getProperty("mono")) #, verbose=False)
self.monodevice.waitMoves = True
self.monodevice.timeout = 6000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("mono")))
self.canScan = False
#mono_mt_rx
try :
self.mono_mt_rx_device = DeviceProxy(self.getProperty("mono_mt_rx")) #, verbose=False)
#self.monodevice.waitMoves = True
self.mono_mt_rx_device.timeout = 6000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("mono_mt_rx")))
self.canScan = False
# Nom du device bivu (Energy to gap) : necessaire pour amelioration du positionnement de l'onduleur (Backlash)
try :
self.U20Energydevice = DeviceProxy(self.getProperty("U24Energy")) #, movingState="MOVING")
self.U20Energydevice.timeout = 30000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("U24Energy")))
self.canScan = False
try :
self.fluodetdevice = DeviceProxy(self.getProperty("ketek")) #, verbose=False)
self.fluodetdevice.timeout = 1000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("ketek")))
self.canScan = False
try :
self.counterdevice = DeviceProxy(self.getProperty("counter")) #, verbose=False)
self.counterdevice.timeout = 1000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("counter")))
self.canScan = False
try :
self.xbpmdevice = DeviceProxy(self.getProperty("xbpm")) #, verbose=False)
self.xbpmdevice.timeout = 30000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("xbpm")))
self.canScan = False
try :
self.attdevice = DeviceProxy(self.getProperty("attenuator")) #, verbose=False)
self.attdevice.timeout = 6000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("attenuator")))
self.canScan = False
# try :
# self.md2device = DeviceProxy(self.getProperty("md2")) #, verbose=False)
# self.md2device.timeout = 2000
# except :
# logging.getLogger("HWR").error("%s not found" %(self.getProperty("md2")))
# self.canScan = False
try:
self.lightdevice = DeviceProxy(self.getProperty("lightextract")) #, verbose=False)
self.lightdevice.timeout = 2000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("lightextract")))
self.canScan = False
try:
self.bstdevice = DeviceProxy(self.getProperty("bst")) #, verbose=False)
self.bstdevice.timeout = 2000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("bst")))
self.canScan = False
try:
self.ketekinsertdevice = DeviceProxy(self.getProperty("ketekinsert")) #, verbose=False)
self.ketekinsertdevice.timeout = 2000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("ketekinsert")))
self.canScan = False
try:
self.fastshutterdevice = DeviceProxy(self.getProperty("fastshutter")) #, verbose=False)
self.fastshutterdevice.timeout = 2000
except :
logging.getLogger("HWR").error("%s not found" %(self.getProperty("fastshutter")))
self.canScan = False
def isConnected(self):
return self.isSpecConnected()
def isSpecConnected(self):
logging.getLogger("HWR").debug('EnergyScan:isSpecConnected')
return True
# Handler for spec connection
def sConnected(self):
logging.getLogger("HWR").debug('EnergyScan:sConnected')
self.emit('connected', ())
self.emit('setDirectory', (self.directoryPrefix,))
# Handler for spec disconnection
def sDisconnected(self):
logging.getLogger("HWR").debug('EnergyScan:sDisconnected')
self.emit('disconnected', ())
# Energy scan commands
def canScanEnergy(self):
logging.getLogger("HWR").debug('EnergyScan:canScanEnergy : %s' %(str(self.canScan)))
return self.canScan
# return self.doEnergyScan is not None
def startEnergyScan(self,
element,
edge,
directory,
prefix,
session_id = None,
blsample_id = None):
logging.getLogger("HWR").debug('EnergyScan:startEnergyScan')
print('edge', edge)
print('element', element)
print('directory', directory)
print('prefix', prefix)
#logging.getLogger("HWR").debug('EnergyScan:edge', edge)
#logging.getLogger("HWR").debug('EnergyScan:element', element)
#logging.getLogger("HWR").debug('EnergyScan:directory', directory)
