def set_components_to_original_for_isis(move_info, workspace, component):
"""
This function resets the components for ISIS instruments. These are normally HAB, LAB, the monitors and
the sample holder
:param move_info: a StateMove object.
:param workspace: the workspace which is being reset.
:param component: the component which is being reset on the workspace. If this is not specified, then
everything is being reset.
"""
def _reset_detector(_key, _move_info, _component_names):
if _key in _move_info.detectors:
_detector_name = _move_info.detectors[_key].detector_name
if _detector_name:
_component_names.append(_detector_name)
# We reset the HAB, the LAB, the sample holder and monitor 4
if not component:
component_names = list(move_info.monitor_names.values())
hab_key = DetectorType.to_string(DetectorType.HAB)
_reset_detector(hab_key, move_info, component_names)
lab_key = DetectorType.to_string(DetectorType.LAB)
_reset_detector(lab_key, move_info, component_names)
component_names.append("some-sample-holder")
else:
component_names = [component]
# We also want to check the sample holder
set_selected_components_to_original_position(workspace, component_names)
def set_spectrum_range_on_detector(self, spectrum_range_start, spectrum_range_stop):
"""
An unusual setter in the state framework. We cannot just call an automatic setter, since we have to decide
on which detector the spectrum range lives.
:param spectrum_range_start: a list of start spectra which we need to set on the right detector
:param spectrum_range_stop: a list of stop spectra which we need to set on the right detector
"""
instrument = self._data.instrument
for start, stop in zip(spectrum_range_start, spectrum_range_stop):
detector_bank_start = get_bank_for_spectrum_number(start, instrument)
detector_bank_stop = get_bank_for_spectrum_number(stop, instrument)
if detector_bank_start != detector_bank_stop:
raise ValueError("The specified spectrum mask range S{0}{1} has spectra on more than one detector. "
"Make sure that all spectra in the range are on a single detector".format(start, stop))
else:
detector_mask_state = self.state.detectors[DetectorType.to_string(detector_bank_start)]
spec_range_start = detector_mask_state.spectrum_range_start
spec_range_stop = detector_mask_state.spectrum_range_stop
# Set the start spectrum range
if spec_range_start is not None:
spec_range_start.append(start)
else:
self.state.detectors[DetectorType.to_string(detector_bank_start)].spectrum_range_start = [start]
# Set the stop spectrum range
if spec_range_stop is not None:
spec_range_stop.append(stop)
else:
self.state.detectors[DetectorType.to_string(detector_bank_start)].spectrum_range_stop = [stop]
def PyInit(self):
# ----------
# INPUT
# ----------
# Workspace which is to be cropped
self.declareProperty(PropertyManagerProperty('SANSState'),
doc='A property manager which fulfills the SANSState contract.')
self.declareProperty(MatrixWorkspaceProperty("SampleScatterWorkspace", '',
optional=PropertyMode.Mandatory, direction=Direction.Input),
doc='The sample scatter data')
self.declareProperty(MatrixWorkspaceProperty('SampleScatterMonitorWorkspace', '',
optional=PropertyMode.Mandatory, direction=Direction.Input),
doc='The scatter monitor workspace. This workspace only condtains monitors.')
self.declareProperty("Centre1", 0.0, direction=Direction.InOut)
self.declareProperty("Centre2", 0.0, direction=Direction.InOut)
self.declareProperty("RMin", 0.06, direction=Direction.Input)
self.declareProperty('Tolerance', 0.0001251, direction=Direction.Input)
self.declareProperty('Iterations', 10, direction=Direction.Input)
allowed_detectors = StringListValidator([DetectorType.to_string(DetectorType.LAB),
DetectorType.to_string(DetectorType.HAB)])
self.declareProperty("Component", DetectorType.to_string(DetectorType.LAB),
validator=allowed_detectors, direction=Direction.Input,
doc="The component of the instrument which is to be reduced.")
def test_that_converter_methods_work(self):
# Arrange
state = StateReductionMode()
state.reduction_mode = ISISReductionMode.Merged
state.dimensionality = ReductionDimensionality.TwoDim
state.merge_shift = 12.65
state.merge_scale = 34.6
state.merge_fit_mode = FitModeForMerge.ShiftOnly
state.detector_names[DetectorType.to_string(DetectorType.LAB)] = "Test1"
state.detector_names[DetectorType.to_string(DetectorType.HAB)] = "Test2"
# Assert
merge_strategy = state.get_merge_strategy()
self.assertTrue(merge_strategy[0] is ISISReductionMode.LAB)
self.assertTrue(merge_strategy[1] is ISISReductionMode.HAB)
all_reductions = state.get_all_reduction_modes()
self.assertTrue(len(all_reductions) == 2)
self.assertTrue(all_reductions[0] is ISISReductionMode.LAB)
self.assertTrue(all_reductions[1] is ISISReductionMode.HAB)
result_lab = state.get_detector_name_for_reduction_mode(ISISReductionMode.LAB)
self.assertTrue(result_lab == "Test1")
result_hab = state.get_detector_name_for_reduction_mode(ISISReductionMode.HAB)
self.assertTrue(result_hab == "Test2")
self.assertRaises(RuntimeError, state.get_detector_name_for_reduction_mode, "non_sense")
def test_that_wavelength_and_pixel_adjustment_state_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
file_information = SANSFileInformationMock(instrument=SANSInstrument.LOQ, run_number=74044)
data_builder = get_data_builder(facility, file_information)
data_builder.set_sample_scatter("LOQ74044")
data_info = data_builder.build()
# Act
builder = get_wavelength_and_pixel_adjustment_builder(data_info)
self.assertTrue(builder)
builder.set_HAB_pixel_adjustment_file("test")
builder.set_HAB_wavelength_adjustment_file("test2")
builder.set_wavelength_low([1.5])
builder.set_wavelength_high([2.7])
builder.set_wavelength_step(0.5)
builder.set_wavelength_step_type(RangeStepType.Lin)
state = builder.build()
# Assert
self.assertTrue(state.adjustment_files[DetectorType.to_string(
DetectorType.HAB)].pixel_adjustment_file == "test")
self.assertTrue(state.adjustment_files[DetectorType.to_string(
DetectorType.HAB)].wavelength_adjustment_file == "test2")
self.assertTrue(state.wavelength_low == [1.5])
self.assertTrue(state.wavelength_high == [2.7])
self.assertTrue(state.wavelength_step == 0.5)
self.assertTrue(state.wavelength_step_type is RangeStepType.Lin)
def test_that_state_for_loq_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
file_information = SANSFileInformationMock(
instrument=SANSInstrument.LOQ, run_number=74044)
data_builder = get_data_builder(facility, file_information)
data_builder.set_sample_scatter("LOQ74044")
data_builder.set_sample_scatter_period(3)
data_info = data_builder.build()
# Act
builder = get_move_builder(data_info)
self.assertTrue(builder)
value = 324.2
builder.set_center_position(value)
builder.set_HAB_x_translation_correction(value)
builder.set_LAB_sample_centre_pos1(value)
# Assert
state = builder.build()
self.assertEqual(state.center_position, value)
self.assertEqual(
state.detectors[DetectorType.to_string(
DetectorType.HAB)].x_translation_correction, value)
self.assertEqual(
state.detectors[DetectorType.to_string(
DetectorType.HAB)].detector_name_short, "HAB")
self.assertEqual(
state.detectors[DetectorType.to_string(
DetectorType.LAB)].detector_name, "main-detector-bank")
self.assertEqual(state.monitor_names[str(2)], "monitor2")
self.assertEqual(len(state.monitor_names), 2)
self.assertEqual(
state.detectors[DetectorType.to_string(
DetectorType.LAB)].sample_centre_pos1, value)
def __init__(self):
super(StateMoveSANS2D, self).__init__()
# Set the descriptors which corresponds to information which we gain through the IPF
self.hab_detector_radius = 306.0 / 1000.
self.hab_detector_default_sd_m = 4.0
self.hab_detector_default_x_m = 1.1
self.lab_detector_default_sd_m = 4.0
# The actual values are found on the workspace and should be used from there. This is only a fall back.
self.hab_detector_x = 0.0
self.hab_detector_z = 0.0
self.hab_detector_rotation = 0.0
self.lab_detector_x = 0.0
self.lab_detector_z = 0.0
# Set the monitor names
self.monitor_names = {}
self.monitor_n_offset = 0.0
# Setup the detectors
self.detectors = {
DetectorType.to_string(DetectorType.LAB): StateMoveDetector(),
DetectorType.to_string(DetectorType.HAB): StateMoveDetector()
}
def PyInit(self):
# State
self.declareProperty(
PropertyManagerProperty('SANSState'),
doc='A property manager which fulfills the SANSState contract.')
