Fig. 1. Intensity distributions of vector vortex beams with different polarization orders and phase topological charges

Fig. 2. Intensity distributions of vector vortex beams with different topological charges at m=1 and m=3

Fig. 3. Phase distributions of vector vortex beams with different polarization orders and phase topological charges

Fig. 4. Intensity distributions of vector vortex beams when m=1,2,3, β=π16, and α=0,π2

Fig. 5. Polarization state distributions of vector vortex beams with l=5 and m=1,2,3 under different ellipticity angles. (a) Whole images; (b) local magnification images

Fig. 6. Intensity distributions of vector vortex beams with m=1 and l=0,1,2 under different ellipticity angles. (a) β=π4; (b) β=3π16; (c) β=π8; (d) β=π16

Fig. 7. Polarization state distributions of vector vortex beams under different azimuth angles. (a) Whole images; (b) local magnification images

Fig. 8. Young double-slit interferograms of vector vortex beam

Fig. 9. Diffraction patterns of vector vortex beams after passing through single-slit aperture

Fig. 10. Comparison of diffraction patterns of vector vortex beams whose polarization orders and phase topological charges are opposite numbers after passing through single-slit aperture

Fig. 11. Diffraction patterns of vector vortex beams after passing through right triangle aperture

Fig. 12. Comparison of diffraction patterns of vector vortex beams whose polarization orders and phase topological charges are opposite numbers after passing through right triangle aperture

Fig. 13. OAM spectrum distributions of vector vortex beams with different topological charges after single slit diffraction when m=1. (a) l=-5; (b) l=-2; (c) l=0; (d) l=1; (e) l=2; (f) l=5

Fig. 14. OAM spectrum distributions of vector vortex beams with different topological charges after right triangle aperture diffraction when m=1. (a) l=-2; (b) l=-1; (c) l=0; (d) l=2; (e) l=1; (f) l=5