We describe a setup for a deep optical dipole trap or lattice designed for holding atoms at temperatures of a few mK, such as alkaline-Earth atoms which have undergone only regular Doppler cooling. We use an external optical cavity to amplify 3.2 W from a commercial single-frequency laser at 532 nm to 523 W. Powers of a few kW, attainable with low-loss optics or higher input powers, allow larger trap volumes for improved atom transfer from magneto-optical traps. We analyze possibilities for cooling inside the deep trap, the induced Stark shifts for calcium, and a cancellation scheme for the intercombination clock transition using an auxiliary laser.162909-1
International audienceWe demonstrate a simple and compact approach to laser cool and trap atoms base...
We study the trap depth requirement for the realization of an optical clock using atoms confined in ...
The theory of an atom dipole trap composed of a focused, far red-detuned, trapping laser beam, and a...
We describe a setup for a deep optical dipole trap or lattice which should be capable of trapping at...
We have investigated the influence of narrow-line laser cooling on the loading of Ca atoms into opti...
We describe a new system for laser cooling and trapping of neutral Calcium atoms employing the ¹S0 -...
We present a compact apparatus for laser cooling and trapping of atomic calcium. The set-up consisti...
In this work, we have applied sub-Doppler laser cooling to a K-39 magneto-optical trap in order to l...
The theory of cooling neutral atoms to microkelvin temperatures using a magneto optical trap will be...
This thesis reports on the design and construction of, and results from, an optical-dipole trapping ...
We present a novel optical cooling scheme capable of loading and cooling atoms directly inside deep ...
A detailed experimental and theoretical investigation of a magneto-optical trap for caesium atoms is...
This review describes the methods of trapping cold atoms in electromagnetic fields and in the combin...
We present a novel optical cooling scheme capable of loading and cooling atoms directly inside deep ...
9 pages, 10 FiguresInternational audienceWe experimentally and theoretically study the continuous ac...
International audienceWe demonstrate a simple and compact approach to laser cool and trap atoms base...
We study the trap depth requirement for the realization of an optical clock using atoms confined in ...
The theory of an atom dipole trap composed of a focused, far red-detuned, trapping laser beam, and a...
We describe a setup for a deep optical dipole trap or lattice which should be capable of trapping at...
We have investigated the influence of narrow-line laser cooling on the loading of Ca atoms into opti...
We describe a new system for laser cooling and trapping of neutral Calcium atoms employing the ¹S0 -...
We present a compact apparatus for laser cooling and trapping of atomic calcium. The set-up consisti...
In this work, we have applied sub-Doppler laser cooling to a K-39 magneto-optical trap in order to l...
The theory of cooling neutral atoms to microkelvin temperatures using a magneto optical trap will be...
This thesis reports on the design and construction of, and results from, an optical-dipole trapping ...
We present a novel optical cooling scheme capable of loading and cooling atoms directly inside deep ...
A detailed experimental and theoretical investigation of a magneto-optical trap for caesium atoms is...
This review describes the methods of trapping cold atoms in electromagnetic fields and in the combin...
We present a novel optical cooling scheme capable of loading and cooling atoms directly inside deep ...
9 pages, 10 FiguresInternational audienceWe experimentally and theoretically study the continuous ac...
International audienceWe demonstrate a simple and compact approach to laser cool and trap atoms base...
We study the trap depth requirement for the realization of an optical clock using atoms confined in ...
The theory of an atom dipole trap composed of a focused, far red-detuned, trapping laser beam, and a...