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U. Warring

Researcher at University of Freiburg

Publications -  39
Citations -  1755

U. Warring is an academic researcher from University of Freiburg. The author has contributed to research in topics: Antihydrogen & Quantum simulator. The author has an hindex of 19, co-authored 38 publications receiving 1556 citations. Previous affiliations of U. Warring include Max Planck Society & National Institute of Standards and Technology.

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Microwave quantum logic gates for trapped ions

TL;DR: The approach, which involves integrating the quantum control mechanism into the trapping device in a scalable manner, could be applied to quantum information processing, simulation and spectroscopy.
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Proposed antimatter gravity measurement with an antihydrogen beam

TL;DR: The AEGIS experiment at CERN/AD as mentioned in this paper was the first experiment to directly measure the Earth's gravitational acceleration on antihydrogen with a classical Moire deflectometer.
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100-fold reduction of electric-field noise in an ion trap cleaned with in situ argon-ion-beam bombardment.

TL;DR: This study investigates the role of adsorbates on the electrodes by identifying contaminant overlayers, implementing an in situ argon-ion-beam cleaning treatment, and measuring ion heating rates before and after treating the trap electrodes' surfaces, finding a 100-fold reduction in heating rate after treatment.
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Arrays of individually controlled ions suitable for two-dimensional quantum simulations

TL;DR: This work demonstrates individual control of the electronic and motional degrees of freedom, preparation of a fiducial initial state with ion motion close to the ground state, as well as a tuning of couplings between ions within experimental sequences, paves the way towards a quantum simulator of two-dimensional systems designed at will.
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Time-Resolved Observation of Thermalization in an Isolated Quantum System.

TL;DR: In this article, trapped atomic ions forming a hybrid Coulomb crystal were used to study an isolated quantum system composed of a single spin coupled to an engineered bosonic environment and observed the emergence of thermalization: time averages of spin observables approach microcanonical averages while related fluctuations decay.