• Infrared and Laser Engineering
  • Vol. 51, Issue 1, 20220015 (2022)
Pu Zhou, Tianfu Yao, Chenchen Fan, Yang Li, Xiulu Hao, Yizhu Chen, Xiaoya Ma, Jiangming Xu, Hu Xiao, Jinyong Leng, and Wei Liu
Author Affiliations
  • College of Advanced Interdisciplinary Studies, National University of Defense Technology, Changsha 410073, China
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    DOI: 10.3788/IRLA20220015 Cite this Article
    Pu Zhou, Tianfu Yao, Chenchen Fan, Yang Li, Xiulu Hao, Yizhu Chen, Xiaoya Ma, Jiangming Xu, Hu Xiao, Jinyong Leng, Wei Liu. 50th anniversary of Raman fiber laser: History, progress and prospect (Invited)[J]. Infrared and Laser Engineering, 2022, 51(1): 20220015 Copy Citation Text show less
    Setup of the first fiber Raman laser[6]
    Fig. 1. Setup of the first fiber Raman laser[6]
    Structure of cascaded RFLs(a) and typical multi-order Raman output spectra(b) in early years[19]
    Fig. 2. Structure of cascaded RFLs(a) and typical multi-order Raman output spectra(b) in early years[19]
    (a) Statistics of papers and patent applications related to EDFA and RFA published by OSA and IEEE from 1980 to 2000[69]; (b) Capacity distance product of transmission experiment of OFC Conference from 1994 to 2003[69]
    Fig. 3. (a) Statistics of papers and patent applications related to EDFA and RFA published by OSA and IEEE from 1980 to 2000[69]; (b) Capacity distance product of transmission experiment of OFC Conference from 1994 to 2003[69]
    Experiment setup of the 153 W RFL reported in 2009. WDM: wavelength division multiplexing, FBG: fiber Bragg grating [77]
    Fig. 4. Experiment setup of the 153 W RFL reported in 2009. WDM: wavelength division multiplexing, FBG: fiber Bragg grating [77]
    Output power development of Raman fiber oscillator in recent years
    Fig. 5. Output power development of Raman fiber oscillator in recent years
    Output power scaling of high-power RFA in recent years
    Fig. 6. Output power scaling of high-power RFA in recent years
    Scheme of the experimental setup of ytterbium-doped-Raman-hybrid-gain-fiber amplifier[102]
    Fig. 7. Scheme of the experimental setup of ytterbium-doped-Raman-hybrid-gain-fiber amplifier[102]
    (a) Experimental scheme of kilowatt RFA with near-diffraction-limited output based on GRIN fiber; (b) Evolution curve of output spot and beam quality with Raman signal power[115]
    Fig. 8. (a) Experimental scheme of kilowatt RFA with near-diffraction-limited output based on GRIN fiber; (b) Evolution curve of output spot and beam quality with Raman signal power[115]
    (a) Setup of the cascaded RFA; (b) Spectrum of seed laser; (c) Loss spectrum of Raman fiber[104]
    Fig. 9. (a) Setup of the cascaded RFA; (b) Spectrum of seed laser; (c) Loss spectrum of Raman fiber[104]
    Experimental setup of frequency doubling of RFLs to generate laser at 589 nm[119]
    Fig. 10. Experimental setup of frequency doubling of RFLs to generate laser at 589 nm[119]
    Experimental setup diagram of the HDFLs pumped by RFLs[129]
    Fig. 11. Experimental setup diagram of the HDFLs pumped by RFLs[129]
    The trend of output power of RRFL in recent years
    Fig. 12. The trend of output power of RRFL in recent years
    Experimental setup of RRFL with 1.5 kW output power[142]
    Fig. 13. Experimental setup of RRFL with 1.5 kW output power[142]
    Experimental structure of RRFL based on GRIN fiber[139]
    Fig. 14. Experimental structure of RRFL based on GRIN fiber[139]
    Concept diagram of Raman laser beam combining
    Fig. 15. Concept diagram of Raman laser beam combining
    YearsResearch institutePower /W M2 in/out Efficiency BEWavelength /nm References
