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Cavity-QED Based Sequential Atom Entangler for Heisenberg-Limited Atom Interferometry

Sylvester Amoah

Published Jan 1, 2018• 0 citations
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Cavity QED based Sequential Atom Entangler for Heisenberg-Limited Atom Interferometry

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We propose a cavity QED based sequential N-atom GHZ state generator. As GHZ states can be easily converted to path-entangled N00N states, this would open new pathways for Heisenberg-limited atom interferometry.

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A cavity-QED scheme for Heisenberg-limited interferometry

David Vitali, Stefan Kuhr, M. Brune +1 more

We propose a Ramsey interferometry experiment using an entangled state of N atoms to approach the Heisenberg limit for the estimation of an atomic phase shift if the atom number parity is perfectly determined. In a more realistic situation, due to statistical fluctuations of the atom source and the finite detection efficiency, the parity is unknown. We then achieve about half the Heisenberg limit. The scheme involves an ensemble of circular Rydberg atoms which dispersively interact successively with two initially empty microwave cavities. The scheme does not require very high-Q cavities. An experimental realization with about ten entangled Rydberg atoms is achievable with a state of art apparatus.

arXiv:quant-ph/0602006•Journal of Modern Optics•Aug 21, 2006•4 citations
We propose a Ramsey interferometry experiment using an entangled state of N atoms to approach the Heisenberg limit for the estimation of an atomic phase shift if the atom number parity is perfectly determined. In a more realistic situation, due to statistical fluctuations of the atom source and the finite detection efficiency, the parity is unknown. We then achieve about half the Heisenberg limit. The scheme involves an ensemble of circular Rydberg atoms which dispersively interact successively with two initially empty microwave cavities. The scheme does not require very high-Q cavities. An experimental realization with about ten entangled Rydberg atoms is achievable with a state of art apparatus.