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IEEE Conference Proceedings

Deterministic Two-photon Controlled-phase Gate Enabled by Induced $¥pi$-phase Shift in Photonic Molecule Generations

Chen Zihao, Yao Zhou, Jung‐Tsung Shen

Published Jan 1, 2019• 0 citations
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Deterministic Two-photon Controlled-phase Gate Enabled by Induced π-phase Shift in Photonic Molecule Generations

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To resolve the intrinsic trade-off between the deterministic nature and scalability of controlled phase gate implementation in the linear optics regime, we propose a novel deterministic two-photon controlled phase gate scheme in chiral quantum nanophotonics. The essential ingredient here is that, a non-linear π-phase shift is imprinted during the photonic molecule generations. On one hand, the gate operates in a deterministic way without the assistance of probabilistic ancilla qubit measurement. On the other hand, the gate implementation is of low complexity to be highly scalable. To date, the chiral coupling is readily underpinned by the advent of directional emission technique. Potential implementation platforms include QD, superconducting qubit, Rydberg atom, or N-V center that is coupled to a PhC waveguide, transmission line, or optical fiber.

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Deterministic Two-photon Controlled-phase Gate Enabled by Induced ¥pi¥pi¥pi-phase Shift in Photonic Molecule Generations
Deterministic Two-photon Controlled-phase Gate Enabled by Induced π\piπ -phase Shift in Photonic Molecule Generations
We propose a novel deterministic two-photon controlled-phase gate scheme enabled by a nonlinear π\piπ -phase shift imprinted during photonic molecule generations, which serves as a vital building block for scalable photon-based quantum computing network. © 2019 The Author(s)
To resolve the intrinsic trade-off between the deterministic nature and scalability of controlled phase gate implementation in the linear optics regime, we propose a novel deterministic two-photon controlled phase gate scheme in chiral quantum nanophotonics. The essential ingredient here is that, a non-linear π-phase shift is imprinted during the photonic molecule generations. On one hand, the gate operates in a deterministic way without the assistance of probabilistic ancilla qubit measurement. On the other hand, the gate implementation is of low complexity to be highly scalable. To date, the chiral coupling is readily underpinned by the advent of directional emission technique. Potential implementation platforms include QD, superconducting qubit, Rydberg atom, or N-V center that is coupled to a PhC waveguide, transmission line, or optical fiber.