geph = qubitph_info.rotate
geqs = qubit_info.rotate_quasilective
ges = qubit_info.rotate_selective
ef = ef_info.rotate
geph = qubitph_info.rotate
efph = efph_info.rotate
#efqs= ef_info.rotate_quasilective
gepi = qubit_info.rotate(np.pi, 0)
gepi2 = qubit_info.rotate(np.pi / 2, 0)
efpi = ef_info.rotate(np.pi, 0)
#gfpi = gf_info.rotate(np.pi,0)
pi = np.pi
prepareA = sequencer.Join([sequencer.Trigger(250), cA(2.0, 0)])
prepareB = sequencer.Join([sequencer.Trigger(250), cB(1.65, 0)])
prepareAF = sequencer.Join([sequencer.Trigger(250), gepi, efpi, cA(2.0, 0)])
prepareBF = sequencer.Join([sequencer.Trigger(250), gepi, efpi, cB(1.65, 0)])
if 0: # Kerr revival
for delay in [150, 200, 250, 300, 350, 400]:
seq = sequencer.Join([
sequencer.Trigger(250),
cA(2.0, 0),
sequencer.Repeat(sequencer.Delay(10000), delay / 10)
])
Qfun = Qfunction.QFunction(qubit_info,
cavity_info1A,
amax=2.5,
N=15,
sequencer.Delay(20000)
])
cspec = cavspectroscopy.CavSpectroscopy(
mclient.instruments['brick4'],
qubit_info,
cavity_info1B, [1.2],
np.linspace(cav_freq - 0.5e6, cav_freq + 0.5e6, 61),
Qswitchseq=seq,
extra_info=[Qswitch_info1A, Qswitch_info1B])
cspec.measure()
bla
if 0: #Find qubit ef
from scripts.single_qubit import spectroscopy
ef_freq = 4959.00e6
seq = sequencer.Sequence(
[sequencer.Trigger(250),
qubit_info1.rotate(np.pi, 0)])
postseq = sequencer.Sequence(qubit_info1.rotate(np.pi, 0))
spec = spectroscopy.Spectroscopy(mclient.instruments['ag3'],
ef_info,
np.linspace(ef_freq - 5e6, ef_freq + 5e6,
101), [-32],
plen=2000,
amp=0.004,
seq=seq,
postseq=postseq,
extra_info=qubit_info,
plot_seqs=False)
spec.measure()
bla
ft1.measure()
if 0: # EFT2
from scripts.single_qubit import EFT2measurement
eft2 = EFT2measurement.EFT2Measurement(qubit_info, ef_info, np.linspace(0.5e3, 15e3, 101), detune=800e3, double_freq=False)#, echotype = EFT2measurement.ECHO_HAHN)
eft2.measure()
if 1: # GFT2
from scripts.single_qubit import GFT2measurement
gft2 = GFT2measurement.GFT2Measurement(qubit_info, ef_info, np.linspace(0.5e3, 15e3, 101), detune=800e3, double_freq=False)#, echotype = GFT2measurement.ECHO_HAHN)
gft2.measure()
bla
if 0: #number splitting:
from scripts.single_qubit import spectroscopy
seq = sequencer.Join([sequencer.Trigger(250), cavity_info.rotate(np.pi, 0)])
# postseq = sequencer.Sequence([sequencer.Trigger(250), cavity_info.rotate(np.pi, 0)])
qubit_freq = 6306.770e6
spec = spectroscopy.Spectroscopy(mclient.instruments['brick2'], qubit_info, np.linspace(qubit_freq-8e6, qubit_freq+2e6, 101), [11.5],
plen=6000, seq = seq, amp=0.09, extra_info=cavity_info, plot_seqs=True)
spec.measure()
if 0: #Sideband modulated number splitting:
from scripts.single_qubit import ssbspec
seq = sequencer.Join([sequencer.Trigger(250), cavity_info2.rotate(np.pi*2, 0)])
spec = ssbspec.SSBSpec(qubit_info, np.linspace(-15e6, 1e6, 151),
extra_info= cavity_info2,
seq =seq, plot_seqs=False)
spec.measure()
bla
qubit_ef_brick = instruments['qubit_ef_brick']
#va_lo = instruments['va_lo']
va_lo_4_8 = instruments['va_lo']
funcgen = instruments['funcgen']
alazar = instruments['alazar']
spec_brick = instruments['spec_brick']
spec_info = mclient.get_qubit_info('spec_info')
LO_brick = instruments['LO_brick']
LO_info = mclient.get_qubit_info('LO_info')
cavity_info = mclient.get_qubit_info('cavity_info')
yoko1 = instruments['yoko1']
yoko2 = instruments['yoko2']
#ro = mclient.get_readout_info('readout')
precool = sequencer.Sequence(
[sequencer.Trigger(250),
pulselib.GaussSquare(0.660e3, 0.056, 10, chan=3)])
precool2 = sequencer.Sequence(
[pulselib.GaussSquare(0.660e3, 0.056, 10, chan=3)])
#r = qubit_info.rotate
#
#
#calibSeq = sequencer.Sequence([sequencer.Trigger(250)])
#calibSeq.append(sequencer.Combined([
# pulselib.Constant(ro.pulse_len, 1, chan=ro.readout_chan),
# pulselib.Constant(ro.pulse_len, 1, chan=ro.acq_chan),
# ]))
#calibSeq.append(sequencer.Trigger(250))
#calibSeq.append(r(np.pi, 0))
#calibSeq.append(sequencer.Combined([
cal.measure()
bla
if 0: # spectroscopy for EF transition
from scripts.single_qubit import spectroscopy as spectroscopy
qubit_ef_freq = 5898.7e6 #5239.790e6-50e6-175e6
freq_range = 10e6
freqs = np.linspace(qubit_ef_freq - freq_range, qubit_ef_freq + freq_range,
101)
drive_power = -33
qubit_brick.set_rf_on(1)
spec_brick.set_rf_on(1)
spec_brick.set_pulse_on(1)
seq = sequencer.Sequence([
sequencer.Trigger(250), # prepend pi pulse
qubit_info.rotate(np.pi, 0),
sequencer.Delay(10)
])
postseq = sequencer.Sequence(qubit_info.rotate(np.pi,
0)) # postpend pi pulse
# for drive_power in drive_powers:
spec_params = (spec_brick, drive_power)
spec_brick.set_power(drive_power)
# spec_params = (qubit_ef_brick, None)
s = spectroscopy.Spectroscopy(
spec_info,
freqs,
spec_params,
use_marker=True,