• Chinese Journal of Lasers
  • Vol. 47, Issue 3, 301002 (2020)
Wang Yongheng, Zhao Changming*, Cai Zitao, and Yao Ruiyu
Author Affiliations
  • School of Optics and Photonics, Beijing Institute of Technology, Beijing 100081, China
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    DOI: 10.3788/CJL202047.0301002 Cite this Article Set citation alerts
    Wang Yongheng, Zhao Changming, Cai Zitao, Yao Ruiyu. LD Pumped 1061 nm/1064 nm Dual-Wavelength Nd∶YAG Microchip Laser[J]. Chinese Journal of Lasers, 2020, 47(3): 301002 Copy Citation Text show less
    Schematic of LD pumped 1061 nm/1064 nm dual-wavelength Nd∶YAG microchip laser
    Fig. 1. Schematic of LD pumped 1061 nm/1064 nm dual-wavelength Nd∶YAG microchip laser
    Transmission curves of the thin film coated in the output end of the crystal. (a) Transmission curve in the range of 800--1100 nm; (b) transmission curve in the range of 1050--1075 nm
    Fig. 2. Transmission curves of the thin film coated in the output end of the crystal. (a) Transmission curve in the range of 800--1100 nm; (b) transmission curve in the range of 1050--1075 nm
    Experimental results with crystal thickness of 0.8 mm. (a) Relative intensity of different wavelengths versus pump power; (b) output power versus pump power; (c) transverse mode of laser output light
    Fig. 3. Experimental results with crystal thickness of 0.8 mm. (a) Relative intensity of different wavelengths versus pump power; (b) output power versus pump power; (c) transverse mode of laser output light
    Output power versus time with crystal thickness of 0.8 mm
    Fig. 4. Output power versus time with crystal thickness of 0.8 mm
    Experimental results with crystal thickness of 1.2 mm. (a) Relative intensity of different wavelengths versus pump power; (b) output power versus pump power; (c) transverse mode of laser output light
    Fig. 5. Experimental results with crystal thickness of 1.2 mm. (a) Relative intensity of different wavelengths versus pump power; (b) output power versus pump power; (c) transverse mode of laser output light
    Output power versus time with crystal thickness of 1.2 mm
    Fig. 6. Output power versus time with crystal thickness of 1.2 mm
    Experimental results with crystal thickness of 2.5 mm. (a) Relative intensity of different wavelengths versus pump power; (b) output power versus pump power; (c) transverse mode of laser output light
    Fig. 7. Experimental results with crystal thickness of 2.5 mm. (a) Relative intensity of different wavelengths versus pump power; (b) output power versus pump power; (c) transverse mode of laser output light
    Output power versus time with crystal thickness of 2.5 mm
    Fig. 8. Output power versus time with crystal thickness of 2.5 mm
    Comparison of laser parameters under different crystal thicknesses. (a) Total output power versus pump power; (b) ratio of power of 1061 nm to total output power versus pump power
    Fig. 9. Comparison of laser parameters under different crystal thicknesses. (a) Total output power versus pump power; (b) ratio of power of 1061 nm to total output power versus pump power
    Wang Yongheng, Zhao Changming, Cai Zitao, Yao Ruiyu. LD Pumped 1061 nm/1064 nm Dual-Wavelength Nd∶YAG Microchip Laser[J]. Chinese Journal of Lasers, 2020, 47(3): 301002
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