def createEditor(self, parent, option, index):
"""
Create for the display and interaction with the user an editor.
@param QtGui.QWidget parent: The parent object (probably QTableView)
@param QtGui.QStyleOptionViewItemV4 option: This is a setting option which you can use for
style configuration.
@param QtCore.QModelIndex index: That index will be passed by the model object of the
QTableView to the delegated object. This index contains
information about the selected current cell.
An editor can be in principle any QWidget, which you want to use to display the current
(model-)data. Therefore the editor is like a container, which handles the passed entries
from the user interface and should save the data to the model object of the QTableWidget.
The setEditorData function reads data from the model.
Do not save the created editor as a class variable! This consumes a lot of unneeded memory.
It is way better to create an editor if it is needed. The inherent function closeEditor()
of QStyledItemDelegate takes care of closing and destroying the editor for you, if it is not
needed any longer.
"""
editor = ScienDSpinBox(parent=parent)
if 'min' in self.item_dict:
editor.setMinimum(self.item_dict['min'])
if 'max' in self.item_dict:
editor.setMaximum(self.item_dict['max'])
if 'dec' in self.item_dict:
editor.setDecimals(self.item_dict['dec'])
if 'unit' in self.item_dict:
editor.setSuffix(self.item_dict['unit'])
editor.setGeometry(option.rect)
editor.editingFinished.connect(self.commitAndCloseEditor)
return editor
def createEditor(self, parent, option, index):
""" Create for the display and interaction with the user an editor.
@param QtGui.QWidget parent: The parent object, here QTableWidget
@param QtGui.QStyleOptionViewItemV4 option: This is a setting option
which you can use for style
configuration.
@param QtCore.QModelIndex index: That index will be passed by the model
object of the QTableWidget to the
delegated object. This index contains
information about the selected current
cell.
An editor can be in principle any QWidget, which you want to use to
display the current (model-)data. Therefore the editor is like a
container, which handles the passed entries from the user interface and
should save the data to the model object of the QTableWidget. The
setEditorData function reads data from the model.
Do not save the created editor as a class variable! This consumes a lot
of unneeded memory. It is way better to create an editor if it is
needed. The inherent function closeEditor() of QStyledItemDelegate
takes care of closing and destroying the editor for you, if it is not
needed any longer.
"""
editor = ScienDSpinBox(parent=parent)
editor.setMinimum(self.item_dict['min'])
editor.setMaximum(self.item_dict['max'])
editor.setSingleStep(self.item_dict['view_stepsize'])
editor.setDecimals(self.item_dict['dec'])
editor.installEventFilter(self)
editor.setValue(self.item_dict['init_val'])
editor.setMaximumHeight(100)
return editor
def createEditor(self, parent, option, index):
""" Create for the display and interaction with the user an editor.
@param QtGui.QWidget parent: The parent object, here QTableWidget
@param QtGui.QStyleOptionViewItemV4 option: This is a setting option
which you can use for style
configuration.
@param QtCore.QModelIndex index: That index will be passed by the model
object of the QTableWidget to the
delegated object. This index contains
information about the selected current
cell.
An editor can be in principle any QWidget, which you want to use to
display the current (model-)data. Therefore the editor is like a
container, which handles the passed entries from the user interface and
should save the data to the model object of the QTableWidget. The
setEditorData function reads data from the model.
Do not save the created editor as a class variable! This consumes a lot
of unneeded memory. It is way better to create an editor if it is
needed. The inherent function closeEditor() of QStyledItemDelegate
takes care of closing and destroying the editor for you, if it is not
needed any longer.
"""
editor = ScienDSpinBox(parent=parent)
editor.setMinimum(self.item_dict['min'] / self.norm_val)
editor.setMaximum(self.item_dict['max'] / self.norm_val)
editor.setSingleStep(self.item_dict['view_stepsize'] / self.norm_val)
editor.setDecimals(self.item_dict['dec'])
editor.installEventFilter(self)
editor.setValue(self.item_dict['init_val'] / self.norm_val)
editor.setMaximumHeight(100)
return editor
def __init__(self, parent=None, parameters_dict=None):
super().__init__(parent)
if parameters_dict is None:
self._parameters = OrderedDict()
else:
self._parameters = parameters_dict
self._width_hint = 90 * len(self._parameters)
self._ach_widgets = OrderedDict()
main_layout = QtGui.QHBoxLayout()
for param in self._parameters:
label = QtGui.QLabel(param)
label.setAlignment(QtCore.Qt.AlignCenter)
if self._parameters[param]['type'] == float:
widget = ScienDSpinBox()
widget.setMinimum(self._parameters[param]['min'])
widget.setMaximum(self._parameters[param]['max'])
widget.setDecimals(6, False)
widget.setValue(self._parameters[param]['init'])
widget.setSuffix(self._parameters[param]['unit'])
# Set size constraints
widget.setFixedWidth(90)
# Forward editingFinished signal of child widget
widget.editingFinished.connect(self.editingFinished)
elif self._parameters[param]['type'] == int:
widget = ScienSpinBox()
widget.setValue(self._parameters[param]['init'])
widget.setMinimum(self._parameters[param]['min'])
widget.setMaximum(self._parameters[param]['max'])
widget.setSuffix(self._parameters[param]['unit'])
# Set size constraints
widget.setFixedWidth(90)