#logging.getLogger("HWR").debug('EnergyScan:prefix', prefix)
#logging.getLogger("HWR").debug('EnergyScan:edge', edge)
self.scanInfo={"sessionId":session_id,
"blSampleId":blsample_id,
"element":element,
"edgeEnergy":edge}
# if self.fluodetectorHO is not None:
# self.scanInfo['fluorescenceDetector']=self.fluodetectorHO.userName()
if not os.path.isdir(directory):
logging.getLogger("HWR").debug("EnergyScan: creating directory %s" % directory)
try:
os.makedirs(directory)
except OSError as diag:
logging.getLogger("HWR").error("EnergyScan: error creating directory %s (%s)" % (directory,str(diag)))
self.emit('scanStatusChanged', ("Error creating directory",))
return False
self.doEnergyScan(element, edge, directory, prefix)
return True
def cancelEnergyScan(self):
logging.getLogger("HWR").debug('EnergyScan:cancelEnergyScan')
if self.scanning:
self.scanning = False
def scanCommandReady(self):
logging.getLogger("HWR").debug('EnergyScan:scanCommandReady')
if not self.scanning:
self.emit('energyScanReady', (True,))
def scanCommandNotReady(self):
logging.getLogger("HWR").debug('EnergyScan:scanCommandNotReady')
if not self.scanning:
self.emit('energyScanReady', (False,))
def scanCommandStarted(self):
logging.getLogger("HWR").debug('EnergyScan:scanCommandStarted')
self.scanInfo['startTime']=time.strftime("%Y-%m-%d %H:%M:%S")
self.scanning = True
self.emit('energyScanStarted', ())
def scanCommandFailed(self):
logging.getLogger("HWR").debug('EnergyScan:scanCommandFailed')
self.scanInfo['endTime']=time.strftime("%Y-%m-%d %H:%M:%S")
self.scanning = False
self.storeEnergyScan()
self.emit('energyScanFailed', ())
def scanCommandAborted(self):
logging.getLogger("HWR").debug('EnergyScan:scanCommandAborted')
def scanCommandFinished(self,result):
logging.getLogger("HWR").debug("EnergyScan: energy scan result is %s" % result)
self.scanInfo['endTime']=time.strftime("%Y-%m-%d %H:%M:%S")
self.scanning = False
if result==-1:
self.storeEnergyScan()
self.emit('scanStatusChanged', ("Scan aborted",))
self.emit('energyScanFailed', ())
return
self.storeEnergyScan()
self.emit('energyScanFinished', (self.scanInfo,))
self.scanInfo=None
def doChooch(self, scanObject, scanDesc):
#elt,
#edge):
#scanArchiveFilePrefix = 'scanArchiveFilePrefix',
#scanFilePrefix = 'scanFilePrefix'):
logging.getLogger().info("EnergyScan: doChooch")
print('scanObject', scanObject)
print('scanDesc', scanDesc)
#archiveRawScanFile=os.path.extsep.join((scanArchiveFilePrefix, "raw"))
#rawScanFile=os.path.extsep.join((scanFilePrefix, "raw"))
#scanFile=os.path.extsep.join((scanFilePrefix, "efs"))
#if not os.path.exists(os.path.dirname(scanArchiveFilePrefix)):
#os.mkdir(os.path.dirname(scanArchiveFilePrefix))
#try:
#f=open(rawScanFile, "w")
#pyarch_f=open(archiveRawScanFile, "w")
#except:
#logging.getLogger("HWR").exception("could not create raw scan files")
#self.storeEnergyScan()
#self.emit("energyScanFailed", ())
#return
#else:
#scanData = []
#for i in range(len(scanObject.x)):
#x = float(scanObject.x[i])
#x = x < 1000 and x*1000.0 or x
#y = float(scanObject.y[i])
#scanData.append((x, y))
#f.write("%f,%f\r\n" % (x, y))
#pyarch_f.write("%f,%f\r\n"% (x, y))
#f.close()
#pyarch_f.close()
#self.scanInfo["scanFileFullPath"]=str(archiveRawScanFile)
filenameIn = self.filenameIn
filenameOut = filenameIn[:-3] + 'efs'
scanData = []
contents = file(filenameIn).readlines()
file(filenameIn).close()
for value in contents:
if value[0] != '#' :
vals = value.split()
x = float(vals[0])
x = x < 1000 and x*1000.0 or x #This is rather cryptic but seems to work (MS 11.03.13)
y = float(vals[1])
#if y == 0.0:
#self.scanCommandFailed()
#self.scanStatus.setText("data not valid for chooch")
#print "data not valid for chooch"
#return
scanData.append((x, y))
elt = scanDesc['element']
edge = scanDesc['edgeEnergy']
