def generate_laser_mw_on(self, name='laser_mw_on', length=3.0e-6):
""" General generation method for laser on and microwave on generation.
@param string name: Name of the PulseBlockEnsemble to be generated
@param float length: Length of the PulseBlockEnsemble in seconds
@return object: the generated PulseBlockEnsemble object.
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# create the laser_mw element
laser_mw_element = self._get_mw_laser_element(
length=length,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
# Create block and append to created_blocks list
laser_mw_block = PulseBlock(name=name)
laser_mw_block.append(laser_mw_element)
created_blocks.append(laser_mw_block)
# Create block ensemble and append to created_ensembles list
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
block_ensemble.append((laser_mw_block.name, 0))
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_simple_sin(self, name='simple_sin', length=1000e-9, amp=0.25,
freq=5e7, phase=0, num_of_points=50):
"""
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# Create the readout PulseBlockEnsemble
# Get necessary PulseBlockElements
iq_element = self._get_iq_mix_element(length=length, increment=0, amp=amp, freq=freq, phase=phase)
# Create PulseBlock and append PulseBlockElements
signal_block = PulseBlock(name=name)
signal_block.append(iq_element)
created_blocks.append(signal_block)
# Create PulseBlockEnsemble and append block to it
signal_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
signal_ensemble.append((signal_block.name, 0))
if self.sync_channel:
# Create the last readout PulseBlockEnsemble including a sync trigger
# Get necessary PulseBlockElements
sync_element = self._get_sync_element()
# Create PulseBlock and append PulseBlockElements
sync_block = PulseBlock(name=name)
sync_block.append(iq_element)
sync_block.append(sync_element)
created_blocks.append(sync_block)
# Create PulseBlockEnsemble and append block to it
sync_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
sync_ensemble.append((sync_block.name, 0))
created_ensembles.append(sync_ensemble)
# add metadata to invoke settings later on
signal_ensemble.measurement_information['alternating'] = False
signal_ensemble.measurement_information['laser_ignore_list'] = list()
signal_ensemble.measurement_information['units'] = ('s', '')
signal_ensemble.measurement_information['number_of_lasers'] = num_of_points
signal_ensemble.measurement_information['counting_length'] = 0
# Append PulseSequence to created_sequences list
created_ensembles.append(signal_ensemble)
return created_blocks, created_ensembles, created_sequences
def set_activation_config(self, activation_config):
"""
@param activation_config:
@return:
"""
if isinstance(activation_config, list):
activation_config = set(activation_config)
# Do nothing if the activation config has not changed or is wrong data type
if not isinstance(activation_config,
set) or activation_config == self.activation_config:
return
self.beginResetModel()
self.activation_config = activation_config
self.digital_channels = sorted(
(chnl for chnl in activation_config if chnl.startswith('d')),
key=lambda chnl: int(chnl.split('ch')[-1]))
self.analog_channels = sorted(
(chnl for chnl in activation_config if chnl.startswith('a')),
key=lambda chnl: int(chnl.split('ch')[-1]))
analog_shape = {
chnl: SamplingFunctions.Idle()
for chnl in self.analog_channels
}
digital_state = {chnl: False for chnl in self.digital_channels}
self.__default_element = PulseBlockElement(pulse_function=analog_shape,
digital_high=digital_state)
# The actual model data container with a single default element
self._pulse_block = PulseBlock(name='EDITOR CONTAINER',
element_list=[self.__default_element])
self._col_widths = self._get_column_widths()
self._create_header_data()
self.endResetModel()
self._notify_column_width()
return
def __init__(self):
super().__init__()
self.digital_channels = list()
self.analog_channels = list()
self.activation_config = set()
# The actual model data container.
self._pulse_block = PulseBlock('EDITOR CONTAINER')
# The default PulseBlockElement
self.__default_element = PulseBlockElement()
# Create header strings
self._create_header_data()
# The current column widths.
# The fact that the widths are stored in the model saves a huge amount of computational
# time when resizing columns due to item changes.
self._col_widths = self._get_column_widths()
# Notify the QTableView about a change in column widths
self._notify_column_width()
return
def generate_idle(self, name='idle', length=3.0e-6):
""" Generate just a simple idle ensemble.
@param str name: Name of the PulseBlockEnsemble to be generated
@param float length: Length of the PulseBlockEnsemble in seconds
@return object: the generated PulseBlockEnsemble object.
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# create the laser_mw element
idle_element = self._get_idle_element(length=length, increment=0)
# Create block and append to created_blocks list
idle_block = PulseBlock(name=name)
idle_block.append(idle_element)
created_blocks.append(idle_block)
# Create block ensemble and append to created_ensembles list
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
block_ensemble.append((idle_block.name, 0))
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_laser_on(self, name='laser_on', length=3.0e-6):
""" Generates Laser on.
