Recent experiments have used forced evaporative cooling to produce Bose-Einstein condensation in dilute gases. The evaporative cooling process can be optimized to provide the maximum phase-space density with a specified number of atoms remaining. We show that this global optimization is approximately achieved by locally optimizing the cooling efficiency at each instant. We discuss how this method can be implemented, and present the results for our Li7 trap. The predicted behavior of the gas is found to agree well with experiment
We apply an online optimization process based on machine learning to the production of Bose-Einstein...
WOS:000309079500006International audienceWe report the realization of a Bose-Einstein condensate of ...
We have evaporatively cooled caesium atoms in a magnetic trap to temperatures as low as 8 nK and pro...
The realization of Bose-Einstein condensation of 133Cs relies on an innovative evaporative cooling t...
The realization of Bose–Einstein condensation of 133Cs relies on an innovative evaporative cooling t...
We have simulated the evaporative cooling of a dilute gas of Bose particles including quantum statis...
14 pagesWe suggest different simple schemes to efficiently load and evaporate a ''dimple'' crossed d...
We apply three machine learning strategies to optimize the atomic cooling processes utilized in the ...
We have simulated the evaporative cooling of trapped atoms using a very efficient method originally ...
The dynamics of evaporative cooling of magnetically trapped 87 Rb atoms is studied on the basis of ...
We show that by a suciently slow repumping process, one can avoid the problems of reabsorptions in l...
The construction of an apparatus capable of producing Bose-Einstein condensates marks a significant ...
We study the efficiency of evaporative cooling of a trapped gas of caesium atoms in the hydrodynamic...
Cold ensembles and Bose-Einstein condensates of alkali atoms in optical dipole potentials have been ...
International audienceWe demonstrate experimentally the evaporative cooling of a few hundred rubidiu...
We apply an online optimization process based on machine learning to the production of Bose-Einstein...
WOS:000309079500006International audienceWe report the realization of a Bose-Einstein condensate of ...
We have evaporatively cooled caesium atoms in a magnetic trap to temperatures as low as 8 nK and pro...
The realization of Bose-Einstein condensation of 133Cs relies on an innovative evaporative cooling t...
The realization of Bose–Einstein condensation of 133Cs relies on an innovative evaporative cooling t...
We have simulated the evaporative cooling of a dilute gas of Bose particles including quantum statis...
14 pagesWe suggest different simple schemes to efficiently load and evaporate a ''dimple'' crossed d...
We apply three machine learning strategies to optimize the atomic cooling processes utilized in the ...
We have simulated the evaporative cooling of trapped atoms using a very efficient method originally ...
The dynamics of evaporative cooling of magnetically trapped 87 Rb atoms is studied on the basis of ...
We show that by a suciently slow repumping process, one can avoid the problems of reabsorptions in l...
The construction of an apparatus capable of producing Bose-Einstein condensates marks a significant ...
We study the efficiency of evaporative cooling of a trapped gas of caesium atoms in the hydrodynamic...
Cold ensembles and Bose-Einstein condensates of alkali atoms in optical dipole potentials have been ...
International audienceWe demonstrate experimentally the evaporative cooling of a few hundred rubidiu...
We apply an online optimization process based on machine learning to the production of Bose-Einstein...
WOS:000309079500006International audienceWe report the realization of a Bose-Einstein condensate of ...
We have evaporatively cooled caesium atoms in a magnetic trap to temperatures as low as 8 nK and pro...