Signifying the nonlocality of NOON states using Einstein-Podolsky-Rosen steering inequalities
arXiv:1605.00221 · doi:10.1103/PhysRevA.94.042119
Abstract
We construct Einstein-Podolsky-Rosen (EPR) steering signatures for the nonlocality of the entangled superposition state described by , called the two-mode NOON state. The signatures are a violation of an EPR steering inequality based on an uncertainty relation. The violation confirms an EPR steering between the two modes and involves certification of an inter-mode correlation for number, as well as quadrature phase amplitude measurements. We also explain how the signatures certify an th order quantum coherence, so the system (for larger ) can be signified to be in a superposition of states distinct by a mesoscopic value of the two-mode quantum number difference. Finally, we examine the limitations imposed for lossy scenarios, discussing how experimental realisations may be possible for .
16 pages (9 pages text and 7 pages Appendix) with 2 Figures
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