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Autores principales: Quirk, Jonah A., Tanner, Carol E., Elliott, D. S.
Formato: Preprint
Publicado: 2025
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Acceso en línea:https://arxiv.org/abs/2510.08205
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author Quirk, Jonah A.
Tanner, Carol E.
Elliott, D. S.
author_facet Quirk, Jonah A.
Tanner, Carol E.
Elliott, D. S.
contents We report a new method of two-pathway coherent control using three narrow-band cw laser sources, phase locked in an optical phase-lock loop, to maintain the high degree of optical coherence required for the coherent control process. In addition, we derive expressions for two-photon transition amplitudes and demonstrate their dependence on the polarization of the field components. This phase-locking technique expands the set of interactions to which coherent control techniques may be applied. It also allows for a constant low-frequency offset between the optical interactions, producing a continuous and constant phase ramp between the interactions, facilitating phase-sensitive detection of the modulating atomic signal. We illustrate this technique with two-photon vs.~one-photon excitation of a $ΔF = 1$ component, and alternatively a $ΔF = 0$ component, of the $6s \: ^2S_{1/2} \rightarrow 7s \: ^2S_{1/2}$ transition of atomic cesium.
format Preprint
id arxiv_https___arxiv_org_abs_2510_08205
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Electronic phase-locking for three-color, two-pathway coherent control
Quirk, Jonah A.
Tanner, Carol E.
Elliott, D. S.
Atomic Physics
We report a new method of two-pathway coherent control using three narrow-band cw laser sources, phase locked in an optical phase-lock loop, to maintain the high degree of optical coherence required for the coherent control process. In addition, we derive expressions for two-photon transition amplitudes and demonstrate their dependence on the polarization of the field components. This phase-locking technique expands the set of interactions to which coherent control techniques may be applied. It also allows for a constant low-frequency offset between the optical interactions, producing a continuous and constant phase ramp between the interactions, facilitating phase-sensitive detection of the modulating atomic signal. We illustrate this technique with two-photon vs.~one-photon excitation of a $ΔF = 1$ component, and alternatively a $ΔF = 0$ component, of the $6s \: ^2S_{1/2} \rightarrow 7s \: ^2S_{1/2}$ transition of atomic cesium.
title Electronic phase-locking for three-color, two-pathway coherent control
topic Atomic Physics
url https://arxiv.org/abs/2510.08205