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Bulletin of the American Physical Society

Optimizing filtering for fast measurements in circuit QED

Jay Gambetta, Oliver Dial, Andrew W. Cross, Douglas McClure, Jerry M. Chow, Matthias Steffen

Published Mar 5, 2014• 0 citations
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arXiv:1101.4327•Physical Review A•Apr 11, 2011•46 citations
In a solid-state circuit QED system, we extend the previous study of generating and stabilizing a two-qubit Bell state [Phys. Rev. A 82, 032335 (2010)] to a three-qubit GHZ state. In a dispersive regime, we employ the homodyne joint readout for multiple qubits to infer the state for further processing, and in particular we use it to stabilize the state directly by means of an alternate-flip-interrupted Zeno (AFIZ) scheme. Moreover, the state-of-the-art feedback action based on the filtered current enables not only a deterministic generation of the pre-GHZ state in the initial stage, but also a fast recovery from occasional error in the later stabilization process. We show that the proposed scheme can maintain the state with high fidelity if the efficient quantum measurement and rapid single-qubit rotations are available.