# Workspace which is to be masked
self.declareProperty(
MatrixWorkspaceProperty("Workspace",
'',
optional=PropertyMode.Mandatory,
direction=Direction.InOut),
doc=
'The sample scatter workspace. This workspace does not contain monitors.'
)
# The component, i.e. HAB or LAB
allowed_detectors = StringListValidator([
DetectorType.to_string(DetectorType.LAB),
DetectorType.to_string(DetectorType.HAB)
])
self.declareProperty(
"Component",
DetectorType.to_string(DetectorType.LAB),
validator=allowed_detectors,
direction=Direction.Input,
doc="The component of the instrument which is to be masked.")
def run_integral(integral_ranges, mask, integral, detector, state):
ranges = parse_range(integral_ranges)
input_workspaces = load_workspace(state)
is_multi_range = len(ranges) > 1
output_workspaces = []
for input_workspace in input_workspaces:
input_workspace_name = input_workspace.name()
if is_multi_range:
AnalysisDataService.remove(input_workspace_name + '_ranges')
input_workspace = crop_workspace(DetectorType.to_string(detector),
input_workspace)
if mask:
input_workspace = apply_mask(state, input_workspace,
DetectorType.to_string(detector))
x_dim, y_dim = get_detector_size_from_sans_file(state, detector)
output_workspace = integrate_ranges(ranges, integral, mask, detector,
input_workspace_name,
input_workspace, x_dim, y_dim,
is_multi_range)
plot_graph(output_workspace)
output_workspaces.append(output_workspace)
return output_workspaces
def do_move_initial(self, move_info, workspace, coordinates, component, is_transmission_workspace):
# For LOQ we only have two coordinates
assert len(coordinates) == 2
if not is_transmission_workspace:
# First move the sample holder
move_sample_holder(workspace, move_info.sample_offset, move_info.sample_offset_direction)
x = coordinates[0]
y = coordinates[1]
center_position = move_info.center_position
x_shift = center_position - x
y_shift = center_position - y
detectors = [DetectorType.to_string(DetectorType.LAB), DetectorType.to_string(DetectorType.HAB)]
for detector in detectors:
# Get the detector name
component_name = move_info.detectors[detector].detector_name
# Shift the detector by the the input amount
offset = {CanonicalCoordinates.X: x_shift,
CanonicalCoordinates.Y: y_shift}
move_component(workspace, offset, component_name)
# Shift the detector according to the corrections of the detector under investigation
offset_from_corrections = {CanonicalCoordinates.X: move_info.detectors[detector].x_translation_correction,
CanonicalCoordinates.Y: move_info.detectors[detector].y_translation_correction,
CanonicalCoordinates.Z: move_info.detectors[detector].z_translation_correction}
move_component(workspace, offset_from_corrections, component_name)
def test_that_wavelength_and_pixel_adjustment_state_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
data_builder = get_data_builder(facility)
data_builder.set_sample_scatter("LOQ74044")
data_info = data_builder.build()
# Act
builder = get_wavelength_and_pixel_adjustment_builder(data_info)
self.assertTrue(builder)
builder.set_HAB_pixel_adjustment_file("test")
builder.set_HAB_wavelength_adjustment_file("test2")
builder.set_wavelength_low(1.5)
builder.set_wavelength_high(2.7)
builder.set_wavelength_step(0.5)
builder.set_wavelength_step_type(RangeStepType.Lin)
state = builder.build()
# Assert
self.assertTrue(state.adjustment_files[DetectorType.to_string(
DetectorType.HAB)].pixel_adjustment_file == "test")
self.assertTrue(state.adjustment_files[DetectorType.to_string(
DetectorType.HAB)].wavelength_adjustment_file == "test2")
self.assertTrue(state.wavelength_low == 1.5)
self.assertTrue(state.wavelength_high == 2.7)
self.assertTrue(state.wavelength_step == 0.5)
self.assertTrue(state.wavelength_step_type is RangeStepType.Lin)
def _run_test(state, sample_data, sample_monitor_data, transmission_data, direct_data, is_lab=True, is_sample=True):
adjustment_name = "SANSCreateAdjustmentWorkspaces"
adjustment_options = {"SANSState": state,
"SampleData": sample_data,
"MonitorWorkspace": sample_monitor_data,
"TransmissionWorkspace": transmission_data,
"DirectWorkspace": direct_data,
"OutputWorkspaceWavelengthAdjustment": EMPTY_NAME,
"OutputWorkspacePixelAdjustment": EMPTY_NAME,
"OutputWorkspaceWavelengthAndPixelAdjustment": EMPTY_NAME}
if is_sample:
adjustment_options.update({"DataType": DataType.to_string(DataType.Sample)})
else:
adjustment_options.update({"DataType": DataType.to_string(DataType.Can)})
if is_lab:
adjustment_options.update({"Component": DetectorType.to_string(DetectorType.LAB)})
else:
adjustment_options.update({"Component": DetectorType.to_string(DetectorType.HAB)})
adjustment_alg = create_unmanaged_algorithm(adjustment_name, **adjustment_options)
adjustment_alg.execute()
wavelength_adjustment = adjustment_alg.getProperty("OutputWorkspaceWavelengthAdjustment").value
pixel_adjustment = adjustment_alg.getProperty("OutputWorkspacePixelAdjustment").value
wavelength_and_pixel_adjustment = adjustment_alg.getProperty(
"OutputWorkspaceWavelengthAndPixelAdjustment").value
calculated_transmission = adjustment_alg.getProperty("CalculatedTransmissionWorkspace").value
unfitted_transmission = adjustment_alg.getProperty("UnfittedTransmissionWorkspace").value
return wavelength_adjustment, pixel_adjustment, wavelength_and_pixel_adjustment,\
calculated_transmission, unfitted_transmission
def _get_mask_state(general_entries, detector_entries):
state = StateMask()
# Setup the general mask settings
mask_settings = {"radius_min": 12., "radius_max": 17.,
"bin_mask_general_start": [1., 2., 3.], "bin_mask_general_stop": [2., 3., 4.],
"mask_files": None,
"phi_min": 0.5, "phi_max": 1., "use_mask_phi_mirror": True,
"beam_stop_arm_width": 1., "beam_stop_arm_angle": 24.5, "beam_stop_arm_pos1": 12.,
"beam_stop_arm_pos2": 34.,
"clear": False, "clear_time": False, "single_spectra": [1, 4, 6],
"spectrum_range_start": [1, 5, 7], "spectrum_range_stop": [2, 6, 8],
"idf_path": ""}
for key, value in mask_settings.items():
if key in general_entries:
value = general_entries[key]
if value is not None: # If the value is None, then don't set it
setattr(state, key, value)
# Now setup the detector-specific settings
detector_settings = {"single_vertical_strip_mask": [1, 2, 4], "range_vertical_strip_start": [1, 2, 4],
"range_vertical_strip_stop": [2, 3, 5], "single_horizontal_strip_mask": [1, 2, 4],
"range_horizontal_strip_start": [1, 2, 4], "range_horizontal_strip_stop": [2, 3, 5],
"block_horizontal_start": [1, 2, 4], "block_horizontal_stop": [2, 3, 5],
"block_vertical_start": [1, 2, 4], "block_vertical_stop": [2, 3, 5],
"block_cross_horizontal": [1, 2, 4], "block_cross_vertical": [2, 3, 5],
"bin_mask_start": [1., 2., 4.], "bin_mask_stop": [2., 3., 5.],
"detector_name": "name", "detector_name_short": "name_short"}
StateMaskTest._set_detector(state, detector_settings, detector_entries,
DetectorType.to_string(DetectorType.LAB))
StateMaskTest._set_detector(state, detector_settings, detector_entries,
DetectorType.to_string(DetectorType.HAB))
return state
def run_integral(integral_ranges, mask, integral, detector, state):
ranges = parse_range(integral_ranges)
input_workspaces = load_workspace(state)
is_multi_range = len (ranges) > 1
output_workspaces = []
for input_workspace in input_workspaces:
input_workspace_name = input_workspace.name()
if is_multi_range:
