• Acta Photonica Sinica
  • Vol. 51, Issue 1, 0151101 (2022)
Yuan GAO, Jianping DING*, and Huitian WANG
Author Affiliations
  • National Laboratory of Solid State Microstructures,School of Physics,Nanjing University,Nanjing 210093,China
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    DOI: 10.3788/gzxb20225101.0151101 Cite this Article
    Yuan GAO, Jianping DING, Huitian WANG. Manipulation of Multimodal Vector Optical Fields in Three-dimensional Space(Invited)[J]. Acta Photonica Sinica, 2022, 51(1): 0151101 Copy Citation Text show less
    Three fundamental representations of SoPs
    Fig. 1. Three fundamental representations of SoPs
    New types of Poincaré sphere for topological charge equal to 1[40-42]
    Fig. 2. New types of Poincaré sphere for topological charge equal to 140-42
    Several schematic diagrams of optical setup for highly efficient generation of VOFs based on the split-screen method[35,61,62]
    Fig. 3. Several schematic diagrams of optical setup for highly efficient generation of VOFs based on the split-screen method356162
    Two compact and efficient Generators of VOFs for specific purposes[64-65]
    Fig. 4. Two compact and efficient Generators of VOFs for specific purposes64-65
    Schematic of principle of generating VOFs by utilizing metasurface[66]
    Fig. 5. Schematic of principle of generating VOFs by utilizing metasurface66
    Generation of PPBs based on metasurface[67]
    Fig. 6. Generation of PPBs based on metasurface67
    A modulated case of completely shaping 2D VOFs [34]
    Fig. 7. A modulated case of completely shaping 2D VOFs 34
    Schematic representation of a 3D vectorial optical field with a z-dependent degree of entanglement[85]
    Fig. 8. Schematic representation of a 3D vectorial optical field with a z-dependent degree of entanglement85
    Polarization modulations on axis by controlling the axial phase distributions of zero-order Bessel beams[98]
    Fig. 9. Polarization modulations on axis by controlling the axial phase distributions of zero-order Bessel beams98
    Comparison between the simulation and the experimentally obtained data for the case of the zero-order Bessel beams
    Fig. 10. Comparison between the simulation and the experimentally obtained data for the case of the zero-order Bessel beams
    Generation of 3D vectorial zero-order Bessel beams by reshaping the axial intensity distributions of quasi-Bessel beams[99]
    Fig. 11. Generation of 3D vectorial zero-order Bessel beams by reshaping the axial intensity distributions of quasi-Bessel beams99
    Generation of Bessel beams with different types of path and intensity distribution along the z direction[100]
    Fig. 12. Generation of Bessel beams with different types of path and intensity distribution along the z direction100
    Two kinds of full Poincaré beams and C point and L line in these fields[110]
    Fig. 13. Two kinds of full Poincaré beams and C point and L line in these fields110
    Generation of the BPB synthesized from the combination of the LCP Bessel beam with m1=0 and the RCP Bessel beam with m2=1[101]
    Fig. 14. Generation of the BPB synthesized from the combination of the LCP Bessel beam with m1=0 and the RCP Bessel beam with m2=1101
    Experimental results showing independent SoPs’ manipulation on multi-planes[114]
    Fig. 15. Experimental results showing independent SoPs’ manipulation on multi-planes114
    The experimental generation of three-dimensional vectorial multifocal arrays created by pseudo-period encoding[115]
    Fig. 16. The experimental generation of three-dimensional vectorial multifocal arrays created by pseudo-period encoding115
    Simulation of generating four typical 3D curves based on the scalar beam-shaping technique[118]
    Fig. 17. Simulation of generating four typical 3D curves based on the scalar beam-shaping technique118
    An experimentally generated 3D VOF consisting of a 2D ring curve and a 3D Achimedean curve with continuously varying locally linear SoPs[37]
    Fig. 18. An experimentally generated 3D VOF consisting of a 2D ring curve and a 3D Achimedean curve with continuously varying locally linear SoPs37
    Experimentally generated vectorial focusing curves with continuously varying hybrid SoPs[121]
    Fig. 19. Experimentally generated vectorial focusing curves with continuously varying hybrid SoPs121
    Simulation and experimental results of the 3D CPVB consisting of double tilt-ring-shaped trajectories in the focal space[122]
    Fig. 20. Simulation and experimental results of the 3D CPVB consisting of double tilt-ring-shaped trajectories in the focal space122
    Experimental results of two generated 3D TCVBs[123]
    Fig. 21. Experimental results of two generated 3D TCVBs123
    Generation of curvilinear arranged optical vortex arrays[128]
    Fig. 22. Generation of curvilinear arranged optical vortex arrays128
    Simulations of generating curvilinear V-type polarization singularity arrays along square and quatrefoil trajectories[129]
    Fig. 23. Simulations of generating curvilinear V-type polarization singularity arrays along square and quatrefoil trajectories129
    Schematic illustrations of arbitrary 3D linear SoPs interacting with randomly aligned gold nanorods[139]
    Fig. 24. Schematic illustrations of arbitrary 3D linear SoPs interacting with randomly aligned gold nanorods139
    An optical trapping with tractor beams[140,141]
    Fig. 25. An optical trapping with tractor beams140141
    Optical tweezer experiments based on vectorial vortex beams under tight focusing[27]
    Fig. 26. Optical tweezer experiments based on vectorial vortex beams under tight focusing27
    A Möbius strip and polarization topology Möbius-strip structures caused by polarization singularities with different singularity under tight focusing[145]
    Fig. 27. A Möbius strip and polarization topology Möbius-strip structures caused by polarization singularities with different singularity under tight focusing145
    Topological traits of optical polarization knots characterized by their torus structures[108]
    Fig. 28. Topological traits of optical polarization knots characterized by their torus structures108
    Yuan GAO, Jianping DING, Huitian WANG. Manipulation of Multimodal Vector Optical Fields in Three-dimensional Space(Invited)[J]. Acta Photonica Sinica, 2022, 51(1): 0151101
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