Experimental implementation of pair-cat code with superconducting microwave circuits (2/2)
ORAL
Abstract
Stabilized quantum manifolds of a bosonic system can encode error-protected qubits. In particular, a logical qubit encoded in a single-mode manifold spanned by cat states is exponentially protected against phase-flip errors. However, in existing experimental implementations with microwave superconducting circuits, detecting and fully correcting photon-loss errors is challenging without turning off the dissipative stabilization process. On the other hand, a phase-flip error protected logical qubit can be encoded in a stabilized manifold spanned by pair-cat states, which are superpositions of two-mode states called Barut-Girardello/pair-coherent states. Advantageously, photon loss errors in either mode can be detected by monitoring the photon-number difference between them, without stopping manifold stabilization.
Part-two of this two-part presentation will introduce the experimental design of pair-coherent states with superconducting microwave cavity system and present recent results.
Part-two of this two-part presentation will introduce the experimental design of pair-coherent states with superconducting microwave cavity system and present recent results.
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Presenters
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Ioannis Tsioutsios
Yale University
Authors
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Ioannis Tsioutsios
Yale University
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Akshay Koottandavida
Yale University
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Shantanu O Mundhada
Quantum Circuits Inc., Yale University, Yale University, QCI
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Luigi Frunzio
Applied Physics Department, Yale University, Yale University, Applied Physics, Yale University, Department of Applied Physics and Physics, Yale University
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Michel Devoret
Yale University, Applied Physics Department, Yale University, Yale, Department of Applied Physics and Physics, Yale University, Applied Physics, Yale University, Departments of Applied Physics and Physics, Yale University