@param str name: Name of the PulseBlockEnsemble
@param float length: laser duration in seconds
@return object: the generated PulseBlockEnsemble object.
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# create the laser element
laser_element = self._get_laser_element(length=length, increment=0)
# Create block and append to created_blocks list
laser_block = PulseBlock(name=name)
laser_block.append(laser_element)
created_blocks.append(laser_block)
# Create block ensemble and append to created_ensembles list
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
block_ensemble.append((laser_block.name, 0))
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_xy8_freq(self,
name='xy8_freq',
freq_start=0.1e6,
freq_step=0.01e6,
num_of_points=50,
xy8_order=4,
alternating=True):
"""
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# get frequency array for measurement ticks
freq_array = freq_start + np.arange(num_of_points) * freq_step
# get tau array from freq array
tau_array = 1 / (2 * freq_array)
# calculate "real" tau array (finite pi-pulse length)
real_tau_array = tau_array - self.rabi_period / 2
np.clip(real_tau_array, 0, None, real_tau_array)
# Convert back to frequency in order to account for clipped values
freq_array = 1 / (2 * (real_tau_array + self.rabi_period / 2))
# create the elements
waiting_element = self._get_idle_element(length=self.wait_time,
increment=0)
laser_element = self._get_laser_gate_element(length=self.laser_length,
increment=0)
delay_element = self._get_delay_gate_element()
pihalf_element = self._get_mw_element(length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
# Use a 180 deg phase shiftet pulse as 3pihalf pulse if microwave channel is analog
if self.microwave_channel.startswith('a'):
pi3half_element = self._get_mw_element(
length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=180)
else:
pi3half_element = self._get_mw_element(
length=3 * self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
pix_element = self._get_mw_element(length=self.rabi_period / 2,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
piy_element = self._get_mw_element(length=self.rabi_period / 2,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=90)
# Create block and append to created_blocks list
xy8_block = PulseBlock(name=name)
for ii, tau in enumerate(real_tau_array):
tauhalf_element = self._get_idle_element(length=tau / 2,
increment=0)
tau_element = self._get_idle_element(length=tau, increment=0)
xy8_block.append(pihalf_element)
xy8_block.append(tauhalf_element)
for n in range(xy8_order):
xy8_block.append(pix_element)
xy8_block.append(tau_element)
xy8_block.append(piy_element)
xy8_block.append(tau_element)
xy8_block.append(pix_element)
xy8_block.append(tau_element)
xy8_block.append(piy_element)
xy8_block.append(tau_element)
xy8_block.append(piy_element)
xy8_block.append(tau_element)
xy8_block.append(pix_element)
xy8_block.append(tau_element)
xy8_block.append(piy_element)
xy8_block.append(tau_element)
xy8_block.append(pix_element)
if n != xy8_order - 1:
xy8_block.append(tau_element)
xy8_block.append(tauhalf_element)
xy8_block.append(pihalf_element)
xy8_block.append(laser_element)
xy8_block.append(delay_element)
xy8_block.append(waiting_element)
if alternating:
xy8_block.append(pihalf_element)
xy8_block.append(tauhalf_element)
for n in range(xy8_order):
xy8_block.append(pix_element)
xy8_block.append(tau_element)
xy8_block.append(piy_element)
xy8_block.append(tau_element)
xy8_block.append(pix_element)
xy8_block.append(tau_element)
xy8_block.append(piy_element)
xy8_block.append(tau_element)
xy8_block.append(piy_element)
xy8_block.append(tau_element)
xy8_block.append(pix_element)
xy8_block.append(tau_element)
xy8_block.append(piy_element)
xy8_block.append(tau_element)
xy8_block.append(pix_element)
if n != xy8_order - 1:
xy8_block.append(tau_element)
xy8_block.append(tauhalf_element)
xy8_block.append(pi3half_element)
xy8_block.append(laser_element)
xy8_block.append(delay_element)
xy8_block.append(waiting_element)
created_blocks.append(xy8_block)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=True)
block_ensemble.append((xy8_block.name, 0))
# Create and append sync trigger block if needed
if self.sync_channel:
sync_block = PulseBlock(name='sync_trigger')
sync_block.append(self._get_sync_element())
created_blocks.append(sync_block)
block_ensemble.append((sync_block.name, 0))
# add metadata to invoke settings later on
number_of_lasers = num_of_points * 2 if alternating else num_of_points
block_ensemble.measurement_information['alternating'] = alternating
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information[
'controlled_variable'] = freq_array
block_ensemble.measurement_information['units'] = ('Hz', '')
block_ensemble.measurement_information[
'number_of_lasers'] = number_of_lasers
block_ensemble.measurement_information[
'counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# append ensemble to created ensembles
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_HHpol(self,
name='hh_pol',
spinlock_length=20.0e-6,
spinlock_amp=0.1,
polarization_steps=50):
"""
