We present a new type of compact and all-glass based vapour cell integrating hollow-core photonic crystal fibres. The absence of metals, as in a traditional vacuum chamber and the much more compact geometry allows for fast and homogeneous heating. As a consequence we can fill the fibres on much faster timescales, ranging from minutes to hours. Additionally the all-glass design ensures optical access along the fibre. This allows live monitoring of the diffusion of rubidium atoms inside the hollow-core by measuring the frequency-dependent fluorescence from the atoms. The atomic density is numerically retrieved using a 5-level system of Bloch-equations.Comment: 9 pages, 5 figure
We review our recent experiments demonstrating a hollow-core photonic-crystal fiber loaded with lase...
International audienceWe have produced a sample of laser-cooled atoms in a micro-fabricated alkali v...
International audienceWe confine a Cs thermal vapor in the interstitial regions of a glass opal. We ...
The recent developments in fabrication of hollow core Photonic crystal fibres (HC-PCFs), especially ...
Atom-light interactions in micro- and nanoscale systems hold great promise for alternative technolog...
This thesis reported on atomic spectroscopy for the development of alkaline atomic vapor photonic mi...
This thesis presents the study of thermal alkali-metal vapours confined in a layer with a sub-micron...
Unlike photons, which are conveniently handled by mirrors and optical fibres without loss of coheren...
In this paper, we present detailed high-resolution spectroscopy of rubidium (Rb) vapor confined with...
Alkali-filled hollow-core fibers are a promising medium for investigating light–matter interactions,...
International audienceWe report on progress in different hollow core photonic crystal fiber (HC-PCF)...
This thesis explores hollow-core fibres as a platform for quantum optics experiments with laser-cool...
Controlling coherent interaction between optical fields and quantum systems in scalable, integrated ...
We present the design, fabrication, and operation of a new genera-tion of thermal alkali vapour nano...
We show that a Rubidium vapor can be produced within the core of a photonic band-gap fiber yielding ...
We review our recent experiments demonstrating a hollow-core photonic-crystal fiber loaded with lase...
International audienceWe have produced a sample of laser-cooled atoms in a micro-fabricated alkali v...
International audienceWe confine a Cs thermal vapor in the interstitial regions of a glass opal. We ...
The recent developments in fabrication of hollow core Photonic crystal fibres (HC-PCFs), especially ...
Atom-light interactions in micro- and nanoscale systems hold great promise for alternative technolog...
This thesis reported on atomic spectroscopy for the development of alkaline atomic vapor photonic mi...
This thesis presents the study of thermal alkali-metal vapours confined in a layer with a sub-micron...
Unlike photons, which are conveniently handled by mirrors and optical fibres without loss of coheren...
In this paper, we present detailed high-resolution spectroscopy of rubidium (Rb) vapor confined with...
Alkali-filled hollow-core fibers are a promising medium for investigating light–matter interactions,...
International audienceWe report on progress in different hollow core photonic crystal fiber (HC-PCF)...
This thesis explores hollow-core fibres as a platform for quantum optics experiments with laser-cool...
Controlling coherent interaction between optical fields and quantum systems in scalable, integrated ...
We present the design, fabrication, and operation of a new genera-tion of thermal alkali vapour nano...
We show that a Rubidium vapor can be produced within the core of a photonic band-gap fiber yielding ...
We review our recent experiments demonstrating a hollow-core photonic-crystal fiber loaded with lase...
International audienceWe have produced a sample of laser-cooled atoms in a micro-fabricated alkali v...
International audienceWe confine a Cs thermal vapor in the interstitial regions of a glass opal. We ...