# Forward editingFinished signal of child widget
widget.editingFinished.connect(self.editingFinished)
elif self._parameters[param]['type'] == str:
widget = QtGui.QLineEdit()
widget.setText(self._parameters[param]['init'])
# Set size constraints
widget.setFixedWidth(90)
# Forward editingFinished signal of child widget
widget.editingFinished.connect(self.editingFinished)
elif self._parameters[param]['type'] == bool:
widget = QtGui.QCheckBox()
widget.setChecked(self._parameters[param]['init'])
# Set size constraints
widget.setFixedWidth(90)
# Forward editingFinished signal of child widget
widget.stateChanged.connect(self.editingFinished)
elif issubclass(self._parameters[param]['type'], Enum):
widget = QtGui.QComboBox()
for option in self._parameters[param]['type']:
widget.addItem(option.name, option)
widget.setCurrentText(self._parameters[param]['init'].name)
# Set size constraints
widget.setFixedWidth(90)
# Forward editingFinished signal of child widget
widget.currentIndexChanged.connect(self.editingFinished)
self._ach_widgets[param] = {'label': label, 'widget': widget}
v_layout = QtGui.QVBoxLayout()
v_layout.addWidget(label)
v_layout.addWidget(widget)
v_layout.setAlignment(label, QtCore.Qt.AlignHCenter)
v_layout.setAlignment(widget, QtCore.Qt.AlignHCenter)
main_layout.addLayout(v_layout)
main_layout.addStretch(1)
main_layout.setSpacing(0)
main_layout.setContentsMargins(0, 0, 0, 0)
self.setLayout(main_layout)
class Main(GUIBase):
""" GUI module to interface a spectrometer """
spectrumlogic = Connector(interface='SpectrumLogic')
savelogic = Connector(interface='SaveLogic')
_cooler_temperature_unit = ConfigOption('cooler_temperature_unit')
_alignment_read_mode = StatusVar('alignment_read_mode', 'FVB')
_alignment_exposure_time = StatusVar('alignment_exposure_time', 0)
_alignment_time_window = StatusVar('alignment_time_window', 60)
_image_read_mode = StatusVar('image_read_mode', 'IMAGE_ADVANCED')
_image_acquisition_mode = StatusVar('image_acquisition_mode', 'LIVE')
_image_exposure_time = StatusVar('image_exposure_time', None)
_image_readout_speed = StatusVar('image_readout_speed', None)
_spectrum_read_mode = StatusVar('spectrum_read_mode', 'MULTIPLE_TRACKS')
_spectrum_acquisition_mode = StatusVar('spectrum_acquisition_mode',
'SINGLE_SCAN')
_spectrum_exposure_time = StatusVar('spectrum_exposure_time', None)
_spectrum_readout_speed = StatusVar('spectrum_readout_speed', None)
_image_data = StatusVar('image_data', np.zeros((1000, 1000)))
_image_dark = StatusVar('image_dark', np.zeros((1000, 1000)))
_image_params = StatusVar('image_params', dict())
_counter_data = StatusVar('counter_data', np.zeros((2, 1000)))
_spectrum_data = StatusVar('spectrum_data', np.zeros((2, 1000)))
_spectrum_dark = StatusVar('spectrum_dark', np.zeros(1000))
_spectrum_params = StatusVar('spectrum_params', dict())
def __init__(self, config, **kwargs):
super().__init__(config=config, **kwargs)
def on_activate(self):
""" Definition and initialisation of the GUI. """
# setting up the window
self._mw = MainWindow()
self._settings_tab = SettingsTab()
self._image_tab = ImageTab()
self._alignment_tab = AlignmentTab()
self._spectrum_tab = SpectrumTab()
self._mw.tab.addTab(self._settings_tab, "Settings")
self._mw.tab.addTab(self._image_tab, "Image")
self._mw.tab.addTab(self._alignment_tab, "Alignment")
self._mw.tab.addTab(self._spectrum_tab, "Spectrum")
self._acquire_dark_buttons = []
self._start_acquisition_buttons = []
self._stop_acquisition_buttons = []
self._save_data_buttons = []
self._track_buttons = [
self._image_tab.track1, self._image_tab.track2,
self._image_tab.track3, self._image_tab.track4
]
self._track_selector = []
if not self._image_exposure_time:
self._image_exposure_time = self.spectrumlogic().exposure_time
if not self._image_readout_speed:
self._image_readout_speed = self.spectrumlogic().readout_speed
if not self._alignment_exposure_time:
self._alignment_exposure_time = self.spectrumlogic().exposure_time
if not self._spectrum_exposure_time:
self._spectrum_exposure_time = self.spectrumlogic().exposure_time
if not self._spectrum_readout_speed:
self._spectrum_readout_speed = self.spectrumlogic().readout_speed
self._activate_settings_tab()
self._activate_image_tab()
self._activate_alignment_tab()
self._activate_spectrum_tab()
self._settings_window = [
self._image_tab.image_settings,
self._alignment_tab.counter_settings,
self._spectrum_tab.spectrum_settings
]
self._manage_stop_acquisition()
def on_deactivate(self):
""" Deinitialisation performed during deactivation of the module.
"""
self._alignment_read_mode = self._alignment_tab.read_modes.currentData(
)
self._alignment_exposure_time = self.alignment_exposure_time_widget.value(
)
self._image_acquisition_mode = self._image_tab.acquisition_modes.currentData(
)
self._image_read_mode = self._image_tab.read_modes.currentData()
self._image_exposure_time = self.image_exposure_time_widget.value()
self._image_readout_speed = self._image_tab.readout_speed.currentData()
self._spectrum_acquisition_mode = self._spectrum_tab.acquisition_modes.currentData(
)
self._spectrum_read_mode = self._spectrum_tab.read_modes.currentData()
self._spectrum_exposure_time = self.spectrum_exposure_time_widget.value(
)
self._spectrum_readout_speed = self._spectrum_tab.readout_speed.currentData(
)
self._mw.close()
def show(self):
""" Make window visible and put it above all other windows """
QtWidgets.QMainWindow.show(self._mw)
self._mw.activateWindow()
self._mw.raise_()
def _activate_settings_tab(self):
""" Initialization method for the setting tab """
spectro_constraints = self.spectrumlogic().spectro_constraints
