def func(server, currk, currphase):
alg = gc.Algorithm(devs)
q0 = alg.q0
k0 = np.sqrt(delta**2 / (1 + np.tan(currphase)**2))
alg[gates.MoveToState([q0], 0, state - 1)]
alg[gates.Wait([q0], waitTime=tBuf)]
alg[LZ_gate([q0], k0=k0, k1=k0 * np.tan(currphase), k2=currk)]
alg[gates.Wait([q0], waitTime=tBuf)]
alg[gates.Measure([q0])]
alg.compile()
data = yield runQubits(server, alg.agents, stats, dataFormat='iqRaw')
probs = readout.iqToProbs(data, alg.qubits, states=range(1 + state))
returnValue(np.squeeze(probs))
def func(server, curramp):
alg = gc.Algorithm(devs)
q0 = alg.q0
alg[LZ_gate([q0], amp=curramp)]
alg[gates.Wait([q0], 0 * ns)]
alg[gates.PiPulse([q0])]
alg[gates.Readout([q0])]
alg.compile()
data = yield runQubits(server, alg.agents, stats, dataFormat='iqRaw')
if dataFormat == 'Amp':
mag, ang = readout.iqToPolar(readout.parseDataFormat(data, 'iq'))
else:
data = readout.parseDataFormat(data, 'iq')
mag, ang = data[0], data[1]
returnValue([mag, ang])
def func(server, currdelay):
alg = gc.Algorithm(devs)
q0 = alg.q0
taup = q0['lztaup']
currtau1 = (currdelay - taup) / 2
alg[LZ_gate([q0], tau1=currtau1)]
alg[gates.Measure([q0])]
alg.compile()
data = yield runQubits(server, alg.agents, stats, dataFormat='iqRaw')
if prob:
probs = readout.iqToProbs(data, alg.qubits)
probs = np.squeeze(probs)
returnValue(probs)
else:
data = readout.parseDataFormat(data, 'iq')
mag, phase = readout.iqToPolar(data)
returnValue([mag, phase])
def func(server, currphase):
alg = gc.Algorithm(devs)
q0 = alg.q0
k0 = np.sqrt(delta**2 / (1 + np.tan(currphase)**2))
#alg[gates.MoveToState([q0], 0, state-1)]
alg[LZ_gate([q0], k0=k0, k1=k0 * np.tan(currphase))]
#alg[gates.MoveToState([q0], state-1, 0)]
alg[gates.Measure([q0])]
alg.compile()
data = yield runQubits(server, alg.agents, stats, dataFormat='iqRaw')
if prob:
probs = readout.iqToProbs(data, alg.qubits)
probs = np.squeeze(probs)
returnValue(probs)
else:
data = readout.parseDataFormat(data, 'iq')
mag, phase = readout.iqToPolar(data)
returnValue([mag, phase])