try:
pk, fppPeak, fpPeak, ip, fppInfl, fpInfl, chooch_graph_data = PyChooch.calc(scanData,
elt,
edge,
filenameOut)
except:
pk = self.thEdge
rm = (pk + 50.) / 1000.0
savpk = pk
ip = pk - 5. / 1000.0
logging.getLogger("HWR").info("Chooch failed badly")
#, fppPeak, fpPeak, ip, fppInfl, fpInfl, chooch_graph_data = self.thEdge,
rm = (pk + 50.) / 1000.0
pk = pk / 1000.0
savpk = pk
ip = ip / 1000.0
comm = ""
logging.getLogger("HWR").info("th. Edge %s ; chooch results are pk=%f, ip=%f, rm=%f" % (self.thEdge, pk, ip, rm))
if math.fabs(self.thEdge - ip) > 0.01:
pk = 0
ip = 0
rm = self.thEdge + 0.05
comm = 'Calculated peak (%f) is more that 10eV away from the theoretical value (%f). Please check your scan' % (savpk, self.thEdge)
logging.getLogger("HWR").warning('EnergyScan: calculated peak (%f) is more that 10eV %s the theoretical value (%f). Please check your scan and choose the energies manually' % (savpk, (self.thEdge - ip) > 0.01 and "below" or "above", self.thEdge))
scanFile = filenameIn
archiveEfsFile = filenameOut #os.path.extsep.join((scanArchiveFilePrefix, "efs"))
try:
fi = open(scanFile)
fo = open(archiveEfsFile, "w")
except:
self.storeEnergyScan()
self.emit("energyScanFailed", ())
return
else:
fo.write(fi.read())
fi.close()
fo.close()
self.scanInfo["peakEnergy"]=pk
self.scanInfo["inflectionEnergy"]=ip
self.scanInfo["remoteEnergy"]=rm
self.scanInfo["peakFPrime"]=fpPeak
self.scanInfo["peakFDoublePrime"]=fppPeak
self.scanInfo["inflectionFPrime"]=fpInfl
self.scanInfo["inflectionFDoublePrime"]=fppInfl
self.scanInfo["comments"] = comm
chooch_graph_x, chooch_graph_y1, chooch_graph_y2 = list(zip(*chooch_graph_data))
chooch_graph_x = list(chooch_graph_x)
for i in range(len(chooch_graph_x)):
chooch_graph_x[i]=chooch_graph_x[i]/1000.0
logging.getLogger("HWR").info("<chooch> Saving png" )
# prepare to save png files
title="%10s %6s %6s\n%10s %6.2f %6.2f\n%10s %6.2f %6.2f" % ("energy", "f'", "f''", pk, fpPeak, fppPeak, ip, fpInfl, fppInfl)
fig=Figure(figsize=(15, 11))
ax=fig.add_subplot(211)
ax.set_title("%s\n%s" % (scanFile, title))
ax.grid(True)
ax.plot(*(list(zip(*scanData))), **{"color":'black'})
ax.set_xlabel("Energy")
ax.set_ylabel("MCA counts")
ax2=fig.add_subplot(212)
ax2.grid(True)
ax2.set_xlabel("Energy")
ax2.set_ylabel("")
handles = []
handles.append(ax2.plot(chooch_graph_x, chooch_graph_y1, color='blue'))
handles.append(ax2.plot(chooch_graph_x, chooch_graph_y2, color='red'))
canvas=FigureCanvasAgg(fig)
escan_png = filenameOut[:-3] + 'png' #.replace('.esf', '.png') #os.path.extsep.join((scanFilePrefix, "png"))
escan_archivepng = filenameOut[:-4] + '_archive.png' #os.path.extsep.join((scanArchiveFilePrefix, "png"))
self.scanInfo["jpegChoochFileFullPath"]=str(escan_archivepng)
try:
logging.getLogger("HWR").info("Rendering energy scan and Chooch graphs to PNG file : %s", escan_png)
canvas.print_figure(escan_png, dpi=80)
except:
logging.getLogger("HWR").exception("could not print figure")
try:
logging.getLogger("HWR").info("Saving energy scan to archive directory for ISPyB : %s", escan_archivepng)
canvas.print_figure(escan_archivepng, dpi=80)
except:
logging.getLogger("HWR").exception("could not save figure")
self.storeEnergyScan()
self.scanInfo=None
logging.getLogger("HWR").info("<chooch> returning" )
return pk, fppPeak, fpPeak, ip, fppInfl, fpInfl, rm, chooch_graph_x, chooch_graph_y1, chooch_graph_y2, title
def scanStatusChanged(self,status):
logging.getLogger("HWR").debug('EnergyScan:scanStatusChanged')
self.emit('scanStatusChanged', (status,))
def storeEnergyScan(self):
logging.getLogger("HWR").debug('EnergyScan:storeEnergyScan')
#if self.dbConnection is None:
#return
#try:
#session_id=int(self.scanInfo['sessionId'])
#except:
#return
return
def updateEnergyScan(self, scan_id, jpeg_scan_filename):
