def test_protocols():
for p in [1, 1j, -1]:
cirq.testing.assert_implements_consistent_protocols(cirq.GlobalPhaseOperation(p))
np.testing.assert_allclose(
cirq.unitary(cirq.GlobalPhaseOperation(1j)), np.array([[1j]]), atol=1e-8
)
def test_circuit_diagram_tagged_global_phase():
# Tests global phase operation
q = cirq.NamedQubit('a')
global_phase = cirq.GlobalPhaseOperation(
coefficient=-1.0).with_tags('tag0')
# Just global phase in a circuit
assert (cirq.circuit_diagram_info(global_phase,
default='default') == 'default')
cirq.testing.assert_has_diagram(cirq.Circuit(global_phase),
"\n\nglobal phase: π['tag0']",
use_unicode_characters=True)
cirq.testing.assert_has_diagram(cirq.Circuit(global_phase),
"\n\nglobal phase: π",
use_unicode_characters=True,
include_tags=False)
expected = cirq.CircuitDiagramInfo(wire_symbols=(),
exponent=1.0,
connected=True,
exponent_qubit_index=None,
auto_exponent_parens=True)
# Operation with no qubits and returns diagram info with no wire symbols
class NoWireSymbols(cirq.GlobalPhaseOperation):
def _circuit_diagram_info_(
self, args: 'cirq.CircuitDiagramInfoArgs'
) -> 'cirq.CircuitDiagramInfo':
return expected
no_wire_symbol_op = NoWireSymbols(coefficient=-1.0).with_tags('tag0')
assert (cirq.circuit_diagram_info(no_wire_symbol_op,
default='default') == expected)
cirq.testing.assert_has_diagram(cirq.Circuit(no_wire_symbol_op),
"\n\nglobal phase: π['tag0']",
use_unicode_characters=True)
# Two global phases in one moment
tag1 = cirq.GlobalPhaseOperation(coefficient=1j).with_tags('tag1')
tag2 = cirq.GlobalPhaseOperation(coefficient=1j).with_tags('tag2')
c = cirq.Circuit([cirq.X(q), tag1, tag2])
cirq.testing.assert_has_diagram(c,
"""\
a: ─────────────X───────────────────
global phase: π['tag1', 'tag2']""",
use_unicode_characters=True,
precision=2)
# Two moments with global phase, one with another tagged gate
c = cirq.Circuit([cirq.X(q).with_tags('x_tag'), tag1])
c.append(cirq.Moment([cirq.X(q), tag2]))
cirq.testing.assert_has_diagram(c,
"""\
a: ─────────────X['x_tag']─────X──────────────
global phase: 0.5π['tag1'] 0.5π['tag2']
""",
use_unicode_characters=True,
include_tags=True)
def test_init():
op = cirq.GlobalPhaseOperation(1j)
assert op.coefficient == 1j
assert op.qubits == ()
assert op.with_qubits() is op
with pytest.raises(ValueError, match='not unitary'):
_ = cirq.GlobalPhaseOperation(2)
with pytest.raises(ValueError, match='0 qubits'):
_ = cirq.GlobalPhaseOperation(1j).with_qubits(cirq.LineQubit(0))
def get_match_circuit() -> cirq.Circuit:
qubits = [cirq.LineQubit(i) for i in range(9)]
g = cirq.CZPowGate(exponent=0.1)
zz = cirq.ZZPowGate(exponent=0.3)
px = cirq.PhasedXPowGate(phase_exponent=0.6, exponent=0.2)
circ = cirq.Circuit(
[
cirq.H(qubits[0]),
cirq.X(qubits[1]),
cirq.Y(qubits[2]),
cirq.Z(qubits[3]),
cirq.S(qubits[4]),
cirq.CNOT(qubits[1], qubits[4]),
cirq.T(qubits[3]),
cirq.CNOT(qubits[6], qubits[8]),
cirq.I(qubits[5]),
cirq.XPowGate(exponent=0.1)(qubits[5]),
cirq.YPowGate(exponent=0.1)(qubits[6]),
cirq.ZPowGate(exponent=0.1)(qubits[7]),
g(qubits[2], qubits[3]),
zz(qubits[3], qubits[4]),
px(qubits[6]),
