1991
DOI: 10.1063/1.348637
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Frequency pulling by hyperfine σ transitions in cesium beam atomic frequency standards

Abstract: It is demonstrated that frequency pulling by Δm=±1 hyperfine σ transitions, here called Ramsey pulling, is a real calculable effect in atomic beam frequency standards. An analytic expression for the effects of Ramsey pulling is derived using perturbative techniques for the driving σ transitions, while treating the primary π transitions exactly. It is shown that these Ramsey pulling effects are intrinsically different from Rabi pulling in origin, manifestation, and elimination. These predictions are compared to… Show more

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Cited by 52 publications
(74 citation statements)
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“…With some estimations regarding the transverse component of the microwave field and coupling of the atom to this field, using again [60] we infer an upper limit of the Ramsey pulling shift less than 10 −19 . We note here the favorable properties of Rb when comparing to Cs.…”
Section: G Rabi and Ramsey Pulling Shiftsmentioning
confidence: 77%
“…With some estimations regarding the transverse component of the microwave field and coupling of the atom to this field, using again [60] we infer an upper limit of the Ramsey pulling shift less than 10 −19 . We note here the favorable properties of Rb when comparing to Cs.…”
Section: G Rabi and Ramsey Pulling Shiftsmentioning
confidence: 77%
“…The shift is qualitatively different from the Rabi-pulling shift, which is due to the microwave field driving neighboring m F = 0 (or π ) transitions between magnetically sensitive states without coupling to a clock state [13]. Work on Ramsey pulling has been published only for thermal beam clocks [12,14,15]. So far its contribution to the uncertainty budget of fountain clocks has been evaluated based on the theory specifically developed for thermal beam clocks by Cutler et al [12] and is generally estimated to be below 10 −16 when atomic state selection is employed.…”
Section: Introductionmentioning
confidence: 98%
“…Ramsey-pulling frequency shifts appear when the microwave field driving the clock transition couples magnetically sensitive states to the clock states via m F = ±1 (or σ ) transitions, which change the projection quantum number m F of the atom's total angular momentum F [12]. The shift is qualitatively different from the Rabi-pulling shift, which is due to the microwave field driving neighboring m F = 0 (or π ) transitions between magnetically sensitive states without coupling to a clock state [13].…”
Section: Introductionmentioning
confidence: 99%
“…Therefore the pi transitions can be treated to very good approximation as completely independent. A detailed theoretical analysis was performed [2] and this suspicion was confirmed. The analysis will not be described in detail here but some of the results will be presented as well as some experimental verification of the theory.…”
Section: Introductionmentioning
confidence: 86%
“…The pulling behavior in these tubes is quite different from the usual Rabi pulling which is caused by the residual background slope due to incomplete cancellation of the skirts of the neighboring AM=O (pi) transitions. (In this paper and in reference [2] we have used pi and sigma to designate parallel and perpendicular, respectively, orientation of the microwave magnetic field with respect to the Cfield. This is in contrast to the usual optical definition in which pi and sigma mean that the optical electric field is parallel and perpendicular, respectively, to the static magnetic field.)…”
Section: Introductionmentioning
confidence: 99%