Exploiting Rydberg blockade to probe strongly-coupled Rydberg atom pairs
X Zhang, F. B. Dunning, S. Yoshida, Joachim Burgdörfer
Abstract
Open-access reader
X Zhang, F. B. Dunning, S. Yoshida, Joachim Burgdörfer
Abstract
Open-access reader
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.
A significance statement is not available in the OpenAlex record.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
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