cirq.CZ(qubits[2], qubits[3]),
cirq.ISWAP(qubits[4], qubits[5]),
cirq.FSimGate(1.4, 0.7)(qubits[6], qubits[7]),
cirq.google.SYC(qubits[3], qubits[0]),
cirq.PhasedISwapPowGate(phase_exponent=0.7, exponent=0.8)(
qubits[3], qubits[4]),
cirq.GlobalPhaseOperation(1j),
cirq.measure_each(*qubits[3:-2]),
],
strategy=InsertStrategy.EARLIEST,
)
return circ
def test_valid_check_raises():
q0 = cirq.LineQubit(0)
with pytest.raises(AssertionError,
match='Unitaries are completely different'):
assert_valid_decomp(
np.eye(4),
[cirq.X(q0)],
single_qubit_gate_types=(cirq.XPowGate, ),
)
with pytest.raises(AssertionError,
match='Unitaries do not match closely enough'):
assert_valid_decomp(
np.eye(4),
[cirq.rx(0.01)(q0)],
single_qubit_gate_types=(cirq.Rx, ),
)
with pytest.raises(
AssertionError,
match='Global phase operation was output when it should not'):
assert_valid_decomp(np.eye(4),
[cirq.GlobalPhaseOperation(np.exp(1j * 0.01))])
with pytest.raises(AssertionError,
match='Disallowed operation was output'):
assert_valid_decomp(
np.eye(4),
[cirq.X(q0)],
single_qubit_gate_types=(cirq.IdentityGate, ),
)
def test_is_supported_operation():
class MultiQubitOp(cirq.Operation):
"""Multi-qubit operation with unitary.
Used to verify that `is_supported_operation` does not attempt to
allocate the unitary for multi-qubit operations.
"""
@property
def qubits(self):
return cirq.LineQubit.range(100)
def with_qubits(self, *new_qubits):
raise NotImplementedError()
def _has_unitary_(self):
return True
def _unitary_(self):
assert False
q1, q2 = cirq.LineQubit.range(2)
assert cirq.CliffordSimulator.is_supported_operation(cirq.X(q1))
assert cirq.CliffordSimulator.is_supported_operation(cirq.H(q1))
assert cirq.CliffordSimulator.is_supported_operation(cirq.CNOT(q1, q2))
assert cirq.CliffordSimulator.is_supported_operation(cirq.measure(q1))
assert cirq.CliffordSimulator.is_supported_operation(
cirq.GlobalPhaseOperation(1j))
assert not cirq.CliffordSimulator.is_supported_operation(cirq.T(q1))
assert not cirq.CliffordSimulator.is_supported_operation(MultiQubitOp())
def test_scalar_operations():
assert_url_to_circuit_returns('{"cols":[["…"]]}', cirq.Circuit())
assert_url_to_circuit_returns('{"cols":[["NeGate"]]}',
cirq.Circuit(cirq.GlobalPhaseOperation(-1)))
assert_url_to_circuit_returns('{"cols":[["i"]]}',
cirq.Circuit(cirq.GlobalPhaseOperation(1j)))
assert_url_to_circuit_returns('{"cols":[["-i"]]}',
cirq.Circuit(cirq.GlobalPhaseOperation(-1j)))
assert_url_to_circuit_returns(
'{"cols":[["√i"]]}', cirq.Circuit(cirq.GlobalPhaseOperation(1j**0.5)))
assert_url_to_circuit_returns(
'{"cols":[["√-i"]]}', cirq.Circuit(cirq.GlobalPhaseOperation(1j**-0.5)))
def test_decompose():
a, b = cirq.LineQubit.range(2)
assert cirq.decompose_once(2 * cirq.X(a) * cirq.Z(b), default=None) is None
assert cirq.decompose_once(1j * cirq.X(a) * cirq.Z(b)) == [
cirq.GlobalPhaseOperation(1j),
cirq.X(a), cirq.Z(b)
]
assert cirq.decompose_once(cirq.Y(b) * cirq.Z(a)) == [cirq.Z(a), cirq.Y(b)]
def test_simulate_global_phase_operation():
q1, q2 = cirq.LineQubit.range(2)
circuit = cirq.Circuit([cirq.I(q1), cirq.I(q2), cirq.GlobalPhaseOperation(-1j)])
