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Transport of Quantum States and Separation of Ions in a Dual RF Ion Trap
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abstract
We have investigated ion dynamics associated with a dual linear ion trap where ions can be stored in and moved between two distinct locations. Such a trap is a building block for a system to engineer arbitrary quantum states of ion ensembles. Specifically, this trap is the unit cell in a strategy for scalable quantum computing using a series of interconnected ion traps. We have transferred an ion between trap locations 1.2 mm apart in 50 $\mu$s with near unit efficiency ($> 10^{6}$ consecutive transfers) and negligible motional heating, while maintaining internal-state coherence. In addition, we have separated two ions held in a common trap into two distinct traps.
Forward citations
Cited by 3 Pith papers
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Manipulation of Topological Corner States via Subchiral Symmetry
Subchiral symmetry enables controlled isolation and adiabatic transfer of topological corner modes or their superpositions in the BBH model, with high-fidelity numerical and IBM quantum hardware demonstrations.
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Quantum Transport Protected by Acceleration From Nonadiabaticity and Dissipation
Optimizing trap acceleration, rather than counterdiabatic fields, maximizes transport fidelity of a dissipating wavepacket even at supersonic speeds.
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Sympathetic Cooling in Trapped Ions with Spectral Selectivity via the Zeeman Shift
Demonstrates sympathetic cooling of trapped ions via Zeeman-shift spectral selectivity on metastable levels to isolate data ions from coolant ions.
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