Frequency Comb Behavior of Time Crystals in an RF-Driven Dissipative Rydberg System

Fuente: arXiv
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Autores principales: Manchaiah, Dixith, Watterson, William J., Holloway, Christopher L.
Formato: Preprint
Publicado: 2026
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author Manchaiah, Dixith
Watterson, William J.
Holloway, Christopher L.
author_facet Manchaiah, Dixith
Watterson, William J.
Holloway, Christopher L.
contents Driven nonlinear oscillators constitute a universal paradigm for understanding synchronization, frequency pulling, and frequency comb formation in nonequilibrium systems. Here, we realize such an emergent nonlinear oscillator in strongly interacting cesium Rydberg vapor, where coherent optical excitation, dissipation, and long-range interactions give rise to a driven-dissipative time crystal phase with intrinsic oscillation frequencies. Applying a radio-frequency (RF) field allows controlled tuning of the intrinsic oscillation frequency. Under RF heterodyne conditions, we observe intermodulation, frequency pulling, and, at strong drive, the emergence of a comb-like spectrum in the atomic coherence. We quantitatively capture these observations using a four-level mean-field model and demonstrate a classical analogue with a driven Van der Pol oscillator. Our results establish interacting Rydberg ensembles as a tunable platform for exploring nonequilibrium time-crystalline order, nonlinear synchronization, and frequency comb generation in many-body atomic systems.
format Preprint
id arxiv_https___arxiv_org_abs_2603_12170
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Frequency Comb Behavior of Time Crystals in an RF-Driven Dissipative Rydberg System
Manchaiah, Dixith
Watterson, William J.
Holloway, Christopher L.
Atomic Physics
Quantum Physics
Driven nonlinear oscillators constitute a universal paradigm for understanding synchronization, frequency pulling, and frequency comb formation in nonequilibrium systems. Here, we realize such an emergent nonlinear oscillator in strongly interacting cesium Rydberg vapor, where coherent optical excitation, dissipation, and long-range interactions give rise to a driven-dissipative time crystal phase with intrinsic oscillation frequencies. Applying a radio-frequency (RF) field allows controlled tuning of the intrinsic oscillation frequency. Under RF heterodyne conditions, we observe intermodulation, frequency pulling, and, at strong drive, the emergence of a comb-like spectrum in the atomic coherence. We quantitatively capture these observations using a four-level mean-field model and demonstrate a classical analogue with a driven Van der Pol oscillator. Our results establish interacting Rydberg ensembles as a tunable platform for exploring nonequilibrium time-crystalline order, nonlinear synchronization, and frequency comb generation in many-body atomic systems.
title Frequency Comb Behavior of Time Crystals in an RF-Driven Dissipative Rydberg System
topic Atomic Physics
Quantum Physics
url https://arxiv.org/abs/2603.12170