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This experimental study demonstrates that trapped ion systems in the strong-driving regime exhibit distinct non-Markovian dynamics due to significant spin-motion hybridization, challenging conventional weak-driving approximations. By observing structured responses that align with generalized resonance conditions, researchers provide a new operational probe for understanding complex quantum couplings essential for scaling quantum processors.
Realization of Trapped Ion Dynamics in the Strong-Field Regime and Non-Markovianity
arXiv:2510.20444v3 Announce Type: replace Abstract: We experimentally investigate trapped ion dynamics in the strong-driving regime, where the Rabi frequency (Omega) is comparable to the vibrational mode frequency (nu). In the conventional weak-driving regime (Omega << nu), the dynamics is well described by effective Hamiltonians for the carrier and motional sidebands, associated with detunings (delta = n nu (n = 0, +/- 1, ...)). In the strong-driving regime (Omega ~ nu), these interactions can no longer be treated independently. We characterize this physics through the reduced dynamics of the qubit, where non-Markovian behavior emerges as an operational probe of the spin-motion coupling. We observe a structured non-Markovian response, with well-defined maxima that follow the generalized resonance condition (delta^2 + Omega^2 = nu^2), reflecting the strong underlying spin-motion hybridization characteristic of the strong-driving regime.
Abstract:We experimentally investigate trapped ion dynamics in the strong-driving regime, where the Rabi frequency (Omega) is comparable to the vibrational mode frequency (nu). In the conventional weak-driving regime (Omega << nu), the dynamics is well described by effective Hamiltonians for the carrier and motional sidebands, associated with detunings (delta = n nu (n = 0, +/- 1, ...)). In the strong-driving regime (Omega ~ nu), these interactions can no longer be treated independently. We characterize this physics through the reduced dynamics of the qubit, where non-Markovian behavior emerges as an operational probe of the spin-motion coupling. We observe a structured non-Markovian response, with well-defined maxima that follow the generalized resonance condition (delta^2 + Omega^2 = nu^2), reflecting the strong underlying spin-motion hybridization characteristic of the strong-driving regime.
This is the accepted manuscript of an article published in Physical Review Research. The final published version is available at this https URL. 9 pages, 10 figures
arXiv:2510.20444 [quant-ph]
(or arXiv:2510.20444v3 [quant-ph] for this version)
https://doi.org/10.1103/r8dp-52s2 DOI(s) linking to related resources
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