Compressive spectral multiplexing via FMLO in a waveguide-coupled Rydberg receiver compresses over 640 MHz spectrum into 126 kHz atomic bandwidth with compression ratio exceeding 1000 and ~10 dB SNR gain via maximal-ratio combining.
Increased instantaneous bandwidth of Rydberg atom electrometry with an optical frequency comb probe
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abstract
We show that the use of an optical frequency comb probe leads to dramatically improved bandwidth (as high as 12+/-1 MHz) for the detection of modulated radio frequencies in Rydberg atom-based electrometry.
years
2026 3representative citing papers
An auxiliary microwave field scheme achieves 44.6 MHz instantaneous bandwidth at 225.7 nV cm^{-1} Hz^{-1/2} sensitivity in Rydberg microwave sensors.
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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Compressive Spectrum Sensing via Spectral Multiplexing in Rydberg Atomic Receiver
Compressive spectral multiplexing via FMLO in a waveguide-coupled Rydberg receiver compresses over 640 MHz spectrum into 126 kHz atomic bandwidth with compression ratio exceeding 1000 and ~10 dB SNR gain via maximal-ratio combining.
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Enhancing the Instantaneous Bandwidth of Rydberg Microwave Sensors: A Proposed Scheme
An auxiliary microwave field scheme achieves 44.6 MHz instantaneous bandwidth at 225.7 nV cm^{-1} Hz^{-1/2} sensitivity in Rydberg microwave sensors.
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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.