def test_run_and_measure_qubits(forest: ForestConnection):
# The forest fixture (argument) to this test is to ensure this is
# skipped when a forest web api key is unavailable. You could also
# pass it to the constructor of WavefunctionSimulator() but it is not
# necessary.
wfnsim = WavefunctionSimulator()
bell = Program(H(0), CNOT(0, 1))
bitstrings = wfnsim.run_and_measure(bell, qubits=[0, 100], trials=1000)
assert np.all(bitstrings[:, 1] == 0)
assert 0.4 < np.mean(bitstrings[:, 0]) < 0.6
def test_run_and_measure(forest: ForestConnection):
# The forest fixture (argument) to this test is to ensure this is
# skipped when a forest web api key is unavailable. You could also
# pass it to the constructor of WavefunctionSimulator() but it is not
# necessary.
wfnsim = WavefunctionSimulator()
bell = Program(H(0), CNOT(0, 1))
bitstrings = wfnsim.run_and_measure(bell, trials=1000)
parity = np.sum(bitstrings, axis=1) % 2
assert np.all(parity == 0)
def test_run_and_measure_qubits(client_configuration: QCSClientConfiguration):
wfnsim = WavefunctionSimulator(client_configuration=client_configuration)
bell = Program(H(0), CNOT(0, 1))
bitstrings = wfnsim.run_and_measure(bell, qubits=[0, 100], trials=1000)
assert np.all(bitstrings[:, 1] == 0)
assert 0.4 < np.mean(bitstrings[:, 0]) < 0.6
def test_run_and_measure(client_configuration: QCSClientConfiguration):
wfnsim = WavefunctionSimulator(client_configuration=client_configuration)
bell = Program(H(0), CNOT(0, 1))
bitstrings = wfnsim.run_and_measure(bell, trials=1000)
parity = np.sum(bitstrings, axis=1) % 2
assert np.all(parity == 0)
l += 1
p = Program()
ro = p.declare('ro', 'BIT', 2)
wf1 = WavefunctionSimulator()
p += u_2_definition
p += ch_definition
p += norm_definition
p += H(0)
p += NM(np.sqrt(2))(0)
p += U2(j)(0)
p += H(1)
p += PHASE(i, 1)
p += CH(0, 1)
result_c.append(wf1.wavefunction(p).get_outcome_probs())
results = wf1.run_and_measure(p, trials=tr)
#print(results)
p = 0
for k in results:
if k[1] == 0:
p += 1
result_a.append(p)
result_b.append([i, j])
p = None
wf1 = None
for i in range(0, len(result_a)):
print(result_b[i])
print(result_a[i] / tr)
print(result_c[i])
from pyquil import Program from pyquil.api import WavefunctionSimulator from pyquil.gates import * wavefunction_simulator = WavefunctionSimulator() program = Program() program = program + X(0) program = program + H(0) program = program + H(1) program = program + CNOT(1, 0) program = program + H(0) result = wavefunction_simulator.run_and_measure(program, trials=10) print(result)
