g PdZddlmZddlmZddlZddlmZm Z ddl m Z ddl m Z ddlmZdd lmZmZmZdd lmZdd lmZdd lmZed dd.dZed dd/dZed dd0dZd1d!Zd"Zd2d3d&Zd4d'Z d5d)Z!d6d-Z"dS)7z" Utility functions for primitives ) annotations)IterableN) InstructionQuantumCircuit)Bit) Initialize) QiskitError) PauliList SparsePauliOp Statevector) BaseOperator) BasePauli)deprecate_funcz1.2zcTo initialize a circuit from a ``Statevector`` instance, use ``QuantumCircuit.initialize`` instead.)sinceadditional_msgstateQuantumCircuit | Statevectorreturnrct|tr|St|tst|}t|j}|t |t |j|S)zInitialize state by converting the input to a quantum circuit. Args: state: The state as quantum circuit or statevector. Returns: The state as quantum circuit. )qargs) isinstancerr num_qubitsappendrrange)rqcs M/granary/edev/quantum/lib/python3.11/site-packages/qiskit/primitives/utils.py init_circuitrsx%(( e[ ) )#E"" ( ) )BIIjuU-='>'>I??? Iz1Use the constructor of ``SparsePauliOp`` instead. observableBaseOperator | strr cHt|tr|St|tr4t|tst dt |t|t rt dt |t|S)aEInitialize observable by converting the input to a :class:`~qiskit.quantum_info.SparsePauliOp`. Args: observable: The observable. Returns: The observable as :class:`~qiskit.quantum_info.SparsePauliOp`. Raises: QiskitError: when observable type cannot be converted to SparsePauliOp. zobservable type not supported: )rr r rr typer rs rinit_observabler$6s"*m,,) J - -)jY6W6W)ND for details.circuitdict[int, int]ctt|j}tt|j}i}|jdddD]}|jjdkr||jdj }||j dj }||vr3||vr/|||<| || |nK|jjdvr=|j D]5}||j }||vr| |6|r|sntt|d}|S)aRReturn the final measurement mapping for the circuit. Dict keys label measured qubits, whereas the values indicate the classical bit onto which that qubits measurement result is stored. Parameters: circuit: Input quantum circuit. Returns: Mapping of qubits to classical bits for final measurements. Nmeasurer)barrierdelayc|dS)N)items rz+final_measurement_mapping..zs DGr)key)listrr num_clbits_data operationnamefind_bitclbitsindexqubitsremovedictsorteditems) r% active_qubits active_cbitsmappingr/cbitqbitqq _temp_qubits rfinal_measurement_mappingrFQs$w12233Mg01122LG ddd# > ) + +##DKN339D##DKN339D|## (=(= $ ##D)))$$T*** ^ (< < <k 6 6%..r228 -//!((555 =  E 6'--///C/CDDDEEG Nrbitstuple[Bit, ...]tuplec:tfd|DS)Nc3K|]O}|jtd|jDfVPdS)c3XK|]%}|dj|dj|dfV&dS)rr-N)sizer6).0regs r z&_bits_key...s9``3q6;A SV4``````rN)r7r9rI registers)rNbitr%s rrPz_bits_key..s{    S ! ! ' ``@P@PQT@U@U@_``` ` ` r)rI)rGr%s `r _bits_keyrS~s=     rct|tjr|jSt|t rt |St|trt|S|SN) rnpndarraydatatobytesr _circuit_keyrrI)params r_format_paramsr\sm%$$z!!### E> * *E""" E8 $ $U|| LrT functionalboolcjjjtfdjDjdntjf}|r|Sjg|RS)aPrivate key function for QuantumCircuit. This is the workaround until :meth:`QuantumCircuit.__hash__` will be introduced. If key collision is found, please add elements to avoid it. Args: circuit: Input quantum circuit. functional: If True, the returned key only includes functional data (i.e. execution related). Returns: Composite key for circuit. c3K|][}t|jt|j|jjt d|jjDfV\dS)c34K|]}t|VdSrU)r\)rNr[s rrPz)_circuit_key...s*OOnU++OOOOOOrN)rSr:r8r5r6rIparams)rNrXr%s rrPz_circuit_key..s   $+w//$+w//#OO9NOOOOO        rN)rr3num_parametersrIrX_op_start_timesr6)r%r]functional_keys` rrZrZs            '/U7;R5S5SN     rc|jj|jj|jj|jfS)zPrivate key function for SparsePauliOp. Args: observable: Input operator. Returns: Key for observables. )pauliszrYxphasecoeffsr#s r_observable_keyrls_ ##%%##%%''))!!##  rrct|jdkr|St|j|j|jg}||_|S)aBuild an :class:`~qiskit.circuit.Instruction` object from a :class:`~qiskit.circuit.QuantumCircuit` This is a specialized version of :func:`~qiskit.converters.circuit_to_instruction` to avoid deep copy. This requires a quantum circuit whose parameters are all bound. Because this does not take a copy of the input circuit, this assumes that the input circuit won't be modified. If https://github.com/Qiskit/qiskit-terra/issues/7983 is resolved, we can remove this function. Args: circuit(QuantumCircuit): Input quantum circuit Returns: An :class:`~qiskit.circuit.Instruction` object r-)r6rr3rb)lenqregsto_instructionrr6rr3 definition)r%insts rbound_circuit_to_instructionrssc$ 7=A%%'''  \%%    D DO Krrngnp.random.Generator | Noner ctjdd|jz}|||t |S)aGenerate a statevector from a circuit If the input circuit includes any resets for a some subsystem, :meth:`.Statevector.reset` behaves in a stochastic way in :meth:`.Statevector.evolve`. This function sets a random number generator to be reproducible. See :meth:`.Statevector.reset` for details. Args: circuit: The quantum circuit. seed: The random number generator or None. r)r from_intrseedevolvers)r%rtsvs r_statevector_from_circuitr|sH  aG$6!6 7 7BGGCLLL 991':: ; ;;r)rrrr)rr rr )r%rrr&)rGrHr%rrrI)T)r%rr]r^rrI)rr rrI)r%rrr)r%rrtrurr )#__doc__ __future__rcollections.abcrnumpyrVqiskit.circuitrrqiskit.circuit.bitr'qiskit.circuit.library.data_preparationrqiskit.exceptionsr qiskit.quantum_infor r r +qiskit.quantum_info.operators.base_operatorr 3qiskit.quantum_info.operators.symplectic.base_paulirqiskit.utils.deprecationrrr$rFrSr\rZrlrsr|r.rrrs#"""""$$$$$$66666666"""""">>>>>>))))))EEEEEEEEEEDDDDDDIIIIII333333 3   $ F))) ). V $$$  $N!!!!!H     @<<<<<