def duration_of(self, operation):
g = xmon_gate_ext.try_cast(operation.gate, xmon_gates.XmonGate)
if isinstance(g, xmon_gates.Exp11Gate):
return self._exp_z_duration
if isinstance(g, xmon_gates.ExpWGate):
return self._exp_w_duration
if isinstance(g, xmon_gates.XmonMeasurementGate):
return self._measurement_duration
if isinstance(g, xmon_gates.ExpZGate):
return Duration() # Z gates are performed in the control software.
raise ValueError('Unsupported gate type: {}'.format(repr(g)))
def duration_of(self, operation):
if isinstance(operation, ops.GateOperation):
g = xmon_gate_ext.try_cast(xmon_gates.XmonGate, operation.gate)
if isinstance(g, xmon_gates.Exp11Gate):
return self._exp_z_duration
if isinstance(g, xmon_gates.ExpWGate):
return self._exp_w_duration
if isinstance(g, xmon_gates.XmonMeasurementGate):
return self._measurement_duration
if isinstance(g, xmon_gates.ExpZGate):
# Z gates are performed in the control software.
return Duration()
raise ValueError('Unsupported gate type: {!r}'.format(operation))
def duration_of(self, operation):
if isinstance(operation, ops.GateOperation):
if isinstance(operation.gate, ops.Rot11Gate):
return self._exp_z_duration
if isinstance(operation.gate, ops.MeasurementGate):
return self._measurement_duration
g = xmon_gate_ext.try_cast(xmon_gates.XmonGate, operation.gate)
if isinstance(g, xmon_gates.ExpWGate):
return self._exp_w_duration
if isinstance(operation.gate, ops.RotZGate):
# Z gates are performed in the control software.
return Duration()
raise ValueError('Unsupported gate type: {!r}'.format(operation))
def _convert_one(self, op: ops.Operation) -> ops.OP_TREE:
# Already supported?
if XmonGate.is_supported_op(op):
return op
# Maybe we know how to wrap it?
if isinstance(op, ops.GateOperation):
xmon = xmon_gate_ext.try_cast(XmonGate, op.gate) # type: ignore
if xmon is not None:
return xmon.on(*op.qubits)
# Known matrix?
mat = protocols.unitary(op, None) if len(op.qubits) <= 2 else None
if mat is not None and len(op.qubits) == 1:
gates = single_qubit_matrix_to_native_gates(mat)
return [g.on(op.qubits[0]) for g in gates]
if mat is not None and len(op.qubits) == 2:
return two_qubit_matrix_to_operations(op.qubits[0],
op.qubits[1],
mat,
allow_partial_czs=True)
# Provides a decomposition?
composite_op = xmon_gate_ext.try_cast( # type: ignore
ops.CompositeOperation, op)
if composite_op is not None:
return composite_op.default_decompose()
# Just let it be?
if self.ignore_failures:
return op
raise TypeError("Don't know how to work with {!r}. "
"It isn't a GateOperation with an XmonGate, "
"a 1 or 2 qubit gate with a known unitary, "
"or a CompositeOperation.".format(op))
def _convert_one(self, op: ops.Operation) -> ops.OP_TREE:
# Maybe we know how to wrap it?
if isinstance(op, ops.GateOperation):
xmon = xmon_gate_ext.try_cast(XmonGate, op.gate) # type: ignore
if xmon is not None:
return xmon.on(*op.qubits)
# Known matrix?
mat = protocols.unitary(op, None) if len(op.qubits) <= 2 else None
if mat is not None and len(op.qubits) == 1:
gates = single_qubit_matrix_to_native_gates(mat)
return [g.on(op.qubits[0]) for g in gates]
if mat is not None and len(op.qubits) == 2:
return two_qubit_matrix_to_operations(op.qubits[0],
op.qubits[1],
mat,
allow_partial_czs=True)
return NotImplemented