pyqpanda3.quantum_info.quantum_info.Unitary Class Reference

Public Member Functions
None	__init__ (self, qcircuit, StateSystemType system_type=...)
	init(self: quantum_info.Unitary, qcircuit: QPanda3::QCircuit, system_type: quantum_info.StateSystemType = <StateSystemType.Q2Q1Q0: 1>) -> None
numpy.ndarray[numpy.complex128]	ndarray (self)
	ndarray(self: quantum_info.Unitary) -> numpy.ndarray[numpy.complex128]
bool	__eq__ (self, Unitary other)
	eq(self: quantum_info.Unitary, other: quantum_info.Unitary) -> bool

Constructor & Destructor Documentation

__init__()

None pyqpanda3.quantum_info.quantum_info.Unitary.__init__	(		self,
			qcircuit,
		StateSystemType	system_type = ... )

init(self: quantum_info.Unitary, qcircuit: QPanda3::QCircuit, system_type: quantum_info.StateSystemType = <StateSystemType.Q2Q1Q0: 1>) -> None

Constructs a Unitary operation from a quantum circuit and a system type.

This constructor initializes a Unitary object based on the given quantum circuit and the specified system type.

Parameters

qcircuit	The quantum circuit that defines the unitary operation.
system_type	The type of the system that the unitary operation acts on, with a default value of SystemType::Q2Q1Q0.

Member Function Documentation

__eq__()

bool pyqpanda3.quantum_info.quantum_info.Unitary.__eq__	(		self,
		Unitary	other )

eq(self: quantum_info.Unitary, other: quantum_info.Unitary) -> bool

Equality check. Determine if the internal data of two Unitary objects are equal.

Parameters

Unitary

another Unitary object

Returns

Bool if they are same, return true.

ndarray()

numpy.ndarray[numpy.complex128] pyqpanda3.quantum_info.quantum_info.Unitary.ndarray

(

self

)

ndarray(self: quantum_info.Unitary) -> numpy.ndarray[numpy.complex128]

Generate a numpy.ndarray object using data in self

Returns

a numpy.ndarray object

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The documentation for this class was generated from the following file:

• pyqpanda3/quantum_info/quantum_info.pyi