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# get steps array for measurement ticks
steps_array = np.arange(2 * polarization_steps)
# create the elements
waiting_element = self._get_idle_element(length=self.wait_time,
increment=0)
laser_element = self._get_laser_gate_element(length=self.laser_length,
increment=0)
delay_element = self._get_delay_gate_element()
pihalf_element = self._get_mw_element(length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
# Use a 180 deg phase shiftet pulse as 3pihalf pulse if microwave channel is analog
if self.microwave_channel.startswith('a'):
pi3half_element = self._get_mw_element(
length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=180)
else:
pi3half_element = self._get_mw_element(
length=3 * self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
sl_element = self._get_mw_element(length=spinlock_length,
increment=0,
amp=spinlock_amp,
freq=self.microwave_frequency,
phase=90)
# Create block for "up"-polarization and append to created_blocks list
up_block = PulseBlock(name=name + '_up')
up_block.append(pihalf_element)
up_block.append(sl_element)
up_block.append(pihalf_element)
up_block.append(laser_element)
up_block.append(delay_element)
up_block.append(waiting_element)
created_blocks.append(up_block)
# Create block for "down"-polarization and append to created_blocks list
down_block = PulseBlock(name=name + '_down')
down_block.append(pi3half_element)
down_block.append(sl_element)
down_block.append(pi3half_element)
down_block.append(laser_element)
down_block.append(delay_element)
down_block.append(waiting_element)
created_blocks.append(down_block)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=True)
block_ensemble.append((up_block.name, polarization_steps - 1))
block_ensemble.append((down_block.name, polarization_steps - 1))
# Create and append sync trigger block if needed
if self.sync_channel:
sync_block = PulseBlock(name='sync_trigger')
sync_block.append(self._get_sync_element())
created_blocks.append(sync_block)
block_ensemble.append((sync_block.name, 0))
# add metadata to invoke settings later on
block_ensemble.measurement_information['alternating'] = False
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information[
'controlled_variable'] = steps_array
block_ensemble.measurement_information['units'] = ('#', '')
block_ensemble.measurement_information[
'number_of_lasers'] = 2 * polarization_steps
block_ensemble.measurement_information[
'counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# append ensemble to created ensembles
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_HHtau(self,
name='hh_tau',
spinlock_amp=0.1,
tau_start=1e-6,
tau_step=1e-6,
num_of_points=50):
"""
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# get tau array for measurement ticks
tau_array = tau_start + np.arange(num_of_points) * tau_step
# create the elements
waiting_element = self._get_idle_element(length=self.wait_time,
increment=0)
laser_element = self._get_laser_gate_element(length=self.laser_length,
increment=0)
delay_element = self._get_delay_gate_element()
pihalf_element = self._get_mw_element(length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
# Use a 180 deg phase shiftet pulse as 3pihalf pulse if microwave channel is analog
if self.microwave_channel.startswith('a'):
pi3half_element = self._get_mw_element(
length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=180)
else:
pi3half_element = self._get_mw_element(
length=3 * self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
sl_element = self._get_mw_element(length=tau_start,
increment=tau_step,
amp=spinlock_amp,
freq=self.microwave_frequency,
phase=90)
# Create block and append to created_blocks list
hhtau_block = PulseBlock(name=name)
hhtau_block.append(pihalf_element)
hhtau_block.append(sl_element)
hhtau_block.append(pihalf_element)
hhtau_block.append(laser_element)
hhtau_block.append(delay_element)
hhtau_block.append(waiting_element)
hhtau_block.append(pi3half_element)
hhtau_block.append(sl_element)
hhtau_block.append(pihalf_element)
hhtau_block.append(laser_element)
hhtau_block.append(delay_element)
hhtau_block.append(waiting_element)
created_blocks.append(hhtau_block)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=True)
block_ensemble.append((hhtau_block.name, num_of_points - 1))
# Create and append sync trigger block if needed
if self.sync_channel:
sync_block = PulseBlock(name='sync_trigger')
sync_block.append(self._get_sync_element())
created_blocks.append(sync_block)
block_ensemble.append((sync_block.name, 0))
# add metadata to invoke settings later on
block_ensemble.measurement_information['alternating'] = True
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information[
'controlled_variable'] = tau_array
block_ensemble.measurement_information['units'] = ('s', '')
block_ensemble.measurement_information[
'number_of_lasers'] = 2 * num_of_points
block_ensemble.measurement_information[
'counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# append ensemble to created ensembles
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_pulsedodmr(self,
name='pulsedODMR',
