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Jeffrey H. Shapiro

Researcher at Massachusetts Institute of Technology

Publications -  401
Citations -  20076

Jeffrey H. Shapiro is an academic researcher from Massachusetts Institute of Technology. The author has contributed to research in topics: Photon & Quantum key distribution. The author has an hindex of 65, co-authored 395 publications receiving 17401 citations.

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Phase and amplitude uncertainties in multimode heterodyning

TL;DR: In this article, operator representations for simultaneous phase and squared amplitude measurements made via optical heterodyne detection on a multimode radiation field were developed for these measurements under the condition that the signal and image band states are independent, and the image band has zero mean.
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Experimental demonstration of secure communication based on quantum illumination

TL;DR: This work reports the first experimental demonstration of an entanglement-based secure communication system that is resilient to entanglements-breaking loss and noise on the communication channel.
Proceedings ArticleDOI

High-dimensional Energy-time Entanglement Distribution via a Biphoton Frequency Comb

TL;DR: It is reported that the first high-dimensional energy-time entanglement distribution with a singly-resonant biphoton frequency comb is reported, demonstrating time-frequency Franson interferences with high visibility, and establishing a high- Dimensions Entanglement link.
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Quantum Illumination with a Hetero-Homodyne Receiver and Sequential Detection

TL;DR: In this paper , the authors proposed a hetero-homodyne receiver for quantum illumination (QI) target detection, which uses a cascaded positive operator-valued measurement (POVM) that does not require a quantum interaction between QI's returned radiation and its stored idler.
Proceedings ArticleDOI

Information capacities for optical communications: Conventional versus quantum reception

TL;DR: The degree to which the ultimate, Holevo capacities for a variety of bosonic communication channels can exceed the Shannon capacities achievable with conventional heterodyne, homodyn, and direct detection is reviewed.