An optical tweezer implements state-dependent displacement, squeezing, rotation, and beamsplitter gates on the motional modes of trapped 40Ca+ ions.
Optical dipole traps for neutral atoms
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abstract
The subject of this review are atom traps based on optical dipole forces in laser fields, along with their unique features as storage devices at ultralow energies. The basic physics of the dipole interaction is discussed, and the experimental background of dipole trapping experiments is explained. Specific trapping schemes and experiments are presented, where the wide range of applications of dipole traps is explored considering particular examples.
fields
quant-ph 3years
2026 3verdicts
UNVERDICTED 3representative citing papers
Cs-133 atoms become active by converting quantum spin-exchange energy from a Rb-87 bath into kinetic motion, quantitatively matched by a parameter-free Langevin model derived from kinetic theory.
Provides component-wise energy estimates for Rydberg quantum computers and reports a potential energy advantage over classical DFT execution for the Quantum Fourier Transform under ideal error-free conditions.
citing papers explorer
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State-dependent Gaussian gate set using an optical tweezer for trapped ions
An optical tweezer implements state-dependent displacement, squeezing, rotation, and beamsplitter gates on the motional modes of trapped 40Ca+ ions.
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Quantum-enabled active matter at the atomic scale
Cs-133 atoms become active by converting quantum spin-exchange energy from a Rb-87 bath into kinetic motion, quantitatively matched by a parameter-free Langevin model derived from kinetic theory.
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Energetics of Rydberg-atom Quantum Computing
Provides component-wise energy estimates for Rydberg quantum computers and reports a potential energy advantage over classical DFT execution for the Quantum Fourier Transform under ideal error-free conditions.