freq_start=2870.0e6,
freq_step=0.2e6,
num_of_points=50):
"""
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# Create frequency array
freq_array = freq_start + np.arange(num_of_points) * freq_step
# create the elements
waiting_element = self._get_idle_element(length=self.wait_time,
increment=0)
laser_element = self._get_laser_gate_element(length=self.laser_length,
increment=0)
delay_element = self._get_delay_gate_element()
# Create block and append to created_blocks list
pulsedodmr_block = PulseBlock(name=name)
for mw_freq in freq_array:
mw_element = self._get_mw_element(length=self.rabi_period / 2,
increment=0,
amp=self.microwave_amplitude,
freq=mw_freq,
phase=0)
pulsedodmr_block.append(mw_element)
pulsedodmr_block.append(laser_element)
pulsedodmr_block.append(delay_element)
pulsedodmr_block.append(waiting_element)
created_blocks.append(pulsedodmr_block)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
block_ensemble.append((pulsedodmr_block.name, 0))
# Create and append sync trigger block if needed
if self.sync_channel:
sync_block = PulseBlock(name='sync_trigger')
sync_block.append(self._get_sync_element())
created_blocks.append(sync_block)
block_ensemble.append((sync_block.name, 0))
# add metadata to invoke settings later on
block_ensemble.measurement_information['alternating'] = False
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information[
'controlled_variable'] = freq_array
block_ensemble.measurement_information['units'] = ('Hz', '')
block_ensemble.measurement_information[
'number_of_lasers'] = num_of_points
block_ensemble.measurement_information[
'counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# append ensemble to created ensembles
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_rabi(self,
name='rabi',
tau_start=10.0e-9,
tau_step=10.0e-9,
number_of_taus=50):
"""
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# get tau array for measurement ticks
tau_array = tau_start + np.arange(number_of_taus) * tau_step
# create the laser_mw element
mw_element = self._get_mw_element(length=tau_start,
increment=tau_step,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
waiting_element = self._get_idle_element(length=self.wait_time,
increment=0)
laser_element = self._get_laser_gate_element(length=self.laser_length,
increment=0)
delay_element = self._get_delay_gate_element()
# Create block and append to created_blocks list
rabi_block = PulseBlock(name=name)
rabi_block.append(mw_element)
rabi_block.append(laser_element)
rabi_block.append(delay_element)
rabi_block.append(waiting_element)
created_blocks.append(rabi_block)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
block_ensemble.append((rabi_block.name, number_of_taus - 1))
# Create and append sync trigger block if needed
if self.sync_channel:
sync_block = PulseBlock(name='sync_trigger')
sync_block.append(self._get_sync_element())
created_blocks.append(sync_block)
block_ensemble.append((sync_block.name, 0))
# add metadata to invoke settings later on
block_ensemble.measurement_information['alternating'] = False
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information[
'controlled_variable'] = tau_array
block_ensemble.measurement_information['units'] = ('s', '')
block_ensemble.measurement_information[
'number_of_lasers'] = number_of_taus
block_ensemble.measurement_information[
'counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# Append ensemble to created_ensembles list
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_pulsedodmr_iq(self, name='pulsedODMR_iq', freq_start=50e6, freq_step=1e6,
measure_time=500e-9, num_of_points=10):
"""
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# Create frequency array
freq_array = freq_start + np.arange(num_of_points) * freq_step
# create the elements
# TODO delete this
waiting_element = self._get_idle_element(length=1e-03,
increment=0)
start_element = self._get_trigger_element(20e-9, 0, 'd_ch0')
waiting_element = self._get_idle_element(length=measure_time,
increment=0)
end_element = self._get_trigger_element(20e-9, 0, 'd_ch1')
# Create block and append to created_blocks list
pulsedodmr_block = PulseBlock(name=name)
for mw_freq in freq_array:
mw_element = self._get_iq_mix_element(length=self.rabi_period / 2,
increment=0,
amp=self.iq_amplitude,
freq=mw_freq,
phase=0)
pulsedodmr_block.append(mw_element)
pulsedodmr_block.append(start_element)
pulsedodmr_block.append(waiting_element)
pulsedodmr_block.append(end_element)
created_blocks.append(pulsedodmr_block)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
block_ensemble.append((pulsedodmr_block.name, 0))
# Create and append sync trigger block if needed
if self.sync_channel:
sync_block = PulseBlock(name='sync_trigger')
sync_block.append(self._get_sync_element())
created_blocks.append(sync_block)
block_ensemble.append((sync_block.name, 0))
# add metadata to invoke settings later on
block_ensemble.measurement_information['alternating'] = False
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information['controlled_variable'] = freq_array
block_ensemble.measurement_information['units'] = ('Hz', '')
