def __init__(self,
name_pattern,
directory,
integration_time=5,
transmission=0.5,
insertion_timeout=2,
position=None,
photon_energy=None,
flux=None,
snapshot=False,
zoom=None,
analysis=None,
display=False):
xray_experiment.__init__(self,
name_pattern,
directory,
position=position,
photon_energy=photon_energy,
transmission=transmission,
flux=flux,
snapshot=snapshot,
zoom=zoom,
analysis=analysis)
self.description = 'XRF spectrum, Proxima 2A, SOLEIL, %s' % time.ctime(self.timestamp)
self.detector = fluorescence_detector()
self.fast_shutter = fast_shutter()
self.integration_time = integration_time
self.transmission = transmission
self.insertion_timeout = insertion_timeout
self.display = display
def __init__(
self,
name_pattern,
directory,
element,
edge,
scan_range=150, #eV
scan_speed=1, #eV/s
integration_time=0.25,
total_time=60.,
transmission=0.5,
insertion_timeout=2,
roi_width=250., #eV
default_speed=0.5,
position=None,
photon_energy=None,
flux=None,
display=False,
optimize=True,
snapshot=False,
zoom=None,
diagnostic=True,
analysis=True,
conclusion=None,
simulation=None):
xray_experiment.__init__(self,
name_pattern,
directory,
position=position,
photon_energy=photon_energy,
transmission=transmission,
flux=flux,
snapshot=snapshot,
zoom=zoom,
diagnostic=diagnostic,
analysis=analysis,
conclusion=conclusion,
simulation=simulation)
self.description = 'ESCAN, Proxima 2A, SOLEIL, element %s, edge %s, %s' % (
element, edge, time.ctime(self.timestamp))
self.element = element
self.edge = edge
self.scan_range = scan_range
self.scan_speed = scan_speed
self.integration_time = integration_time
self.total_time = total_time
self.insertion_timeout = insertion_timeout
self.optimize = optimize
self.display = display
self.roi_width = roi_width
self.default_speed = default_speed
self.detector = detector()
self.actuator = monochromator_rx_motor()
self.monitor_names = ['mca'] + self.monitor_names
self.monitors = [self.detector] + self.monitors
def __init__(self,
name_pattern,
directory,
position=None,
photon_energy=None,
resolution=None,
detector_distance=None,
detector_vertical=None,
detector_horizontal=None,
transmission=None,
flux=None,
ntrigger=1,
snapshot=False,
zoom=None,
diagnostic=None,
analysis=None,
conclusion=None,
simulation=None):
xray_experiment.__init__(self,
name_pattern,
directory,
position=position,
photon_energy=photon_energy,
resolution=resolution,
detector_distance=detector_distance,
detector_vertical=detector_vertical,
detector_horizontal=detector_horizontal,
transmission=transmission,
flux=flux,
ntrigger=ntrigger,
snapshot=snapshot,
zoom=zoom,
diagnostic=diagnostic,
analysis=analysis,
conclusion=conclusion,
simulation=simulation)
self.actuator = self.goniometer
# Set resolution: detector_distance takes precedence
# if neither specified, takes currect detector_distance
if self.detector_distance == None and self.resolution == None:
self.detector_distance = self.detector.position.ts.get_position()
if self.detector_distance != None:
self.resolution = self.resolution_motor.get_resolution_from_distance(
self.detector_distance, wavelength=self.wavelength)
elif self.resolution != None:
self.detector_distance = self.resolution_motor.get_distance_from_resolution(
self.resolution, wavelength=self.wavelength)
print 'self.detector_distance calculated from resolution', self.detector_distance
else:
print 'There seem to be a problem with logic for detector distance determination. Please check'
self.parameter_fields = self.parameter_fields.union(
diffraction_experiment.specific_parameter_fields)
def __init__(self,
name_pattern,
directory,
gap=8,
start_energy=5.e3,
end_energy=20.e3,
scan_speed=0.025,
default_speed=0.5,
darkcurrent_time=10.,
optimize=True,
transmission=None,
diagnostic=True,
analysis=None,
conclusion=None,
simulation=None,
display=False,
extract=False):
xray_experiment.__init__(self,
name_pattern,
directory,
transmission=transmission,
diagnostic=diagnostic,
analysis=analysis,
conclusion=conclusion,
simulation=simulation)
self.description = 'Energy scan between %6.1f and %6.1f eV at gap=%5.2f mm, Proxima 2A, SOLEIL, %s' % (
start_energy, end_energy, gap, time.ctime(self.timestamp))
self.gap = gap
self.start_energy = start_energy