AnalysisDataService.remove(input_workspace_name + '_ranges')
input_workspace = crop_workspace(DetectorType.to_string(detector), input_workspace)
if mask:
input_workspace = apply_mask(state, input_workspace, DetectorType.to_string(detector))
x_dim, y_dim = get_detector_size_from_sans_file(state, detector)
output_workspace = integrate_ranges(ranges, integral, mask, detector, input_workspace_name, input_workspace, x_dim, y_dim,
is_multi_range)
plot_graph(output_workspace)
output_workspaces.append(output_workspace)
return output_workspaces
def _run_test(state, sample_data, sample_monitor_data, transmission_data, direct_data, is_lab=True, is_sample=True):
adjustment_name = "SANSCreateAdjustmentWorkspaces"
adjustment_options = {"SANSState": state,
"SampleData": sample_data,
"MonitorWorkspace": sample_monitor_data,
"TransmissionWorkspace": transmission_data,
"DirectWorkspace": direct_data,
"OutputWorkspaceWavelengthAdjustment": EMPTY_NAME,
"OutputWorkspacePixelAdjustment": EMPTY_NAME,
"OutputWorkspaceWavelengthAndPixelAdjustment": EMPTY_NAME}
if is_sample:
adjustment_options.update({"DataType": DataType.to_string(DataType.Sample)})
else:
adjustment_options.update({"DataType": DataType.to_string(DataType.Can)})
if is_lab:
adjustment_options.update({"Component": DetectorType.to_string(DetectorType.LAB)})
else:
adjustment_options.update({"Component": DetectorType.to_string(DetectorType.HAB)})
adjustment_alg = create_unmanaged_algorithm(adjustment_name, **adjustment_options)
adjustment_alg.execute()
wavelength_adjustment = adjustment_alg.getProperty("OutputWorkspaceWavelengthAdjustment").value
pixel_adjustment = adjustment_alg.getProperty("OutputWorkspacePixelAdjustment").value
wavelength_and_pixel_adjustment = adjustment_alg.getProperty(
"OutputWorkspaceWavelengthAndPixelAdjustment").value
calculated_transmission = adjustment_alg.getProperty("CalculatedTransmissionWorkspace").value
unfitted_transmission = adjustment_alg.getProperty("UnfittedTransmissionWorkspace").value
return wavelength_adjustment, pixel_adjustment, wavelength_and_pixel_adjustment,\
calculated_transmission, unfitted_transmission
def __init__(self):
super(StateMaskLOQ, self).__init__()
# Setup the detectors
self.detectors = {
DetectorType.to_string(DetectorType.LAB): StateMaskDetector(),
DetectorType.to_string(DetectorType.HAB): StateMaskDetector()
}
def test_that_wavelength_and_pixel_adjustment_state_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
data_builder = get_data_builder(facility)
data_builder.set_sample_scatter("LOQ74044")
data_info = data_builder.build()
# Act
builder = get_wavelength_and_pixel_adjustment_builder(data_info)
self.assertTrue(builder)
builder.set_HAB_pixel_adjustment_file("test")
builder.set_HAB_wavelength_adjustment_file("test2")
builder.set_wavelength_low(1.5)
builder.set_wavelength_high(2.7)
builder.set_wavelength_step(0.5)
builder.set_wavelength_step_type(RangeStepType.Lin)
state = builder.build()
# Assert
self.assertTrue(state.adjustment_files[DetectorType.to_string(
DetectorType.HAB)].pixel_adjustment_file == "test")
self.assertTrue(state.adjustment_files[DetectorType.to_string(
DetectorType.HAB)].wavelength_adjustment_file == "test2")
self.assertTrue(state.wavelength_low == 1.5)
self.assertTrue(state.wavelength_high == 2.7)
self.assertTrue(state.wavelength_step == 0.5)
self.assertTrue(state.wavelength_step_type is RangeStepType.Lin)
def PyInit(self):
# State
self.declareProperty(PropertyManagerProperty('SANSState'),
doc='A property manager which fulfills the SANSState contract.')
# Input workspaces
workspace_validator = CompositeValidator()
workspace_validator.add(WorkspaceUnitValidator("Wavelength"))
self.declareProperty(MatrixWorkspaceProperty("TransmissionWorkspace", '',
optional=PropertyMode.Optional, direction=Direction.Input,
validator=workspace_validator),
doc='The calculated transmission workspace in wavelength units.')
self.declareProperty(MatrixWorkspaceProperty("NormalizeToMonitorWorkspace", '',
optional=PropertyMode.Mandatory, direction=Direction.Input,
validator=workspace_validator),
doc='The monitor normalization workspace in wavelength units.')
allowed_detector_types = StringListValidator([DetectorType.to_string(DetectorType.HAB),
DetectorType.to_string(DetectorType.LAB)])
self.declareProperty("Component", DetectorType.to_string(DetectorType.LAB),
validator=allowed_detector_types, direction=Direction.Input,
doc="The component of the instrument which is currently being investigated.")
# Output workspace
self.declareProperty(MatrixWorkspaceProperty("OutputWorkspaceWavelengthAdjustment", '',
direction=Direction.Output),
doc='A wavelength adjustment output workspace.')
self.declareProperty(MatrixWorkspaceProperty("OutputWorkspacePixelAdjustment", '',
direction=Direction.Output),
doc='A pixel adjustment output workspace.')
def do_move_initial(self, move_info, workspace, coordinates, component, is_transmission_workspace):
_is_transmission_workspace = is_transmission_workspace # noqa
# For LARMOR we only have to coordinates
assert len(coordinates) == 2
# Move the sample holder
move_sample_holder(workspace, move_info.sample_offset, move_info.sample_offset_direction)
# Shift the low-angle bank detector in the y direction
y_shift = -coordinates[1]
coordinates_for_only_y = [0.0, y_shift]
apply_standard_displacement(move_info, workspace, coordinates_for_only_y,
DetectorType.to_string(DetectorType.LAB))
# Shift the low-angle bank detector in the x direction
angle = coordinates[0]
bench_rot_tag = "Bench_Rot"
log_names = [bench_rot_tag]
log_types = [float]
log_values = get_single_valued_logs_from_workspace(workspace, log_names, log_types)
bench_rotation = move_info.bench_rotation \
if log_values[bench_rot_tag] is None else log_values[bench_rot_tag]
self._rotate_around_y_axis(move_info, workspace, angle,
DetectorType.to_string(DetectorType.LAB), bench_rotation)
def test_that_state_for_loq_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
data_builder = get_data_builder(facility)
data_builder.set_sample_scatter("LOQ74044")
data_builder.set_sample_scatter_period(3)
data_info = data_builder.build()
# Act
builder = get_move_builder(data_info)
self.assertTrue(builder)
value = 324.2
builder.set_center_position(value)
builder.set_HAB_x_translation_correction(value)
builder.set_LAB_sample_centre_pos1(value)
# Assert
state = builder.build()
self.assertTrue(state.center_position == value)
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.HAB)].x_translation_correction == value)
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.HAB)].detector_name_short == "HAB")
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.LAB)].detector_name == "main-detector-bank")
self.assertTrue(state.monitor_names[str(2)] == "monitor2")
self.assertTrue(len(state.monitor_names) == 2)
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.LAB)].sample_centre_pos1 == value)
def set_components_to_original_for_isis(move_info, workspace, component):
"""
This function resets the components for ISIS instruments. These are normally HAB, LAB, the monitors and
the sample holder
:param move_info: a StateMove object.
:param workspace: the workspace which is being reset.
:param component: the component which is being reset on the workspace. If this is not specified, then
everything is being reset.
