On the sensitivity of nuclear clocks to new physics
arXiv:2407.17526 · doi:10.1103/l29n-gt5j
Abstract
The recent demonstration of laser excitation of the eV isomeric state of Thorium-229 is a significant step towards a nuclear clock. The low excitation energy likely results from a cancellation between electromagnetic and strong contributions, which new physics can disrupt. In this Letter, we quantify the enhancement of a nuclear clock's sensitivity to new physics using a geometric model and a novel -wave halo model of the nucleus that reproduces measured differences between Thorium-229 states. We find likely enhancements of order while a worst case scenario with enhancement is unlikely.
Accepted in PRC Letters, 7 pages, 2 figures
References in corpus (41)
- Search for New Physics with Atoms and Molecules
- The landscape of QCD axion models
- Nuclear effective field theory: status and perspectives
- Searching for dilaton dark matter with atomic clocks
- A Single-Ion Nuclear Clock for Metrology at the 19th Decimal Place
- Equivalence Principle Violations and Couplings of a Light Dilaton
- Can dark matter induce cosmological evolution of the fundamental constants of Nature?
- Enhanced effect of temporal variation of the fine structure constant in diatomic molecules
- Searching for an oscillating massive scalar field as a dark matter candidate using atomic hyperfine frequency comparisons
- Precision Metrology Meets Cosmology: Improved Constraints on Ultralight Dark Matter from Atom-Cavity Frequency Comparisons
- Frequency ratio of the Th nuclear isomeric transition and the Sr atomic clock
- Effective field theory description of halo nuclei
- Dependence of nuclear magnetic moments on quark masses and limits on temporal variation of fundamental constants from atomic clock experiments
- Laser spectroscopic characterization of the nuclear clock isomer Th
- Probing axions with neutron star inspirals and other stellar processes
- Observation of the radiative decay of the nuclear clock isomer
- Performance of a 229 Thorium solid-state nuclear clock
- A proposed experimental method to determine -sensitivity of splitting between ground and 7.6 eV isomeric states in Th-229
- Phenomenology of the Equivalence Principle with Light Scalars
- Sub-eV scalar dark matter through the super-renormalizable Higgs portal
- Sensitivity of Th nuclear clock transition to variation of the fine-structure constant
- The effect of spin-orbit nuclear charge density corrections due to the anomalous magnetic moment on halonuclei
- Search for ultralight dark matter from long-term frequency comparisons of optical and microwave atomic clocks
- Enhanced Sensitivity to Ultralight Bosonic Dark Matter in the Spectra of the Linear Radical SrOH
- Searching for Scalar Dark Matter via Coupling to Fundamental Constants with Photonic, Atomic and Mechanical Oscillators
- Coherent relaxion dark matter
- Search for oscillations of fundamental constants using molecular spectroscopy
- The Th isomer: prospects for a nuclear optical clock
- The Phenomenology of Quadratically Coupled Ultra Light Dark Matter
- Search for ultralight dark matter with spectroscopy of radio-frequency atomic transitions
- Anthropic considerations in nuclear physics
- Nuclear charge radii of Th from isotope and isomer shifts
- Splitting Sensitivity of the Ground and 7.6 eV Isomeric States of 229Th
- Effects of electrons on nuclear clock transition frequency in Th ions
- Relaxion Dark Matter from Stochastic Misalignment
- Searching for dark matter with the Th-229 nuclear lineshape from laser spectroscopy
- Effects of finite nucleon size, vacuum polarization, and electromagnetic spin-orbit interaction on nuclear binding energies and radii in spherical nuclei
- Prospects of nuclear-coupled-dark-matter detection via correlation spectroscopy of I and Ca
- Nelson-Barr ultralight dark matter
- Electric structure of shallow D-wave states in Halo EFT
- Halo structure of C