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Main Authors: Barnea, Orr, Einav, Dror, Drotleff, Jonas, Hochner, Idan, Meir, Ziv
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2503.12417
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author Barnea, Orr
Einav, Dror
Drotleff, Jonas
Hochner, Idan
Meir, Ziv
author_facet Barnea, Orr
Einav, Dror
Drotleff, Jonas
Hochner, Idan
Meir, Ziv
contents Stray electric fields induce excess micromotion in ion traps, limiting experimental performance. We present a new micromotion-compensation technique that utilizes a dark ion in a bright-dark-bright linear ion crystal. Stray electric fields in the radial plane of the trap deform the crystal axially. We exploit the mode softening near the transition to the zig-zag configuration to increase our sensitivity dramatically. We corroborate our results with a modified ion-displacement compensation method using a single bright ion. Our modification allows us to compensate stray fields on the 2D radial plane from a 1D measurement of the ion position on the camera. Both methods require only a fixed imaging camera and continuous ion-fluorescence detection. As such, they can be readily implemented in virtually any ion-trapping experiment without additional hardware modifications.
format Preprint
id arxiv_https___arxiv_org_abs_2503_12417
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Micromotion compensation using dark and bright ions
Barnea, Orr
Einav, Dror
Drotleff, Jonas
Hochner, Idan
Meir, Ziv
Atomic Physics
Stray electric fields induce excess micromotion in ion traps, limiting experimental performance. We present a new micromotion-compensation technique that utilizes a dark ion in a bright-dark-bright linear ion crystal. Stray electric fields in the radial plane of the trap deform the crystal axially. We exploit the mode softening near the transition to the zig-zag configuration to increase our sensitivity dramatically. We corroborate our results with a modified ion-displacement compensation method using a single bright ion. Our modification allows us to compensate stray fields on the 2D radial plane from a 1D measurement of the ion position on the camera. Both methods require only a fixed imaging camera and continuous ion-fluorescence detection. As such, they can be readily implemented in virtually any ion-trapping experiment without additional hardware modifications.
title Micromotion compensation using dark and bright ions
topic Atomic Physics
url https://arxiv.org/abs/2503.12417