self._grating_buttons = [
self._settings_tab.grating_1, self._settings_tab.grating_2,
self._settings_tab.grating_3
]
self._input_port_buttons = [
self._settings_tab.input_front, self._settings_tab.input_side
]
self._input_slit_width = []
self._output_port_buttons = [
self._settings_tab.output_front, self._settings_tab.output_side
]
self._output_slit_width = []
for i in range(3):
self._grating_buttons[i].setText('{}rpm'.format(
round(
self.spectrumlogic().spectro_constraints.gratings[i].ruling
/ 1000)))
self._grating_buttons[i].setCheckable(True)
self._grating_buttons[i].clicked.connect(
partial(self._manage_grating_buttons, i))
if i == self.spectrumlogic().grating:
self._grating_buttons[i].setDown(True)
self._input_ports = [
port for port in spectro_constraints.ports
if port.type in [PortType.INPUT_FRONT, PortType.INPUT_SIDE]
]
self._output_ports = [
port for port in spectro_constraints.ports
if port.type in [PortType.OUTPUT_FRONT, PortType.OUTPUT_SIDE]
]
for i in range(2):
if i < len(self._input_ports):
self._input_port_buttons[i].setText(
self._input_ports[i].type.name[6:].lower())
self._input_port_buttons[i].setCheckable(True)
if self._input_ports[i].type.name == self.spectrumlogic(
).input_port:
self._input_port_buttons[i].setDown(True)
input_widget = ScienDSpinBox()
input_widget.setRange(self._input_ports[i].constraints.min,
self._input_ports[i].constraints.max)
input_widget.setValue(
self.spectrumlogic().get_input_slit_width(
self._input_ports[i].type.name))
input_widget.setSuffix('m')
input_widget.editingFinished.connect(
partial(self._manage_slit_width, i))
self._input_slit_width.append(input_widget)
self._settings_tab.input_layout.addWidget(input_widget, i, 2)
if len(self._input_ports) > 1:
self._input_port_buttons[i].clicked.connect(
partial(self._manage_port_buttons, i))
else:
self._input_port_buttons[i].setEnabled(False)
if i < len(self._output_ports):
self._output_port_buttons[i].setText(
self._output_ports[i].type.name[7:].lower())
self._output_port_buttons[i].setCheckable(True)
if self._output_ports[i].type.name == self.spectrumlogic(
).output_port:
self._output_port_buttons[i].setDown(True)
output_widget = ScienDSpinBox()
output_widget.setRange(self._output_ports[i].constraints.min,
self._output_ports[i].constraints.max)
output_widget.setValue(
self.spectrumlogic().get_output_slit_width(
self._output_ports[i].type.name))
output_widget.setSuffix('m')
output_widget.editingFinished.connect(
partial(self._manage_slit_width, i + 2))
self._output_slit_width.append(output_widget)
self._settings_tab.output_layout.addWidget(output_widget, i, 2)
if len(self._output_ports) > 1:
self._output_port_buttons[i].clicked.connect(
partial(self._manage_port_buttons, i + 2))
else:
self._output_port_buttons[i].setEnabled(False)
self._calibration_widget = ScienDSpinBox()
self._calibration_widget.setValue(
self.spectrumlogic().wavelength_calibration)
self._calibration_widget.setSuffix('m')
self._settings_tab.calibration_layout.addWidget(
self._calibration_widget)
for gain in self.spectrumlogic().camera_constraints.internal_gains:
self._settings_tab.camera_gains.addItem(str(gain), gain)
if gain == self.spectrumlogic().camera_gain:
self._settings_tab.camera_gains.setCurrentText(str(gain))
for trigger_mode in self.spectrumlogic(
).camera_constraints.trigger_modes:
self._settings_tab.trigger_modes.addItem(trigger_mode,
trigger_mode)
if trigger_mode == self.spectrumlogic().trigger_mode:
self._settings_tab.trigger_modes.setCurrentText(trigger_mode)
self._temperature_widget = ScienDSpinBox()
self._temperature_widget.setRange(-273.15, 500)
self._temperature_widget.setValue(
self.spectrumlogic().temperature_setpoint - 273.15)
self._temperature_widget.setSuffix('°C')
self._settings_tab.camera_cooler_layout.addWidget(
self._temperature_widget)
self._settings_tab.cooler_on.clicked.connect(
self._manage_cooler_button)
if self.spectrumlogic().cooler_status:
self._settings_tab.cooler_on.setDown(True)
self._settings_tab.cooler_on.setText("OFF")
self._mw.cooler_on_label.setText("Cooler ON")
else:
self._settings_tab.cooler_on.setText("ON")
self._mw.cooler_on_label.setText("Cooler OFF")
self._mw.camera_temperature.setText("{}°C".format(
round(self.spectrumlogic().camera_temperature - 273.15, 2)))
self._center_wavelength_widget = ScienDSpinBox()
self._center_wavelength_widget.setMinimum(0)
self._center_wavelength_widget.setValue(
self.spectrumlogic().center_wavelength)
self._center_wavelength_widget.setSuffix("m")
self._mw.center_wavelength.addWidget(self._center_wavelength_widget, 1)
self._mw.go_to_wavelength.clicked.connect(
self._manage_center_wavelength)
self._mw.center_wavelength_current.setText("{:.2r}m".format(
ScaledFloat(self.spectrumlogic().center_wavelength)))
self._calibration_widget.editingFinished.connect(
self.set_settings_params)
self._settings_tab.camera_gains.currentTextChanged.connect(
self.set_settings_params)
self._settings_tab.trigger_modes.currentTextChanged.connect(
self.set_settings_params)
self._temperature_widget.editingFinished.connect(
self.set_settings_params)
if not self.spectrumlogic().camera_constraints.has_shutter:
self._settings_tab.shutter_modes.setEnabled(False)
else:
self._settings_tab.shutter_modes.setCurrentText(
self.spectrumlogic().shutter_state)
self._settings_tab.shutter_modes.currentTextChanged.connect(
self.set_settings_params)
self._update_temperature_timer = QtCore.QTimer()
self._update_temperature_timer.timeout.connect(
self._update_temperature)
self._update_temperature_timer.start(1000)
self.spectrumlogic().sigUpdateSettings.connect(self._update_settings)
def _activate_image_tab(self):
