def close(self):
'''closing instruments:
'''
AWG.Abort_Gen(self.awgsess)
AWG.close(self.awgsess)
PSGA.rfoutput(self.saga, action=['Set', 0])
PSGA.close(self.saga, False)
MXA.close(self.mxa, False)
@author: mesch
"""
from colorama import init, Fore, Back
init(autoreset=True) #to convert termcolor to wins color
import copy
from pyqum.instrument.benchtop import RSA5, PSGA, MXA
from pyqum.instrument.modular import AWG
from pyqum.instrument.logger import status_code
from pyqum.instrument.analyzer import curve
from numpy import sin, cos, pi, array, float64, sum, dot
# Initialize instruments:
# PSGA
saga = PSGA.Initiate()
PSGA.rfoutput(saga, action=['Set', 1])
PSGA.frequency(saga, action=['Set', "5.5" + "GHz"])
PSGA.power(saga, action=['Set', "12" + "dBm"])
# SA
mxa = MXA.Initiate()
MXA.frequency(mxa, action=['Set', '5.525GHz'])
MXA.fspan(mxa, action=['Set', '150MHz'])
MXA.rbw(mxa, action=['Set', '1MHz'])
MXA.vbw(mxa, action=['Set', '100kHz'])
MXA.trigger_source(mxa, action=['Set', 'EXTernal1'])
# AWG
awgsess = AWG.InitWithOptions()
AWG.Abort_Gen(awgsess)
AWG.ref_clock_source(awgsess,
action=['Set', int(1)]) # External 10MHz clock-reference
def Initialize(self):
# Initialize instruments:
# PSGA
self.saga = PSGA.Initiate()
PSGA.rfoutput(self.saga, action=['Set', 1])
PSGA.frequency(self.saga, action=['Set', "5.5" + "GHz"])
PSGA.power(self.saga, action=['Set', "12" + "dBm"])
# SA
self.mxa = MXA.Initiate()
MXA.frequency(self.mxa, action=['Set', '5.525GHz'])
MXA.fspan(self.mxa, action=['Set', '150MHz'])
MXA.rbw(self.mxa, action=['Set', '1MHz'])
MXA.vbw(self.mxa, action=['Set', '100kHz'])
MXA.trigger_source(self.mxa, action=['Set', 'EXTernal1'])
# AWG
self.awgsess = AWG.InitWithOptions()
AWG.Abort_Gen(self.awgsess)
AWG.ref_clock_source(self.awgsess,
action=['Set',
int(1)]) # External 10MHz clock-reference
AWG.predistortion_enabled(self.awgsess, action=['Set', True])
AWG.output_mode_adv(self.awgsess,
action=['Set', int(2)]) # Sequence output mode
AWG.arb_sample_rate(self.awgsess, action=['Set',
float(1250000000)
]) # maximum sampling rate
AWG.active_marker(self.awgsess, action=['Set', '3']) # master
AWG.marker_delay(self.awgsess, action=['Set', float(0)])
AWG.marker_pulse_width(self.awgsess, action=['Set', float(1e-7)])
AWG.marker_source(self.awgsess, action=['Set', int(7)])
samplingrate = AWG.arb_sample_rate(self.awgsess)[1]
dt = 1e9 / samplingrate # in ns
# PRESET Output:
for ch in range(2):
channel = str(ch + 1)
AWG.output_config(self.awgsess, RepCap=channel,
action=["Set", 0]) # Single-ended
AWG.output_filter_bandwidth(self.awgsess,
RepCap=channel,
action=["Set", 0])
AWG.arb_gain(self.awgsess, RepCap=channel, action=["Set", 0.5])
AWG.output_impedance(self.awgsess,
RepCap=channel,
action=["Set", 50])
# output settings:
for ch in range(2):
channel = str(ch + 1)
AWG.output_enabled(self.awgsess,
RepCap=channel,
action=["Set", int(1)]) # ON
AWG.output_filter_enabled(self.awgsess,
RepCap=channel,
action=["Set", True])
AWG.output_config(self.awgsess,
RepCap=channel,
action=["Set", int(2)]) # Amplified 1:2
AWG.output_filter_bandwidth(self.awgsess,
RepCap=channel,
action=["Set", 0])
AWG.arb_gain(self.awgsess, RepCap=channel, action=["Set", 0.5])
AWG.output_impedance(self.awgsess,
RepCap=channel,
action=["Set", 50])
def test():
LO_0 = float((MXA.fpower(mxa, str(5.5) + 'GHz')).split('dBm')[0])
Mirror_0 = float((MXA.fpower(mxa, str(5.475) + 'GHz')).split('dBm')[0])
Initial = [0., 0., 1., 0., 0.]
