Bessel vortices in spin-1 Bose-Einstein condensates with Zeeman splitting and spin-orbit coupling

Huan-Bo Luo, Xin-Feng Zhang, Runhua Li, Yongyao Li, Bin Liu
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Abstract

We investigate the ground states of spin-orbit coupled spin-1 Bose-Einstein condensates in the presence of Zeeman splitting. By introducing the generalized momentum operator, the linear version of the system is solved exactly, yielding a set of Bessel vortices. Additionally, based on linear solution and using variational approximation, the solutions for the full nonlinear system and their ground state phase diagrams are derived, including the vortex states with quantum numbers m = 0, 1, as well as mixed states. In this work, mixed states in spin-1 SOC BEC are interpreted for the first time as weighted superpositions of three vortex states. Furthermore, the results also indicate that under strong Zeeman splitting, the system cannot form localized states. The variational solutions align well with numerical simulations, showing stable evolution and meeting the criteria for long-term observation in experiments.
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具有泽曼分裂和自旋轨道耦合的自旋-1 玻色-爱因斯坦凝聚体中的贝塞尔漩涡
我们研究了存在泽曼分裂的自旋轨道耦合自旋-1 玻色-爱因斯坦凝聚体的基态。通过引入广义动量算子,我们精确求解了该系统的线性版本,得到了一组贝塞尔旋涡。此外,在线性解的基础上,利用变分近似法,还推导出了全非线性系统的解及其基态相图,包括量子数 m = 0、1 的涡旋态以及混合态。在这项工作中,自旋-1 SOC BEC 中的混合态首次被解释为三个涡旋态的加权叠加。此外,研究结果还表明,在强泽曼分裂条件下,系统无法形成局域态。变分解法与数值模拟非常吻合,显示出稳定的演化,符合在实验中长期观测的标准。
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