    说明:表中 “—” 表示该文献中未提供该项数据
    2004Wright Patterson Air Force Base0.87/1.66%11 116[80]
    2006University of Southampton10.24.8/1.248%9.61 660[79]
    2009European Southern Observatory15385%1 120[77]
    2010OFS Laboratory8132%1 480[86]
    2010European Southern Observatory1002/>1.662.5%0.91 120[87]
    2013Siberian Branch of the Russian Academy of Sciences335%980[88]
    2013National University of Defense Technology11982%1 173[89]
    2014Shanghai Institute of Optics and Fine Mechanics, CAS12.33.2/1.4682.7%2.21 658[90]
    2015University of Southampton622/1.99%9.61 120[91]
    2015University of Southampton1922.2/548%5.31 019[91]
    2016Soreq Nuclear Research Center8014/5.653%3.51 020[92]
    2017Siberian Branch of the Russian Academy of Sciences1020/1.215.4%40954[93]
    2017Siberian Branch of the Russian Academy of Sciences1719%954[94]
    2017Siberian Branch of the Russian Academy of Sciences5026/2.627%25954[94]
    2017Soreq Nuclear Research Center15419.0/865%31 020[95]
    2018Soreq Nuclear Research Center1357.6/2.568%5.61 081[96]
    2018Siberian Branch of the Russian Academy of Sciences6230.0/330%25954[97]
    2018Soreq Nuclear Research Center2508.4/3.360%3.61 080[98]
    2018Soreq Nuclear Research Center1 2008/2.7585%71 120[85]
    Table 1. Research progress of Raman fiber oscillator in recent years
    YearsResearch institutePower /W M2 in/out Efficiency BEWavelength /nm Gain typeReferences
    说明:表中 “—” 表示该文献中未提供该项数据
    2002University of Southampton0.054.4/—36%17.51 069Raman[78]
    2012Jena University208——87%——1 118- 1 130 Raman[103]
    2013OFS Laboratory301——64%——1 480Raman[104]
    2014Shanghai Institute of Optics and Fine Mechanics, CAS300——70%——1 120Yb-Raman[105]
    2014Beijing University of Technology14.3——38.5%——2 147Raman[106]
    2014Shanghai Institute of Optics and Fine Mechanics, CAS1 280——70%——1 120Yb-Raman[102]
    2014National University of Defense Technology732——82.2%——1 120Yb-Raman[107]
    2015National University of Defense Technology1 520——75.6%——1 120Yb-Raman[108]
    2016Tsinghua University3 890—/1.4970.9%——1 123Yb-Raman[83]
    2018National University of Defense Technology52810.4/4.268%3.81 060Raman[109]
    2019National University of Defense Technology1 0029.2/5.184%2.61 060Raman[110]
    2019Tsinghua University3 700—/2.18————1 123Yb-Raman[111]
    2020National University of Defense Technology762.66.12/2.2425%2.351 130Raman[112]
    2020National University of Defense Technology2 087~13.5/8.959.33%——1 130Raman[113]
    2021National University of Defense Technology2 03410.5/2.879.35%11.21 130Raman[114]
    2021National University of Defense Technology3 083~11/5.7278.7%2.91 131Raman[82]
    Table 2. Research progress of high-power RFA in recent years
    YearsResearch institutePower /W Efficiency Wavelength /nm References
    说明:表中 “—” 表示该文献中未提供该项数据
    2010Aston University0.151 550[131]
    2015National University of Defense Technology12479%1 146[130]
    2017National University of Defense Technology27996[139]
    2017National University of Defense Technology4911120[140]
    2018Shanghai Institute of Optics and Fine Mechanics, CAS100.138.4%/27.2%1 000-1 900[116]
    2019National University of Defense Technology98578.9%1 150[141]
    2021National University of Defense Technology1 57077.5%1 120[142]
    Table 3. Research progress of RRFL in recent years
    Pu Zhou, Tianfu Yao, Chenchen Fan, Yang Li, Xiulu Hao, Yizhu Chen, Xiaoya Ma, Jiangming Xu, Hu Xiao, Jinyong Leng, Wei Liu. 50th anniversary of Raman fiber laser: History, progress and prospect (Invited)[J]. Infrared and Laser Engineering, 2022, 51(1): 20220015
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