Green function formalism for resonant interaction of x-rays with nuclei in structured media

Abstract

The resonant interaction between x-ray photons and nuclei is one of the most exciting subjects of the burgeoning field of x-ray quantum optics. A resourceful platform used so far are thin-film x-ray cavities with embedded layers or Mössbauer nuclei such as ${}^{57}\mathrm{Fe}$. A new quantum optical model based on the classical electromagnetic Green's function is developed to investigate theoretically the nuclear response inside the x-ray cavity. The model is versatile and provides an intuitive picture about the influence of the cavity structure on the resulting spectra. We test its predictive powers with the help of the semiclassical coherent scattering formalism simulations and discuss our results for increasing complexity of layer structures.

11 pages, 6 figures

References in corpus (7)

• Interferometric phase detection at x-ray energies via Fano resonance control
• Tunable sub-luminal propagation of narrowband x-ray pulses
• Single-Photon Entanglement in the keV Regime via Coherent Control of Nuclear Forward Scattering
• Electric dipole-forbidden nuclear transitions driven by super-intense laser fields
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• Collective effects between multiple nuclear ensembles in an x-ray cavity-QED setup
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Cited by in corpus (7)

• Certifying multi-mode light-matter interaction in lossy resonators
• Inverse design of artificial two-level systems with Mössbauer nuclei in thin-film cavities
• Quantum Nanophotonics with Energetic Particles:X-rays and Free Electrons
• Inverse design in nuclear quantum optics: From artificial x-ray multi-level schemes to spectral observables
• Waveguide QED with Moessbauer Nuclei
• Superradiance and anomalous hyperfine splitting in inhomogeneous ensembles
• Cavity Controls Core-to-Core Resonant Inelastic X-ray Scattering