Quantum

Cavity models of non-Abelian gauge theories

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Briefings

A new cavity quantum electrodynamics framework models non-Abelian gauge theories using SU(2) fields and three localized bosonic modes. This approach reveals bound composite gauge particles, or glueballs, as the lowest-energy configurations, offering a pathway to study many-body phenomena in superconducting quantum circuits.

Key points

• The study develops a cavity quantum electrodynamics framework for non-Abelian gauge theories, specifically focusing on SU(2) fields.
• The model uses three localized bosonic modes to represent the system and predicts glueballs as the lowest-energy configurations.

Context

This research applies cavity quantum electrodynamics to non-Abelian gauge theories, providing a framework for modeling bound charges coupled to electromagnetic fields. It offers a glimpse into novel many-body phenomena at the interface between particle physics and quantum optics.

Limitations

The evidence is a preprint from arXiv:2610.27070v1, indicating it is not yet peer-reviewed. The findings are theoretical and do not include experimental data, author names, or specific numerical results.

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