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A. D. Stone
Researcher at Yale University
Publications - 34
Citations - 3427
A. D. Stone is an academic researcher from Yale University. The author has contributed to research in topics: Lasing threshold & Laser. The author has an hindex of 18, co-authored 34 publications receiving 2950 citations. Previous affiliations of A. D. Stone include Alcatel-Lucent.
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Journal ArticleDOI
Coherent perfect absorbers: Time-reversed lasers
TL;DR: The effect may be demonstrated in a Si slab illuminated in the 500–900nm range and form a novel class of linear optical elements—absorptive interferometers—which may be useful for controlled optical energy transfer.
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Pump-induced exceptional points in lasers.
Matthias Liertzer,Li Ge,Alexander Cerjan,A. D. Stone,Hakan E. Türeci,Hakan E. Türeci,Stefan Rotter +6 more
TL;DR: It is demonstrated that the above-threshold behavior of a laser can be strongly affected by exceptional points which are induced by pumping the laser nonuniformly.
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Conservation relations and anisotropic transmission resonances in one-dimensional PT -symmetric photonic heterostructures
Li Ge,Yidong Chong,A. D. Stone +2 more
TL;DR: In this article, the optical properties of one-dimensional symmetric structures of arbitrary complexity were analyzed and generalized unitarity relations were shown to lead to a conservation relation in terms of the transmittance and (left and right) reflectances.
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Theory of quantum conduction through a constriction.
A. Szafer,A. D. Stone +1 more
TL;DR: Theorie de the conduction ballistique a travers un etranglement d'un structure en marches avec une amplitude e 2 /h de the conductivite en fonction de l'energie de Fermi.
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Quantum Noise Theory of Exceptional Point Amplifying Sensors.
Mengzhen Zhang,William R. Sweeney,Chia Wei Hsu,Chia Wei Hsu,Lan Yang,A. D. Stone,Liang Jiang,Liang Jiang +7 more
TL;DR: A quantum noise theory is developed to calculate the signal-to-noise performance of an EP sensor, and a specific experimental protocol is constructed for sensing using an EP amplifier near its lasing threshold and heterodyne signal detection that achieves the optimal scaling predicted by the Fisher bound.