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用于工程叠加英斯-高斯光束的超表面

Metasurface for Engineering Superimposed Ince-Gaussian Beams.

作者信息

Ahmed Hammad, Ansari Muhammad Afnan, Paterson Lynn, Li Jia, Chen Xianzhong

机构信息

Institute of Photonics and Quantum Sciences, School of Engineering and Physical Sciences, Heriot-Watt University, Edinburgh, EH14 4AS, UK.

Institute of Biological Chemistry, Biophysics and Bioengineering, School of Engineering and Physical Sciences, Heriot-Watt University, Edinburgh, EH14 4AS, UK.

出版信息

Adv Mater. 2024 May;36(21):e2312853. doi: 10.1002/adma.202312853. Epub 2024 Feb 19.

Abstract

Ince-Gaussian beams (IGBs) are the third complete family of exact and orthogonal solutions of the paraxial wave equation and have been applied in many fields ranging from particle trapping to quantum optics. IGBs play a very important role in optics as they represent the exact and continuous transition modes connecting Laguerre-Gaussian and Hermite-Gaussian beams. The method currently in use suffers from the high cost, complexity, and large volume of the optical system. The superposition of IGBs can generate complicated structured beams with multiple phase and polarization singularities. A metasurface approach is proposed to realizing various superpositions of IGBs without relying on a complicated optical setup. By superimposing IGBs with even and odd modes, multiple phase, and polarization singularities are observed in the resultant beams. The phase and polarization singularities are modulated by setting the initial phase in the design and controlling the incident linear polarization. The compactness of the developed metasurface devices and the unique properties of the generated beams have the potential to impact many practical applications such as particle manipulation, orbital angular momentum spectrum manipulation, and optical communications.

摘要

因斯高斯光束(IGBs)是傍轴波动方程的第三类完整的精确且正交解,已应用于从粒子捕获到量子光学等许多领域。因斯高斯光束在光学中起着非常重要的作用,因为它们代表了连接拉盖尔 - 高斯光束和厄米特 - 高斯光束的精确且连续的过渡模式。目前使用的方法存在光学系统成本高、复杂性高和体积大的问题。因斯高斯光束的叠加可以产生具有多个相位和偏振奇点的复杂结构光束。提出了一种超表面方法来实现因斯高斯光束的各种叠加,而无需依赖复杂的光学设置。通过叠加具有偶数和奇数模式的因斯高斯光束,在合成光束中观察到多个相位和偏振奇点。通过在设计中设置初始相位并控制入射线性偏振来调制相位和偏振奇点。所开发的超表面器件的紧凑性以及所产生光束的独特特性有可能影响许多实际应用,如粒子操纵、轨道角动量谱操纵和光通信。

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