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Towards Quantum Turbulence in Finite Temperature Bose-Einstein Condensates

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arxiv 1605.01193 v2 pith:DWJ4UIGG submitted 2016-05-04 hep-th

Towards Quantum Turbulence in Finite Temperature Bose-Einstein Condensates

classification hep-th
keywords superfluidquantizationturbulenceholographicquantumtemperaturealternativeenergy
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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Motivated by the various indications that holographic superfluid is BCS like at the standard quantization but BEC like at the alternative quantization, we have implemented the alternative quantization in the dynamical holographic superfluid for the first time. With this accomplishment, we further initiate the detailed investigation of quantum turbulence in finite temperature BEC by a long time stable numerical simulation of bulk dynamics, which includes the two body decay of vortex number caused by vortex pair annihilation, the onset of superfluid turbulence signaled by Kolmogorov scaling law, and a direct energy cascade demonstrated by injecting energy to the turbulent superfluid. All of these results share the same patterns as the holographic superfluid at the standard quantization, thus suggest that these should be universal features for quantum turbulence at temperatures order of the critical temperature.

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    In a holographic superfluid, quenching from stronger symmetry breaking relaxes faster to equilibrium, with the slowest decay mode suppressed and the second mode amplified.