time = 0
OPT = IQ_Cal()
OPT.IQparams = array(Initial, dtype=float64) #overwrite initial values
result = OPT.nelder_mead(time=time)
prev = result[0]
no_improv, no_improv_thr, no_improv_break = 0, 1e-5, 4
LO, Mirror, T = [], [], []
while True:
time += 1
if time % 2: OPT = IQ_Cal('MR', result[0], ratio=time)
else: OPT = IQ_Cal('LO', result[0], ratio=time)
result = OPT.nelder_mead(time=time)
# if len(result) == 3:
# print("Optimized IQ parameters:\n %s" %result)
# break
LO.append(
float((MXA.fpower(mxa,
str(5.5) + 'GHz')).split('dBm')[0]) - LO_0)
Mirror.append(
float((MXA.fpower(mxa,
str(5.475) + 'GHz')).split('dBm')[0]) - Mirror_0)
print(Back.BLUE + Fore.WHITE +
"Mirror has been suppressed for %s from %s" %
(Mirror[-1], Mirror_0))
T.append(time)
ssq = sum((result[0] - prev)**2)
if ssq > no_improv_thr:
no_improv = 0
prev = result[0]
else:
no_improv += 1
if no_improv >= no_improv_break:
AWG_Sinewave(25, OPT.IQparams)
print(type(OPT.IQparams))
print("Optimized IQ parameters:\n %s" % result)
print("Amplitude Imbalance:\n %s" % OPT.IQparams[2])
if OPT.IQparams[3] > OPT.IQparams[
4] and OPT.IQparams[3] - OPT.IQparams[4] < 180:
print("phase skew I-Q:\n %s" %
(OPT.IQparams[3] - OPT.IQparams[4]))
if OPT.IQparams[3] > OPT.IQparams[
4] and OPT.IQparams[3] - OPT.IQparams[4] > 180:
print("phase skew Q-I:\n %s" %
(360 - (OPT.IQparams[3] - OPT.IQparams[4])))
if (OPT.IQparams[4] > OPT.IQparams[3]
and OPT.IQparams[4] - OPT.IQparams[3] < 180) or (
OPT.IQparams[3] > OPT.IQparams[4]
and OPT.IQparams[3] - OPT.IQparams[4] > 180):
print("phase skew Q-I:\n %s" %
(OPT.IQparams[4] - OPT.IQparams[3]))
if (OPT.IQparams[2] > -1.0) and (OPT.IQparams[2] < 1.0):
Iamp = 1
Qamp = Iamp * OPT.IQparams[2]
else:
Qamp = 1
Iamp = Qamp / OPT.IQparams[2]
print("Ioffset:\n %s" % OPT.IQparams[0])
print("Qoffset:\n %s" % OPT.IQparams[1])
print("Iamp:\n %s" % Iamp)
print("Qamp:\n %s" % Qamp)
print("Iphase:\n %s" % OPT.IQparams[3])
print("Qphase:\n %s" % OPT.IQparams[4])
break
curve(T, LO, 'LO Leakage vs time', 'T(#)', 'DLO(dB)')
curve(T, Mirror, 'Mirror Image vs time', 'T(#)', 'DMirror(dB)')
# closing instruments:
ans = input("Press any keys to close AWG, PSGA and RSA-5 ")
AWG.Abort_Gen(awgsess)
AWG.close(awgsess)
PSGA.rfoutput(saga, action=['Set', 0])
PSGA.close(saga, False)
MXA.close(mxa, False)
def __init__(self, LO_freq, LO_powa, IF_freq):
'''
Initialize relevant instruments:
LO_freq: LO frequency in GHz
LO_powa: LO power in dBm
IF_freq: IF frequency in GHz
'''
self.LO_freq, self.LO_powa, self.IF_freq = LO_freq, LO_powa, IF_freq
# SA
self.mxa = MXA.Initiate()
MXA.frequency(self.mxa, action=['Set', '%sGHz' % (LO_freq + IF_freq)])
MXA.fspan(self.mxa, action=['Set', '150MHz'])
MXA.rbw(self.mxa, action=['Set', '1MHz'])
MXA.vbw(self.mxa, action=['Set', '100kHz'])
MXA.trigger_source(self.mxa, action=['Set', 'EXTernal1'])
# PSGA
self.saga = PSGA.Initiate()