block_ensemble.measurement_information['labels'] = ('Frequency', 'Signal')
block_ensemble.measurement_information['number_of_lasers'] = num_of_points
block_ensemble.measurement_information['counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# append ensemble to created ensembles
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_trig_click(self, name='trig_click(', num_clicks=3, num_reps=10, wait_time=100e-9):
"""
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# create the elements
waiting_element = self._get_idle_element(length=wait_time,
increment=0)
start_element = self._get_trigger_element(10e-9, 0, 'd_ch0')
click_element = self._get_trigger_element(10e-9, 0, 'd_ch1')
# Create block and append to created_blocks list
pulsedodmr_block = PulseBlock(name=name)
trig = 0
while trig < num_reps:
pulsedodmr_block.append(start_element)
pulsedodmr_block.append(waiting_element)
count = 0
while count < num_clicks:
pulsedodmr_block.append(click_element)
pulsedodmr_block.append(waiting_element)
count += 1
trig += 1
created_blocks.append(pulsedodmr_block)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=False)
block_ensemble.append((pulsedodmr_block.name, 0))
# Create and append sync trigger block if needed
if self.sync_channel:
sync_block = PulseBlock(name='sync_trigger')
sync_block.append(self._get_sync_element())
created_blocks.append(sync_block)
block_ensemble.append((sync_block.name, 0))
# add metadata to invoke settings later on
block_ensemble.measurement_information['alternating'] = False
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information['controlled_variable'] = np.arange(num_reps)
block_ensemble.measurement_information['units'] = ('Hz', '')
block_ensemble.measurement_information['labels'] = ('Frequency', 'Signal')
block_ensemble.measurement_information['number_of_lasers'] = num_reps
block_ensemble.measurement_information['counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# append ensemble to created ensembles
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_rot_echo_N(self,
name='rot_echo_N',
amp_hh=0.05,
tau=0.5e-6,
order_start=4,
order_step=1,
num_of_points=50,
alternating=True):
"""
Rotary echo - continuous dynamical decoupling with 0/180 phase changes.
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# get order array
order_array = order_start + np.arange(num_of_points) * order_step
# create the elements
waiting_element = self._get_idle_element(length=self.wait_time,
increment=0)
laser_element = self._get_laser_gate_element(length=self.laser_length,
increment=0)
delay_element = self._get_delay_gate_element()
pihalf_element = self._get_mw_element(length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
# Use a 180 deg phase shifted pulse as 3pihalf pulse if microwave channel is analog
if self.microwave_channel.startswith('a'):
pi3half_element = self._get_mw_element(
length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=180)
else:
pi3half_element = self._get_mw_element(
length=3 * self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
pix_element = self._get_mw_element(length=tau,
increment=0,
amp=amp_hh,
freq=self.microwave_frequency,
phase=0)
piy_element = self._get_mw_element(length=tau,
increment=0,
amp=amp_hh,
freq=self.microwave_frequency,
phase=180)
# Create block and append to created_blocks list
rot_echo_tau = PulseBlock(name=name)
for order in order_array:
rot_echo_tau.append(pihalf_element)
for n in range(order):
rot_echo_tau.append(pix_element)
rot_echo_tau.append(piy_element)
rot_echo_tau.append(pihalf_element)
rot_echo_tau.append(laser_element)
rot_echo_tau.append(delay_element)
rot_echo_tau.append(waiting_element)
if alternating:
rot_echo_tau.append(pihalf_element)
for n in range(order):
rot_echo_tau.append(pix_element)
rot_echo_tau.append(piy_element)
rot_echo_tau.append(pi3half_element)
rot_echo_tau.append(laser_element)
rot_echo_tau.append(delay_element)
rot_echo_tau.append(waiting_element)
created_blocks.append(rot_echo_tau)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=True)
block_ensemble.append((rot_echo_tau.name, 0))
# Create and append sync trigger block if needed
self._add_trigger(created_blocks=created_blocks,
block_ensemble=block_ensemble)
# add metadata to invoke settings later on
number_of_lasers = num_of_points * 2 if alternating else num_of_points
block_ensemble.measurement_information['alternating'] = alternating
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information[
'controlled_variable'] = order_array
block_ensemble.measurement_information['units'] = ('', '')
block_ensemble.measurement_information['labels'] = ('order', 'Signal')
block_ensemble.measurement_information[
'number_of_lasers'] = number_of_lasers
block_ensemble.measurement_information[
'counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# append ensemble to created ensembles
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
def generate_HHphase_tau(self,
name='HH_Phase',
amp_hh=0.5,
tau_start=0.5e-6,
tau_step=0.01e-6,
num_of_points=50,
xy8_order=4,
alternating=True):
"""
Continuous dynamical decoupling with XY8 like phase changes.
