• Chinese Journal of Lasers
  • Vol. 51, Issue 11, 1101002 (2024)
Yujie Peng1,†, Yi Xu1,†, Lianghong Yu1,†, Xiaoming Lu..., Cheng Wang, Zhaoyang Li, Zebiao Gan, Fenxiang Wu, Xinliang Wang, Yanyan Li, Yanqi Liu, Dingjun Yin, Huina Chen, Xiaoyan Liang*, Wei Qu, Yuxin Leng, Ruxin Li and Zhizhan Xu|Show fewer author(s)
Author Affiliations
  • State Key Laboratory of High Field Laser Physics, Shanghai Institute of Optics and Fine Mechanics, Chinese Academy of Sciences, Shanghai 201800, China
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    DOI: 10.3788/CJL240590 Cite this Article Set citation alerts
    Yujie Peng, Yi Xu, Lianghong Yu, Xiaoming Lu, Cheng Wang, Zhaoyang Li, Zebiao Gan, Fenxiang Wu, Xinliang Wang, Yanyan Li, Yanqi Liu, Dingjun Yin, Huina Chen, Xiaoyan Liang, Wei Qu, Yuxin Leng, Ruxin Li, Zhizhan Xu. Review on Development of Shanghai Super‑Intense Ultra‑Fast Laser Facility[J]. Chinese Journal of Lasers, 2024, 51(11): 1101002 Copy Citation Text show less
    Structure of new generation of ultra-intense and ultrashort laser comprehensive experimental device
    Fig. 1. Structure of new generation of ultra-intense and ultrashort laser comprehensive experimental device
    Structure of ultra-intense and ultrashort laser system with high-performance, high repetition frequency, and 800 nm band[25]
    Fig. 2. Structure of ultra-intense and ultrashort laser system with high-performance, high repetition frequency, and 800 nm band[25]
    Structure of tunable mid-infrared new band ultra-intense and ultrashort laser system[26]. (a) Schematic of 4 μm OPCPA process and post-compression system; (b) second-harmonic-generation-frequency-resolved optical gating (SHG-FROG) measurement; (c) schematic of CEP measurement
    Fig. 3. Structure of tunable mid-infrared new band ultra-intense and ultrashort laser system[26]. (a) Schematic of 4 μm OPCPA process and post-compression system; (b) second-harmonic-generation-frequency-resolved optical gating (SHG-FROG) measurement; (c) schematic of CEP measurement
    Layout of SULF[28]
    Fig. 4. Layout of SULF[28]
    Layout diagram of high signal-to-noise ratio seed source of SULF-10 PW[29]
    Fig. 5. Layout diagram of high signal-to-noise ratio seed source of SULF-10 PW[29]
    Spectral evolution (left) and signal-to-noise ratio result (right) before and after pulse purification using XPWG and OPA technologies
    Fig. 6. Spectral evolution (left) and signal-to-noise ratio result (right) before and after pulse purification using XPWG and OPA technologies
    Output spectra of front-end amplifiers
    Fig. 7. Output spectra of front-end amplifiers
    Ti∶sapphire main amplifier of SULF-10 PW. (a) Layout of main amplifier; (b) diagram of time-domain multi-pulse pumping optical path; (c) schematic diagram of multi-pass amplification process for time-domain multi-pulse pumping; (d) schematic diagram of pump-amplification timing sequence for time-domain multi-pulse pumping; (e) evolution diagram of output spectra for Ti∶sapphire amplifier; (f) energy stability of main amplifier
    Fig. 8. Ti∶sapphire main amplifier of SULF-10 PW. (a) Layout of main amplifier; (b) diagram of time-domain multi-pulse pumping optical path; (c) schematic diagram of multi-pass amplification process for time-domain multi-pulse pumping; (d) schematic diagram of pump-amplification timing sequence for time-domain multi-pulse pumping; (e) evolution diagram of output spectra for Ti∶sapphire amplifier; (f) energy stability of main amplifier
