International audienceWe propose a method to prepare states of given quantized circulation in annular Bose-Einstein condensates (BEC) confined in a ring trap using the method of phase imprinting without relying on a two-photon angular momentum transfer. The desired phase profile is imprinted on the atomic wave function using a short light pulse with a tailored intensity pattern generated with a Spatial Light Modulator. We demonstrate the realization of 'helicoidal' intensity profiles suitable for this purpose. Due to the diffraction limit, the theoretical steplike intensity profile is not achievable in practice. We investigate the effect of imprinting an intensity profile smoothed by a finite optical resolution onto the annular BEC with a n...
Rapidly scanning magnetic and optical dipole traps have been widely utilized to form time-averaged p...
We present a method for the effective preparation of a Bose-Einstein condensate(BEC)into the excited...
We experimentally and numerically demonstrate a method to generate multiply quantized superfluid cir...
International audienceWe propose a method to prepare states of given quantized circulation in annula...
We show how the phase profile of Bose-Einstein condensates can be engineered through its in- teracti...
We demonstrate numerically the efficient generation of vortices in Bose-Einstein condensates (BECs) ...
We show how the phase profile of Bose-Einstein condensates can be engineered through its interaction...
We investigate the role of vortices in the decay of persistent current states of annular atomic supe...
We study controlled methods of preparing vortex configurations in atomic Bose-Einstein condensates a...
Quantum phase engineering is demonstrated with two techniques that allow the spatial phase distribut...
Superradiance scattering from a Bose-Einstein condensate is studied with a two-frequency pumping bea...
Since the first Bose-Einstein Condensate (BEC) was demonstrated in a dilute atomic gas [1], rotating...
Laboratory atomtronic systems consisting of a Bose-Einstein-condensed gas with strong horizontal con...
It is common knowledge that a dark soliton can be excited in an ultracold atomic gas by means of the...
Topological phase imprinting is a well-established technique for deterministic vortex creation in sp...
Rapidly scanning magnetic and optical dipole traps have been widely utilized to form time-averaged p...
We present a method for the effective preparation of a Bose-Einstein condensate(BEC)into the excited...
We experimentally and numerically demonstrate a method to generate multiply quantized superfluid cir...
International audienceWe propose a method to prepare states of given quantized circulation in annula...
We show how the phase profile of Bose-Einstein condensates can be engineered through its in- teracti...
We demonstrate numerically the efficient generation of vortices in Bose-Einstein condensates (BECs) ...
We show how the phase profile of Bose-Einstein condensates can be engineered through its interaction...
We investigate the role of vortices in the decay of persistent current states of annular atomic supe...
We study controlled methods of preparing vortex configurations in atomic Bose-Einstein condensates a...
Quantum phase engineering is demonstrated with two techniques that allow the spatial phase distribut...
Superradiance scattering from a Bose-Einstein condensate is studied with a two-frequency pumping bea...
Since the first Bose-Einstein Condensate (BEC) was demonstrated in a dilute atomic gas [1], rotating...
Laboratory atomtronic systems consisting of a Bose-Einstein-condensed gas with strong horizontal con...
It is common knowledge that a dark soliton can be excited in an ultracold atomic gas by means of the...
Topological phase imprinting is a well-established technique for deterministic vortex creation in sp...
Rapidly scanning magnetic and optical dipole traps have been widely utilized to form time-averaged p...
We present a method for the effective preparation of a Bose-Einstein condensate(BEC)into the excited...
We experimentally and numerically demonstrate a method to generate multiply quantized superfluid cir...