simulator = cirq.CliffordSimulator()
result = simulator.simulate(circuit).final_state.state_vector()
assert np.allclose(result, [-1j, 0, 0, 0])
def test_act_on_ch_form(phase):
state = cirq.StabilizerStateChForm(0)
args = cirq.ActOnStabilizerCHFormArgs(
state,
[],
prng=np.random.RandomState(),
log_of_measurement_results={},
)
cirq.act_on(cirq.GlobalPhaseOperation(phase), args, allow_decompose=False)
assert state.state_vector() == [[phase]]
def test_is_supported_operation():
q1, q2 = cirq.LineQubit.range(2)
assert cirq.CliffordSimulator.is_supported_operation(cirq.X(q1))
assert cirq.CliffordSimulator.is_supported_operation(cirq.H(q1))
assert cirq.CliffordSimulator.is_supported_operation(cirq.CNOT(q1, q2))
assert cirq.CliffordSimulator.is_supported_operation(cirq.measure(q1))
assert cirq.CliffordSimulator.is_supported_operation(
cirq.GlobalPhaseOperation(1j))
assert not cirq.CliffordSimulator.is_supported_operation(cirq.T(q1))
def do_phase_flip(self, controls: 'qp.QubitIntersection'):
if controls.bit:
if len(controls.qubits):
g = cirq.Z
for _ in range(len(controls.qubits) - 1):
g = cirq.ControlledGate(g)
ctrls = [cirq.NamedQubit(str(q)) for q in controls.qubits]
self.circuit.append(g(*ctrls),
cirq.InsertStrategy.NEW_THEN_INLINE)
else:
self.circuit.append(cirq.GlobalPhaseOperation(-1), cirq.InsertStrategy.NEW_THEN_INLINE)
def test_ideal_sqrt_iswap_simulates_correctly_invalid_circuit_fails() -> None:
engine_simulator = PhasedFSimEngineSimulator.create_with_ideal_sqrt_iswap()
with pytest.raises(IncompatibleMomentError):
a, b = cirq.LineQubit.range(2)
circuit = cirq.Circuit([cirq.CZ.on(a, b)])
engine_simulator.simulate(circuit)
with pytest.raises(IncompatibleMomentError):
circuit = cirq.Circuit(cirq.GlobalPhaseOperation(coefficient=1.0))
engine_simulator.simulate(circuit)
def test_tagged_measurement():
assert not cirq.is_measurement(cirq.GlobalPhaseOperation(coefficient=-1.0).with_tags('tag0'))
a = cirq.LineQubit(0)
op = cirq.measure(a, key='m').with_tags('tag')
assert cirq.is_measurement(op)
remap_op = cirq.with_measurement_key_mapping(op, {'m': 'k'})
assert remap_op.tags == ('tag',)
assert cirq.is_measurement(remap_op)
assert cirq.measurement_keys(remap_op) == {'k'}
assert cirq.with_measurement_key_mapping(op, {'x': 'k'}) == op
def get_ops(use_circuit_op, use_global_phase):
q = cirq.LineQubit.range(3)
yield [CustomX(q[0]).with_tags('custom tags'), CustomX(q[1]) ** 2, CustomX(q[2]) ** 3]
yield [CustomX(q[0]) ** 0.5, cirq.testing.TwoQubitGate()(*q[:2])]
if use_circuit_op:
circuit_op = cirq.CircuitOperation(
cirq.FrozenCircuit(get_ops(False, False)), repetitions=10
).with_tags('circuit op tags')
recursive_circuit_op = cirq.CircuitOperation(
cirq.FrozenCircuit([circuit_op, CustomX(q[2]) ** 0.5]),
repetitions=10,
qubit_map={q[0]: q[1], q[1]: q[2], q[2]: q[0]},
)
yield [circuit_op, recursive_circuit_op]
if use_global_phase:
yield cirq.GlobalPhaseOperation(1j)
def cphase_to_sqrt_iswap(a, b, turns):
"""Implement a C-Phase gate using two sqrt ISWAP gates and single-qubit
operations. The circuit is equivalent to cirq.CZPowGate(exponent=turns).