"""
def _reset_detector(_key, _move_info, _component_names):
if _key in _move_info.detectors:
_detector_name = _move_info.detectors[_key].detector_name
if _detector_name:
_component_names.append(_detector_name)
# We reset the HAB, the LAB, the sample holder and monitor 4
if not component:
component_names = list(move_info.monitor_names.values())
hab_key = DetectorType.to_string(DetectorType.HAB)
_reset_detector(hab_key, move_info, component_names)
lab_key = DetectorType.to_string(DetectorType.LAB)
_reset_detector(lab_key, move_info, component_names)
component_names.append("some-sample-holder")
else:
component_names = [component]
# We also want to check the sample holder
set_selected_components_to_original_position(workspace, component_names)
def test_that_converter_methods_work(self):
# Arrange
state = StateReductionMode()
state.reduction_mode = ISISReductionMode.Merged
state.dimensionality = ReductionDimensionality.TwoDim
state.merge_shift = 12.65
state.merge_scale = 34.6
state.merge_fit_mode = FitModeForMerge.ShiftOnly
state.detector_names[DetectorType.to_string(DetectorType.LAB)] = "Test1"
state.detector_names[DetectorType.to_string(DetectorType.HAB)] = "Test2"
state.merge_mask = True
state.merge_min = 78.89
state.merge_max = 56.4
# Assert
merge_strategy = state.get_merge_strategy()
self.assertTrue(merge_strategy[0] is ISISReductionMode.LAB)
self.assertTrue(merge_strategy[1] is ISISReductionMode.HAB)
all_reductions = state.get_all_reduction_modes()
self.assertTrue(len(all_reductions) == 2)
self.assertTrue(all_reductions[0] is ISISReductionMode.LAB)
self.assertTrue(all_reductions[1] is ISISReductionMode.HAB)
result_lab = state.get_detector_name_for_reduction_mode(ISISReductionMode.LAB)
self.assertTrue(result_lab == "Test1")
result_hab = state.get_detector_name_for_reduction_mode(ISISReductionMode.HAB)
self.assertTrue(result_hab == "Test2")
self.assertRaises(RuntimeError, state.get_detector_name_for_reduction_mode, "non_sense")
def test_that_state_for_loq_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
data_builder = get_data_builder(facility)
data_builder.set_sample_scatter("LOQ74044")
data_builder.set_sample_scatter_period(3)
data_info = data_builder.build()
# Act
builder = get_move_builder(data_info)
self.assertTrue(builder)
value = 324.2
builder.set_center_position(value)
builder.set_HAB_x_translation_correction(value)
builder.set_LAB_sample_centre_pos1(value)
# Assert
state = builder.build()
self.assertTrue(state.center_position == value)
self.assertTrue(state.detectors[DetectorType.to_string(DetectorType.HAB)].x_translation_correction == value)
self.assertTrue(state.detectors[DetectorType.to_string(DetectorType.HAB)].detector_name_short == "HAB")
self.assertTrue(state.detectors[DetectorType.to_string(DetectorType.LAB)].detector_name == "main-detector-bank")
self.assertTrue(state.monitor_names[str(2)] == "monitor2")
self.assertTrue(len(state.monitor_names) == 2)
self.assertTrue(state.detectors[DetectorType.to_string(DetectorType.LAB)].sample_centre_pos1 == value)
def test_that_missing_beam_centre_is_taken_from_lab_move_state_when_no_component_is_specified(self):
# Arrange
file_name = "SANS2D00028784"
lab_z_translation_correction = 123.
workspace = load_workspace(file_name)
state = SANSMoveTest._get_simple_state(sample_scatter=file_name,
lab_z_translation_correction=lab_z_translation_correction)
# These values should be used instead of an explicitly specified beam centre
state.move.detectors[DetectorType.to_string(DetectorType.LAB)].sample_centre_pos1 = 26.
state.move.detectors[DetectorType.to_string(DetectorType.LAB)].sample_centre_pos2 = 98.
# Act
# The component input is not relevant for SANS2D's initial move. All detectors are moved
component = None
self._run_move(state, workspace=workspace, move_type="InitialMove", component=component)
# Assert for initial move for low angle bank
# These values are on the workspace and in the sample logs,
component_to_investigate = DetectorType.to_string(DetectorType.LAB)
initial_z_position = 23.281
rear_det_z = 11.9989755859
offset = 4.
total_x = 0.
total_y = 0.
total_z = initial_z_position + rear_det_z - offset + lab_z_translation_correction
expected_position = V3D(total_x - 26., total_y - 98., total_z)
expected_rotation = Quat(1., 0., 0., 0.)
self.compare_expected_position(expected_position, expected_rotation,
component_to_investigate, state.move, workspace)
def validate(self):
is_invalid = {}
if one_is_none([self.wavelength_low, self.wavelength_high, self.wavelength_step, self.wavelength_step_type]):
entry = validation_message("A wavelength entry has not been set.",
"Make sure that all entries are set.",
{"wavelength_low": self.wavelength_low,
"wavelength_high": self.wavelength_high,
"wavelength_step": self.wavelength_step,
"wavelength_step_type": self.wavelength_step_type})
is_invalid.update(entry)
if is_not_none_and_first_larger_than_second([self.wavelength_low, self.wavelength_high]):
entry = validation_message("Incorrect wavelength bounds.",
"Make sure that lower wavelength bound is smaller then upper bound.",
{"wavelength_low": self.wavelength_low,
"wavelength_high": self.wavelength_high})
is_invalid.update(entry)
try:
self.adjustment_files[DetectorType.to_string(DetectorType.LAB)].validate()
self.adjustment_files[DetectorType.to_string(DetectorType.HAB)].validate()
except ValueError as e:
is_invalid.update({"adjustment_files": str(e)})
if is_invalid:
raise ValueError("StateWavelengthAndPixelAdjustment: The provided inputs are illegal. "
"Please see: {0}".format(json.dumps(is_invalid)))
def do_move_initial(self, move_info, workspace, coordinates, component,
is_transmission_workspace):
_is_transmission_workspace = is_transmission_workspace # noqa
# For LARMOR we only have to coordinates
assert len(coordinates) == 2
# Move the sample holder
move_sample_holder(workspace, move_info.sample_offset,
move_info.sample_offset_direction)
# Shift the low-angle bank detector in the y direction
y_shift = -coordinates[1]
coordinates_for_only_y = [0.0, y_shift]
apply_standard_displacement(move_info, workspace,
coordinates_for_only_y,
DetectorType.to_string(DetectorType.LAB))
# Shift the low-angle bank detector in the x direction
angle = coordinates[0]
bench_rot_tag = "Bench_Rot"
log_names = [bench_rot_tag]
log_types = [float]
log_values = get_single_valued_logs_from_workspace(
workspace, log_names, log_types)
bench_rotation = move_info.bench_rotation \
if log_values[bench_rot_tag] is None else log_values[bench_rot_tag]
self._rotate_around_y_axis(move_info, workspace, angle,
DetectorType.to_string(DetectorType.LAB),
bench_rotation)
def test_that_missing_beam_centre_is_taken_from_move_state(self):
# Arrange
file_name = "SANS2D00028784"
lab_z_translation_correction = 123.
workspace = load_workspace(file_name)
state = SANSMoveTest._get_simple_state(sample_scatter=file_name,
lab_z_translation_correction=lab_z_translation_correction)
# These values should be used instead of an explicitly specified beam centre
state.move.detectors[DetectorType.to_string(DetectorType.HAB)].sample_centre_pos1 = 26.
state.move.detectors[DetectorType.to_string(DetectorType.HAB)].sample_centre_pos2 = 98.
# Act
# The component input is not relevant for SANS2D's initial move. All detectors are moved
component = "front-detector"
self._run_move(state, workspace=workspace, move_type="InitialMove", component=component)
# Assert for initial move for high angle bank
# These values are on the workspace and in the sample logs
component_to_investigate = DetectorType.to_string(DetectorType.HAB)
initial_x_position = 1.1
x_correction = -0.187987540973
initial_z_position = 23.281
z_correction = 1.00575649188
total_x = initial_x_position + x_correction
total_y = 0.
total_z = initial_z_position + z_correction
expected_position = V3D(total_x - 26., total_y - 98., total_z)
expected_rotation = Quat(0.9968998362876025, 0., 0.07868110579898738, 0.)
self.compare_expected_position(expected_position, expected_rotation,
component_to_investigate, state.move, workspace)
def set_spectrum_range_on_detector(self, spectrum_range_start, spectrum_range_stop):
"""
An unusual setter in the state framework. We cannot just call an automatic setter, since we have to decide
on which detector the spectrum range lives.
