@article{2022-urunuela-meschede-phys-rev-a-v105-p043321,
	Abstract = {<p>
	High-bandwidth, fiber-based optical cavities are a promising building block for future quantum networks. They are used to resonantly couple stationary qubits such as single or multiple atoms with photons routing quantum information into a fiber network at high rates. In high-bandwidth cavities, standard fluorescence imaging on the atom-cavity resonance line for controlling atom positions is impaired since the Purcell effect strongly suppresses all-directional fluorescence. Here, we restore imaging of <sup>87</sup>Rb atoms strongly coupled to such a fiber Fabry-Pérot cavity by detecting the repumper fluorescence which is generated by continuous and three-dimensional Raman sideband cooling. We have carried out a detailed spectroscopic investigation of the repumper-induced differential light shifts affecting the Raman resonance, dependent on intensity and detuning. Our analysis identifies a compromise regime between imaging signal-to-noise ratio and survival rate, where physical insight into the role of dipole-force fluctuations in the heating dynamics of trapped atoms is gained.</p>},
	Author = {Uruñuela, E. AND Ammenwerth, M. AND Malik, P. AND Ahlheit, L. AND Pfeifer, H. AND Alt, W. AND Meschede, D.},
	Journal = {Phys. Rev. A},
	Pages = {043321},
	Title = {{Raman imaging of atoms inside a high-bandwidth cavity}},
	Volume = {105},
	Year = {2022}
}