• Laser & Optoelectronics Progress
  • Vol. 58, Issue 3, 3000031 (2021)
Fan Mengqiu1、2、*, Xia Handing1, Xu Dangpeng1, Zhang Rui1, and Zheng Wanguo1
Author Affiliations
  • 1Research Center of Laser Fusion, China Academy of Engineering Physics, Mianyang , Sichuan 621900, China
  • 2Graduate School, China Academy of Engineering Physics, Beijing 100088, China
  • show less
    DOI: 10.3788/LOP202158.0300003 Cite this Article Set citation alerts
    Fan Mengqiu, Xia Handing, Xu Dangpeng, Zhang Rui, Zheng Wanguo. Research Progress of New Regime Mode?Locked Fiber Lasers and Amplification and Compression Technologies[J]. Laser & Optoelectronics Progress, 2021, 58(3): 3000031 Copy Citation Text show less
    Peak powers of various kinds of ultrafast fiber lasers[4⁃23]
    Fig. 1. Peak powers of various kinds of ultrafast fiber lasers[423]
    Operation principle of Mamyshev generator[4]
    Fig. 2. Operation principle of Mamyshev generator[4]
    Typical setup of oscillator based on two cascaded Mamyshev generators[4]
    Fig. 3. Typical setup of oscillator based on two cascaded Mamyshev generators[4]
    First all-fiber Mamyshev oscillator demonstrated by researches of IPG company[22]
    Fig. 4. First all-fiber Mamyshev oscillator demonstrated by researches of IPG company[22]
    Experimental setup of polarization maintaining Mamyshev oscillator[23]
    Fig. 5. Experimental setup of polarization maintaining Mamyshev oscillator[23]
    Typical structure of “9-type cavity”[31]
    Fig. 6. Typical structure of “9-type cavity”[31]
    Structural diagram of laser with long “9-type cavity”[32]
    Fig. 7. Structural diagram of laser with long “9-type cavity”[32]
    Experimental setup of laser with “9-type cavity” and Faraday rotator[36]
    Fig. 8. Experimental setup of laser with “9-type cavity” and Faraday rotator[36]
    Structural diagram of compact “9-‍type cavity” laser based on all polarization maintaining fiber,and structural diagram of reflection-‍type phase shifter[37]. (a) Structural diagram of compact “9‍-‍type cavity” laser based on all polarization maintaining fiber; (b) structural diagram of reflection⁃type phase shifter
    Fig. 9. Structural diagram of compact “9-‍type cavity” laser based on all polarization maintaining fiber,and structural diagram of reflection-‍type phase shifter[37]. (a) Structural diagram of compact “9‍-‍type cavity” laser based on all polarization maintaining fiber; (b) structural diagram of reflection⁃type phase shifter
    Structure of dispersion managed “9-type cavity”[40]
    Fig. 10. Structure of dispersion managed “9-type cavity”[40]
    Structure of spatiotemporal mode-locking fiber laser[42]
    Fig. 11. Structure of spatiotemporal mode-locking fiber laser[42]
    Mode distribution in spatiotemporal mode-locked laser cavities supporting multiple transverse modes[4]
    Fig. 12. Mode distribution in spatiotemporal mode-locked laser cavities supporting multiple transverse modes[4]
    Spatiotemporal mode-locked fiber laser based on all multimode fiber[42]
    Fig. 13. Spatiotemporal mode-locked fiber laser based on all multimode fiber[42]
    Peak and average powers of femtosecond fiber laser[46]
    Fig. 14. Peak and average powers of femtosecond fiber laser[46]
    Schematic diagram of ultrafast pulse spatial combination system
    Fig. 15. Schematic diagram of ultrafast pulse spatial combination system
    Coherent combination setup based on DOE[51]
    Fig. 16. Coherent combination setup based on DOE[51]
    Principle of beam division based on birefringent crystal[52]
    Fig. 17. Principle of beam division based on birefringent crystal[52]
    Enhanced stacking amplification technique in pulse cavity with high Q[54]
    Fig. 18. Enhanced stacking amplification technique in pulse cavity with high Q[54]
    Principle diagram of GTI[55]
    Fig. 19. Principle diagram of GTI[55]
    Fan Mengqiu, Xia Handing, Xu Dangpeng, Zhang Rui, Zheng Wanguo. Research Progress of New Regime Mode?Locked Fiber Lasers and Amplification and Compression Technologies[J]. Laser & Optoelectronics Progress, 2021, 58(3): 3000031
    Download Citation