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Bulletin of the American Physical Society

Particle distribution in a supersonic beam ultracold plasma

Markus Schulz-Weiling, Hossein Sadeghi, Jachin Hung, Edward R. Grant

Published Jun 5, 2013• 0 citations
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On the evolution of the phase-space distributions of a non-spherical molecular ultracold plasma in a supersonic beam

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Abstract This paper offers a toolbox for characterizing the initial conditions and predicting the evolution of the ultracold plasma that forms after resonant laser preparation of a Rydberg gas entrained in a differentially pumped supersonic molecular beam. The conditions afforded by a skimmed free-jet expansion combined with the geometry of laser excitation, determines the phase-space volume of the excited gas. A hydrodynamic shell model, that accounts for the ellipsoidal spatial distribution of this excitation volume in concert with the deforming effects of dissociative recombination, serves to simulate the ambipolar expansion of this molecular ultracold plasma.

Journal of Physics B Atomic Molecular and Optical Physics•Sep 22, 2016•15 citations
Abstract This paper offers a toolbox for characterizing the initial conditions and predicting the evolution of the ultracold plasma that forms after resonant laser preparation of a Rydberg gas entrained in a differentially pumped supersonic molecular beam. The conditions afforded by a skimmed free-jet expansion combined with the geometry of laser excitation, determines the phase-space volume of the excited gas. A hydrodynamic shell model, that accounts for the ellipsoidal spatial distribution of this excitation volume in concert with the deforming effects of dissociative recombination, serves to simulate the ambipolar expansion of this molecular ultracold plasma.