Detecting the QCD Axion via the Ferroaxionic Force with Piezoelectric Materials

We show that piezoelectric materials can be used to source virtual QCD axions, generating a new axion-mediated force. Spontaneous parity violation within the piezoelectric crystal combined with time-reversal violation from aligned spins provide the necessary symmetry breaking to produce an effective in-medium scalar coupling of the axion to nucleons up to seven orders of magnitude larger than that in vacuum. We propose a detection scheme based on nuclear spin precession caused by the axion's pseudoscalar coupling to nuclear spins. This signal is resonantly enhanced when the distance between the source crystal and the spin sample is modulated at the spin precession frequency. Using this effect, future experimental setups can be sensitive to the QCD axion in the unexplored mass range from 10^{-5} eV to 10^{-2} eV.

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Publication Details

Journal
Physical Review Letters
Published
2026-01-15
DOI
https://doi.org/10.1103/6xw1-1715
Primary Topic
Quantum Chromodynamics and Particle Interactions
Type
article
Field-Weighted Citation Impact
0.00
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article

Detecting the QCD Axion via the Ferroaxionic Force with Piezoelectric Materials

Amalia Madden, Ken Van Tilburg, Anonymous, Jonathan Engel et al.
Physical Review Letters
Quantum Chromodynamics and Particle Interactions
article

Detecting the QCD Axion via the Ferroaxionic Force with Piezoelectric Materials

Amalia Madden, Ken Van Tilburg, Anonymous, Jonathan Engel, Alexander Hepburn
article en

Abstract

We show that piezoelectric materials can be used to source virtual QCD axions, generating a new axion-mediated force. Spontaneous parity violation within the piezoelectric crystal combined with time-reversal violation from aligned spins provide the necessary symmetry breaking to produce an effective in-medium scalar coupling of the axion to nucleons up to seven orders of magnitude larger than that in vacuum. We propose a detection scheme based on nuclear spin precession caused by the axion's pseudoscalar coupling to nuclear spins. This signal is resonantly enhanced when the distance between the source crystal and the spin sample is modulated at the spin precession frequency. Using this effect, future experimental setups can be sensitive to the QCD axion in the unexplored mass range from 10^{-5} eV to 10^{-2} eV.

Physical Review LettersVol. 136(8)
Perimeter Institute (CA), Flatiron Health (United States) (US), Flatiron Institute (US), New York University (US)
Openalex Percentile: Top 83%
Quantum Chromodynamics and Particle Interactions
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