PSGA.rfoutput(self.saga, action=['Set', 1])
PSGA.frequency(self.saga, action=['Set', "%sGHz" % LO_freq])
PSGA.power(self.saga, action=['Set', "%sdBm" % LO_powa])
# AWG
self.awgsess = AWG.InitWithOptions()
AWG.Abort_Gen(self.awgsess)
AWG.ref_clock_source(self.awgsess,
action=['Set',
int(1)]) # External 10MHz clock-reference
AWG.predistortion_enabled(self.awgsess, action=['Set', True])
AWG.output_mode_adv(self.awgsess,
action=['Set', int(2)]) # Sequence output mode
AWG.arb_sample_rate(self.awgsess, action=['Set',
float(1250000000)
]) # maximum sampling rate
AWG.active_marker(self.awgsess, action=['Set', '3']) # master
AWG.marker_delay(self.awgsess, action=['Set', float(0)])
AWG.marker_pulse_width(self.awgsess, action=['Set', float(1e-7)])
AWG.marker_source(self.awgsess, action=['Set', int(7)])
# PRESET Output:
for ch in range(2):
channel = str(ch + 1)
AWG.output_config(self.awgsess, RepCap=channel,
action=["Set", 0]) # Single-ended
AWG.output_filter_bandwidth(self.awgsess,
RepCap=channel,
action=["Set", 0])
AWG.arb_gain(self.awgsess, RepCap=channel, action=["Set", 0.5])
AWG.output_impedance(self.awgsess,
RepCap=channel,
action=["Set", 50])
# output settings:
for ch in range(2):
channel = str(ch + 1)
AWG.output_enabled(self.awgsess,
RepCap=channel,
action=["Set", int(1)]) # ON
AWG.output_filter_enabled(self.awgsess,
RepCap=channel,
action=["Set", True])
AWG.output_config(self.awgsess,
RepCap=channel,
action=["Set", int(2)]) # Amplified 1:2
AWG.output_filter_bandwidth(self.awgsess,
RepCap=channel,
action=["Set", 0])
AWG.arb_gain(self.awgsess, RepCap=channel, action=["Set", 0.5])
AWG.output_impedance(self.awgsess,
RepCap=channel,
action=["Set", 50])
def SQE_Pulse(user,
tag="",
corder={},
comment='',
dayindex='',
taskentry=0,
resumepoint=0,
instr=['YOKO', 'PSGV', 'PSGA', 'AWG', 'VSA'],
testeach=False):
'''Time-domain Square-wave measurement:
C-Structure: ['Flux-Bias',
'Average', 'Pulse-Period', 'ADC-delay',
'LO-Frequency', 'LO-Power', 'RO-Frequency', 'RO-Power', 'RO-ifLevel', 'RO-Pulse-Delay', 'RO-Pulse-Width',
'XY-Frequency', 'XY-Power', 'XY-ifLevel', 'XY-Pulse-Delay', 'XY-Pulse-Width',
'Sampling-Time'] (IQ-Bandwidth (250MHz or its HALFlings) + Acquisition-Time (dt must be multiples of 2ns))
'''
# Loading sample:
sample = get_status("MSSN")[session['user_name']]['sample']
# sample = get_status("MSSN")['abc']['sample'] # by-pass HTTP-request before interface is ready
# pushing pre-measurement parameters to settings:
yield user, sample, tag, instr, corder, comment, dayindex, taskentry, testeach
# ***USER_DEFINED*** Controlling-PARAMETER(s) ======================================================================================
structure = corder['C-Structure']
fluxbias = waveform(corder['Flux-Bias'])
averaging = waveform(corder['Average'])
pperiod = waveform(corder['Pulse-Period'])
adcdelay = waveform(corder['ADC-delay'])
lofreq = waveform(corder['LO-Frequency'])
