平面内磁场对具有对称各向异性交换相互作用的中心对称三角晶格体系中天河离子的影响

Magnetism Pub Date : 2024-03-18 DOI:10.3390/magnetism4010005
S. Hayami
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摘要

我们报告了在一个中心对称的宿主中,skyrmion 晶体相在外部磁场中平面内和平面外方向的稳定性的数值结果。我们分析了一个具有双自旋对称各向异性交换相互作用的自旋模型,这种相互作用产生于三角形晶格上的相对论自旋轨道耦合。通过模拟退火,我们构建了磁场从平面外磁场方向倾斜到平面内磁场方向时的磁相图。我们发现根据面内磁场方向的不同,天离子晶体相的稳定趋势也不同,这提供了双自旋对称各向异性交换相互作用稳定天离子晶体相的信号。我们的研究结果表明,双自旋对称各向异性交换相互作用引发天离子晶相的机制可以通过施加面内磁场进行实验检验。
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Effect of In-Plane Magnetic Field on Skyrmions in a Centrosymmetric Triangular-Lattice System with Symmetric Anisotropic Exchange Interaction
We report our numerical results on the stability of the skyrmion crystal phase in an external magnetic field for both in-plane and out-of-plane directions in a centrosymmetric host. We analyze a spin model with the two-spin symmetric anisotropic exchange interaction that arises from relativistic spin–orbit coupling on a triangular lattice. By performing simulated annealing, we construct magnetic phase diagrams when the magnetic field is tilted from the out-of-plane field direction to the in-plane field direction. We find a different stability tendency of the skyrmion crystal phase according to the directions of the in-plane field, which provides a signal of the two-spin symmetric anisotropic exchange interaction for stabilizing the skyrmion crystal phase. Our results indicate that the mechanism of the skyrmion crystal phase triggered by the two-spin symmetric anisotropic exchange interaction can be experimentally tested by applying the in-plane magnetic field.
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