"""
created_blocks = list()
created_ensembles = list()
created_sequences = list()
# get tau array for measurement ticks
tau_array = tau_start + np.arange(num_of_points) * tau_step
# create the elements
waiting_element = self._get_idle_element(length=self.wait_time,
increment=0)
laser_element = self._get_laser_gate_element(length=self.laser_length,
increment=0)
delay_element = self._get_delay_gate_element()
pihalf_element = self._get_mw_element(length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
# Use a 180 deg phase shifted pulse as 3pihalf pulse if microwave channel is analog
if self.microwave_channel.startswith('a'):
pi3half_element = self._get_mw_element(
length=self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=180)
else:
pi3half_element = self._get_mw_element(
length=3 * self.rabi_period / 4,
increment=0,
amp=self.microwave_amplitude,
freq=self.microwave_frequency,
phase=0)
pix_element = self._get_mw_element(length=tau_start,
increment=tau_step,
amp=amp_hh,
freq=self.microwave_frequency,
phase=0)
piy_element = self._get_mw_element(length=tau_start,
increment=tau_step,
amp=amp_hh,
freq=self.microwave_frequency,
phase=90)
# Create block and append to created_blocks list
hhphase_block = PulseBlock(name=name)
hhphase_block.append(pihalf_element)
for n in range(xy8_order):
hhphase_block.append(pix_element)
hhphase_block.append(piy_element)
hhphase_block.append(pix_element)
hhphase_block.append(piy_element)
hhphase_block.append(piy_element)
hhphase_block.append(pix_element)
hhphase_block.append(piy_element)
hhphase_block.append(pix_element)
hhphase_block.append(pihalf_element)
hhphase_block.append(laser_element)
hhphase_block.append(delay_element)
hhphase_block.append(waiting_element)
if alternating:
hhphase_block.append(pihalf_element)
for n in range(xy8_order):
hhphase_block.append(pix_element)
hhphase_block.append(piy_element)
hhphase_block.append(pix_element)
hhphase_block.append(piy_element)
hhphase_block.append(piy_element)
hhphase_block.append(pix_element)
hhphase_block.append(piy_element)
hhphase_block.append(pix_element)
hhphase_block.append(pi3half_element)
hhphase_block.append(laser_element)
hhphase_block.append(delay_element)
hhphase_block.append(waiting_element)
created_blocks.append(hhphase_block)
# Create block ensemble
block_ensemble = PulseBlockEnsemble(name=name, rotating_frame=True)
block_ensemble.append((hhphase_block.name, num_of_points - 1))
# Create and append sync trigger block if needed
self._add_trigger(created_blocks=created_blocks,
block_ensemble=block_ensemble)
# add metadata to invoke settings later on
number_of_lasers = num_of_points * 2 if alternating else num_of_points
block_ensemble.measurement_information['alternating'] = alternating
block_ensemble.measurement_information['laser_ignore_list'] = list()
block_ensemble.measurement_information[
'controlled_variable'] = tau_array
block_ensemble.measurement_information['units'] = ('s', '')
block_ensemble.measurement_information['labels'] = ('Frequency',
'Signal')
block_ensemble.measurement_information[
'number_of_lasers'] = number_of_lasers
block_ensemble.measurement_information[
'counting_length'] = self._get_ensemble_count_length(
ensemble=block_ensemble, created_blocks=created_blocks)
# append ensemble to created ensembles
created_ensembles.append(block_ensemble)
return created_blocks, created_ensembles, created_sequences
class BlockEditorTableModel(QtCore.QAbstractTableModel):
"""
"""
# signals
sigColumnWidthChanged = QtCore.Signal(int, int)
# User defined roles for model data access
lengthRole = QtCore.Qt.UserRole + 1
incrementRole = QtCore.Qt.UserRole + 2
digitalStateRole = QtCore.Qt.UserRole + 3
analogFunctionRole = QtCore.Qt.UserRole + 4
analogShapeRole = QtCore.Qt.UserRole + 5
analogParameterRole = QtCore.Qt.UserRole + 6
analogChannelSetRole = QtCore.Qt.UserRole + 7
digitalChannelSetRole = QtCore.Qt.UserRole + 8
channelSetRole = QtCore.Qt.UserRole + 9
blockElementRole = QtCore.Qt.UserRole + 10
pulseBlockRole = QtCore.Qt.UserRole + 11
def __init__(self):
super().__init__()
self.digital_channels = list()
self.analog_channels = list()
self.activation_config = set()
# The actual model data container.
self._pulse_block = PulseBlock('EDITOR CONTAINER')
# The default PulseBlockElement
self.__default_element = PulseBlockElement()
# Create header strings
self._create_header_data()