:param spectrum_range_start: a list of start spectra which we need to set on the right detector
:param spectrum_range_stop: a list of stop spectra which we need to set on the right detector
"""
instrument = self._data.instrument
for start, stop in zip(spectrum_range_start, spectrum_range_stop):
detector_bank_start = get_bank_for_spectrum_number(start, instrument)
detector_bank_stop = get_bank_for_spectrum_number(stop, instrument)
if detector_bank_start != detector_bank_stop:
raise ValueError("The specified spectrum mask range S{0}{1} has spectra on more than one detector. "
"Make sure that all spectra in the range are on a single detector".format(start, stop))
else:
detector_mask_state = self.state.detectors[DetectorType.to_string(detector_bank_start)]
spec_range_start = detector_mask_state.spectrum_range_start
spec_range_stop = detector_mask_state.spectrum_range_stop
# Set the start spectrum range
if spec_range_start is not None:
spec_range_start.append(start)
else:
self.state.detectors[DetectorType.to_string(detector_bank_start)].spectrum_range_start = [start]
# Set the stop spectrum range
if spec_range_stop is not None:
spec_range_stop.append(stop)
else:
self.state.detectors[DetectorType.to_string(detector_bank_start)].spectrum_range_stop = [stop]
def PyInit(self):
# ----------
# INPUT
# ----------
# Workspace which is to be cropped
self.declareProperty(PropertyManagerProperty('SANSState'),
doc='A property manager which fulfills the SANSState contract.')
self.declareProperty(MatrixWorkspaceProperty("SampleScatterWorkspace", '',
optional=PropertyMode.Mandatory, direction=Direction.Input),
doc='The sample scatter data')
self.declareProperty(MatrixWorkspaceProperty('SampleScatterMonitorWorkspace', '',
optional=PropertyMode.Mandatory, direction=Direction.Input),
doc='The scatter monitor workspace. This workspace only condtains monitors.')
self.declareProperty("Centre1", 0.0, direction=Direction.InOut)
self.declareProperty("Centre2", 0.0, direction=Direction.InOut)
self.declareProperty("RMin", 0.06, direction=Direction.Input)
self.declareProperty('Tolerance', 0.0001251, direction=Direction.Input)
self.declareProperty('Iterations', 10, direction=Direction.Input)
allowed_detectors = StringListValidator([DetectorType.to_string(DetectorType.LAB),
DetectorType.to_string(DetectorType.HAB)])
self.declareProperty("Component", DetectorType.to_string(DetectorType.LAB),
validator=allowed_detectors, direction=Direction.Input,
doc="The component of the instrument which is to be reduced.")
def set_detector_names(state, ipf_path):
"""
Sets the detectors names on a State object which has a `detector` map entry, e.g. StateMask
@param state: the state object
@param ipf_path: the path to the Instrument Parameter File
"""
lab_keyword = DetectorType.to_string(DetectorType.LAB)
hab_keyword = DetectorType.to_string(DetectorType.HAB)
detector_names = {lab_keyword: "low-angle-detector-name",
hab_keyword: "high-angle-detector-name"}
detector_names_short = {lab_keyword: "low-angle-detector-short-name",
hab_keyword: "high-angle-detector-short-name"}
names_to_search = []
names_to_search.extend(detector_names.values())
names_to_search.extend(detector_names_short.values())
found_detector_names = get_named_elements_from_ipf_file(ipf_path, names_to_search, str)
for detector_type in state.detectors:
try:
detector_name_tag = detector_names[detector_type]
detector_name_short_tag = detector_names_short[detector_type]
detector_name = found_detector_names[detector_name_tag]
detector_name_short = found_detector_names[detector_name_short_tag]
except KeyError:
continue
state.detectors[detector_type].detector_name = detector_name
state.detectors[detector_type].detector_name_short = detector_name_short
def test_that_wavelength_and_pixel_adjustment_state_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
file_information = SANSFileInformationMock(
instrument=SANSInstrument.LOQ, run_number=74044)
data_builder = get_data_builder(facility, file_information)
data_builder.set_sample_scatter("LOQ74044")
data_info = data_builder.build()
# Act
builder = get_wavelength_and_pixel_adjustment_builder(data_info)
self.assertTrue(builder)
builder.set_HAB_pixel_adjustment_file("test")
builder.set_HAB_wavelength_adjustment_file("test2")
builder.set_wavelength_low([1.5])
builder.set_wavelength_high([2.7])
builder.set_wavelength_step(0.5)
builder.set_wavelength_step_type(RangeStepType.Lin)
state = builder.build()
# Assert
self.assertTrue(state.adjustment_files[DetectorType.to_string(
DetectorType.HAB)].pixel_adjustment_file == "test")
self.assertTrue(state.adjustment_files[DetectorType.to_string(
DetectorType.HAB)].wavelength_adjustment_file == "test2")
self.assertTrue(state.wavelength_low == [1.5])
self.assertTrue(state.wavelength_high == [2.7])
self.assertTrue(state.wavelength_step == 0.5)
self.assertTrue(state.wavelength_step_type is RangeStepType.Lin)
def test_that_state_for_sans2d_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
file_information = SANSFileInformationMock(
instrument=SANSInstrument.SANS2D, run_number=22048)
data_builder = get_data_builder(facility, file_information)
data_builder.set_sample_scatter("SANS2D00022048")
data_info = data_builder.build()
# Act
builder = get_move_builder(data_info)
self.assertTrue(builder)
value = 324.2
builder.set_HAB_x_translation_correction(value)
# Assert
state = builder.build()
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.HAB)].x_translation_correction == value)
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.HAB)].detector_name_short == "front")
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.LAB)].detector_name == "rear-detector")
self.assertTrue(state.monitor_names[str(4)] == "monitor4")
self.assertTrue(len(state.monitor_names) == 4)
def PyInit(self):
# ----------
# INPUT
# ----------
# Workspace which is to be cropped
self.declareProperty(MatrixWorkspaceProperty(
"InputWorkspace",
'',
optional=PropertyMode.Mandatory,
direction=Direction.Input),
doc='The input workspace')
# The component, i.e. HAB or LAB
allowed_detectors = StringListValidator([
DetectorType.to_string(DetectorType.LAB),
DetectorType.to_string(DetectorType.HAB)
])
self.declareProperty(
"Component",
DetectorType.to_string(DetectorType.LAB),
validator=allowed_detectors,
direction=Direction.Input,
doc="The component of the instrument to which we want to crop.")
