论文标题
合成宏观磁性单极
A Synthetic Macroscopic Magnetic Unipole
论文作者
论文摘要
我们首次使用原型在实验中进行了实验证明,可以在简单连接的三维结构域中进行人造的磁性单杆刺猬场,从而有效地模拟了狄拉克模型,只需使用一种新型的永久磁体的拓扑和几何形状,并在环数组中。尽管在过去的十年中,其他人也证明了类似的效果,但由于这些效应通常观察到并持续一小段时间,并使用原发性BEC,天空,自旋冰和最近的手性磁铁在量子或微观尺度上应用,直到现在直到现在才能在宏观尺度上进行表现。合成磁性单极环阵列原型逐渐扭曲,并将磁通量转向消失的卷曲场(即涡旋)几何形状朝向环及其空气盖的中心。仅此单纯的行为就足够证明可以产生所需的效果,并且在该磁环阵列的中心观察到明显的孤立磁性单极区区域,因为我们已经用三轴磁力计绘制了绘制,并与量子磁性器件磁通量查看器,Ferrolens一起显示。该磁性单酮在室温下是稳定的。由于其宏观性质,我们能够首次记录磁性单极管合成或自然的独特信号特征模式,并通过图17所示的非理想欧姆螺线管,该模式可用于研究,该螺线管可以被研究用来帮助它们检测到磁单磁的检测。
We demonstrate experimentally with a prototype for the first time, that an artificial emergent magnetic unipole hedgehog field in a simply connected three dimensional domain is possible, emulating effectively the Dirac model by simply using a novel permanent magnets' topology and geometrical arrangement in a ring array. Although similar effects were demonstrated by others over the last decade, with these effects usually observed and lasting for a small fraction in time and applied at the quantum or microscopic scale using primary BECs, Skyrmions, Spin Ice and recently Chiral Magnets this was never shown until now and performed at the macro scale and by using normal magnets. The synthetic magnetic unipole ring array prototype progressively twists and steers the magnetic flux into vanishing curl field (i.e. vortex) geometry towards the center of the ring and its air cap. This mere act alone proves enough to create the desired effect and an apparent isolated magnetic unipole region is observed at the center of this magnetic ring array, as we have mapped with a three axis magnetometer and show with the quantum magnetic-optic device flux viewer, the ferrolens. This magnetic unipole is stable at room temperature. Because its macroscopic nature we were able to record for the first time the unique signal signature patterns of magnetic monopoles synthetic or natural, passing through a non-ideal ohmic solenoid shown in Fig.17 which can be used by researches to aid them in the detection of magnetic monopoles.