logging.getLogger("HWR").debug('EnergyScan:updateEnergyScan')
# Elements commands
def getElements(self):
logging.getLogger("HWR").debug('EnergyScan:getElements')
elements=[]
try:
for el in self["elements"]:
elements.append({"symbol":el.symbol, "energy":el.energy})
except IndexError:
pass
return elements
# Mad energies commands
def getDefaultMadEnergies(self):
logging.getLogger("HWR").debug('EnergyScan:getDefaultMadEnergies')
energies=[]
try:
for el in self["mad"]:
energies.append([float(el.energy), el.directory])
except IndexError:
pass
return energies
def getFilename(self, directory, filename, element, edge):
filenameIn = os.path.join(directory, filename)
filenameIn += "_" + element + "_" + "_".join(edge) + ".dat"
return filenameIn
def doEnergyScan(self, element, edge, directory, filename):
logging.getLogger("HWR").info('EnergyScan: Element:%s Edge:%s' %(element,edge))
e_edge, roi_center = self.getEdgefromXabs(element, edge)
self.thEdge = e_edge
self.element = element
self.edge = edge
print('e_edge = %5.4f , roi_center = %5.4f' %(e_edge, roi_center))
filenameIn = self.getFilename(directory, filename, element, edge) # filenameIn
self.filenameIn = filenameIn
# Demarrage du thread de scan
self.scanCommandStarted()
self.pk = None
self.ip = None
self.scanThread = EnergyScanThread(self,
e_edge,
roi_center,
filenameIn)
self.scanThread.start()
def getEdgefromXabs(self, el, edge):
edge = string.upper(edge)
roi_center = McMaster[el]['edgeEnergies'][edge + '-alpha']
if edge == 'L':
edge = 'L3'
e_edge = McMaster[el]['edgeEnergies'][edge]
return (e_edge, roi_center)
def newPoint(self, x, y):
logging.getLogger("HWR").debug('EnergyScan:newPoint')
print('newPoint', x, y)
self.emit('addNewPoint', (x, y))
def newScan(self,scanParameters):
logging.getLogger("HWR").debug('EnergyScan:newScan')
self.emit('newScan', (scanParameters,))
def startMoveEnergy(self, value): # Copie du code ecrit dans BLEnergy.py pour gestion du backlash onduleur.
# MODIFICATION DE CETTE FONCTION POUR COMPENSER LE PROBLEME D'HYSTERESIS DE L"ONDULEUR
# PAR CETTE METHODE ON APPLIQUE TOUJOURS UN GAP CROISSANT
backlash = 0.1 # en mmte
gaplimite = 5.5 # en mm
self.doBacklashCompensation = False # True #MS 2013-05-21
# self.mono_mt_rx_device.On()
#time.sleep(5)
if (str(self.BLEnergydevice.State()) != "MOVING") :# MS .State -> .State() 06.03.2013
if self.doBacklashCompensation :
try :
# Recuperation de la valeur de gap correspondant a l'energie souhaitee
self.U20Energydevice.autoApplyComputedParameters = False
self.U20Energydevice.energy = value
newgap = self.U20Energydevice.computedGap
actualgap = self.U20Energydevice.gap
self.U20Energydevice.autoApplyComputedParameters = True
# On applique le backlash que si on doit descendre en gap
if newgap < actualgap + backlash:
# Envoi a un gap juste en dessous (backlash)
if newgap-backlash > gaplimite :
self.U20Energydevice.gap = newgap - backlash
else :
self.U20Energydevice.gap = gaplimite
self.U20Energydevice.gap = newgap + backlash
time.sleep(1)
except :
logging.getLogger("HWR").error("%s: Cannot move undulator U20 : State device = %s", self.name(), self.U20Energydevice.State())
try :
# Envoi a l'energie desiree
self.BLEnergydevice.energy = value
except :
logging.getLogger("HWR").error("%s: Cannot move BLEnergy : State device = %s", self.name(), self.BLEnergydevice.State())
else :
statusBLEnergydevice = self.BLEnergydevice.Status()
logging.getLogger("HWR").error("%s: Cannot move : State device = %s", self.name(), self.BLEnergydevice.State())
for i in statusBLEnergydevice.split("\n") :
logging.getLogger().error("\t%s\n" % i)
logging.getLogger().error("\tCheck devices")
# Envoi a l'energie desiree
# self.BLEnergydevice.energy = value
def getChoochValue(self, pk, ip) :
logging.getLogger("HWR").debug('EnergyScan:getChoochValue')
self.pk = pk
self.ip = ip
