Nonreciprocal photonic spin hall effect in a bulk Dirac semimetal based tribonacci photonic crystal

IF 1.8 3区 物理与天体物理 Q3 OPTICS
Zhi Ji, Ning-Yi Wang, Wen-Tao Liu, Zhi-Wei Liu, Qi Song, Hua-Peng Ye, Hai-Xia Da
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Abstract

Nonreciprocal photonic spin Hall effect manifests it as the different spin dependent reflected/transmitted transverse splittings of linearly polarized incident waves at two opposite wave propagation directions. However, its realization remains obscure. Here, we report the discovery of the prominent nonreciprocal photonic spin Hall effect in a bulk Dirac semimetal based on quasiperiodic Tribonacci photonic crystal, which is evidenced by the significantly large reflected spin shift along one propagation direction but the trivial spin shift along the opposite propagation direction due to its asymmetrical geometrical structure and electromagnetic field distribution. In addition, the Fermi energy of the bulk Dirac semimetal can be continuously modified by the external stimulus, which enables the effective control of the nonreciprocal photonic spin Hall effect in the Dirac semimetal based Tribonacci photonic crystal. Our results open up the alternative platform to generate the controllably nonreciprocal photonic spin Hall effect in the quasiperiodic systems via the combination of the bulk Dirac semimetals and Tribonacci photonic crystal.

块体Dirac半金属基tribonacci光子晶体中的非互易光子自旋霍尔效应
非互易光子自旋霍尔效应表现为线偏振入射波在两个相反的波传播方向上反射/透射的不同自旋相关的横向分裂。然而,它的实现仍然模糊不清。本文报道了在基于准周期Tribonacci光子晶体的块体Dirac半金属中发现了显著的非倒易光子自旋霍尔效应,这证明了由于其不对称的几何结构和电磁场分布,沿一个传播方向的反射自旋位移很大,但沿相反的传播方向的自旋位移很小。此外,外部刺激可以连续地改变本体狄拉克半金属的费米能量,从而有效地控制基于狄拉克半金属的Tribonacci光子晶体中的非互易光子自旋霍尔效应。我们的研究结果为在准周期系统中通过体Dirac半金属和Tribonacci光子晶体的组合产生可控非互易光子自旋霍尔效应开辟了替代平台。
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来源期刊
Applied Physics B
Applied Physics B 物理-光学
CiteScore
4.00
自引率
4.80%
发文量
202
审稿时长
3.0 months
期刊介绍: Features publication of experimental and theoretical investigations in applied physics Offers invited reviews in addition to regular papers Coverage includes laser physics, linear and nonlinear optics, ultrafast phenomena, photonic devices, optical and laser materials, quantum optics, laser spectroscopy of atoms, molecules and clusters, and more 94% of authors who answered a survey reported that they would definitely publish or probably publish in the journal again Publishing essential research results in two of the most important areas of applied physics, both Applied Physics sections figure among the top most cited journals in this field. In addition to regular papers Applied Physics B: Lasers and Optics features invited reviews. Fields of topical interest are covered by feature issues. The journal also includes a rapid communication section for the speedy publication of important and particularly interesting results.
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