""" Initialization method for the image tab """
camera_width = self.spectrumlogic().camera_constraints.width
camera_height = self.spectrumlogic().camera_constraints.height
for read_mode in self.spectrumlogic().camera_constraints.read_modes:
if read_mode.name[:5] == "IMAGE":
self._image_tab.read_modes.addItem(read_mode.name,
read_mode.name)
if read_mode == self._image_read_mode:
self._image_tab.read_modes.setCurrentText(read_mode.name)
for acquisition_mode in AcquisitionMode.__members__:
if acquisition_mode != "MULTI_SCAN":
self._image_tab.acquisition_modes.addItem(
acquisition_mode, acquisition_mode)
if acquisition_mode == self._image_acquisition_mode:
self._image_tab.acquisition_modes.setCurrentText(
acquisition_mode)
self.image_exposure_time_widget = ScienDSpinBox()
self.image_exposure_time_widget.setMinimum(0)
self.image_exposure_time_widget.setValue(self._image_exposure_time)
self.image_exposure_time_widget.setSuffix('s')
self._image_tab.exposure_time_layout.addWidget(
self.image_exposure_time_widget)
for readout_speed in self.spectrumlogic(
).camera_constraints.readout_speeds:
self._image_tab.readout_speed.addItem(
"{:.2r}Hz".format(ScaledFloat(readout_speed)), readout_speed)
if readout_speed == self._image_readout_speed:
self._image_tab.readout_speed.setCurrentText("{:.2r}Hz".format(
ScaledFloat(readout_speed)))
self._image_tab.save.clicked.connect(partial(self.save_data, 0))
self._save_data_buttons.append(self._image_tab.save)
self._image_tab.acquire_dark.clicked.connect(
partial(self.start_dark_acquisition, 0))
self._acquire_dark_buttons.append(self._image_tab.acquire_dark)
self._image_tab.start_acquisition.clicked.connect(
partial(self.start_acquisition, 0))
self._start_acquisition_buttons.append(
self._image_tab.start_acquisition)
self._image_tab.stop_acquisition.clicked.connect(self.stop_acquisition)
self._stop_acquisition_buttons.append(self._image_tab.stop_acquisition)
self._image_tab.remove_dark.clicked.connect(
partial(self.remove_dark, 0))
self.my_colors = ColorScaleInferno()
self._image = pg.ImageItem(image=self._image_data,
axisOrder='row-major')
self._image.setLookupTable(self.my_colors.lut)
self._image_tab.graph.addItem(self._image)
self._colorbar = ColorbarWidget(self._image)
self._image_tab.colorbar.addWidget(self._colorbar)
self.track_colors = np.array(
[palette.c5, palette.c2, palette.c6, palette.c4])
self.plot_colors = self.track_colors
height = self.spectrumlogic().camera_constraints.height
for i in range(4):
self._track_buttons[i].setCheckable(True)
self._track_buttons[i].clicked.connect(
partial(self._manage_track_buttons, i))
tracks = self.spectrumlogic().active_tracks
if 2 * i < len(tracks):
top_pos = tracks[2 * i]
bottom_pos = tracks[2 * i + 1]
else:
top_pos = 0
bottom_pos = 10
color = self.track_colors[i].getRgb()
track_color = pg.mkBrush(color[0], color[1], color[2], 100)
track = pg.LinearRegionItem(
values=[top_pos, bottom_pos],
orientation=pg.LinearRegionItem.Horizontal,
brush=track_color)
track.setBounds([0, height])
track.hide()
self._track_selector.append(track)
self._image_tab.graph.addItem(track)
self._image_tab.image_advanced.setCheckable(True)
self._image_tab.image_advanced.clicked.connect(
self._manage_image_advanced_button)
self._image_advanced_widget = pg.ROI(
[0, 0], [camera_width, camera_height],
maxBounds=QRectF(QPoint(0, 0), QPoint(camera_width,
camera_height)))
self._image_advanced_widget.addScaleHandle((1, 0), (0, 1))
self._image_advanced_widget.addScaleHandle((0, 1), (1, 0))
self._image_advanced_widget.hide()
self._image_tab.graph.addItem(self._image_advanced_widget)
self._image_tab.horizontal_binning.setRange(1, camera_width - 1)
self._image_tab.vertical_binning.setRange(1, camera_height - 1)
self._image_tab.horizontal_binning.editingFinished.connect(
self.set_image_params)
self._image_tab.vertical_binning.editingFinished.connect(
self.set_image_params)
self._image_tab.read_modes.currentTextChanged.connect(
self.set_image_params)
self._image_tab.acquisition_modes.currentTextChanged.connect(
self.set_image_params)
self.image_exposure_time_widget.editingFinished.connect(
self.set_image_params)
self._image_tab.readout_speed.currentTextChanged.connect(
self.set_image_params)
def _activate_alignment_tab(self):
self.time_window_widget = ScienDSpinBox()
self.time_window_widget.setMinimum(0)
self.time_window_widget.setValue(self._alignment_time_window)
self.time_window_widget.setSuffix('s')
self.time_window_widget.editingFinished.connect(
self._change_time_window)
self._alignment_tab.time_window_layout.addWidget(
self.time_window_widget, 1)
self._alignment_tab.clean.clicked.connect(self._clean_time_window)
for read_mode in self.spectrumlogic().camera_constraints.read_modes:
self._alignment_tab.read_modes.addItem(str(read_mode.name),
read_mode.name)
if read_mode == self._alignment_read_mode:
self._alignment_tab.read_modes.setCurrentText(
str(read_mode.name))
self.alignment_exposure_time_widget = ScienDSpinBox()
self.alignment_exposure_time_widget.setMinimum(0)
self.alignment_exposure_time_widget.setValue(
self._alignment_exposure_time)
self.alignment_exposure_time_widget.setSuffix('s')
self._alignment_tab.exposure_time_layout.addWidget(
self.alignment_exposure_time_widget)
self._change_time_window()
self._alignment_tab.start_acquisition.clicked.connect(
partial(self.start_acquisition, 1))
self._start_acquisition_buttons.append(
self._alignment_tab.start_acquisition)
self._alignment_tab.stop_acquisition.clicked.connect(
self.stop_acquisition)
self._stop_acquisition_buttons.append(
self._alignment_tab.stop_acquisition)
self._alignment_tab.graph.setLabel('left',
