• Acta Optica Sinica
  • Vol. 41, Issue 8, 0823002 (2021)
Runqiu He, Guohua Liang, Hui Liu*, and Shining Zhu
Author Affiliations
  • School of Physics, Nanjing University, Nanjing, Jiangsu 210093, China
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    DOI: 10.3788/AOS202141.0823002 Cite this Article Set citation alerts
    Runqiu He, Guohua Liang, Hui Liu, Shining Zhu. Optical Control and Applications on Curved Waveguides[J]. Acta Optica Sinica, 2021, 41(8): 0823002 Copy Citation Text show less
    Geodesic lens of micron scale[29]. (a) Spatial distribution of refractive index of four kinds of geodesic lenses and actual shapes of geodesic lenses; (b) sample morphology and coupled grating morphology under electron microscope; (c) beam propagation and comparison with theoretically calculated trajectory
    Fig. 1. Geodesic lens of micron scale[29]. (a) Spatial distribution of refractive index of four kinds of geodesic lenses and actual shapes of geodesic lenses; (b) sample morphology and coupled grating morphology under electron microscope; (c) beam propagation and comparison with theoretically calculated trajectory
    Conformal singularity experiment[30]. (a) Refractive index distribution of core region and whole, and corresponding curved surface shape; (b) refractive index distribution of zero singularity core area and whole, and corresponding curved surface shape; (c) infinite singularity and zero optical simulation results of ingularity; (d) curved waveguide samples of infinite singularities and experimental images of beam propagation
    Fig. 2. Conformal singularity experiment[30]. (a) Refractive index distribution of core region and whole, and corresponding curved surface shape; (b) refractive index distribution of zero singularity core area and whole, and corresponding curved surface shape; (c) infinite singularity and zero optical simulation results of ingularity; (d) curved waveguide samples of infinite singularities and experimental images of beam propagation
    Conformal lens experiment[31]. (a) Schematic of beam with multi-curved structure and corresponding refractive index distribution in virtual space; (b) convergence diagram of quasi-focusing curved lens and corresponding plane refractive in dex distribution diagram; (c) sample photos and experimental pictures of non-rotationally symmetric curved lens-like lenses
    Fig. 3. Conformal lens experiment[31]. (a) Schematic of beam with multi-curved structure and corresponding refractive index distribution in virtual space; (b) convergence diagram of quasi-focusing curved lens and corresponding plane refractive in dex distribution diagram; (c) sample photos and experimental pictures of non-rotationally symmetric curved lens-like lenses
    Wormhole simulation experiment[32]. (a) Embedding diagram of MT wormhole; (b) MT wormhole samples; (c) beam geodesic and experimental pictures of non-traversal condition; (d) geodesic and experimental images of beam under crossing condition
    Fig. 4. Wormhole simulation experiment[32]. (a) Embedding diagram of MT wormhole; (b) MT wormhole samples; (c) beam geodesic and experimental pictures of non-traversal condition; (d) geodesic and experimental images of beam under crossing condition
    Simulation experiment of cosmic expansion[33]. (a) Schematic of parameters of rotating surface structure; (b) schematic of curved waveguide; (c) experimental light path; (d) incident light spots; (e) outgoing light spots
    Fig. 5. Simulation experiment of cosmic expansion[33]. (a) Schematic of parameters of rotating surface structure; (b) schematic of curved waveguide; (c) experimental light path; (d) incident light spots; (e) outgoing light spots
    Runqiu He, Guohua Liang, Hui Liu, Shining Zhu. Optical Control and Applications on Curved Waveguides[J]. Acta Optica Sinica, 2021, 41(8): 0823002
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