    Flow chart of laser scheme with energy of up to 100 J and repetition rate of one pulse per minute
    Fig. 9. Flow chart of laser scheme with energy of up to 100 J and repetition rate of one pulse per minute
    Energy stabilities of fundamental and double frequency pulses of pump laser. (a) Fundamental pulse; (b) double frequency pulse
    Fig. 10. Energy stabilities of fundamental and double frequency pulses of pump laser. (a) Fundamental pulse; (b) double frequency pulse
    Photo of inside of SULF-10 PW laser system compressor
    Fig. 11. Photo of inside of SULF-10 PW laser system compressor
    Pulse spectra compressed by 10 PW laser system. (a) Spectrum and phase; (b) compressed pulse width
    Fig. 12. Pulse spectra compressed by 10 PW laser system. (a) Spectrum and phase; (b) compressed pulse width
    Layout diagram of adaptive optical system in 10 PW laser system[28]
    Fig. 13. Layout diagram of adaptive optical system in 10 PW laser system[28]
    Focal spot distributions of 10 PW laser system before and after deformable mirror and wavefront correction[28]
    Fig. 14. Focal spot distributions of 10 PW laser system before and after deformable mirror and wavefront correction[28]
    Flow chart of SULF-1 PW laser system[33]
    Fig. 15. Flow chart of SULF-1 PW laser system[33]
    Main technical parameters of SULF-1 PW laser system[33]
    Fig. 16. Main technical parameters of SULF-1 PW laser system[33]
    Chart of SEL-100 PW laser technology scheme
    Fig. 17. Chart of SEL-100 PW laser technology scheme
    Spectrum and pulse width of SEL-100 PW seed laser[35]. (a) Seed laser pulse output spectrum and phase; (b) measured value and FTL pulse width of seed laser pulse
    Fig. 18. Spectrum and pulse width of SEL-100 PW seed laser[35]. (a) Seed laser pulse output spectrum and phase; (b) measured value and FTL pulse width of seed laser pulse
    Theoretically calculated gain curves of three nonlinear crystals of BBO, LBO, and DKDP[37]
    Fig. 19. Theoretically calculated gain curves of three nonlinear crystals of BBO, LBO, and DKDP[37]
    Output spectra and spot distributions of SEL-100 PW front-end three-stage amplifier[37]. (a) Output spectra of each OPCPA stage. (b) pump light near field spot of OPCPA2. (c) pump light near field spot of OPCPA3. (d) output light spot of OPCPA2. (e) output light spot of OPCPA3
    Fig. 20. Output spectra and spot distributions of SEL-100 PW front-end three-stage amplifier[37]. (a) Output spectra of each OPCPA stage. (b) pump light near field spot of OPCPA2. (c) pump light near field spot of OPCPA3. (d) output light spot of OPCPA2. (e) output light spot of OPCPA3
    Output spectrum and pulse width of SEL-100 PW front-end after compression[37]. (a) Output spectrum and phase of laser pulse with wavelength of 925 nm. (b) measured value and FTL pulse width of compressed laser pulse
    Fig. 21. Output spectrum and pulse width of SEL-100 PW front-end after compression[37]. (a) Output spectrum and phase of laser pulse with wavelength of 925 nm. (b) measured value and FTL pulse width of compressed laser pulse
    Yujie Peng, Yi Xu, Lianghong Yu, Xiaoming Lu, Cheng Wang, Zhaoyang Li, Zebiao Gan, Fenxiang Wu, Xinliang Wang, Yanyan Li, Yanqi Liu, Dingjun Yin, Huina Chen, Xiaoyan Liang, Wei Qu, Yuxin Leng, Ruxin Li, Zhizhan Xu. Review on Development of Shanghai Super‑Intense Ultra‑Fast Laser Facility[J]. Chinese Journal of Lasers, 2024, 51(11): 1101002
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