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A state of the Clifford simulation.
cirq.sim.CliffordState(
qubit_map, initial_state=0
)
The state is stored using Bravyi's CH-form which allows access to the full state vector (including phase).
Gates and measurements are applied to each representation in O(n^2) time.
Methods
apply_measurement
apply_measurement(
op: "cirq.Operation",
measurements: Dict[str, List[np.ndarray]],
prng: np.random.RandomState,
collapse_state_vector=True
)
apply_unitary
apply_unitary(
op: "cirq.Operation"
)
copy
copy() -> "CliffordState"
destabilizers
destabilizers() -> List[cirq.ops.DensePauliString]
THIS FUNCTION IS DEPRECATED.
IT WILL BE REMOVED IN cirq v0.11.
use CliffordTableau instead
Returns the destabilizer generators of the state. These are n operators {S_1,S_2,...,S_n} such that along with the stabilizer generators above generate the full Pauli group on n qubits.
perform_measurement
perform_measurement(
qubits: Sequence[cirq.ops.Qid],
prng: np.random.RandomState,
collapse_state_vector=True
)
THIS FUNCTION IS DEPRECATED.
IT WILL BE REMOVED IN cirq v0.11.
Use the apply_measurement instead
stabilizers
stabilizers() -> List[cirq.ops.DensePauliString]
THIS FUNCTION IS DEPRECATED.
IT WILL BE REMOVED IN cirq v0.11.
use CliffordTableau instead
Returns the stabilizer generators of the state. These are n operators {S_1,S_2,...,S_n} such that S_i |psi> = |psi>
state_vector
state_vector()
to_numpy
to_numpy() -> np.ndarray
__eq__
__eq__(
other: _SupportsValueEquality
) -> bool
__ne__
__ne__(
other: _SupportsValueEquality
) -> bool