Quantum Spin Dynamics of Spin-1 Bose Gas
Roberto B. Diener, Tin-Lun Ho
Abstract
We show that the quantum evolution of a spin-1 Bose gas with nearly all bosons initially in the Fz = 0 state has a "quantum carpet" spin-time structure with self-similar properties. The system continuously evolves into "multi-peaked" Schrödinger cat like states, returning occasionally to coherent structures, which leads to large number fluctuations (as seen in recent experiments). The self similar behavior allows one to reveal the quantum evolution as a set of peaks in the number probability distribution of a spin component at times much shorter than the quantum revival time. We also show that these features survive small number fluctuations among spin components up to a few percent.
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