# The current column widths.
# The fact that the widths are stored in the model saves a huge amount of computational
# time when resizing columns due to item changes.
self._col_widths = self._get_column_widths()
# Notify the QTableView about a change in column widths
self._notify_column_width()
return
def _create_header_data(self):
"""
@return:
"""
# The horizontal header data
self._h_header_data = ['length\nin s', 'increment\nin s']
if self.digital_channels:
self._h_header_data.append('digital\nchannels')
for chnl in self.analog_channels:
self._h_header_data.append('{0}\nshape'.format(chnl))
self._h_header_data.append('{0}\nparameters'.format(chnl))
return
def _notify_column_width(self, column=None):
"""
@param column:
@return:
"""
if column is None:
for column, width in enumerate(self._col_widths):
self.sigColumnWidthChanged.emit(column, width)
return
if isinstance(column, int):
if 0 <= column < len(self._col_widths):
self.sigColumnWidthChanged.emit(column, self._col_widths[column])
return
def _get_column_widths(self):
"""
@return:
"""
widths = list()
for column in range(self.columnCount()):
width = self._get_column_width(column)
if width < 0:
return -1
widths.append(width)
return widths
def _get_column_width(self, column):
"""
@return:
"""
if not isinstance(column, int):
return -1
if column < self.columnCount():
has_digital = bool(len(self.digital_channels))
if column < 2:
width = 90
elif column == 2 and has_digital:
width = 30 * len(self.digital_channels)
else:
a_ch_offset = 2 + int(has_digital)
if (column - a_ch_offset) % 2 == 0:
width = 80
else:
channel = self.analog_channels[(column - a_ch_offset) // 2]
max_param_number = 0
for element in self._pulse_block:
tmp_size = len(element.pulse_function[channel].params)
if tmp_size > max_param_number:
max_param_number = tmp_size
width = 90 * max_param_number
return width
else:
return -1
def set_activation_config(self, activation_config):
"""
@param activation_config:
@return:
"""
if isinstance(activation_config, list):
activation_config = set(activation_config)
# Do nothing if the activation config has not changed or is wrong data type
if not isinstance(activation_config, set) or activation_config == self.activation_config:
return
self.beginResetModel()
self.activation_config = activation_config
self.digital_channels = sorted((chnl for chnl in activation_config if chnl.startswith('d')),
key=lambda chnl: int(chnl.split('ch')[-1]))
self.analog_channels = sorted((chnl for chnl in activation_config if chnl.startswith('a')),
key=lambda chnl: int(chnl.split('ch')[-1]))
analog_shape = {chnl: SamplingFunctions.Idle() for chnl in self.analog_channels}
digital_state = {chnl: False for chnl in self.digital_channels}
self.__default_element = PulseBlockElement(pulse_function=analog_shape,
digital_high=digital_state)
# The actual model data container with a single default element
self._pulse_block = PulseBlock(name='EDITOR CONTAINER',
element_list=[self.__default_element])
self._col_widths = self._get_column_widths()
self._create_header_data()
self.endResetModel()
self._notify_column_width()
return
def rowCount(self, parent=QtCore.QModelIndex()):
return len(self._pulse_block)
def columnCount(self, parent=QtCore.QModelIndex()):
return 2 + int(len(self.digital_channels) > 0) + 2 * len(self.analog_channels)
def data(self, index, role=QtCore.Qt.DisplayRole):
if role == QtCore.Qt.DisplayRole:
return None
if role == self.pulseBlockRole:
self._pulse_block.refresh_parameters()
return self._pulse_block
if role == self.analogChannelSetRole:
return self._pulse_block.analog_channels
if role == self.digitalChannelSetRole:
return self._pulse_block.digital_channels
if role == self.channelSetRole:
return self._pulse_block.channel_set
if not index.isValid():
return None
if role == self.lengthRole:
return self._pulse_block[index.row()].init_length_s
if role == self.incrementRole:
return self._pulse_block[index.row()].increment_s
if role == self.digitalStateRole:
return self._pulse_block[index.row()].digital_high
if role == self.analogFunctionRole:
element = self._pulse_block[index.row()]
if len(self.digital_channels) > 0:
col_offset = 3
else:
col_offset = 2
analog_chnl = self.analog_channels[(index.column() - col_offset) // 2]
return element.pulse_function[analog_chnl]
if role == self.analogShapeRole:
element = self._pulse_block[index.row()]
if len(self.digital_channels) > 0:
col_offset = 3
else:
col_offset = 2
analog_chnl = self.analog_channels[(index.column() - col_offset) // 2]
return element.pulse_function[analog_chnl].__class__.__name__
if role == self.analogParameterRole:
element = self._pulse_block[index.row()]
if len(self.digital_channels) > 0:
col_offset = 3
else:
col_offset = 2
analog_chnl = self.analog_channels[(index.column() - col_offset) // 2]