Output unitary:
[1 0 0 0],
[0 1 0 0],
[0 0 1 0],
[0 0 0 e^{i turns pi}].
Args:
a: the first qubit
b: the second qubit
turns: Exponent specifying the evolution time in number of rotations.
"""
theta = (turns % 2) * np.pi
if 0 <= theta <= np.pi:
sign = 1.0
theta_prime = theta
elif np.pi < theta < 2 * np.pi:
sign = -1.0
theta_prime = 2 * np.pi - theta
if np.isclose(theta, np.pi):
# If we are close to pi, just set values manually to avoid possible
# numerical errors with arcsin of greater than 1.0 (Ahem, Windows).
phi = np.pi / 2
xi = np.pi / 2
else:
phi = np.arcsin(np.sqrt(2) * np.sin(theta_prime / 4))
xi = np.arctan(np.tan(phi) / np.sqrt(2))
yield cirq.rz(sign * 0.5 * theta_prime).on(a)
yield cirq.rz(sign * 0.5 * theta_prime).on(b)
yield cirq.rx(xi).on(a)
yield cirq.X(b)**(-sign * 0.5)
yield SQRT_ISWAP_INV(a, b)
yield cirq.rx(-2 * phi).on(a)
yield SQRT_ISWAP(a, b)
yield cirq.rx(xi).on(a)
yield cirq.X(b)**(sign * 0.5)
# Corrects global phase
yield cirq.GlobalPhaseOperation(np.exp(sign * theta_prime * 0.25j))
def test_make_floquet_request_for_moment_fails_for_non_gate_operation(
) -> None:
moment = cirq.Moment(cirq.GlobalPhaseOperation(coefficient=1.0))
with pytest.raises(workflow.IncompatibleMomentError):
workflow.prepare_floquet_characterization_for_moment(
moment, WITHOUT_CHI_FLOQUET_PHASED_FSIM_CHARACTERIZATION)
@pytest.mark.parametrize(
'gate_family, gates_to_check',
[
(
cirq.GateFamily(CustomXPowGate),
[
(CustomX, True),
(CustomX ** 0.5, True),
(CustomX ** sympy.Symbol('theta'), True),
(CustomXPowGate(exponent=0.25, global_shift=0.15), True),
(cirq.SingleQubitGate(), False),
(cirq.X ** 0.5, False),
(None, False),
(cirq.GlobalPhaseOperation(1j), False),
],
),
(
cirq.GateFamily(CustomX),
[
(CustomX, True),
(CustomXPowGate(exponent=1, global_shift=0.15), True),
(CustomX ** 2, False),
(CustomX ** 3, True),
(CustomX ** sympy.Symbol('theta'), False),
(None, False),
(cirq.GlobalPhaseOperation(1j), False),
],
),
(
def test_act_on_ch_form(phase):
state = cirq.StabilizerStateChForm(0)
args = cirq.ActOnStabilizerCHFormArgs(state, [])
cirq.act_on(cirq.GlobalPhaseOperation(phase), args, allow_decompose=False)
assert state.state_vector() == [[phase]]
def test_prepare_characterization_for_moment_fails_for_non_gate_operation(
options):
moment = cirq.Moment(cirq.GlobalPhaseOperation(coefficient=1.0))
with pytest.raises(workflow.IncompatibleMomentError):
workflow.prepare_characterization_for_moment(moment, options)
def test_diagram():
a, b = cirq.LineQubit.range(2)
x, y = cirq.LineQubit.range(10, 12)
cirq.testing.assert_has_diagram(
cirq.Circuit([
cirq.Moment([
cirq.CNOT(a, x),
cirq.CNOT(b, y),
cirq.GlobalPhaseOperation(-1),
])
]),
"""
┌──┐
0: ──────────────@─────
│
1: ──────────────┼@────
││
10: ─────────────X┼────
│
11: ──────────────X────
global phase: π
└──┘
""",
)
cirq.testing.assert_has_diagram(
