• Infrared and Laser Engineering
  • Vol. 50, Issue 5, 20211024 (2021)
Tianqi Wang1、2, Zhijun Kang1、2、*, Dongdong Meng1、2, Jisi Qiu1、2, and Hao Liu1、2
Author Affiliations
  • 1Aerospace Information Research Institure, Chinese Academy of Sciences, Beijing 100094, China
  • 2National Engineering Research Center for DPSSL, Beijing 100094, China
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    DOI: 10.3788/IRLA20211024 Cite this Article
    Tianqi Wang, Zhijun Kang, Dongdong Meng, Jisi Qiu, Hao Liu. Application progress of the stimulated Brillouin scattering phase conjugate mirror in high power nanosecond lasers[J]. Infrared and Laser Engineering, 2021, 50(5): 20211024 Copy Citation Text show less
    Evolution of the wavefront as the beam pass a round trip through crystal with an irregular surface. (a) Reflected by plane mirror; (b) Reflected by SBS-PCM
    Fig. 1. Evolution of the wavefront as the beam pass a round trip through crystal with an irregular surface. (a) Reflected by plane mirror; (b) Reflected by SBS-PCM
    Optical layout of MOPA system with SBS-PCM adopted by Zel’dovich et al[14]
    Fig. 2. Optical layout of MOPA system with SBS-PCM adopted by Zel’dovich et al[14]
    Optical layout of 690 W laser system developed by Pierre et al[38]
    Fig. 3. Optical layout of 690 W laser system developed by Pierre et al[38]
    Optical layout of 940 W laser system developed by Pierre et al[39]
    Fig. 4. Optical layout of 940 W laser system developed by Pierre et al[39]
    Optical layout of 362 W laser system developed by Kiriyama et al[41]
    Fig. 5. Optical layout of 362 W laser system developed by Kiriyama et al[41]
    Optical layout of 766 W laser system developed by Yoshida et al[43]
    Fig. 6. Optical layout of 766 W laser system developed by Yoshida et al[43]
    MOPA system with fiber SBS-PCM developed by Eichler et al[30]
    Fig. 7. MOPA system with fiber SBS-PCM developed by Eichler et al[30]
    Optical layout of 100 J level laser system developed by Wang et al[46]
    Fig. 8. Optical layout of 100 J level laser system developed by Wang et al[46]
    Schematic diagram of the experimental setup adopted by Zhao et al[36]
    Fig. 9. Schematic diagram of the experimental setup adopted by Zhao et al[36]
    Optical layout of 1 kW laser system developed by Fan et al[3]
    Fig. 10. Optical layout of 1 kW laser system developed by Fan et al[3]
    Optical layout of 550 W laser system developed by Kang et al[47]
    Fig. 11. Optical layout of 550 W laser system developed by Kang et al[47]
    InstituteYearProperties of laser systemProperties of SBS-PCMRef.
    Output power/W Output energy/J Repetition rate/Hz Pulse duration/ns Beam quality MediumInput power/W Input energy/J Reflectivity
    America TRW199310010071.1 DLFreon 11330.585%[27]
    19976902.5 k201.1 DL200>90%[38]
    19989401007.52 DLLiquid10098%[39]
    America LLNL199515025-306141.25 DLCCl4152.588%[40]
    Japan Osaka University20033621 k291.2 DLFC-759075%[41]
    200436850501.5 DLFC-75 & FC-724398%[42]
    2012766100FC-75 & FC-72[43]
    Germany Technische Universität Berlin199710410090Fiber50%[44]
    20013152 kM2=2.6 Fiber[30]
    Australia EOS201780017020M2~3 FC-77015395.2%[45]
    China HIT2008106.620 min per shot20CCl4>30~60%[46]
    China ZJU2011421 k1.5M2~2.3 Fiber50%[36]
    China AOE20171 k2006.61.7 DLFC-770220 W98%[3]
    201855050010M2~2 FC-770150 W92%[47]
    Table 1. Applications of SBS-PCM in high power nanosecond lasers
    Tianqi Wang, Zhijun Kang, Dongdong Meng, Jisi Qiu, Hao Liu. Application progress of the stimulated Brillouin scattering phase conjugate mirror in high power nanosecond lasers[J]. Infrared and Laser Engineering, 2021, 50(5): 20211024
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