lopowa = waveform(corder['LO-Power'])
rofreq = waveform(corder['RO-Frequency'])
ropowa = waveform(corder['RO-Power'])
roiflevel = waveform(corder['RO-ifLevel'])
ropdelay = waveform(corder['RO-Pulse-Delay'])
ropwidth = waveform(corder['RO-Pulse-Width'])
xyfreq = waveform(corder['XY-Frequency'])
xypowa = waveform(corder['XY-Power'])
xyiflevel = waveform(corder['XY-ifLevel'])
xypdelay = waveform(corder['XY-Pulse-Delay'])
xypwidth = waveform(corder['XY-Pulse-Width'])
samptime = waveform(corder['Sampling-Time'])
# Total data points:
datasize = int(
prod([waveform(corder[param]).count for param in structure],
dtype='uint64')) * 2 #data density of 2 due to IQ
print("data size: %s" % datasize)
# Pre-loop settings:
# Optionals:
# YOKO:
if "opt" not in fluxbias.data: # check if it is in optional-state / serious-state
yokog = YOKO.Initiate(current=True) # pending option
YOKO.output(yokog, 1)
# PSGV:
if "opt" not in xyfreq.data: # check if it is in optional-state / serious-state
sogo = PSG0.Initiate() # pending option
PSG0.rfoutput(sogo, action=['Set', 1])
# Basics:
# PSGA for LO:
saga = PSG1.Initiate() # pending option
PSG1.rfoutput(saga, action=['Set', 1])
# AWG for Control:
awgsess = AWG.InitWithOptions()
AWG.Abort_Gen(awgsess)
AWG.ref_clock_source(awgsess,
action=['Set',
int(1)]) # External 10MHz clock-reference
AWG.predistortion_enabled(awgsess, action=['Set', True])
AWG.output_mode_adv(awgsess, action=['Set',
int(2)]) # Sequence output mode
AWG.arb_sample_rate(awgsess,
action=['Set',
float(1250000000)]) # maximum sampling rate
AWG.active_marker(awgsess, action=['Set', '1']) # master
AWG.marker_delay(awgsess, action=['Set', float(0)])
AWG.marker_pulse_width(awgsess, action=['Set', float(1e-7)])
AWG.marker_source(awgsess, action=['Set', int(7)])
# PRESET Output:
for ch in range(2):
channel = str(ch + 1)
AWG.output_config(awgsess, RepCap=channel, action=["Set",
0]) # Single-ended
AWG.output_filter_bandwidth(awgsess, RepCap=channel, action=["Set", 0])
AWG.arb_gain(awgsess, RepCap=channel, action=["Set", 0.5])
AWG.output_impedance(awgsess, RepCap=channel, action=["Set", 50])
# output settings:
for ch in range(2):
channel = str(ch + 1)
AWG.output_enabled(awgsess, RepCap=channel, action=["Set",
int(1)]) # ON
AWG.output_filter_enabled(awgsess,
RepCap=channel,
action=["Set", True])
AWG.output_config(awgsess, RepCap=channel,
action=["Set", int(2)]) # Amplified 1:2
AWG.output_filter_bandwidth(awgsess, RepCap=channel, action=["Set", 0])
AWG.arb_gain(awgsess, RepCap=channel, action=["Set", 0.5])
AWG.output_impedance(awgsess, RepCap=channel, action=["Set", 50])
# VSA for Readout
vsasess = VSA.InitWithOptions()
# Buffer-size for lowest-bound data-collecting instrument:
buffersize_1 = samptime.count * 2 #data density of 2 due to IQ
print("Buffer-size: %s" % buffersize_1)