cirq.Circuit([
cirq.Moment([
cirq.CNOT(a, x),
cirq.CNOT(b, y),
cirq.GlobalPhaseOperation(-1),
cirq.GlobalPhaseOperation(-1),
]),
]),
"""
┌──┐
0: ──────────────@─────
│
1: ──────────────┼@────
││
10: ─────────────X┼────
│
11: ──────────────X────
global phase:
└──┘
""",
)
cirq.testing.assert_has_diagram(
cirq.Circuit([
cirq.Moment([
cirq.CNOT(a, x),
cirq.CNOT(b, y),
cirq.GlobalPhaseOperation(-1),
cirq.GlobalPhaseOperation(-1),
]),
cirq.Moment([
cirq.GlobalPhaseOperation(1j),
]),
cirq.Moment([
cirq.X(a),
]),
]),
"""
┌──┐
0: ──────────────@────────────X───
│
1: ──────────────┼@───────────────
││
10: ─────────────X┼───────────────
│
11: ──────────────X───────────────
global phase: 0.5π
└──┘
""",
)
cirq.testing.assert_has_diagram(
cirq.Circuit([
cirq.Moment([
cirq.X(a),
]),
cirq.Moment([
cirq.GlobalPhaseOperation(-1j),
]),
]),
"""
0: ─────────────X───────────
global phase: -0.5π
""",
)
cirq.testing.assert_has_diagram(
cirq.Circuit([
cirq.Moment([
cirq.X(a),
cirq.GlobalPhaseOperation(np.exp(1j)),
]),
]),
"""
0: ─────────────X────────
global phase: 0.318π
""",
)
cirq.testing.assert_has_diagram(
cirq.Circuit([
cirq.Moment([
cirq.X(a),
cirq.GlobalPhaseOperation(np.exp(1j)),
]),
]),
"""
0: ─────────────X──────────
global phase: 0.31831π
""",
precision=5,
)
cirq.testing.assert_has_diagram(
cirq.Circuit([
cirq.Moment([
cirq.X(a),
cirq.GlobalPhaseOperation(1j),
]),
cirq.Moment([
cirq.GlobalPhaseOperation(-1j),
]),
]),
"""
0: -------------X----------------
global phase: 0.5pi -0.5pi
""",
use_unicode_characters=False,
)
cirq.testing.assert_has_diagram(
cirq.Circuit([
cirq.Moment([
cirq.GlobalPhaseOperation(-1j),
]),
]),
"""
global phase: -0.5π
""",
)
def test_repr():
op = cirq.GlobalPhaseOperation(1j)
cirq.testing.assert_equivalent_repr(op)
def test_str():
assert str(cirq.GlobalPhaseOperation(1j)) == '1j'
def test_validate_operation_no_gate():
device = ionq.IonQAPIDevice(qubits=[])
with pytest.raises(ValueError, match='no gates'):
device.validate_operation(cirq.GlobalPhaseOperation(1j))
def test_act_on_tableau(phase):
original_tableau = cirq.CliffordTableau(0)
args = cirq.ActOnCliffordTableauArgs(original_tableau.copy(), [],
np.random.RandomState(), {})
cirq.act_on(cirq.GlobalPhaseOperation(phase), args, allow_decompose=False)
assert args.tableau == original_tableau
def test_global_phase_op_json_dict():
assert cirq.GlobalPhaseOperation(-1j)._json_dict_() == {
'cirq_type': 'GlobalPhaseOperation',
'coefficient': -1j,
}
def test_string_format():
x, y, z = cirq.LineQubit.range(3)
fc0 = cirq.FrozenCircuit()
op0 = cirq.CircuitOperation(fc0)
assert (
str(op0)
== f"""\
{op0.circuit.diagram_name()}:
[ ]"""
)
fc0_global_phase_inner = cirq.FrozenCircuit(
cirq.GlobalPhaseOperation(1j), cirq.GlobalPhaseOperation(1j)
)
op0_global_phase_inner = cirq.CircuitOperation(fc0_global_phase_inner)
