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The Rochester Conferences on Coherence and Quantum Optics and the Quantum Information and Measurement meeting

Demonstration of N00N State Optical Centroid Measurement using an 11-detector array

Dylan H. Mahler, J.D. Bateman, Lee A. Rozema, Amir Feizpour, Ryo Okamoto, Alex Hayat, Aephraim M. Steinberg

Published Jan 1, 2013• 0 citations
Publisher

Abstract

We demonstrate optical super-resolution using a quantum centroid measurement of 2-photon N00N states, using a scalable 11-detector measurement scheme. We will also present the latest results from a 3-photon extension.
DOI
10.1364/cqo.2013.m6.68

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N00N states-maximally path-entangled states of N photons-exhibit spatial interference patterns sharper than any classical interference pattern. This is known as superresolution. However, even given perfectly efficient number-resolving detectors, the detection efficiency of all previous measurements of such interference would decrease exponentially with the number of photons in the N00N state, often leading to the conclusion that N00N states are unsuitable for spatial measurements. A technique known as the "optical centroid measurement" has been proposed to solve this and has been experimentally verified for photon pairs; here we present the first extension beyond two photons, measuring the superresolution fringes of two-, three-, and four-photon N00N states. Moreover, we compare the N00N-state interference to the corresponding classical superresolution interference. Although both provide the same increase in spatial frequency, the visibility of the classical fringes decreases exponentially with the number of detected photons. Our work represents an essential step forward for quantum-enhanced measurements, overcoming what was believed to be a fundamental challenge to quantum metrology.