# User-defined Measurement-FLOW ==============================================================================================
if testeach: # measure-time contribution from each measure-loop
loopcount, loop_dur = [], []
stage, prev = clocker(0) # Marking starting point of time
# Registerring parameter(s)-structure
cstructure = [waveform(corder[param]).count for param in structure
][:-1] # The last one will become a buffer
print('cstructure: %s' % cstructure)
measure_loop_1 = range(
resumepoint // buffersize_1, datasize //
buffersize_1) # saving chunck by chunck improves speed a lot!
while True:
for i in measure_loop_1:
print(Back.BLUE + Fore.WHITE + 'measure %s/%s' %
(i, datasize // buffersize_1))
# determining the index-locations for each parameters, i.e. the address at any instance
caddress = cdatasearch(i, cstructure)
# setting each c-order (From High to Low level of execution):
# ***************************************************************
for j in range(
len(cstructure) -
1): # the last one will be run for every i (common sense!)
if (
not i % prod(cstructure[j + 1::])
) or i == resumepoint // buffersize_1: # virtual for-loop using exact-multiples condition
# print("entering %s-stage" %j)
# Optionals:
# YOKO
if structure[j] == 'Flux-Bias':
if "opt" not in fluxbias.data: # check if it is in optional-state
if testeach: # adding instrument transition-time between set-values:
loopcount += [fluxbias.count]
if fluxbias.count > 1:
loop_dur += [
abs(fluxbias.data[0] -
fluxbias.data[1]) / 0.2 + 35 * 1e-3
] # manually calculating time without really setting parameter on the instrument
else:
loop_dur += [0]
stage, prev = clocker(stage,
prev) # Marking time
else:
YOKO.sweep(
yokog,
str(fluxbias.data[caddress[structure.index(
'Flux-Bias')]]),
pulsewidth=77 * 1e-3,
sweeprate=0.0007
) # A-mode: sweeprate=0.0007 A/s ; V-mode: sweeprate=0.07 V/s
# PSG
if structure[j] == 'XY-Frequency':
if "opt" not in xyfreq.data: # check if it is in optional-state
PSG0.frequency(
sogo,
action=[
'Set',
str(xyfreq.data[caddress[structure.index(
'XY-Frequency')]]) + "GHz"
])
if structure[j] == 'XY-Power':
if "opt" not in xypowa.data: # check if it is in optional-state
PSG0.power(sogo,
action=[
'Set',
str(xypowa.data[caddress[
structure.index('XY-Power')]]) +
"dBm"
])
if structure[j] == 'RO-Frequency':
if "opt" not in rofreq.data: # check if it is in optional-state
PSG1.frequency(
saga,
action=[
'Set',
str(rofreq.data[caddress[structure.index(
'RO-Frequency')]]) + "GHz"
])
if structure[j] == 'RO-Power':
if "opt" not in ropowa.data: # check if it is in optional-state
PSG1.power(saga,
action=[
'Set',
str(ropowa.data[caddress[
structure.index('RO-Power')]]) +
"dBm"
])
# AWG (Every-loop)
if "opt" not in pperiod.data: # check if it is in optional-state
AWG.Clear_ArbMemory(awgsess)
WAVE = []
# construct waveform:
ifperiod = pperiod.data[caddress[structure.index(
'Pulse-Period')]]
ifscale = float(
