• Acta Optica Sinica
  • Vol. 39, Issue 1, 0126002 (2019)
Jian Chen1、* and Qiwen Zhan1、2、*
Author Affiliations
  • 1 School of Optical-Electrical and Computer Engineering, University of Shanghai for Science and Technology,Shanghai 200093, China
  • 2 Department of Electro-Optics and Photonics, University of Dayton, Dayton,Ohio 45469, United States of America
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    DOI: 10.3788/AOS201939.0126002 Cite this Article Set citation alerts
    Jian Chen, Qiwen Zhan. Tailoring Laser Focal Fields with Vectorial Optical Fields[J]. Acta Optica Sinica, 2019, 39(1): 0126002 Copy Citation Text show less
    Erbium-doped fiber laser used for generating radially and azimuthally polarized modes[65]
    Fig. 1. Erbium-doped fiber laser used for generating radially and azimuthally polarized modes[65]
    Experimental setup used for generating vectorial beams[82]
    Fig. 2. Experimental setup used for generating vectorial beams[82]
    Schematic of VOF-Gen system[83]
    Fig. 3. Schematic of VOF-Gen system[83]
    Flow chart of adaptive close loop control in VOF-Gen[86]
    Fig. 4. Flow chart of adaptive close loop control in VOF-Gen[86]
    Experimental results of elliptically polarized beam generation[86]. (a) Intensity and ellipticity distribution of output beam before calibration; (b) histogram of elevation angle before calibration; (c) histogram of ellipticity before calibration; (d) intensity and ellipticity distributions of output beam after calibration; (e) histogram of elevation angle after calibration; (f) histogram of ellipticity after calibration
    Fig. 5. Experimental results of elliptically polarized beam generation[86]. (a) Intensity and ellipticity distribution of output beam before calibration; (b) histogram of elevation angle before calibration; (c) histogram of ellipticity before calibration; (d) intensity and ellipticity distributions of output beam after calibration; (e) histogram of elevation angle after calibration; (f) histogram of ellipticity after calibration
    Schematic of tightly focusing of vectorial optical field[46]
    Fig. 6. Schematic of tightly focusing of vectorial optical field[46]
    Intensity distributions of tailored focused field[99]. (a) Three-dimensional flattop focused field with long depth of focus; (b) optical bubble
    Fig. 7. Intensity distributions of tailored focused field[99]. (a) Three-dimensional flattop focused field with long depth of focus; (b) optical bubble
    Schematics of tailoring polarization distribution of focused optical field based on time reversal method[100]. (a) Optical field distribution in pupil plane; (b) tightly focusing of reversed field
    Fig. 8. Schematics of tailoring polarization distribution of focused optical field based on time reversal method[100]. (a) Optical field distribution in pupil plane; (b) tightly focusing of reversed field
    Focused field with 45° linear polarization in x-z plane obtained by simulation. (a) Incident field in pupil plane of lens; (b) tightly focused field
    Fig. 9. Focused field with 45° linear polarization in x-z plane obtained by simulation. (a) Incident field in pupil plane of lens; (b) tightly focused field
    Simulated focused field with spin axis oriented at (90°,30°,60°)[102]. (a) Incident field in pupil plane of lens; (b) tightly focused field
    Fig. 10. Simulated focused field with spin axis oriented at (90°,30°,60°)[102]. (a) Incident field in pupil plane of lens; (b) tightly focused field
    Molecular orientation imaging by radial polarization[109]. (a) Experimental setup; (b) theoretical results of fluorescent emission patterns; (c) experimental results
    Fig. 11. Molecular orientation imaging by radial polarization[109]. (a) Experimental setup; (b) theoretical results of fluorescent emission patterns; (c) experimental results
    Fabrication results of 3D woodpile photonic crystal (PC) by radially polarized beams[110]. (a) Schematic of woodpile PCs; (b) scanning electron microscopic image of PC fabricated with linearly polarized beam; (c) scanning electron microscopic image of PC fabricated with radially polarized beam; (d) calculated band diagrams in Г-X direction of structures in (b) and (c); (e) transmission spectra (solid) of PCs and another PC with different lattice constants fabricated with radially polarized beam
    Fig. 12. Fabrication results of 3D woodpile photonic crystal (PC) by radially polarized beams[110]. (a) Schematic of woodpile PCs; (b) scanning electron microscopic image of PC fabricated with linearly polarized beam; (c) scanning electron microscopic image of PC fabricated with radially polarized beam; (d) calculated band diagrams in Г-X direction of structures in (b) and (c); (e) transmission spectra (solid) of PCs and another PC with different lattice constants fabricated with radially polarized beam