self.end_energy = end_energy
self.scan_speed = scan_speed
self.default_speed = default_speed
self.darkcurrent_time = darkcurrent_time
self.optimize = optimize
self.transmission = transmission
self.diagnostic = diagnostic
self.display = display
self.extract = extract
self.calibrated_diode = Si_PIN_diode()
self.monitors_dictionary['calibrated_diode'] = self.calibrated_diode
self.monitor_names += ['calibrated_diode']
self.monitors += [self.calibrated_diode]
self.actuator = self.monochromator_rx_motor
def __init__(self,
name_pattern,
directory,
scan_range=360,
scan_exposure_time=72,
scan_start_angle=0,
angle_per_frame=0.2,
image_nr_start=1,
position=None,
photon_energy=None,
resolution=None,
detector_distance=137,
detector_vertical=19.,
detector_horizontal=21.3,
transmission=None,
flux=None,
ntrigger=1,
snapshot=False,
zoom=None,
analysis=None):
xray_experiment.__init__(self,
name_pattern,
directory,
position=position,
photon_energy=photon_energy,
resolution=resolution,
detector_distance=detector_distance,
detector_vertical=detector_vertical,
detector_horizontal=detector_horizontal,
transmission=transmission,
flux=flux,
ntrigger=ntrigger,
snapshot=snapshot,
zoom=zoom,
analysis=analysis)
# Scan parameters
self.scan_range = float(scan_range)
self.scan_exposure_time = float(scan_exposure_time)
self.scan_start_angle = float(scan_start_angle)
self.angle_per_frame = float(angle_per_frame)
self.image_nr_start = int(image_nr_start)
self.position = self.goniometer.check_position(position)
print 'self.position'
print self.position
self.detector = detector()
self.images = None
self.background = None
def __init__(self,
name_pattern,
directory,
slits=1,
start_position=2.0,
end_position=-2.0,
scan_speed=None,
default_speed=None,
darkcurrent_time=5.,
photon_energy=None,
diagnostic=True,
analysis=None,
conclusion=None,
simulation=None,
display=False,
extract=False):
xray_experiment.__init__(self,
name_pattern,
directory,
photon_energy=photon_energy,
diagnostic=diagnostic,
analysis=analysis,
conclusion=conclusion,
simulation=simulation)
self.description = 'Slits %d scan between %6.1f and %6.1f mm, Proxima 2A, SOLEIL, %s' % (
slits, start_position, end_position, time.ctime(self.timestamp))
self.start_position = start_position
self.end_position = end_position
self.scan_speed = scan_speed
self.default_speed = default_speed
self.darkcurrent_time = darkcurrent_time
self.diagnostic = diagnostic
self.display = display
self.extract = extract
self.calibrated_diode = Si_PIN_diode()
self.monitors_dictionary['calibrated_diode'] = self.calibrated_diode
self.monitor_names += ['calibrated_diode']
self.monitors += [self.calibrated_diode]
self.slits = slits
self.slit_type = self.slit_types[slits]
self.alignment_slits = getattr(self, 'slits%d' % slits)
def __init__(self,
name_pattern,
directory,
start_position=-0.8,
end_position=0.,
default_position=-0.4400,
darkcurrent_time=5.,
photon_energy=None,
diagnostic=True,
analysis=None,
conclusion=None,
simulation=None,
display=False,
extract=False):
xray_experiment.__init__(self,
name_pattern,
directory,
photon_energy=photon_energy,
diagnostic=diagnostic,
analysis=analysis,
conclusion=conclusion,
simulation=simulation)
self.description = 'Monochromator rocking curve. Scan between %6.1f and %6.1f mm, Proxima 2A, SOLEIL, %s' % (start_position, end_position, time.ctime(self.timestamp))
self.start_position = start_position
self.end_position = end_position
self.default_position = default_position
self.darkcurrent_time = darkcurrent_time
self.diagnostic = diagnostic
self.display = display
self.extract = extract
self.calibrated_diode = Si_PIN_diode()
self.monitors_dictionary['calibrated_diode'] = self.calibrated_diode
self.monitor_names += ['calibrated_diode']
self.monitors += [self.calibrated_diode]
self.actuator = monochromator_pitch_motor()
def __init__(self,
name_pattern,
directory,
start,
end,
default_position,
darkcurrent_time=5.,
photon_energy=None,
diagnostic=True,
analysis=None,
conclusion=None,
simulation=None,
display=False,
extract=False):
xray_experiment.__init__(self,
name_pattern,
directory,
photon_energy=photon_energy,
diagnostic=diagnostic,
analysis=analysis,
conclusion=conclusion,
simulation=simulation)