• Infrared and Laser Engineering
  • Vol. 53, Issue 5, 20240098 (2024)
Chao Liu1,2,3,4, Rong Wang1,2,3,4, Bin Lan1,2,3, Xueying Li1,2,3..., Kaihe Zhang1,2,3, Tianjun Dai1,2,3 and You Zhang1,2,3,4|Show fewer author(s)
Author Affiliations
  • 1Institute of Optics and Electronics, Chinese Academy of Sciences, Chengdu 610209, China
  • 2National Laboratory on Adaptive Optics, Chengdu 610209, China
  • 3Key Laboratory on Adaptive Optics, Chinese Academy of Sciences, Chengdu 610209, China
  • 4University of Chinese Academy of Sciences, Beijing 100049, China
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    DOI: 10.3788/IRLA20240098 Cite this Article
    Chao Liu, Rong Wang, Bin Lan, Xueying Li, Kaihe Zhang, Tianjun Dai, You Zhang. Research progress and prospects of suppressing atmospheric turbulence with optical pin beams (cover paper·invited)[J]. Infrared and Laser Engineering, 2024, 53(5): 20240098 Copy Citation Text show less
    Principle diagram of optical pin beams formation[10]
    Fig. 1. Principle diagram of optical pin beams formation[10]
    Far field spot image after propagating over a distance of 1 km in open areas. (a) Spot image of Gaussian beams; (b) Spot image of optical pin beams[10]
    Fig. 2. Far field spot image after propagating over a distance of 1 km in open areas. (a) Spot image of Gaussian beams; (b) Spot image of optical pin beams[10]
    The propagation image of the optical pin beams (a1) γ = 1.5, (b1) γ = 1 and (c1) γ = 0.5 the longitudinal strength distribution in the y-z plane obtained by 0.5; (a2), (b2) and (c2) depict the transverse intensity maps of the light spot captured at a plane z= 200 mm[11]
    Fig. 3. The propagation image of the optical pin beams (a1) γ = 1.5, (b1) γ = 1 and (c1) γ = 0.5 the longitudinal strength distribution in the y-z plane obtained by 0.5; (a2), (b2) and (c2) depict the transverse intensity maps of the light spot captured at a plane z= 200 mm[11]
    Experimental setup and result diagram. (a) Experimental setup diagram; (b1), (c1) Experimental results of longitudinal intensity distribution of optical pin beams and abruptly autofocusing beams in the y-z plane; (b2), (c2) Lateral intensity diagram at the starting position; (b3), (c3) Lateral intensity diagram measured near the peak intensity plane; (b4), (c4) Lateral intensity diagram measured after 500 mm propagation; (b5), (c5) Phase mask loaded into the SLM device[11]
    Fig. 4. Experimental setup and result diagram. (a) Experimental setup diagram; (b1), (c1) Experimental results of longitudinal intensity distribution of optical pin beams and abruptly autofocusing beams in the y-z plane; (b2), (c2) Lateral intensity diagram at the starting position; (b3), (c3) Lateral intensity diagram measured near the peak intensity plane; (b4), (c4) Lateral intensity diagram measured after 500 mm propagation; (b5), (c5) Phase mask loaded into the SLM device[11]
    Power loss diagram for Gaussian beams, focused Gaussian beams and optical pin beams transmission at 0.1-0.8 m[14]
    Fig. 5. Power loss diagram for Gaussian beams, focused Gaussian beams and optical pin beams transmission at 0.1-0.8 m[14]
    BER performance and eye diagrams for a Gaussian beams and optical pin beams. (a) z = 0.45 m; (b) z = 0.8 m[14]
    Fig. 6. BER performance and eye diagrams for a Gaussian beams and optical pin beams. (a) z = 0.45 m; (b) z = 0.8 m[14]
    Experimental setup diagram for the generation and detection of VOPB[17]
    Fig. 7. Experimental setup diagram for the generation and detection of VOPB[17]
    OAM spectra of the receiving surface in turbulent atmosphere at different receiving apertures R. (a)-(c) OAM spectrum of POVB; (d)-(f) OAM spectrum of Gaussian vortex beams[19]
    Fig. 8. OAM spectra of the receiving surface in turbulent atmosphere at different receiving apertures R. (a)-(c) OAM spectrum of POVB; (d)-(f) OAM spectrum of Gaussian vortex beams[19]
    Far-field images of LG vortex beams and POVB[20]
    Fig. 9. Far-field images of LG vortex beams and POVB[20]
    The mean intensity centroid position offset and jitter diagram of POVB and LVB[20]
    Fig. 10. The mean intensity centroid position offset and jitter diagram of POVB and LVB[20]
    Comparison of transmission characteristics between SOB and Gaussian beams. (a) The beam pattern of SOB (upper) and Gaussian beams (lower) at a transmission distance of −6 cm to 6 cm; (b) Diagram of changes in beam radius for SOB and Gaussian beams at transmission distances of −12 cm to 12 cm[21]
    Fig. 11. Comparison of transmission characteristics between SOB and Gaussian beams. (a) The beam pattern of SOB (upper) and Gaussian beams (lower) at a transmission distance of −6 cm to 6 cm; (b) Diagram of changes in beam radius for SOB and Gaussian beams at transmission distances of −12 cm to 12 cm[21]
    Comparison of effects between SOB and Gaussian beams before and after turbulence. (a) Side view of beam profile of SOB and Gaussian beams passing through a water tank without turbulence; (b) Spot of SOB after passing through turbulent water; (c) Spot of Gaussian beams after passing through turbulent water; (d) Distribution of light intensity when Gaussian beams and SOB transmission distance is 0-20 mm; (e) Relative intensity fluctuation of Gaussian beams and SOB in 0-20 s[21]
    Fig. 12. Comparison of effects between SOB and Gaussian beams before and after turbulence. (a) Side view of beam profile of SOB and Gaussian beams passing through a water tank without turbulence; (b) Spot of SOB after passing through turbulent water; (c) Spot of Gaussian beams after passing through turbulent water; (d) Distribution of light intensity when Gaussian beams and SOB transmission distance is 0-20 mm; (e) Relative intensity fluctuation of Gaussian beams and SOB in 0-20 s[21]
    Experimental optical path diagram of SOB and Gaussian beams transmitted through turbulence[22]
    Fig. 13. Experimental optical path diagram of SOB and Gaussian beams transmitted through turbulence[22]
    Comparison before and after optimization. (a) Experimental diagram of SOB before optimization; (b) Experimental diagram of optimized SOB; (c) Measurement of spot radius at different transmission distances of SOB[23]
    Fig. 14. Comparison before and after optimization. (a) Experimental diagram of SOB before optimization; (b) Experimental diagram of optimized SOB; (c) Measurement of spot radius at different transmission distances of SOB[23]
    Chao Liu, Rong Wang, Bin Lan, Xueying Li, Kaihe Zhang, Tianjun Dai, You Zhang. Research progress and prospects of suppressing atmospheric turbulence with optical pin beams (cover paper·invited)[J]. Infrared and Laser Engineering, 2024, 53(5): 20240098
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