self.declareProperty(MatrixWorkspaceProperty(
"OutputWorkspace",
'',
optional=PropertyMode.Mandatory,
direction=Direction.Output),
doc='The cropped output workspace')
def test_that_state_for_larmor_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
file_information = SANSFileInformationMock(
instrument=SANSInstrument.LARMOR, run_number=2260)
data_builder = get_data_builder(facility, file_information)
data_builder.set_sample_scatter("LARMOR00002260")
data_info = data_builder.build()
# Act
builder = get_move_builder(data_info)
self.assertTrue(builder)
value = 324.2
builder.set_LAB_x_translation_correction(value)
# Assert
state = builder.build()
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.LAB)].x_translation_correction == value)
self.assertTrue(state.detectors[DetectorType.to_string(
DetectorType.LAB)].detector_name == "DetectorBench")
self.assertTrue(
DetectorType.to_string(DetectorType.HAB) not in state.detectors)
self.assertTrue(state.monitor_names[str(5)] == "monitor5")
self.assertTrue(len(state.monitor_names) == 5)
def do_move_initial(self, move_info, workspace, coordinates, component, is_transmission_workspace):
# For LOQ we only have to coordinates
assert len(coordinates) == 2
if not is_transmission_workspace:
# First move the sample holder
move_sample_holder(workspace, move_info.sample_offset, move_info.sample_offset_direction)
x = coordinates[0]
y = coordinates[1]
center_position = move_info.center_position
x_shift = center_position - x
y_shift = center_position - y
detectors = [DetectorType.to_string(DetectorType.LAB), DetectorType.to_string(DetectorType.HAB)]
for detector in detectors:
# Get the detector name
component_name = move_info.detectors[detector].detector_name
# Shift the detector by the the input amount
offset = {CanonicalCoordinates.X: x_shift,
CanonicalCoordinates.Y: y_shift}
move_component(workspace, offset, component_name)
# Shift the detector according to the corrections of the detector under investigation
offset_from_corrections = {CanonicalCoordinates.X: move_info.detectors[detector].x_translation_correction,
CanonicalCoordinates.Y: move_info.detectors[detector].y_translation_correction,
CanonicalCoordinates.Z: move_info.detectors[detector].z_translation_correction}
move_component(workspace, offset_from_corrections, component_name)
def test_that_raises_if_the_short_detector_name_is_not_set_up(self):
state = StateMove()
state.detectors[DetectorType.to_string(DetectorType.HAB)].detector_name = "test"
state.detectors[DetectorType.to_string(DetectorType.LAB)].detector_name = "test"
state.detectors[DetectorType.to_string(DetectorType.HAB)].detector_name_short = "test"
assert_validate_error(self, ValueError, state)
state.detectors[DetectorType.to_string(DetectorType.LAB)].detector_name_short = "test"
assert_raises_nothing(self, state)
def PyInit(self):
# ----------
# INPUT
# ----------
self.declareProperty(PropertyManagerProperty('SANSState'),
doc='A property manager which fulfills the SANSState contract.')
# WORKSPACES
# Scatter Workspaces
self.declareProperty(MatrixWorkspaceProperty('ScatterWorkspace', '',
optional=PropertyMode.Optional, direction=Direction.Input),
doc='The scatter workspace. This workspace does not contain monitors.')
self.declareProperty(MatrixWorkspaceProperty('ScatterMonitorWorkspace', '',
optional=PropertyMode.Optional, direction=Direction.Input),
doc='The scatter monitor workspace. This workspace only contains monitors.')
# Transmission Workspace
self.declareProperty(MatrixWorkspaceProperty('TransmissionWorkspace', '',
optional=PropertyMode.Optional, direction=Direction.Input),
doc='The transmission workspace.')
# Direct Workspace
self.declareProperty(MatrixWorkspaceProperty('DirectWorkspace', '',
optional=PropertyMode.Optional, direction=Direction.Input),
doc='The direct workspace.')
self.setPropertyGroup("ScatterWorkspace", 'Data')
self.setPropertyGroup("ScatterMonitorWorkspace", 'Data')
self.setPropertyGroup("TransmissionWorkspace", 'Data')
self.setPropertyGroup("DirectWorkspace", 'Data')
# The component
allowed_detectors = StringListValidator([DetectorType.to_string(DetectorType.LAB),
DetectorType.to_string(DetectorType.HAB)])
self.declareProperty("Component", DetectorType.to_string(DetectorType.LAB),
validator=allowed_detectors, direction=Direction.Input,
doc="The component of the instrument which is to be reduced.")
# The data type
allowed_data = StringListValidator([DataType.to_string(DataType.Sample),
DataType.to_string(DataType.Can)])
self.declareProperty("DataType", DataType.to_string(DataType.Sample),
validator=allowed_data, direction=Direction.Input,
doc="The component of the instrument which is to be reduced.")
# ----------
# OUTPUT
# ----------
self.declareProperty(MatrixWorkspaceProperty("OutputWorkspace", '', direction=Direction.Output),
doc='The output workspace.')
self.declareProperty(MatrixWorkspaceProperty('SumOfCounts', '', optional=PropertyMode.Optional,
direction=Direction.Output),
doc='The sum of the counts of the output workspace.')
self.declareProperty(MatrixWorkspaceProperty('SumOfNormFactors', '', optional=PropertyMode.Optional,
direction=Direction.Output),
doc='The sum of the counts of the output workspace.')
def get_detector_name_for_reduction_mode(self, reduction_mode):
if reduction_mode is ISISReductionMode.LAB:
bank_type = DetectorType.to_string(DetectorType.LAB)
elif reduction_mode is ISISReductionMode.HAB:
bank_type = DetectorType.to_string(DetectorType.HAB)
else:
raise RuntimeError("SANStateReductionISIS: There is no detector available for the"
" reduction mode {0}.".format(reduction_mode))
return self.detector_names[bank_type]
def get_detector_name_for_reduction_mode(self, reduction_mode):
if reduction_mode is ISISReductionMode.LAB:
bank_type = DetectorType.to_string(DetectorType.LAB)
elif reduction_mode is ISISReductionMode.HAB:
bank_type = DetectorType.to_string(DetectorType.HAB)
else:
raise RuntimeError("SANStateReductionISIS: There is no detector available for the"
" reduction mode {0}.".format(reduction_mode))
return self.detector_names[bank_type]
def test_that_SANS2D_can_move(self):
# Arrange
file_name = "SANS2D00028784"
lab_z_translation_correction = 123.
workspace = load_workspace(file_name)
state = SANSMoveTest._get_simple_state(sample_scatter=file_name,
lab_z_translation_correction=lab_z_translation_correction)
beam_coordinates = [0.1076, -0.0835]
# Act
# The component input is not relevant for SANS2D's initial move. All detectors are moved
component = None
move_alg = self._run_move(state, workspace=workspace, move_type="InitialMove",
beam_coordinates=beam_coordinates, component=component)
# Assert for initial move for low angle bank
# These values are on the workspace and in the sample logs,
component_to_investigate = DetectorType.to_string(DetectorType.LAB)
initial_z_position = 23.281
rear_det_z = 11.9989755859
offset = 4.
total_x = 0.
total_y = 0.
total_z = initial_z_position + rear_det_z - offset + lab_z_translation_correction
expected_position = V3D(total_x - beam_coordinates[0], total_y - beam_coordinates[1], total_z)
expected_rotation = Quat(1., 0., 0., 0.)
self.compare_expected_position(expected_position, expected_rotation,
component_to_investigate, state.move, workspace)
# Assert for initial move for high angle bank
# These values are on the workspace and in the sample logs
component_to_investigate = DetectorType.to_string(DetectorType.HAB)
initial_x_position = 1.1
x_correction = -0.187987540973
initial_z_position = 23.281
z_correction = 1.00575649188
total_x = initial_x_position + x_correction
total_y = 0.
total_z = initial_z_position + z_correction
expected_position = V3D(total_x - beam_coordinates[0], total_y - beam_coordinates[1], total_z)
expected_rotation = Quat(0.9968998362876025, 0., 0.07868110579898738, 0.)