'photon counts',
units='counts/s')
self._alignment_tab.graph.setLabel('bottom',
'acquisition time',
units='s')
self._counter_plot = self._alignment_tab.graph.plot(
self._counter_data[0], self._counter_data[1])
self._alignment_tab.read_modes.currentTextChanged.connect(
self.set_alignment_params)
self.alignment_exposure_time_widget.editingFinished.connect(
self.set_alignment_params)
def _activate_spectrum_tab(self):
""" Initialization method for the spectrum tab """
for read_mode in self.spectrumlogic().camera_constraints.read_modes:
if read_mode.name[:5] != "IMAGE":
self._spectrum_tab.read_modes.addItem(str(read_mode.name),
read_mode.name)
if read_mode == self._spectrum_read_mode:
self._spectrum_tab.read_modes.setCurrentText(
str(read_mode.name))
for acquisition_mode in AcquisitionMode.__members__:
self._spectrum_tab.acquisition_modes.addItem(
acquisition_mode, acquisition_mode)
if acquisition_mode == self._spectrum_acquisition_mode:
self._spectrum_tab.acquisition_modes.setCurrentText(
acquisition_mode)
self.spectrum_exposure_time_widget = ScienDSpinBox()
self.spectrum_exposure_time_widget.setMinimum(0)
self.spectrum_exposure_time_widget.setValue(
self._spectrum_exposure_time)
self.spectrum_exposure_time_widget.setSuffix('s')
self._spectrum_tab.exposure_time_layout.addWidget(
self.spectrum_exposure_time_widget)
for readout_speed in self.spectrumlogic(
).camera_constraints.readout_speeds:
self._spectrum_tab.readout_speed.addItem(
"{:.2r}Hz".format(ScaledFloat(readout_speed)), readout_speed)
if readout_speed == self._spectrum_readout_speed:
self._spectrum_tab.readout_speed.setCurrentText(
"{:.2r}Hz".format(ScaledFloat(readout_speed)))
self._spectrum_scan_delay_widget = ScienDSpinBox()
self._spectrum_scan_delay_widget.setMinimum(0)
self._spectrum_scan_delay_widget.setValue(
self.spectrumlogic().scan_delay)
self._spectrum_scan_delay_widget.setSuffix('s')
self._spectrum_tab.scan_delay.addWidget(
self._spectrum_scan_delay_widget)
self._spectrum_tab.scan_number_spin.setValue(
self.spectrumlogic().number_of_scan)
self._spectrum_tab.save.clicked.connect(partial(self.save_data, 1))
self._save_data_buttons.append(self._spectrum_tab.save)
self._spectrum_tab.acquire_dark.clicked.connect(
partial(self.start_dark_acquisition, 1))
self._acquire_dark_buttons.append(self._spectrum_tab.acquire_dark)
self._spectrum_tab.start_acquisition.clicked.connect(
partial(self.start_acquisition, 2))
self._start_acquisition_buttons.append(
self._spectrum_tab.start_acquisition)
self._spectrum_tab.stop_acquisition.clicked.connect(
self.stop_acquisition)
self._stop_acquisition_buttons.append(
self._spectrum_tab.stop_acquisition)
self._spectrum_tab.remove_dark.clicked.connect(
partial(self.remove_dark, 1))
self._spectrum_tab.graph.setLabel('left',
'Photoluminescence',
units='counts/s')
self._spectrum_tab.graph.setLabel('bottom', 'wavelength', units='m')
self._spectrum_tab.read_modes.currentTextChanged.connect(
self.set_spectrum_params)
self._spectrum_tab.acquisition_modes.currentTextChanged.connect(
self.set_spectrum_params)
self.spectrum_exposure_time_widget.editingFinished.connect(
self.set_spectrum_params)
self._spectrum_tab.read_modes.currentTextChanged.connect(
self.set_spectrum_params)
self._spectrum_scan_delay_widget.editingFinished.connect(
self.set_spectrum_params)
self._spectrum_tab.scan_number_spin.editingFinished.connect(
self.set_spectrum_params)
def _update_settings(self):
self._manage_grating_buttons(self.spectrumlogic()._grating)
if len(self._input_ports) > 1:
input_port_index = 0 if self.spectrumlogic(
)._input_port == PortType.INPUT_FRONT else 1
self._manage_port_buttons(input_port_index)
self._input_slit_width[input_port_index].setValue(
self.spectrumlogic()._input_slit_width[input_port_index])
else:
self._input_slit_width[0].setValue(
self.spectrumlogic()._input_slit_width[0])
if len(self._output_ports) > 1:
output_port_index = 0 if self.spectrumlogic(
)._output_port == PortType.OUTPUT_FRONT else 1
self._manage_port_buttons(output_port_index + 2)
self._output_slit_width[output_port_index].setValue(
self.spectrumlogic()._output_slit_width[output_port_index])
else:
self._output_slit_width[0].setValue(
self.spectrumlogic()._output_slit_width[0])
self._calibration_widget.setValue(
self.spectrumlogic()._wavelength_calibration[
self.spectrumlogic()._grating])
self._settings_tab.camera_gains.setCurrentText(
str(int(self.spectrumlogic()._camera_gain)))
self._settings_tab.trigger_modes.setCurrentText(
self.spectrumlogic()._trigger_mode)
self._temperature_widget.setValue(
self.spectrumlogic()._temperature_setpoint - 273.15)
cooler_on = self.spectrumlogic()._cooler_status
if self._settings_tab.cooler_on.isDown() != cooler_on:
self._settings_tab.cooler_on.setChecked(cooler_on)
self._settings_tab.cooler_on.setDown(cooler_on)
self._settings_tab.cooler_on.setText(
"ON" if not cooler_on else "OFF")
self._mw.cooler_on_label.setText(
"Cooler {}".format("ON" if cooler_on else "OFF"))
if self.spectrumlogic().camera_constraints.has_shutter:
self._settings_tab.shutter_modes.setCurrentText(
self.spectrumlogic()._shutter_state)
self._mw.center_wavelength_current.setText("{:.2r}m".format(
ScaledFloat(self.spectrumlogic()._center_wavelength)))
def set_settings_params(self):
if self.spectrumlogic().module_state() == 'locked':
return
self.spectrumlogic(
).wavelength_calibration = self._calibration_widget.value()
self.spectrumlogic(
).camera_gain = self._settings_tab.camera_gains.currentData()
self.spectrumlogic(
).trigger_mode = self._settings_tab.trigger_modes.currentData()
self.spectrumlogic(
).temperature_setpoint = self._temperature_widget.value() + 273.15
