The Rayleigh-Taylor Instability in a Bose-Einstein Condensate
Swarbhanu Chatterjee
Abstract
We show how a two dimensional Bose-Einstein Condensate trapped in a nonequilibrium state can be driven into the Rayleigh-Taylor instability if an outward in-plane force is exerted on it. If the condensate is inside a semiconductor, the above force could arise from an inhomogeneous strain applied on the host semiconductor crystal. On the other hand, for a BEC of alkali atoms, the force could be exerted by an inhomogeneous magnetic field turned on after the BEC has been released from its magnetic trap. During its expansion, the condensate will break into droplets each a separate BEC. Therefore, one can create BEC droplets out of a single large BEC and study the coherence properties of the droplets with respect to each other. The discussion on the linear onset of the Rayleigh-Taylor instability in a BEC is generalized to three dimensions.
Create a lesson
Related papers
Scalar Spin Chirality from Dissipative Pumping and Lamb Shift Precession
YuanDong Wang, JianHua Wei
Singlet-doublet transitions and Josephson currents in a superconducting ring with a quantum dot
Guo-Hui Ding, Fei Ye, Bing Dong
Switchable Magnetoelectric Transport in Graphene via a Van der Waals Multiferroic
Miuko Tanaka, Shunta Aoki, Ikoi Sato et al.
Universal tuning of Förster resonance energy transfer in gate-programmable conductor-dielectric-conductor heterostructures
Alexis J. Agosto, Daniel Gunlycke, Michael N. Leuenberger
Chiral superconductors and competing states across a Lifshitz transition in rhombohedral pentalayer graphene
Chuanqi Zheng, Cheng Xu, Chushan Li et al.
Spin-textured orbitals in altermagnetic artificial atoms
Yue Mao, Yu-Chen Zhuang, Cheng-Ming Miao et al.