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Hauptverfasser: Rehmert, Till, Zawierucha, Maximilian J., Dietze, Kai, Schmidt, Piet O., Wolf, Fabian
Format: Preprint
Veröffentlicht: 2024
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Online-Zugang:https://arxiv.org/abs/2410.07936
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author Rehmert, Till
Zawierucha, Maximilian J.
Dietze, Kai
Schmidt, Piet O.
Wolf, Fabian
author_facet Rehmert, Till
Zawierucha, Maximilian J.
Dietze, Kai
Schmidt, Piet O.
Wolf, Fabian
contents Extending quantum control to increasingly complex systems is crucial for both advancing quantum technologies and fundamental physics. In trapped ion systems, quantum logic techniques that combine a well-controlled logic species with a more complex spectroscopy species have proven to be a powerful tool for extending the range of accessible species. Here, we demonstrate that a quantum system as complex as $^{48}$Ti$^+$ with its many metastable states can be controlled employing a combination of intrinsic thermalization due to collisions with background gas and quantum-logic techniques using a far-detuned Raman laser. The preparation of pure quantum states allows coherent manipulation and high resolution measurements of the Zeeman structure in $^{48}$Ti$^+$. The presented techniques are applicable to a wide range of ionic species giving access to a larger variety of systems for fundamental physics and constitute the first step for quantum-controlled spectroscopy of transition metals, relevant, e.g., for the interpretation of astrophysical spectra.
format Preprint
id arxiv_https___arxiv_org_abs_2410_07936
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Quantum logic control of a transition metal ion
Rehmert, Till
Zawierucha, Maximilian J.
Dietze, Kai
Schmidt, Piet O.
Wolf, Fabian
Atomic Physics
Quantum Physics
Extending quantum control to increasingly complex systems is crucial for both advancing quantum technologies and fundamental physics. In trapped ion systems, quantum logic techniques that combine a well-controlled logic species with a more complex spectroscopy species have proven to be a powerful tool for extending the range of accessible species. Here, we demonstrate that a quantum system as complex as $^{48}$Ti$^+$ with its many metastable states can be controlled employing a combination of intrinsic thermalization due to collisions with background gas and quantum-logic techniques using a far-detuned Raman laser. The preparation of pure quantum states allows coherent manipulation and high resolution measurements of the Zeeman structure in $^{48}$Ti$^+$. The presented techniques are applicable to a wide range of ionic species giving access to a larger variety of systems for fundamental physics and constitute the first step for quantum-controlled spectroscopy of transition metals, relevant, e.g., for the interpretation of astrophysical spectra.
title Quantum logic control of a transition metal ion
topic Atomic Physics
Quantum Physics
url https://arxiv.org/abs/2410.07936