self.spectrumlogic(
).shutter_state = self._settings_tab.shutter_modes.currentText()
self._mw.center_wavelength_current.setText("{:.2r}m".format(
ScaledFloat(self.spectrumlogic().center_wavelength)))
def set_image_params(self):
if self.spectrumlogic().module_state() == 'locked':
return
self._manage_image_advanced()
self.spectrumlogic(
).acquisition_mode = self._image_tab.acquisition_modes.currentData()
self.spectrumlogic(
).read_mode = self._image_tab.read_modes.currentData()
self.spectrumlogic(
).exposure_time = self.image_exposure_time_widget.value()
self.spectrumlogic(
).readout_speed = self._image_tab.readout_speed.currentData()
self.spectrumlogic()._update_acquisition_params()
if self._image_params != self.spectrumlogic().acquisition_params:
self._image_tab.dark_acquired_msg.setText("Dark Outdated")
self._image_params = self.spectrumlogic().acquisition_params
def set_alignment_params(self):
if self.spectrumlogic().module_state() == 'locked':
return
self.spectrumlogic().acquisition_mode = "LIVE_SCAN"
self.spectrumlogic(
).read_mode = self._alignment_tab.read_modes.currentData()
self.spectrumlogic(
).exposure_time = self.alignment_exposure_time_widget.value()
self.spectrumlogic().readout_speed = max(
self.spectrumlogic().camera_constraints.readout_speeds)
self._manage_tracks()
self._change_time_window()
def set_spectrum_params(self):
if self.spectrumlogic().module_state() == 'locked':
return
self._manage_tracks()
self.spectrumlogic(
).acquisition_mode = self._spectrum_tab.acquisition_modes.currentData(
)
self.spectrumlogic(
).read_mode = self._spectrum_tab.read_modes.currentData()
self.spectrumlogic(
).exposure_time = self.spectrum_exposure_time_widget.value()
self.spectrumlogic(
).readout_speed = self._spectrum_tab.readout_speed.currentData()
self.spectrumlogic(
).scan_delay = self._spectrum_scan_delay_widget.value()
self.spectrumlogic(
).number_of_scan = self._spectrum_tab.scan_number_spin.value()
self.spectrumlogic()._update_acquisition_params()
if self._spectrum_params != self.spectrumlogic().acquisition_params:
self._spectrum_tab.dark_acquired_msg.setText("Dark Outdated")
self._spectrum_params = self.spectrumlogic().acquisition_params
def start_dark_acquisition(self, index):
self._manage_start_acquisition(index)
self.spectrumlogic().acquisition_mode = "SINGLE_SCAN"
self.spectrumlogic().shutter_state = "CLOSED"
self.spectrumlogic().sigUpdateData.connect(
partial(self._update_dark, index))
if index == 0:
self.spectrumlogic(
).read_modes = self._image_tab.read_modes.currentData()
self.spectrumlogic(
).exposure_time = self.image_exposure_time_widget.value()
self.spectrumlogic(
).readout_speed = self._image_tab.readout_speed.currentData()
elif index == 1:
self.spectrumlogic(
).read_modes = self._spectrum_tab.read_modes.currentData()
self.spectrumlogic(
).exposure_time = self.spectrum_exposure_time_widget.value()
self.spectrumlogic(
).readout_speed = self._spectrum_tab.readout_speed.currentData()
self.spectrumlogic().start_acquisition()
def start_acquisition(self, index):
self._manage_start_acquisition(index)
self.spectrumlogic().sigUpdateData.connect(
partial(self._update_data, index))
if index == 0:
self.set_image_params()
elif index == 1:
self.set_alignment_params()
elif index == 2:
self.set_spectrum_params()
self.spectrumlogic().start_acquisition()
def stop_acquisition(self):
self.spectrumlogic().stop_acquisition()
self.spectrumlogic().sigUpdateData.disconnect()
self._manage_stop_acquisition()
def _manage_grating_buttons(self, index):
for i in range(3):
btn = self._grating_buttons[i]
if i == index:
btn.setChecked(True)
btn.setDown(True)
self.spectrumlogic().grating = i
else:
btn.setChecked(False)
btn.setDown(False)
self._mw.center_wavelength_current.setText("{:.2r}m".format(
ScaledFloat(self.spectrumlogic().center_wavelength)))
self._calibration_widget.setValue(
self.spectrumlogic().wavelength_calibration)
def _manage_port_buttons(self, index):
for i in range(2):
if index < 2:
btn = self._input_port_buttons[i]
if i == index:
self.spectrumlogic().input_port = self.spectrumlogic(
).spectro_constraints.ports[i].type
btn.setChecked(True)
btn.setDown(True)
else:
btn.setChecked(False)
btn.setDown(False)
elif index > 1:
btn = self._output_port_buttons[i]
if i + 2 == index:
self.spectrumlogic().output_port = self.spectrumlogic(
).spectro_constraints.ports[i + 2].type
btn.setChecked(True)
btn.setDown(True)
else:
btn.setChecked(False)
btn.setDown(False)
def _manage_slit_width(self, index):
if index < 2:
self.spectrumlogic().set_input_slit_width(
self._input_slit_width[index].value(),
self._input_ports[index].type)
elif index > 1:
self.spectrumlogic().set_output_slit_width(
self._output_slit_width[index - 2].value(),
self._output_ports[index - 2].type)
def _manage_cooler_button(self):
cooler_on = not self.spectrumlogic().cooler_status
self.spectrumlogic().cooler_status = cooler_on
self._settings_tab.cooler_on.setChecked(cooler_on)
self._settings_tab.cooler_on.setDown(cooler_on)
self._settings_tab.cooler_on.setText("ON" if not cooler_on else "OFF")
self._mw.cooler_on_label.setText(
"Cooler {}".format("ON" if cooler_on else "OFF"))
def _manage_center_wavelength(self):
self.spectrumlogic(
).center_wavelength = self._center_wavelength_widget.value()
self._mw.center_wavelength_current.setText("{:.2r}m".format(
ScaledFloat(self.spectrumlogic().center_wavelength)))
def _manage_tracks(self):
active_tracks = []
for i in range(4):
if self._track_selector[i].isVisible():
track = self._track_selector[i].getRegion()
active_tracks.append(int(track[0]))
active_tracks.append(int(track[1]))
