RydIQule Version 2: Enhancing graph-based modeling of Rydberg atoms
Abstract
Rydberg atomic radio-frequency (rf) sensors are an emerging technology platform that relies on vaporous atoms, interrogated with laser beams and nearly ionized, to receive rf signals. Rydberg rf sensors have a number of interesting fundamental distinctions from traditional receiver technologies, such as those based on metallic antennas, since they are governed by the quantum physics of atom-light interactions. As Rydberg sensors quickly advance from laboratory experiments into fieldable devices, there is a need for a general software modeling tool that fully encompasses the internal physics of the sensor. The Rydberg Interactive Quantum Module (RydIQule) is a Python package designed to fill this need. The initial public release of RydIQule in late 2023 built the core functionality described above. Here we outline RydIQule's version 2 release which expands on its capabilities to more accurately model real-world atoms.
Cite
@article{arxiv.2510.21628,
title = {RydIQule Version 2: Enhancing graph-based modeling of Rydberg atoms},
author = {Benjamin N. Miller and David H. Meyer and Carter A. Montag and Omar Nagib and Teemu Virtanen and Peter K. Elgee and Kevin C. Cox},
journal= {arXiv preprint arXiv:2510.21628},
year = {2026}
}
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