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Main Authors: Nazeeri, Albert, Brandenstein, Chiara, Jia, Chengjie, Magrini, Lorenzo, Gratta, Giorgio
Format: Preprint
Published: 2025
Subjects:
Online Access:https://arxiv.org/abs/2509.02750
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author Nazeeri, Albert
Brandenstein, Chiara
Jia, Chengjie
Magrini, Lorenzo
Gratta, Giorgio
author_facet Nazeeri, Albert
Brandenstein, Chiara
Jia, Chengjie
Magrini, Lorenzo
Gratta, Giorgio
contents Mechanical modulation of recoilless nuclear transitions allows the dynamic control of $γ$-ray emission and absorption. Accessing modulation frequencies well above the nuclear linewidth enables coherent manipulation of the nuclear response. Here we demonstrate high frequency control via efficient coupling a film of enriched $^{57}$Fe to a $97.9~\mathrm{MHz}$ surface acoustic wave, nearly two orders of magnitude higher than the nuclear linewidth. The mechanical drive produces a comb of absorption sidebands in the Mössbauer spectrum, reflecting the periodic time modulation of the nuclear transitions. This constitutes the highest frequency mechanically driven Mössbauer resonance to date. Our solid-state, monolithic platform establishes a new interface between nuclear transitions and high-frequency acoustics, with applications in $γ$-ray quantum optics and precision nuclear spectroscopy.
format Preprint
id arxiv_https___arxiv_org_abs_2509_02750
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Coupling of a Nuclear Transition to a Surface Acoustic Wave
Nazeeri, Albert
Brandenstein, Chiara
Jia, Chengjie
Magrini, Lorenzo
Gratta, Giorgio
Quantum Physics
Nuclear Experiment
Mechanical modulation of recoilless nuclear transitions allows the dynamic control of $γ$-ray emission and absorption. Accessing modulation frequencies well above the nuclear linewidth enables coherent manipulation of the nuclear response. Here we demonstrate high frequency control via efficient coupling a film of enriched $^{57}$Fe to a $97.9~\mathrm{MHz}$ surface acoustic wave, nearly two orders of magnitude higher than the nuclear linewidth. The mechanical drive produces a comb of absorption sidebands in the Mössbauer spectrum, reflecting the periodic time modulation of the nuclear transitions. This constitutes the highest frequency mechanically driven Mössbauer resonance to date. Our solid-state, monolithic platform establishes a new interface between nuclear transitions and high-frequency acoustics, with applications in $γ$-ray quantum optics and precision nuclear spectroscopy.
title Coupling of a Nuclear Transition to a Surface Acoustic Wave
topic Quantum Physics
Nuclear Experiment
url https://arxiv.org/abs/2509.02750