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Trapped Ion Quantum Computing
Waveguide QED: Many-Body Bound State Effects on Coherent and Fock State Scattering from a Two-Level System
arXiv
Authors: Huaixiu Zheng, Daniel J. Gauthier, Harold U. Baranger
Year
2010
Paper ID
11103
Status
Preprint
Abstract Read
~2 min
Abstract Words
153
Citations
N/A
Abstract
Strong coupling between a two-level system (TLS) and bosonic modes produces dramatic quantum optics effects. We consider a one-dimensional continuum of bosons coupled to a single localized TLS, a system which may be realized in a variety of plasmonic, photonic, or electronic contexts. We present the exact many-body scattering eigenstate obtained by imposing open boundary conditions. Multi-photon bound states appear in the scattering of two or more photons due to the coupling between the photons and the TLS. Such bound states are shown to have a large effect on scattering of both Fock and coherent state wavepackets, especially in the intermediate coupling strength regime. We compare the statistics of the transmitted light with a coherent state having the same mean photon number: as the interaction strength increases, the one-photon probability is suppressed rapidly, and the two- and three-photon probabilities are greatly enhanced due to the many-body bound states. This results in non-Poissonian light.
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- This paper contributes to the Trapped-Ion Quantum Computing research area in the Quantum Articles archive.
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- Strong coupling between a two-level system (TLS) and bosonic modes produces dramatic quantum optics effects.
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