active_tracks = np.array(active_tracks)
self.plot_colors[np.argsort(active_tracks[::2])]
if np.any(self.spectrumlogic().active_tracks != active_tracks):
self._spectrum_tab.dark_acquired_msg.setText("Dark Outdated")
self.spectrumlogic().active_tracks = active_tracks
def _manage_image_advanced(self):
height = self.spectrumlogic().camera_constraints.height
width = self.spectrumlogic().camera_constraints.width
hbin = self._image_tab.horizontal_binning.value()
vbin = self._image_tab.vertical_binning.value()
image_binning = list((hbin, vbin))
if list(self.spectrumlogic().image_advanced_binning.values()
) != image_binning:
self._image_tab.dark_acquired_msg.setText("No Dark Acquired")
self.spectrumlogic().image_advanced_binning = image_binning
roi_size = self._image_advanced_widget.getArrayRegion(
self._image_data, self._image).shape
roi_origin = self._image_advanced_widget.pos()
vertical_range = [int(roi_origin[0]), int(roi_origin[0]) + roi_size[0]]
horizontal_range = [
int(roi_origin[1]),
int(roi_origin[1]) + roi_size[1]
]
image_advanced = horizontal_range + vertical_range
if list(self.spectrumlogic().image_advanced_area.values()
) != image_advanced:
self._image_tab.dark_acquired_msg.setText("No Dark Acquired")
self.spectrumlogic().image_advanced_area = image_advanced
def _manage_track_buttons(self, index):
track_selector = self._track_selector[index]
if track_selector.isVisible():
track_selector.hide()
else:
track_selector.setVisible(True)
def _manage_image_advanced_button(self):
if self._image_advanced_widget.isVisible():
self._image_advanced_widget.hide()
else:
self._image_advanced_widget.setVisible(True)
def _update_temperature(self):
self._mw.camera_temperature.setText(
str(round(self.spectrumlogic().camera_temperature - 273.15, 2)) +
"°C")
def _manage_start_acquisition(self, index):
for i in range(3):
self._settings_window[i].setEnabled(False)
self._start_acquisition_buttons[i].setEnabled(False)
if i == index:
self._stop_acquisition_buttons[i].setEnabled(True)
else:
self._stop_acquisition_buttons[i].setEnabled(False)
if i < 2:
self._acquire_dark_buttons[i].setEnabled(False)
self._save_data_buttons[i].setEnabled(False)
self._spectrum_tab.multiple_scan_settings.setEnabled(False)
def _manage_stop_acquisition(self):
for i in range(3):
self._settings_window[i].setEnabled(True)
self._start_acquisition_buttons[i].setEnabled(True)
self._stop_acquisition_buttons[i].setEnabled(False)
if i < 2:
self._acquire_dark_buttons[i].setEnabled(True)
self._save_data_buttons[i].setEnabled(True)
self._spectrum_tab.multiple_scan_settings.setEnabled(True)
def _clean_time_window(self):
time_window = self.time_window_widget.value()
exposure_time = self.alignment_exposure_time_widget.value()
number_points = int(time_window / exposure_time)
self._counter_data = np.zeros((2, number_points))
self._counter_plot.setData([])
def _change_time_window(self):
time_window = self.time_window_widget.value()
exposure_time = self.alignment_exposure_time_widget.value()
number_points = int(time_window / exposure_time)
x = np.linspace(self._counter_data[0, -1] - time_window,
self._counter_data[0, -1], number_points)
if self._counter_data.shape[1] < number_points:
y = np.empty(number_points)
y[-self._counter_data.shape[1]:] = self._counter_data[1]
else:
y = self._counter_data[1, -number_points:]
self._counter_data = np.array([x, y])
self._alignment_tab.graph.setRange(
xRange=(x[-1] - self.time_window_widget.value(), x[-1]))
def _update_data(self, index):
data = self.spectrumlogic().acquired_data
if index == 0:
if self._image_dark.shape == data.shape:
self._image_data = data - self._image_dark
else:
self._image_data = data
self._image_tab.dark_acquired_msg.setText("No Dark Acquired")
self._image.setImage(self._image_data)
self._colorbar.refresh_image()
if self.spectrumlogic().read_mode == "IMAGE_ADVANCED":
rectf = self._image_advanced_widget.parentBounds()
self._image.setRect(rectf)
else:
width = self.spectrumlogic().camera_constraints.width
height = self.spectrumlogic().camera_constraints.height
self._image.setRect(QtCore.QRect(0, 0, width, height))
elif index == 1:
counts = data.mean()
x = self._counter_data[0] + self.spectrumlogic().exposure_time
y = np.append(self._counter_data[1][1:], counts)
self._counter_data = np.array([x, y])
self._alignment_tab.graph.setRange(
xRange=(x[-1] - self.time_window_widget.value(), x[-1]))
self._counter_plot.setData(x, y)
elif index == 2:
x = self.spectrumlogic().wavelength_spectrum
if self._spectrum_dark.shape[-1] == data.shape[-1]:
# TODO : fix bug with dark in multiple tracks and data in FVB : broadcasting error
y = data - self._spectrum_dark
else:
y = data
self._spectrum_tab.dark_acquired_msg.setText(
"No Dark Acquired")
if self.spectrumlogic().acquisition_mode == "MULTI_SCAN":
self._spectrum_data = np.array([[x, scan] for scan in y])
self._spectrum_tab.graph.clear()
if self.spectrumlogic().read_mode == "MULTIPLE_TRACKS":
tracks = y[-1]
if self.spectrumlogic().number_of_scan == y.shape[0]:
if self._spectrum_tab.multipe_scan_mode.currentText(
) == "Scan Average":
tracks = np.mean(y.transpose(0, 2, 1), axis=0).T
if self._spectrum_tab.multipe_scan_mode.currentText(
) == "Scan Median":
tracks = np.median(y.transpose(0, 2, 1), axis=0).T
i = 0
for track in tracks:
self._spectrum_tab.graph.plot(x,
track,
pen=self.plot_colors[i])
i += 1
else:
tracks = y[-1]
if self.spectrumlogic().number_of_scan == y.shape[0]:
if self._spectrum_tab.multipe_scan_mode.currentText(
) == "Scan Average":
tracks = np.mean(y, axis=0)
if self._spectrum_tab.multipe_scan_mode.currentText(
) == "Scan Median":
tracks = np.median(y, axis=0)
self._spectrum_tab.graph.plot(x,
