A new complex baseband model for Rydberg atomic quantum receivers captures signal-dependent shot noise, reveals an operating-point gain-noise tradeoff, and shows MIMO superiority over RF-MIMO requires the quantum noise floor to be lower.
Rydberg atom electric field sensors for communications and sensing
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An adaptive LO tracking loop driven by cross-product AFC keeps the intermediate frequency of a Rydberg atomic receiver locked inside its narrow atomic bandwidth under high Doppler rates.
A comprehensive survey bridges Rydberg-atom physics to wireless communications by reviewing architectures, response models, metric trade-offs, equivalent channels, and RAQ-enabled technologies for next-generation networks.
citing papers explorer
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Signal-Dependent Shot Noise Modeling of Rydberg Atomic Quantum Receivers: A Design Perspective
A new complex baseband model for Rydberg atomic quantum receivers captures signal-dependent shot noise, reveals an operating-point gain-noise tradeoff, and shows MIMO superiority over RF-MIMO requires the quantum noise floor to be lower.
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Doppler-Resilient Rydberg Atomic Receiver for High-Dynamic Communication Networks via Adaptive Local Oscillator Tracking
An adaptive LO tracking loop driven by cross-product AFC keeps the intermediate frequency of a Rydberg atomic receiver locked inside its narrow atomic bandwidth under high Doppler rates.
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Rydberg Atomic Quantum Radio: A Comprehensive Survey From Wireless Communication Perspective
A comprehensive survey bridges Rydberg-atom physics to wireless communications by reviewing architectures, response models, metric trade-offs, equivalent channels, and RAQ-enabled technologies for next-generation networks.