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Required for shuttling the qubits as the circuit depth now corresponds to anĪrray of physical structures. In exchangeįor simplifying run-time control, a larger number of physical structures is Repetitions of the same calculation, or small variations thereof.
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Such an approach lends itself to NISQĪpplications such as variational quantum eigensolvers which require numerous Progressing qubit states through a layered physical array of structures which In which all run-time control is applied globally, reducing the required numberĪnd complexity of control and interconnect resources. We propose a NISQ processor architecture using a qubit `pipeline' Patom\"aki and 5 other authors Download PDF Abstract: Noisy intermediate-scale quantum (NISQ) devices seek to achieve quantumĪdvantage over classical systems without the use of full quantum errorĬorrection.
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Download a PDF of the paper titled Pipeline quantum processor architecture for silicon spin qubits, by S.
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