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Physical Review Letters

Formation of Dispersive Shock Waves by Merging and Splitting Bose-Einstein Condensates | NIST

Jia J. Chang, Peter Engels, Mark A. Hoefer

Published Jan 1, 2008• 0 citations
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Formation of Dispersive Shock Waves by Merging and Splitting Bose-Einstein Condensates

JiaJia Chang, Peter Engels, Mark A. Hoefer

The processes of merging and splitting dilute-gas Bose-Einstein condensates are studied in the nonadiabatic, high-density regime. Rich dynamics are found. Depending on the experimental parameters, uniform soliton trains containing more than ten solitons or the formation of a high-density bulge as well as dispersive shock waves are observed experimentally within merged BECs. Our numerical simulations indicate the formation of many vortex rings. In the case of splitting a BEC, the transition from sound-wave formation to dispersive shock-wave formation is studied by use of increasingly stronger splitting barriers. These experiments realize prototypical dispersive shock situations.

arXiv:0803.2535•Physical Review Letters•Oct 23, 2008•150 citations
The processes of merging and splitting dilute-gas Bose-Einstein condensates are studied in the nonadiabatic, high-density regime. Rich dynamics are found. Depending on the experimental parameters, uniform soliton trains containing more than ten solitons or the formation of a high-density bulge as well as dispersive shock waves are observed experimentally within merged BECs. Our numerical simulations indicate the formation of many vortex rings. In the case of splitting a BEC, the transition from sound-wave formation to dispersive shock-wave formation is studied by use of increasingly stronger splitting barriers. These experiments realize prototypical dispersive shock situations.