Self-organization of atoms coupled to a chiral reservoir
arXiv:1605.06522 · doi:10.1103/PhysRevA.94.053855
Abstract
Tightly confined modes of light, as in optical nanofibers or photonic crystal waveguides, can lead to large optical coupling in atomic systems, which mediates long-range interactions between atoms. These one-dimensional systems can naturally possess couplings that are asymmetric between modes propagating in different directions. Strong long-range interaction among atoms via these modes can drive them to a self-organized periodic distribution. In this paper, we examine the self-organizing behavior of atoms in one dimension coupled to a chiral reservoir. We determine the solution to the equations of motion in different parameter regimes, relative to both the detuning of the pump laser that initializes the atomic dipole-dipole interactions and the degree of reservoir chirality. In addition, we calculate possible experimental signatures such as reflectivity from self-organized atoms and motional sidebands.
14 pages, 12 figures
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- Chiral Quantum Optics
- Optical Nanofibers: a new platform for quantum optics
- Tunable single-photon diode by chiral quantum physics
- Near-ground-state cooling of atoms optically trapped 300nm away from a hot surface
- Chiral quantum optics in photonic sawtooth lattices
- Imaging and localizing individual atoms interfaced with a nanophotonic waveguide
- Self-Ordering of Individual Photons in Waveguide QED and Rydberg-Atom Arrays
- Casimir forces in transmission-line circuits: QED and fluctuation-dissipation formalisms
- Dipole-dipole Interactions Through a Lens