Bessel beams generation with biphase transition of vanadium dioxide metasurface

Hu Bo, Zhijian Wang, Zhifang Qiu, Xinning Yu, Xiaogang Wang, Kaikai Huang, Mingli Sun, Bijun Xu
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Abstract

Bessel beams are highly attractive due to their non-diffraction properties, parallel processing capabilities, and large capacity. However, conventional methods for generating Bessel beams, such as using spatial light modulators, axicons, and diffraction optical elements, face limitations in terms of system complexity, bulkiness, low uniformity, and limited numerical aperture (NA). In this work, we exploited the phase change material vanadium dioxide (VO2) to generate both transmitted and reflected Bessel beams. Moreover, the self-healing property of Bessel beams was verified. Our resultsreveal that VO2 in the insulating state achieves a transmittance of 85% in the transmitting mode, while VO2 in the metallic state exhibits a reflection efficiency of 77% in the reflecting modeThis performance indicates the potential applications in efficient switchable metasurfaces.
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二氧化钒超表面双相转变产生贝塞尔光束
贝塞尔光束因其非衍射特性、并行处理能力和大容量而极具吸引力。然而,生成贝塞尔光束的传统方法,如使用空间光调制器、轴光子和衍射光学元件,在系统复杂性、体积、低均匀性和有限的数值孔径(NA)等方面面临限制。在这项工作中,我们利用相变材料二氧化钒(VO2)来产生透射和反射贝塞尔光束。此外,我们还验证了贝塞尔光束的自愈特性。我们的研究结果表明,绝缘状态下的二氧化钒在透射模式下的透过率达到 85%,而金属状态下的二氧化钒在反射模式下的反射效率为 77%。
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