return vars(element.pulse_function[analog_chnl])
if role == self.blockElementRole:
return self._pulse_block[index.row()]
return None
def setData(self, index, data, role=QtCore.Qt.DisplayRole):
"""
"""
if isinstance(data, PulseBlockElement):
self._pulse_block[index.row()] = copy.deepcopy(data)
return
if role == self.lengthRole and isinstance(data, (int, float)):
old_elem = self._pulse_block[index.row()]
if data != old_elem.init_length_s:
new_elem = PulseBlockElement(init_length_s=max(0, data),
increment_s=old_elem.increment_s,
pulse_function=old_elem.pulse_function,
digital_high=old_elem.digital_high)
self._pulse_block[index.row()] = new_elem
elif role == self.incrementRole and isinstance(data, (int, float)):
old_elem = self._pulse_block[index.row()]
if data != old_elem.increment_s:
new_elem = PulseBlockElement(init_length_s=old_elem.init_length_s,
increment_s=data,
pulse_function=old_elem.pulse_function,
digital_high=old_elem.digital_high)
self._pulse_block[index.row()] = new_elem
elif role == self.digitalStateRole and isinstance(data, dict):
old_elem = self._pulse_block[index.row()]
if data != old_elem.digital_high:
new_elem = PulseBlockElement(init_length_s=old_elem.init_length_s,
increment_s=old_elem.increment_s,
pulse_function=old_elem.pulse_function,
digital_high=data.copy())
self._pulse_block[index.row()] = new_elem
elif role == self.analogShapeRole and isinstance(data, str):
if self.data(index=index, role=self.analogShapeRole) != data:
old_elem = self._pulse_block[index.row()]
sampling_func = getattr(SamplingFunctions, data)
col_offset = 3 if self.digital_channels else 2
chnl = self.analog_channels[(index.column() - col_offset) // 2]
pulse_function = old_elem.pulse_function.copy()
pulse_function[chnl] = sampling_func()
new_elem = PulseBlockElement(init_length_s=old_elem.init_length_s,
increment_s=old_elem.increment_s,
pulse_function=pulse_function,
digital_high=old_elem.digital_high)
self._pulse_block[index.row()] = new_elem
new_column_width = self._get_column_width(index.column()+1)
if new_column_width >= 0 and new_column_width != self._col_widths[index.column()+1]:
self._col_widths[index.column() + 1] = new_column_width
self._notify_column_width(index.column()+1)
elif role == self.analogParameterRole and isinstance(data, dict):
col_offset = 3 if self.digital_channels else 2
chnl = self.analog_channels[(index.column() - col_offset) // 2]
self._pulse_block[index.row()].pulse_function[chnl].__init__(**data)
elif role == self.pulseBlockRole and isinstance(data, PulseBlock):
self._pulse_block = copy.deepcopy(data)
self._pulse_block.name = 'EDITOR CONTAINER'
self._pulse_block.refresh_parameters()
return
def headerData(self, section, orientation, role):
# Horizontal header
if orientation == QtCore.Qt.Horizontal:
# if role == QtCore.Qt.BackgroundRole:
# return QVariant(QBrush(QColor(Qt::green), Qt::SolidPattern))
if role == QtCore.Qt.SizeHintRole:
if section < len(self._col_widths):
return QtCore.QSize(self._col_widths[section], 40)
if role == QtCore.Qt.DisplayRole:
if section < len(self._h_header_data):
return self._h_header_data[section]
# Vertical header
# if orientation == QtCore.Qt.Vertical:
# if role == QtCore.Qt.BackgroundRole:
# return QtCore.Qt.QVariant(QtGui.Qt.QBrush(QtGui.Qt.QColor(QtCore.Qt.green),
# QtCore.Qt.SolidPattern))
return super().headerData(section, orientation, role)
def flags(self, index):
return QtCore.Qt.ItemIsEditable | QtCore.Qt.ItemIsSelectable | QtCore.Qt.ItemIsEnabled
def insertRows(self, row, count, parent=None):
"""
@param row:
@param count:
@param parent:
@return:
"""
# Sanity/range checking
if row < 0 or row > self.rowCount():
return False
if parent is None:
parent = QtCore.QModelIndex()
self.beginInsertRows(parent, row, row + count - 1)
for i in range(count):
self._pulse_block.insert(position=row, element=self.__default_element)
self.endInsertRows()
return True
def removeRows(self, row, count, parent=None):
"""
@param row:
@param count:
@param parent:
@return:
"""
# Sanity/range checking
if row < 0 or row >= self.rowCount() or (row + count) > self.rowCount():
return False
if parent is None:
parent = QtCore.QModelIndex()
self.beginRemoveRows(parent, row, row + count - 1)
del self._pulse_block[row:row + count]
self._col_widths = self._get_column_widths()
self._notify_column_width()
self.endRemoveRows()
return True
def set_pulse_block(self, pulse_block):
"""
@param pulse_block:
@return:
"""
if not isinstance(pulse_block, PulseBlock):
return False
elif pulse_block.channel_set != self.activation_config:
return False
self.beginResetModel()
self.setData(QtCore.QModelIndex(), pulse_block, self.pulseBlockRole)
self._col_widths = self._get_column_widths()
self._notify_column_width()
self.endResetModel()
return True
