Eagle Technology, LLC

Florida Atlantic University

Samuel H Knarr

Victor G Bucklew

James Drakes

Cypryan T Klish, Ii

Samuel Nunez

Jerrod Langston

Fraser R Dalgleish

James A Nagel

Bing Ouyang

Donna M Kocak

Timothy C Burt

Uma Shanker Jha

Michael C Garrett

Dennis Estrada

Oscar Lopez

Tachaka Ray

Nicholas Alban

Kendra Kordack

Cypryan Theodore Klish Ii

A method performed by a photon imaging system comprises: selecting first patterns for illumination, and generating first illumination patterns that are time-varying responsive to the first patterns in order to illuminate a target; detecting light energy of the first illumination patterns that is reflected by the target; constructing histograms of the light energy that is detected; reconstructing an image of the target using the histograms and the first patterns; performing feedback processing of the image based on an operational objective, associated with one or more of generating illumination patterns or reconstructing the image, to produce feedback for selecting second patterns that differ from the first patterns and are configured to achieve the operational objective; and responsive to the feedback, selecting the second patterns, and generating second illumination patterns based on the second patterns to illuminate the target.

Quantum-inspired adaptive computational 3D imager

A sensor receiver may include a Rydberg cell configured to be exposed to a radio frequency (RF) signal having an RF data rate, and a probe source configured to generate a plurality of spaced apart pulsed probe beams within the Rydberg cell. Each pulse may have a temporal pulse width so that the RF data rate is greater than the reciprocal of the temporal pulse width. At least one excitation source may be coupled to the Rydberg cell. A detector may be positioned downstream from the Rydberg cell. The sensor receiver may be used in a RADAR system.

Sensor receiver having Rydberg cell and RF data rate greater than reciprocal of temporal pulse width and associated methods

A quantum communications system may include a transmitter node, a receiver node, and a quantum communications channel coupling the transmitter node and receiver node. The transmitter node may include a pulse transmitter, a pulse divider downstream from the pulse transmitter, and at least one first waveplate upstream from the pulse divider and configured to alter a polarization state of pulses travelling therethrough. The receiver node may include at least one second waveplate being a conjugate of the at least one first waveplate, a pulse recombiner upstream from the at least one second waveplate, and a pulse receiver downstream from the at least one second waveplate.

Quantum communications system having at least one waveplate to alter pulse polarization and associated methods

A sensor receiver may include a Rydberg cell configured to be exposed to a radio frequency (RF) signal, and a probe source configured to generate a plurality of spaced apart pulsed probe beams within the Rydberg cell. The pulsed probe beams may be offset in time from one another. A plurality of excitation sources may be coupled to the Rydberg cell. A detector may be positioned downstream from the Rydberg cell.

Sensor receiver having a Rydberg cell with a plurality of excitation sources and associated methods

A sensor receiver includes a Rydberg cell configured to be exposed to a radio frequency (RF) signal, and a probe source configured to generate a plurality of spaced apart pulsed probe beams within the Rydberg cell. The pulsed probe beams are offset in time from one another. A detector is positioned downstream from the Rydberg cell.

Sensor receiver having Rydberg cell and spaced apart pulsed probe beams and associated methods

Systems and methods for operating a quantum network system. The methods comprise, by a network node: generating optical clock pulses and photons using the optical clock pulses; generating a combined signal by combining the optical clock pulses with at least some of the photons such that a consistent temporal offset exits between the optical clock pulses and the first photons and/or a wave function of each photon at least partially overlaps an envelope of a respective one of the optical clock pulses; and transmitting the combined signal over a first quantum channel in which the optical clock pulses co-propagate with the photons.

Systems and methods for synchronization of photons over quantum channels with co-propagating clock pulses

A quantum communications system may include a transmitter node, a receiver node, and a quantum communications channel coupling the transmitter node and receiver node. The transmitter node may include a pulse transmitter and a pulse divider downstream therefrom. The pulse divider may be configured to divide each pulse having a plurality of X photons into a plurality of Y time bins with Y&#x3e;X. The receiver node may include a pulse recombiner and a pulse receiver downstream from the pulse recombiner.

Quantum communications system having pulses divided into time bins and associated methods

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Melbourne, FL, United States of America

Samuel H Knarr