2015Journal of Physics Conference SeriesOpen access

Exploiting Rydberg blockade to probe strongly-coupled Rydberg atom pairs

X Zhang, F. B. Dunning, S. Yoshida, Joachim Burgdörfer

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Abstract

Rydberg blockade at very-high- n , n ∼ 300, is examined using strontium n 1 F 3 Rydberg atoms excited in a small volume defined by two crossed tightly-focused laser beams. Strong but not complete blockade is observed and discussed with the aid of quantum calculations using a two-active-electron model. Nonetheless, the probability for creating one, and only one, Rydberg atom is large, >0.6, sufficient to enable study of strongly- coupled Rydberg atom pairs.

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Rydberg blockade at very-high- n , n ∼ 300, is examined using strontium n 1 F 3 Rydberg atoms excited in a small volume defined by two crossed tightly-focused laser beams. Strong but not complete blockade is observed and discussed with the aid of quantum calculations using a two-active-electron model. Nonetheless, the probability for creating one, and only one, Rydberg atom is large, >0.6, sufficient to enable study of strongly- coupled Rydberg atom pairs.

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Available abstract

Rydberg blockade at very-high- n , n ∼ 300, is examined using strontium n 1 F 3 Rydberg atoms excited in a small volume defined by two crossed tightly-focused laser beams. Strong but not complete blockade is observed and discussed with the aid of quantum calculations using a two-active-electron model. Nonetheless, the probability for creating one, and only one, Rydberg atom is large, >0.6, sufficient to enable study of strongly- coupled Rydberg atom pairs.

Key concepts: Rydberg atom, Rydberg formula, Atomic physics, Excited state, Rydberg matter, Atom (system on chip), Blockade, Physics

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