fc0_global_phase_outer = cirq.FrozenCircuit(
op0_global_phase_inner, cirq.GlobalPhaseOperation(1j)
)
op0_global_phase_outer = cirq.CircuitOperation(fc0_global_phase_outer)
assert (
str(op0_global_phase_outer)
== f"""\
{op0_global_phase_outer.circuit.diagram_name()}:
[ ]
[ ]
[ global phase: -0.5π ]"""
)
fc1 = cirq.FrozenCircuit(cirq.X(x), cirq.H(y), cirq.CX(y, z), cirq.measure(x, y, z, key='m'))
op1 = cirq.CircuitOperation(fc1)
assert (
str(op1)
== f"""\
{op1.circuit.diagram_name()}:
[ 0: ───X───────M('m')─── ]
[ │ ]
[ 1: ───H───@───M──────── ]
[ │ │ ]
[ 2: ───────X───M──────── ]"""
)
assert (
repr(op1)
== f"""\
cirq.CircuitOperation(
circuit=cirq.FrozenCircuit([
cirq.Moment(
cirq.X(cirq.LineQubit(0)),
cirq.H(cirq.LineQubit(1)),
),
cirq.Moment(
cirq.CNOT(cirq.LineQubit(1), cirq.LineQubit(2)),
),
cirq.Moment(
cirq.measure(cirq.LineQubit(0), cirq.LineQubit(1), cirq.LineQubit(2), key='m'),
),
]),
)"""
)
fc2 = cirq.FrozenCircuit(cirq.X(x), cirq.H(y), cirq.CX(y, x))
op2 = cirq.CircuitOperation(
circuit=fc2,
qubit_map=({y: z}),
repetitions=3,
parent_path=('outer', 'inner'),
repetition_ids=['a', 'b', 'c'],
)
assert (
str(op2)
== f"""\
{op2.circuit.diagram_name()}:
[ 0: ───X───X─── ]
[ │ ]
[ 1: ───H───@─── ](qubit_map={{1: 2}}, parent_path=('outer', 'inner'),\
repetition_ids=['a', 'b', 'c'])"""
)
assert (
repr(op2)
== """\
cirq.CircuitOperation(
circuit=cirq.FrozenCircuit([
cirq.Moment(
cirq.X(cirq.LineQubit(0)),
cirq.H(cirq.LineQubit(1)),
),
cirq.Moment(
cirq.CNOT(cirq.LineQubit(1), cirq.LineQubit(0)),
),
]),
repetitions=3,
qubit_map={cirq.LineQubit(1): cirq.LineQubit(2)},
parent_path=('outer', 'inner'),
repetition_ids=['a', 'b', 'c'],
)"""
)
fc3 = cirq.FrozenCircuit(
cirq.X(x) ** sympy.Symbol('b'),
cirq.measure(x, key='m'),
)
op3 = cirq.CircuitOperation(
circuit=fc3,
qubit_map={x: y},
measurement_key_map={'m': 'p'},
param_resolver={sympy.Symbol('b'): 2},
)
indented_fc3_repr = repr(fc3).replace('\n', '\n ')
assert (
str(op3)
== f"""\
{op3.circuit.diagram_name()}:
[ 0: ───X^b───M('m')─── ](qubit_map={{0: 1}}, \
key_map={{m: p}}, params={{b: 2}})"""
)
assert (
repr(op3)
== f"""\
cirq.CircuitOperation(
circuit={indented_fc3_repr},
qubit_map={{cirq.LineQubit(0): cirq.LineQubit(1)}},
measurement_key_map={{'m': 'p'}},
param_resolver=cirq.ParamResolver({{sympy.Symbol('b'): 2}}),
)"""
)
fc4 = cirq.FrozenCircuit(cirq.X(y))
op4 = cirq.CircuitOperation(fc4)
fc5 = cirq.FrozenCircuit(cirq.X(x), op4)
op5 = cirq.CircuitOperation(fc5)
assert (
repr(op5)
== f"""\
cirq.CircuitOperation(
circuit=cirq.FrozenCircuit([
cirq.Moment(
cirq.X(cirq.LineQubit(0)),
cirq.CircuitOperation(
circuit=cirq.FrozenCircuit([
cirq.Moment(
cirq.X(cirq.LineQubit(1)),
),
]),
),
),
]),
)"""
)
def test_serialize_non_gate_op_invalid():
q0 = cirq.LineQubit(0)
circuit = cirq.Circuit(cirq.X(q0), cirq.GlobalPhaseOperation(1j))