tracks,
pen=self.plot_colors[0])
else:
self._spectrum_data = np.array([x, y])
self._spectrum_tab.graph.clear()
if self.spectrumlogic().read_mode == "MULTIPLE_TRACKS":
i = 0
for track in y:
self._spectrum_tab.graph.plot(x,
track,
pen=self.plot_colors[i])
i += 1
else:
self._spectrum_tab.graph.plot(x,
y,
pen=self.plot_colors[0])
if not self.spectrumlogic().module_state() == 'locked':
self.spectrumlogic().sigUpdateData.disconnect()
self._manage_stop_acquisition()
def _update_dark(self, index):
dark = self.spectrumlogic().acquired_data
if index == 0:
self._image_dark = dark
self._image_tab.dark_acquired_msg.setText("Dark Acquired")
elif index == 1:
self._spectrum_dark = dark
self._spectrum_tab.dark_acquired_msg.setText("Dark Acquired")
self.spectrumlogic().sigUpdateData.disconnect()
self._manage_stop_acquisition()
self.spectrumlogic(
).shutter_state = self._settings_tab.shutter_modes.currentText()
def remove_dark(self, index):
if index == 0:
self._image_dark = np.zeros((1000, 1000))
self._image_tab.dark_acquired_msg.setText("No Dark Acquired")
if index == 1:
self._spectrum_dark = np.zeros(1000)
self._spectrum_tab.dark_acquired_msg.setText("No Dark Acquired")
def save_data(self, index):
filepath = self.savelogic().get_path_for_module(
module_name='spectrometer')
if index == 0:
data = {
'data':
np.array(self._image_data /
self._image_params['exposure_time (s)']).flatten()
}
self.savelogic().save_data(data,
filepath=filepath,
parameters=self._image_params)
elif index == 1:
data = {
'data':
np.array(self._spectrum_data /
self._spectrum_params['exposure_time (s)']).flatten()
}
self.savelogic().save_data(data,
filepath=filepath,
parameters=self._spectrum_params)
class ColorbarWidget(QtWidgets.QWidget):
""" Create the widget, based on the corresponding *.ui file."""
def __init__(self, image_widget, unit='c/s'):
# Get the path to the *.ui file
this_dir = os.path.dirname(__file__)
ui_file = os.path.join(this_dir, 'ui_colorbar.ui')
# Load it
super(ColorbarWidget, self).__init__()
uic.loadUi(ui_file, self)
self._cb_min = 0
self._cb_max = 100
self.unit = unit
self.init_spin_box()
self.init_colorbar()
self.set_image(image_widget)
self.percentile.clicked.emit()
self.percentile.setChecked(True)
def init_spin_box(self):
""" Initialize all the spinboxes """
self._min_percentile = ScienDSpinBox()
self._min_manual = ScienDSpinBox()
self._max_percentile = ScienDSpinBox()
self._max_manual = ScienDSpinBox()
self._min_percentile.setSuffix('%')
self._min_percentile.setMinimum(0)
self._min_percentile.setMaximum(100)
self._min_percentile.setValue(0)
self._min_manual.setSuffix(self.unit)
self._max_percentile.setSuffix('%')
self._max_percentile.setMinimum(0)
self._max_percentile.setMaximum(100)
self._max_percentile.setValue(100)
self._max_manual.setSuffix(self.unit)
self.min.addWidget(self._min_manual)
self.min.addWidget(self._min_percentile)
self.max.addWidget(self._max_percentile)
self.max.addWidget(self._max_manual)
self._min_percentile.valueChanged.connect(self.shortcut_to_cb_centiles)
self._min_manual.valueChanged.connect(self.shortcut_to_cb_manual)
self._max_percentile.valueChanged.connect(self.shortcut_to_cb_centiles)
self._max_manual.valueChanged.connect(self.shortcut_to_cb_manual)
self.manual.clicked.connect(self.update_cb_range)
self.percentile.clicked.connect(self.update_cb_range)
def init_colorbar(self):
""" Create the colorbar """
self.my_colors = ColorScaleInferno()
self._color_map = ColorScaleMagma()
self._cb = ColorBar(self.my_colors.cmap_normed,
width=100,
cb_min=self._cb_min,
cb_max=self._cb_max)
self.colorbar.addItem(self._cb)
self.colorbar.hideAxis('bottom')
self.colorbar.setLabel('left', 'Intensity', units=self.unit)
self.colorbar.setMouseEnabled(x=False, y=False)
def set_image(self, image_widget):
""" Set the image widget associated to the colorbar """
self._image = image_widget
self._min_manual.setValue(np.min(self._image.image))
self._min_percentile.setValue(0)
self._max_manual.setValue(np.max(self._image.image))
self._max_percentile.setValue(100)
self.refresh_colorbar()
def get_cb_range(self):
""" Determines the cb_min and cb_max values for the image """
# If "Manual" is checked, or the image data is empty (all zeros), then take manual cb range.
if self.manual.isChecked() or np.count_nonzero(self._image.image) < 1:
cb_min = self._min_manual.value()
cb_max = self._max_manual.value()
# Otherwise, calculate cb range from percentiles.
else:
# Exclude any zeros (which are typically due to unfinished scan)
image_nonzero = self._image.image[np.nonzero(self._image.image)]
# Read centile range
low_centile = self._min_percentile.value()
high_centile = self._max_percentile.value()
cb_min = np.percentile(image_nonzero, low_centile)
cb_max = np.percentile(image_nonzero, high_centile)
cb_range = [cb_min, cb_max]
return cb_range
def refresh_colorbar(self):
""" Adjust the colorbar. """
cb_range = self.get_cb_range()
self._cb.refresh_colorbar(cb_range[0], cb_range[1])
def refresh_image(self):
""" Update the image colors range."""
image_data = self._image.image
cb_range = self.get_cb_range()
self._image.setImage(image=image_data,
levels=(cb_range[0], cb_range[1]))
self.refresh_colorbar()
def update_cb_range(self):
""" Redraw colour bar and image."""
self.refresh_colorbar()
self.refresh_image()
def shortcut_to_cb_manual(self):
""" Someone edited the absolute counts range for the colour bar, better update."""
self.manual.setChecked(True)
self.update_cb_range()
def shortcut_to_cb_centiles(self):
"""Someone edited the centiles range for the colour bar, better update."""
self.percentile.setChecked(True)
self.update_cb_range()