self.compare_expected_position(expected_position, expected_rotation,
component_to_investigate, state.move, workspace)
# Act + Assert for elementary move
component_elementary_move = "rear-detector"
component_elementary_move_key = DetectorType.to_string(DetectorType.LAB)
beam_coordinates_elementary_move = [120, 135]
self.check_that_elementary_displacement_with_only_translation_is_correct(workspace, move_alg, state.move,
beam_coordinates_elementary_move,
component_elementary_move,
component_elementary_move_key)
# # Act + Assert for setting to zero position for all
self.check_that_sets_to_zero(workspace, move_alg, state.move, comp_name=None)
def _get_mask_state(general_entries, detector_entries):
state = StateMaskSANS2D()
# Setup the general mask settings
mask_settings = {
"radius_min": 12.,
"radius_max": 17.,
"bin_mask_general_start": [1., 2., 3.],
"bin_mask_general_stop": [2., 3., 4.],
"mask_files": None,
"phi_min": 0.5,
"phi_max": 1.,
"use_mask_phi_mirror": True,
"beam_stop_arm_width": 1.,
"beam_stop_arm_angle": 24.5,
"beam_stop_arm_pos1": 12.,
"beam_stop_arm_pos2": 34.,
"clear": False,
"clear_time": False,
"idf_path": ""
}
for key, value in list(mask_settings.items()):
if key in general_entries:
value = general_entries[key]
if value is not None: # If the value is None, then don't set it
setattr(state, key, value)
# Now setup the detector-specific settings
detector_settings = {
"single_vertical_strip_mask": [1, 2, 4],
"range_vertical_strip_start": [1, 2, 4],
"range_vertical_strip_stop": [2, 3, 5],
"single_horizontal_strip_mask": [1, 2, 4],
"range_horizontal_strip_start": [1, 2, 4],
"range_horizontal_strip_stop": [2, 3, 5],
"block_horizontal_start": [1, 2, 4],
"block_horizontal_stop": [2, 3, 5],
"block_vertical_start": [1, 2, 4],
"block_vertical_stop": [2, 3, 5],
"block_cross_horizontal": [1, 2, 4],
"block_cross_vertical": [2, 3, 5],
"bin_mask_start": [1., 2., 4.],
"bin_mask_stop": [2., 3., 5.],
"detector_name": "name",
"detector_name_short": "name_short",
"single_spectra": [1, 4, 6],
"spectrum_range_start": [1, 5, 7],
"spectrum_range_stop": [2, 6, 8]
}
StateMaskTest._set_detector(state, detector_settings, detector_entries,
DetectorType.to_string(DetectorType.LAB))
StateMaskTest._set_detector(state, detector_settings, detector_entries,
DetectorType.to_string(DetectorType.HAB))
return state
def __init__(self):
super(StateMask, self).__init__()
# Setup the detectors
self.detectors = {
DetectorType.to_string(DetectorType.LAB): StateMaskDetector(),
DetectorType.to_string(DetectorType.HAB): StateMaskDetector()
}
# IDF Path
self.idf_path = ""
def check_that_sets_to_zero(self,
workspace,
move_alg,
move_info,
comp_name=None):
def _get_components_to_compare(_key, _move_info, _component_names):
if _key in _move_info.detectors:
_name = _move_info.detectors[_key].detector_name
_component_names.append(_name)
# Reset the position to zero
move_alg.setProperty("Workspace", workspace)
move_alg.setProperty("MoveType", "SetToZero")
if comp_name is not None:
move_alg.setProperty("Component", comp_name)
else:
move_alg.setProperty("Component", "")
move_alg.execute()
self.assertTrue(move_alg.isExecuted())
# Get the components to compare
if comp_name is None:
component_names = list(move_info.monitor_names.values())
hab_name = DetectorType.to_string(DetectorType.HAB)
lab_name = DetectorType.to_string(DetectorType.LAB),
_get_components_to_compare(hab_name, move_info, component_names)
_get_components_to_compare(lab_name, move_info, component_names)
component_names.append("some-sample-holder")
else:
component_names = [comp_name]
# Ensure that the positions on the base instrument and the instrument are the same
instrument = workspace.getInstrument()
base_instrument = instrument.getBaseInstrument()
for component_name in component_names:
# Confirm that the positions are the same
component = instrument.getComponentByName(component_name)
base_component = base_instrument.getComponentByName(component_name)
# If we are dealing with a monitor which has not been implemented we need to continue
if component is None or base_component is None:
continue
position = component.getPos()
position_base = base_component.getPos()
for index in range(0, 3):
self.assertAlmostEquals(position[index],
position_base[index],
delta=1e-4)
rotation = component.getRotation()
rotation_base = base_component.getRotation()
for index in range(0, 4):
self.assertAlmostEquals(rotation[index],
rotation_base[index],
delta=1e-4)
def __init__(self):
super(StateMoveLOQ, self).__init__()
# Set the center_position in meter
self.center_position = 317.5 / 1000.
# Set the monitor names
self.monitor_names = {}
# Setup the detectors
self.detectors = {DetectorType.to_string(DetectorType.LAB): StateMoveDetector(),
DetectorType.to_string(DetectorType.HAB): StateMoveDetector()}
def __init__(self):
super(StateMoveLOQ, self).__init__()
# Set the center_position in meter
self.center_position = 317.5 / 1000.
# Set the monitor names
self.monitor_names = {}
# Setup the detectors
self.detectors = {DetectorType.to_string(DetectorType.LAB): StateMoveDetector(),
DetectorType.to_string(DetectorType.HAB): StateMoveDetector()}
def __init__(self):
super(StateMove, self).__init__()
# Setup the sample offset
self.sample_offset = 0.0
# The sample offset direction is Z for the ISIS instruments
self.sample_offset_direction = CanonicalCoordinates.Z
# Setup the detectors
self.detectors = {DetectorType.to_string(DetectorType.LAB): StateMoveDetector(),
DetectorType.to_string(DetectorType.HAB): StateMoveDetector()}
def _generate_masking_information(self, state):
if state is None:
return []
mask_info = state.mask
masks = []
mask_info_lab = mask_info.detectors[DetectorType.to_string(
DetectorType.LAB)]
mask_info_hab = mask_info.detectors[DetectorType.to_string(
DetectorType.HAB)] if DetectorType.to_string(
DetectorType.HAB) in mask_info.detectors else None # noqa
# Add the radius mask
radius_mask = self._get_radius(mask_info)
masks.extend(radius_mask)
# Add the spectrum masks for LAB
spectrum_masks_lab = self._get_spectrum_masks(mask_info_lab)
masks.extend(spectrum_masks_lab)
# Add the spectrum masks for HAB
if mask_info_hab:
spectrum_masks_hab = self._get_spectrum_masks(mask_info_hab)
masks.extend(spectrum_masks_hab)
# Add the general time mask
time_masks_general = self._get_time_masks_general(mask_info)
masks.extend(time_masks_general)
# Add the time masks for LAB
time_masks_lab = self._get_time_masks(mask_info_lab)
masks.extend(time_masks_lab)
# Add the time masks for HAB
if mask_info_hab:
time_masks_hab = self._get_time_masks(mask_info_hab)
masks.extend(time_masks_hab)
# Add arm mask
arm_mask = self._get_arm_mask(mask_info)
masks.extend(arm_mask)
# Add phi mask
phi_mask = self._get_phi_mask(mask_info)
masks.extend(phi_mask)
# Add mask files
mask_files = self._get_mask_files(mask_info)
masks.extend(mask_files)
return masks
def mask_workspace(state, workspace_to_mask):
serialized_state = state.property_manager
masking_algorithm = create_masking_algorithm(serialized_state, workspace_to_mask)
mask_info = state.mask
detectors = [DetectorType.to_string(DetectorType.LAB), DetectorType.to_string(DetectorType.HAB)] \
if DetectorType.to_string(DetectorType.HAB) in mask_info.detectors else\
[DetectorType.to_string(DetectorType.LAB)] # noqa
for detector in detectors:
masking_algorithm.setProperty("Component", detector)
masking_algorithm.execute()
return masking_algorithm.getProperty("Workspace").value
def _assert_mask(self, state):
mask = state.mask
self.assertEqual(mask.radius_min, 12 / 1000.)
self.assertEqual(mask.radius_max, 15 / 1000.)
