ó Óz i& ãóV•SrSSKJr SSKrSSKJr SSKJr SSK J r SSK J r S Sjrg) a‡ Optimize the synthesis of an n-qubit circuit contains only CX gates for linear nearest neighbor (LNN) connectivity. The depth of the circuit is bounded by 5*n, while the gate count is approximately 2.5*n^2 References: [1]: Kutin, S., Moulton, D. P., Smithline, L. (2007). Computation at a Distance. `arXiv:quant-ph/0701194 `_. é)Ú annotationsN)Ú QiskitError)ÚQuantumCircuit)Úcheck_invertible_binary_matrix)Úpy_synth_cnot_depth_line_kmscóx•[U5(d [S5e[U5n[R"USS9$)aÛ Synthesize linear reversible circuit for linear nearest-neighbor architectures using Kutin, Moulton, Smithline method. Synthesis algorithm for linear reversible circuits from [1], section 7. This algorithm synthesizes any linear reversible circuit of :math:`n` qubits over a linear nearest-neighbor architecture using CX gates with depth at most :math:`5n`. Args: mat: A boolean invertible matrix. Returns: The synthesized quantum circuit. Raises: QiskitError: if ``mat`` is not invertible. References: 1. Kutin, S., Moulton, D. P., Smithline, L., *Computation at a distance*, Chicago J. Theor. Comput. Sci., vol. 2007, (2007), `arXiv:quant-ph/0701194 `_ z#The input matrix is not invertible.T)Ú legacy_qubits)rrÚfast_kmsrÚ_from_circuit_data)ÚmatÚ circuit_datas Úb/home/james-whalen/.local/lib/python3.13/site-packages/qiskit/synthesis/linear/linear_depth_lnn.pyÚsynth_cnot_depth_line_kmsr s9€ô. *¨#× .Ñ .ÜÐ?Ó@Ð@ä˜C“=€Lô × ,Ò ,¨\ÈÑ NÐNó)r znp.ndarray[bool]Úreturnr)Ú__doc__Ú __future__rÚnumpyÚnpÚqiskit.exceptionsrÚqiskit.circuitrÚ+qiskit.synthesis.linear.linear_matrix_utilsrÚ#qiskit._accelerate.synthesis.linearrr r©rrÚrs$ðñ õ#ÛÝ)Ý)ÝVÝXõOr