xyiflevel.data[caddress[structure.index('XY-ifLevel')]]
), float(
roiflevel.data[caddress[structure.index('RO-ifLevel')]])
if "lockxypwd" in str(ropdelay.data[0]):
if '+' in str(ropdelay.data[0]):
rooffset = float(ropdelay.data[0].split('+')[1])
else:
rooffset = 0 # default value
ifdelay = float(xypdelay.data[caddress[structure.index(
'XY-Pulse-Delay')]]), float(xypwidth.data[caddress[
structure.index('XY-Pulse-Width')]]) + rooffset
print("RO-Pulse Delays behind XY-Pulse for %sns" %
(ifdelay[1] - ifdelay[0]))
else:
ifdelay = float(xypdelay.data[caddress[structure.index(
'XY-Pulse-Delay')]]), float(ropdelay.data[caddress[
structure.index('RO-Pulse-Delay')]])
ifontime = float(
xypwidth.data[caddress[structure.index('XY-Pulse-Width')]]
), float(
ropwidth.data[caddress[structure.index('RO-Pulse-Width')]])
for ch in range(2):
channel = str(ch + 1)
wavefom = squarewave(ifperiod, ifontime[ch], ifdelay[ch],
ifscale[ch]) # in ns
stat, wave = AWG.CreateArbWaveform(awgsess, wavefom)
print('Waveform channel %s: %s <%s>' %
(channel, wave, status_code(stat)))
WAVE.append(wave)
# Building Sequences:
for ch in range(2):
channel = str(ch + 1)
status, seqhandl = AWG.CreateArbSequence(
awgsess, [WAVE[ch]], [1]
) # loop# canbe >1 if longer sequence is needed in the future!
# print('Sequence channel %s: %s <%s>' %(channel, seqhandl, status_code(status)))
# Channel Assignment:
stat = AWG.arb_sequence_handle(awgsess,
RepCap=channel,
action=["Set", seqhandl])
# print('Sequence channel %s embeded: %s <%s>' %(channel, stat[1], status_code(stat[0])))
# Trigger Settings:
for ch in range(2):
channel = str(ch + 1)
AWG.operation_mode(awgsess,
RepCap=channel,
action=["Set", 0])
AWG.trigger_source_adv(awgsess,
RepCap=channel,
action=["Set", 0])
AWG.Init_Gen(awgsess)
AWG.Send_Pulse(awgsess, 1)
# Basic / Buffer:
# VSA (Every-loop)
VSA.acquisition_time(vsasess,
action=['Set',
float(samptime.count * 2e-9)
]) # minimum time resolution
VSA.preselector_enabled(vsasess, action=[
'Set', False
]) # disable preselector to allow the highest bandwidth of 250MHz
if "lockro" in str(lofreq.data[0]):
if '+' in str(lofreq.data[0]):
lof_offset = float(lofreq.data[0].split('+')[1])
elif '-' in str(lofreq.data[0]):
lof_offset = -float(lofreq.data[0].split('-')[1])
else:
lof_offset = 0 # default value
VSA.frequency(vsasess,
action=[
'Set',
float(rofreq.data[caddress[structure.index(
'RO-Frequency')]]) * 1e9 + lof_offset
]) # freq offset / correction in Hz
print("Locking on RO at %sGHz" %
(VSA.frequency(vsasess)[1] / 1e9))
else:
VSA.frequency(vsasess,
action=[
'Set',
float(lofreq.data[caddress[structure.index(
'LO-Frequency')]]) * 1e9
])
VSA.power(
vsasess,
action=[
'Set',
float(lopowa.data[caddress[structure.index('LO-Power')]])
])
VSA.bandwidth(
vsasess, action=['Set', 250e6]
) # maximum LO bandwidth of 250MHz (500MHz Sampling-rate gives 2ns of time resolution)
VSA.trigger_source(vsasess,
action=['Set',