self.assertEqual(mask.clear, True)
self.assertEqual(mask.clear_time, True)
self.assertEqual(
mask.detectors[DetectorType.to_string(
DetectorType.LAB)].single_horizontal_strip_mask, [0])
self.assertEqual(
mask.detectors[DetectorType.to_string(
DetectorType.LAB)].single_vertical_strip_mask, [0, 191])
self.assertEqual(
mask.detectors[DetectorType.to_string(
DetectorType.HAB)].single_horizontal_strip_mask, [0])
self.assertEqual(
mask.detectors[DetectorType.to_string(
DetectorType.HAB)].single_vertical_strip_mask, [0, 191])
self.assertTrue(mask.detectors[DetectorType.to_string(
DetectorType.LAB)].range_horizontal_strip_start == [190, 167])
self.assertTrue(mask.detectors[DetectorType.to_string(
DetectorType.LAB)].range_horizontal_strip_stop == [191, 172])
self.assertTrue(mask.detectors[DetectorType.to_string(
DetectorType.HAB)].range_horizontal_strip_start == [190, 156])
self.assertTrue(mask.detectors[DetectorType.to_string(
DetectorType.HAB)].range_horizontal_strip_stop == [191, 159])
def mask_workspace(state, workspace_to_mask):
serialized_state = state.property_manager
masking_algorithm = create_masking_algorithm(serialized_state, workspace_to_mask)
mask_info = state.mask
detectors = [DetectorType.to_string(DetectorType.LAB), DetectorType.to_string(DetectorType.HAB)] \
if DetectorType.to_string(DetectorType.HAB) in mask_info.detectors else\
[DetectorType.to_string(DetectorType.LAB)] # noqa
for detector in detectors:
masking_algorithm.setProperty("Component", detector)
masking_algorithm.execute()
return masking_algorithm.getProperty("Workspace").value
def __init__(self):
super(StateReductionMode, self).__init__()
self.reduction_mode = ISISReductionMode.LAB
self.reduction_dimensionality = ReductionDimensionality.OneDim
# Set the shifts to defaults which essentially don't do anything.
self.merge_shift = 0.0
self.merge_scale = 1.0
self.merge_fit_mode = FitModeForMerge.NoFit
self.merge_range_min = None
self.merge_range_max = None
# Set the detector names to empty strings
self.detector_names = {DetectorType.to_string(DetectorType.LAB): "",
DetectorType.to_string(DetectorType.HAB): ""}
def __init__(self):
super(StateReductionMode, self).__init__()
self.reduction_mode = ISISReductionMode.LAB
self.reduction_dimensionality = ReductionDimensionality.OneDim
# Set the shifts to defaults which essentially don't do anything.
self.merge_shift = 0.0
self.merge_scale = 1.0
self.merge_fit_mode = FitModeForMerge.NoFit
self.merge_range_min = None
self.merge_range_max = None
# Set the detector names to empty strings
self.detector_names = {DetectorType.to_string(DetectorType.LAB): "",
DetectorType.to_string(DetectorType.HAB): ""}
def _get_coordinates(self, move_info, full_component_name):
"""
Gets the coordinates for a particular component.
If the coordinates were not specified by the user then the coordinates are taken from the move state.
There are several possible scenarios
1. component is specified => take the beam centre from the appropriate detector
2. component is not specified => take the beam centre from the LAB
:param move_info: a SANSStateMove object
:param full_component_name: The full component name as it is known to the Mantid instrument
:return:
"""
coordinates = self.getProperty("BeamCoordinates").value.tolist()
if not coordinates:
# Get the selected detector
detectors = move_info.detectors
selected_detector = get_detector_for_component(move_info, full_component_name)
# If the detector is unknown take the position from the LAB
if selected_detector is None:
selected_detector = detectors[DetectorType.to_string(DetectorType.LAB)]
pos1 = selected_detector.sample_centre_pos1
pos2 = selected_detector.sample_centre_pos2
coordinates = [pos1, pos2]
return coordinates
def _run_beam_centre_core(self, state, workspace, monitor, transmission=None, direct=None,
detector_type=DetectorType.LAB, component=DataType.Sample, centre_1 = 0.1, centre_2 = -0.1
,r_min = 0.06, r_max = 0.26):
beam_centre_core_alg = AlgorithmManager.createUnmanaged("SANSBeamCentreFinderCore")
beam_centre_core_alg.setChild(True)
beam_centre_core_alg.initialize()
state_dict = state.property_manager
beam_centre_core_alg.setProperty("SANSState", state_dict)
beam_centre_core_alg.setProperty("ScatterWorkspace", workspace)
beam_centre_core_alg.setProperty("ScatterMonitorWorkspace", monitor)
if transmission:
beam_centre_core_alg.setProperty("TransmissionWorkspace", transmission)
if direct:
beam_centre_core_alg.setProperty("DirectWorkspace", direct)
beam_centre_core_alg.setProperty("Component", DetectorType.to_string(detector_type))
beam_centre_core_alg.setProperty("DataType", DataType.to_string(component))
beam_centre_core_alg.setProperty("Centre1", centre_1)
beam_centre_core_alg.setProperty("Centre2", centre_2)
beam_centre_core_alg.setProperty("RMax", r_max)
beam_centre_core_alg.setProperty("RMin", r_min)
beam_centre_core_alg.setProperty("OutputWorkspaceLeft", EMPTY_NAME)
beam_centre_core_alg.setProperty("OutputWorkspaceRight", EMPTY_NAME)
beam_centre_core_alg.setProperty("OutputWorkspaceTop", EMPTY_NAME)
beam_centre_core_alg.setProperty("OutputWorkspaceBottom", EMPTY_NAME)
# Act
beam_centre_core_alg.execute()
self.assertTrue(beam_centre_core_alg.isExecuted())
return beam_centre_core_alg
def test_that_mask_can_be_built(self):
# Arrange
facility = SANSFacility.ISIS
data_builder = get_data_builder(facility)
data_builder.set_sample_scatter("LOQ74044")
data_builder.set_sample_scatter_period(3)
data_info = data_builder.build()
# Act
builder = get_mask_builder(data_info)
self.assertTrue(builder)
start_time = [0.1, 1.3]
end_time = [0.2, 1.6]
builder.set_bin_mask_general_start(start_time)
builder.set_bin_mask_general_stop(end_time)
builder.set_LAB_single_vertical_strip_mask([1, 2, 3])
# Assert
state = builder.build()
self.assertTrue(len(state.bin_mask_general_start) == 2)
self.assertTrue(state.bin_mask_general_start[0] == start_time[0])
self.assertTrue(state.bin_mask_general_start[1] == start_time[1])
self.assertTrue(len(state.bin_mask_general_stop) == 2)
self.assertTrue(state.bin_mask_general_stop[0] == end_time[0])
self.assertTrue(state.bin_mask_general_stop[1] == end_time[1])
strip_mask = state.detectors[DetectorType.to_string(DetectorType.LAB)].single_vertical_strip_mask
self.assertTrue(len(strip_mask) == 3)
self.assertTrue(strip_mask[2] == 3)
def PyInit(self):
# State
self.declareProperty(PropertyManagerProperty('SANSState'),
doc='A property manager which fulfills the SANSState contract.')
# Workspace which is to be masked
self.declareProperty(MatrixWorkspaceProperty("Workspace", '',
optional=PropertyMode.Mandatory, direction=Direction.InOut),
doc='The sample scatter workspace. This workspace does not contain monitors.')
# The component, i.e. HAB or LAB
allowed_detectors = StringListValidator([DetectorType.to_string(DetectorType.LAB),
DetectorType.to_string(DetectorType.HAB)])
self.declareProperty("Component", DetectorType.to_string(DetectorType.LAB), validator=allowed_detectors,
direction=Direction.Input,
doc="The component of the instrument which is to be masked.")
def _sort_list(elements):
if len(elements) == 1:
return
if isinstance(elements[0], single_entry_with_detector):
UserFileReaderTest._sort(elements, lambda x: x.entry)
elif isinstance(elements[0], simple_range):
UserFileReaderTest._sort(elements, lambda x: x.start)
elif isinstance(elements[0], complex_range):
UserFileReaderTest._sort(elements, lambda x: x.start)
elif isinstance(elements[0], back_single_monitor_entry):
UserFileReaderTest._sort(elements, lambda x: x.monitor)
elif isinstance(elements[0], fit_general):
UserFileReaderTest._sort(elements, lambda x: x.start)
elif isinstance(elements[0], range_entry_with_detector):
UserFileReaderTest._sort(elements, lambda x: x.start)
elif isinstance(elements[0], monitor_file):
UserFileReaderTest._sort(elements, lambda x: (x.file_path, DetectorType.to_string(x.detector_type)))
elif isinstance(elements[0], monitor_spectrum):
UserFileReaderTest._sort(elements, lambda x: x.spectrum)
elif isinstance(elements[0], position_entry):
UserFileReaderTest._sort(elements, lambda x: x.pos1)
elif isinstance(elements[0], set_scales_entry):
UserFileReaderTest._sort(elements, lambda x: x.s)
elif isinstance(elements[0], range_entry):
UserFileReaderTest._sort(elements, lambda x: x.start)
else:
elements.sort()
