A chamber-matrix calibration using spin-resolved Rydberg-EIT spectroscopy lets the authors synthesize σ−, π, and σ+ microwave polarizations with >99% fidelity in a reflective chamber, extended off-resonance by two-photon transitions.
Polarization-insensitive microwave electrometry using Rydberg atoms
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abstract
We investigate the Autler-Townes splitting for Rydberg atoms dressed with linearly polarized microwave radiation, resonant with generic $S_{1/2}\leftrightarrow{P}_{1/2}$ and $S_{1/2}\leftrightarrow{P}_{3/2}$ transitions. The splitting is probed using laser light via electromagnetically-induced transparency measurements, where the transmission of probe laser light reveals a two-peak pattern. In particular, this pattern is invariant under rotation of the microwave field polarization. In consequence, we establish $S \leftrightarrow P$ Rydberg transitions as ideally suited for polarization-insensitive electrometry, contrary to recent findings [A. Chopinaud and J.D. Pritchard, Phys. Rev. Appl. $\mathbf{16}$, 024008 (2021)].
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High-Fidelity Microwave-Polarization Control in a Rydberg-Ensemble Experiment
A chamber-matrix calibration using spin-resolved Rydberg-EIT spectroscopy lets the authors synthesize σ−, π, and σ+ microwave polarizations with >99% fidelity in a reflective chamber, extended off-resonance by two-photon transitions.