Kuanshou Zhang, Huadong Lu, Yuanji Li, Jinxia Feng. Progress on High-Power Low-Noise Continuous-Wave Single-Frequency All-Solid-State Lasers[J]. Chinese Journal of Lasers, 2021, 48(5): 0501002
- Chinese Journal of Lasers
- Vol. 48, Issue 5, 0501002 (2021)
![Thermal focal length of laser crystal versus incident pump power at different pump schemes and boundary temperatures of laser crystal[38]](/richHtml/zgjg/2021/48/5/0501002/img_1.jpg)
Fig. 1. Thermal focal length of laser crystal versus incident pump power at different pump schemes and boundary temperatures of laser crystal[38]
![1.34μm output power versus boundary temperature of laser crystal under dual-end pump[38]](/richHtml/zgjg/2021/48/5/0501002/img_2.jpg)
Fig. 2. 1.34μm output power versus boundary temperature of laser crystal under dual-end pump[38]
![Temperature distributions in laser crystal under different cooling schemes [40]](/Images/icon/loading.gif){kind=icon}
Fig. 3. Temperature distributions in laser crystal under different cooling schemes [40]
Fig. 4. Critical nonlinear conversion coefficient versus output transmission of coupling mirror for stable SLM operation of high-power 1.34μm Nd∶YVO4 laser [49]
Fig. 5. Continuous tuning range of laser under different intra-cavity losses L and nonlinear losses η[50]. (a) L=5.8% , η=1.87%; (b) L=9.8%, η=1.2%
Fig. 6. Experimental setup of continuous wave single-frequency Nd∶YVO4 laser polarized and dual-end pumped by 880nm LD[41]
Fig. 7. Experimental setup of high-power continuous wave single-frequency Nd∶YVO4 green laser by self-compensation of astigmatisms [52]
Fig. 8. Output powers of 1.064μm and 532nm lasers versus output transmission of coupling mirror[57]
Fig. 9. Experimental setup of dual-end-pumped two-stage MOPA[65]
Fig. 10. Experimental setup of all-solid-state continuous wave 1.064μm single-frequency laser with output power of 101W[66]
Fig. 11. Measured relative intensity and phase noise of continuous wave single-frequency Er, Yb∶YAB laser at 1.55μm[40]
Fig. 12. Relative intensity noise spectra of single-frequency 1.064μm laser under different nonlinear conversion coefficients η[71]
Fig. 13. Intensity noise spectra of laser[73]. (a) L=450mm, η=0; (b) L=1050mm, η=0; (c) L=1050mm, η=0.45%
Fig. 14. Intensity noise of output laser from MZI versus analysis frequency under different R and Tlock=85% [74]
Fig. 15. Output powers of 1.34μm and 671nm lasers versus temperature of LBO crystal [49]
Fig. 16. Experimental setup of all-solid-state continuous wave single-frequency 1.55 μm Er,Yb∶YAB laser[40]
Fig. 17. Experimental setup of all-solid-state continuous wave single-frequency tunable Ti: sapphire laser[86]
Fig. 18. Experimental setup of self-injection locked Ti: sapphire laser [91]
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