serializer = ionq.Serializer()
with pytest.raises(ValueError, match='GlobalPhaseOperation'):
_ = serializer.serialize(circuit)
def test_zeta_chi_gamma_calibration_for_moments_invalid_argument_fails(
) -> None:
a, b, c = cirq.LineQubit.range(3)
with pytest.raises(ValueError):
circuit_with_calibration = workflow.CircuitWithCalibration(
cirq.Circuit(), [1])
workflow.make_zeta_chi_gamma_compensation_for_moments(
circuit_with_calibration, [])
with pytest.raises(ValueError):
circuit_with_calibration = workflow.CircuitWithCalibration(
cirq.Circuit(SQRT_ISWAP_GATE.on(a, b)), [None])
workflow.make_zeta_chi_gamma_compensation_for_moments(
circuit_with_calibration, [])
with pytest.raises(ValueError):
circuit_with_calibration = workflow.CircuitWithCalibration(
cirq.Circuit(SQRT_ISWAP_GATE.on(a, b)), [0])
characterizations = [
PhasedFSimCalibrationResult(
parameters={},
gate=SQRT_ISWAP_GATE,
options=WITHOUT_CHI_FLOQUET_PHASED_FSIM_CHARACTERIZATION,
)
]
workflow.make_zeta_chi_gamma_compensation_for_moments(
circuit_with_calibration, characterizations)
with pytest.raises(workflow.IncompatibleMomentError):
circuit_with_calibration = workflow.CircuitWithCalibration(
cirq.Circuit(cirq.GlobalPhaseOperation(coefficient=1.0)), [None])
workflow.make_zeta_chi_gamma_compensation_for_moments(
circuit_with_calibration, [])
with pytest.raises(workflow.IncompatibleMomentError):
circuit_with_calibration = workflow.CircuitWithCalibration(
cirq.Circuit(cirq.CZ.on(a, b)), [None])
workflow.make_zeta_chi_gamma_compensation_for_moments(
circuit_with_calibration, [])
with pytest.raises(workflow.IncompatibleMomentError):
circuit_with_calibration = workflow.CircuitWithCalibration(
cirq.Circuit([SQRT_ISWAP_GATE.on(a, b),
cirq.Z.on(c)]), [0])
characterizations = [
PhasedFSimCalibrationResult(
parameters={
(a, b):
PhasedFSimCharacterization(theta=0.1,
zeta=0.2,
chi=0.3,
gamma=0.4,
phi=0.5)
},
gate=SQRT_ISWAP_GATE,
options=WITHOUT_CHI_FLOQUET_PHASED_FSIM_CHARACTERIZATION,
)
]
workflow.make_zeta_chi_gamma_compensation_for_moments(
circuit_with_calibration, characterizations)
cirq.FREDKIN,
'FSimGate':
cirq.FSimGate(theta=0.123, phi=.456),
'Foxtail':
cirq.google.Foxtail,
'GateOperation': [
cirq.CCNOT(*cirq.LineQubit.range(3)),
cirq.CCZ(*cirq.LineQubit.range(3)),
cirq.CNOT(*cirq.LineQubit.range(2)),
cirq.CSWAP(*cirq.LineQubit.range(3)),
cirq.CZ(*cirq.LineQubit.range(2))
],
'GeneralizedAmplitudeDampingChannel':
cirq.GeneralizedAmplitudeDampingChannel(0.1, 0.2),
'GlobalPhaseOperation':
cirq.GlobalPhaseOperation(-1j),
'GridQubit':
cirq.GridQubit(10, 11),
'H':
cirq.H,
'HPowGate': [cirq.HPowGate(exponent=-8), cirq.H**0.123],
'I':
cirq.I,
'ISWAP':
cirq.ISWAP,
'ISwapPowGate': [cirq.ISwapPowGate(exponent=-8), cirq.ISWAP**0.123],
'IdentityGate': [
cirq.I,
cirq.IdentityGate(num_qubits=5),
cirq.IdentityGate(num_qubits=5, qid_shape=(3, ) * 5)
],