int(1)]) # External Trigger (slave)
# Delay for Readout
if "lockxypwd" in str(ropdelay.data[0]):
# trigger-delay sync with xy-pulse-width for Rabi measurement:
VSA.trigger_delay(vsasess, action=['Set', float(adcdelay.data[caddress[structure.index('ADC-delay')]]) + \
float(xypwidth.data[caddress[structure.index('XY-Pulse-Width')]])*1e-9 + rooffset*1e-9])
print("ACQ delays with XY-Pulse for %sns" %
int(VSA.trigger_delay(vsasess)[1] / 1e-9))
elif "lockropdelay" in str(adcdelay.data[0]):
# trigger-delay sync with ro-pulse-delay for T1 measurement:
VSA.trigger_delay(
vsasess,
action=[
'Set',
float(ropdelay.data[caddress[structure.index(
'RO-Pulse-Delay')]]) * 1e-9
])
print("ACQ delays with RO-Pulse for %sns" %
int(VSA.trigger_delay(vsasess)[1] / 1e-9))
else:
VSA.trigger_delay(vsasess,
action=[
'Set',
float(adcdelay.data[caddress[
structure.index('ADC-delay')]])
])
VSA.external_trigger_level(vsasess, action=['Set', float(0.3)])
VSA.external_trigger_slope(vsasess,
action=['Set',
int(1)]) # Positive slope
VSA.trigger_timeout(vsasess, action=['Set',
int(1000)]) # 1s of timeout
stat = VSA.Init_Measure(vsasess) # Initiate Measurement
# Start Quantum machine:
# Start Averaging Loop:
avenum = int(averaging.data[caddress[structure.index('Average')]])
vsasn = VSA.samples_number(vsasess)[1]
iqdata = zeros((avenum, 2 * vsasn))
for ave in range(avenum):
VSA.Arm_Measure(vsasess)
gd = VSA.Get_Data(vsasess, 2 * vsasn)
iqdata[ave, :] = array(gd[1]['ComplexData'])
iqdata = mean(iqdata, axis=0)
print("Operation Complete")
print(Fore.YELLOW + "\rProgress: %.3f%%" %
((i + 1) / datasize * buffersize_1 * 100),
end='\r',
flush=True)
# test for the last loop if there is
if testeach: # test each measure-loop:
loopcount += [len(measure_loop_1)]
loop_dur += [time() - prev]
stage, prev = clocker(stage, prev) # Marking time
VSA.close(vsasess)
if "opt" not in pperiod.data: # check if it is in optional-state
AWG.close(awgsess)
if "opt" not in xyfreq.data: # check if it is in optional-state
PSG0.close(sogo, False)
if "opt" not in rofreq.data: # check if it is in optional-state
PSG1.close(saga, False)
if "opt" not in fluxbias.data: # check if it is in optional-state
YOKO.close(yokog, False)
yield loopcount, loop_dur
else:
if get_status("SQE_Pulse")['pause']:
break
else:
yield list(iqdata)
if not get_status("SQE_Pulse")['repeat']:
set_status("SQE_Pulse", dict(pause=True))
VSA.close(vsasess)
if "opt" not in pperiod.data: # check if it is in optional-state
AWG.Abort_Gen(awgsess)
AWG.close(awgsess)
if "opt" not in xyfreq.data: # check if it is in optional-state
PSG0.rfoutput(sogo, action=['Set', 0])
PSG0.close(sogo, False)
if "opt" not in rofreq.data: # check if it is in optional-state
PSG1.rfoutput(saga, action=['Set', 0])
PSG1.close(saga, False)
if "opt" not in fluxbias.data: # check if it is in optional-state
YOKO.output(yokog, 0)
YOKO.close(yokog, False)
return