p_1 (tuple<double>) : point after the anticrossing, where the readout should happen.
disable_trigger (bool) : disable triggerig for digitizer, only for debuggig.
'''
# pulse towards the window and stay for the measurment time
add_ramp(segment, t_ramp, gates, p_0, p_1)
if unmute is not None:
getattr(segment, unmute).add_marker(0, t_read)
if disable_trigger == False:
getattr(segment, gates[0]).add_HVI_marker("dig_trigger_{}".format(int(nth_readout)))
getattr(segment, gates[0]).add_HVI_variable("t_measure", t_read)
add_block(segment, t_read, gates, p_1)
add_ramp(segment, t_ramp, gates, p_1, p_0)
if __name__ == '__main__':
from pulse_templates.utility.plotting import plot_seg
from pulse_templates.demo_pulse_lib.virtual_awg import get_demo_lib
pulse = get_demo_lib('quad')
seg = pulse.mk_segment()
gates = ('P1', 'P2')
p_0 = (-1, 1)
p_1 = ( 1, -1)
PSB_read(seg, gates, 1e3, 5e3, p_0, p_1)
p_2 = (2, 1)
PSB_read_latched(seg, gates, 1e3, 5e3, p_0, p_1, p_2)
plot_seg(seg)
repeat (int) : the number of time to repeat the allxy experiment =
'''
allXY_set, setpoint = get_allXY_specs(repeat)
setpoint.axis = [axis]
getattr(segment, gate_set.qubit).update_dim(setpoint)
for i in range(setpoint.data.size):
gate_set.load_std_gate(
getattr(segment, gate_set.qubit)[i], allXY_set[i])
if __name__ == '__main__':
from pulse_templates.coherent_control.single_qubit_gates.standard_set import single_qubit_std_set
from pulse_templates.coherent_control.single_qubit_gates.single_qubit_gates import single_qubit_gate_spec
from pulse_templates.demo_pulse_lib.virtual_awg import get_demo_lib
from pulse_templates.utility.plotting import plot_seg
from pulse_lib.segments.utility.looping import linspace
pulse = get_demo_lib('six')
seg = pulse.mk_segment()
ss_set = single_qubit_std_set()
ss_set.X = single_qubit_gate_spec('qubit4_MW', 1e9, 100, 120)
# ss_set.X2 = single_qubit_gate_spec('qubit4_MW', 1e9, 200, 120)
# ss_set.X.add(seg)
print(seg)
generate_all_XY(seg, ss_set)
plot_seg(seg, 1)
return np.sqrt(x) / np.sqrt(5e6) * amp
return J_pulse
def f_res(f_res, delta_fres):
def f_res_relation(J):
return f_res + J**2 / 5e6**2 * delta_fres
return f_res_relation
J_to_voltage_relation = (return_amp(-0.2), return_amp(1),
return_amp(-0.23))
sweep = linspace(0, 2 * np.pi, 20, axis=1)
import good_morning.static.J45 as J45
iswap(seg, J45.gates, np.pi, 0, 6e6, 80e6, J45.gen_J_to_voltage(),
J45.return_delta_B_J_relation())
# iswap_cal(seg, gates, 5e6, 5e6, linspace(75e6, 85e6, 80, 'freq', 'Hz', 0), np.pi, J_to_voltage_relation, 20)
# print(gates, J45.gates)
# print(J_to_voltage_relation, J45.gen_J_to_voltage())
# ratios = J45.gen_J_to_voltage()
# iswap_cal(seg, J45.gates, 5e6, 5e6, 80e6, 3.14, ratios, 20)
# iswap_cal(seg, J45.gates, 5e6, 5e6, 80e6, linspace(3.14, 2.65, 80, 'freq', 'Hz', 0), ratios, 20)
# plot_seg(seg, 0)
# plot_seg(seg, 5)
plot_seg(seg, 0)
# plot_seg(seg, 15)
def plot_sequence(self):
plot_seg(self.segments())
if __name__ == '__main__':
from pulse_templates.utility.measurement import measurement_manager
from pulse_templates.psb_pulses.readout_pulses import PSB_read
from pulse_templates.demo_pulse_lib.virtual_awg import get_demo_lib
from pulse_templates.utility.plotting import plot_seg
pulse = get_demo_lib('quad')
ss = segment_mgr(pulse)
mm = measurement_manager()
m = measurement('PSB_12_init',
chan=[1, 2],
accept=0,
threshold=0.5,
phase=0.3)
readout_kwargs = {
'gates': ('vP1', 'vB1', 'vP2'),
't_ramp': 2e3,
't_read': 2e3,
'p_0': (0, 0, 0),
'p_1': (5.5, 0, -5.5)
}
rs = readout_spec(m, PSB_read, readout_kwargs)
read_set = readout_std_set(rs, mm, ss)
read_set.add()
read_set.add()
plot_seg(ss.segments)