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Atomic and Laser Physics
Credit: Jack Hobhouse

Sebastian Saner

Postdoctoral Research Assistant

Research theme

  • Quantum information and computation

Sub department

  • Atomic and Laser Physics

Research groups

  • Ion trap quantum computing
sebastian.saner@physics.ox.ac.uk
Clarendon Laboratory
  • About
  • Publications

Non-commuting dynamics in light-ion-interactions in an ion trap system

Morressier (2023)

Authors:

Oana Bazavan, Sebastian Saner, Donovan Webb, Gabriel Araneda, David Lucas, Raghavendra Srinivas, Chris Ballance
More details from the publisher

Standing-wave Mølmer-Sørensen gates on a quadrupole transition*

Morressier (2023)

Authors:

Oana Bazavan, Sebastian Saner, Donovan Webb, Raghavendra Srinivas, Gabriel Araneda, David Lucas, Chris Ballance, Peter Drmota
More details from the publisher

Synthetic $\mathbb{Z}_2$ gauge theories based on parametric excitations of trapped ions

(2023)

Authors:

O Băzăvan, S Saner, E Tirrito, G Araneda, R Srinivas, A Bermudez
More details from the publisher

Breaking the entangling gate speed limit for trapped-ion qubits using a phase-stable standing wave

(2023)

Authors:

S Saner, O Băzăvan, M Minder, P Drmota, DJ Webb, G Araneda, R Srinivas, DM Lucas, CJ Ballance
More details from the publisher

Synthesizing a Sigma circumflex accent z spin-dependent force for optical, metastable, and ground-state trapped-ion qubits

Physical Review A American Physical Society 107:2 (2023) 22617

Authors:

Oana Bazavan, Sebastian Saner, M Minder, Ac Hughes, Rt Sutherland, Dm Lucas, R Srinivas, Cj Ballance

Abstract:

A single bichromatic field near resonant to a qubit transition is typically used for σx or σy Mølmer-Sørensen-type interactions in trapped-ion systems. Using this field configuration, it is also possible to synthesize a σz spin-dependent force by merely adjusting the beat-note frequency. Here, we expand on previous work and present a comprehensive theoretical and experimental investigation of this scheme with a laser near resonant to a quadrupole transition in Sr+88. Further, we characterize its robustness to optical phase and qubit frequency offsets, and demonstrate its versatility by entangling optical, metastable, and ground-state qubits.
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