• Laser & Optoelectronics Progress
  • Vol. 60, Issue 17, 1714002 (2023)
Jiang Lan, Hengxiang He*, Jun Chen, Chen Wang..., Shuai Cheng, Lingpeng Zhang, Kangwang Shi, Shuoyi Zhou and Junkai Cong|Show fewer author(s)
Author Affiliations
  • Southwest Institute of Technical Physics, Chengdu 610041, Sichuan , China
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    DOI: 10.3788/LOP222301 Cite this Article Set citation alerts
    Jiang Lan, Hengxiang He, Jun Chen, Chen Wang, Shuai Cheng, Lingpeng Zhang, Kangwang Shi, Shuoyi Zhou, Junkai Cong. Laser Multibeam Method Based on Refractive Prisms[J]. Laser & Optoelectronics Progress, 2023, 60(17): 1714002 Copy Citation Text show less
    Schematic diagram of single prism beam split
    Fig. 1. Schematic diagram of single prism beam split
    Schematic diagram of multi-band laser beam combination of birefringent prism system
    Fig. 2. Schematic diagram of multi-band laser beam combination of birefringent prism system
    Refractive index fitting results of three kinds of glass materials
    Fig. 3. Refractive index fitting results of three kinds of glass materials
    Transmittance curves of three kinds of glass materials
    Fig. 4. Transmittance curves of three kinds of glass materials
    Critical emergent angles corresponding to three kinds of glass prisms
    Fig. 5. Critical emergent angles corresponding to three kinds of glass prisms
    Schematic diagram of optical path of double prism system
    Fig. 6. Schematic diagram of optical path of double prism system
    Schematic diagram of prism translation
    Fig. 7. Schematic diagram of prism translation
    Zemax simulation results diagram. (a) Distribution diagram; (b) incident spot distribution
    Fig. 8. Zemax simulation results diagram. (a) Distribution diagram; (b) incident spot distribution
    MaterialL1L2L3k1k2k3
    H-ZLaF92123.07860.05970.01411.86760.37562.4593
    D-ZLaF85LS0.00800.0320110.67931.70150.63331.4319
    H-ZBaF210.01070.0536127.68761.71450.17291.3759
    Table 1. Sellmeier formula fitting result
    MaterialθB(500 nm)θB(1060 nm)θB(2000 nm)
    H-ZLaF9263.5663.0562.80
    D-ZLaF85LS61.7161.3561.13
    H-ZBaF2159.9359.5859.36
    Table 2. Brewster angle of different materials at different wavelengths
    MaterialVertex angle α /(°)Wavelength λ /nmi4 /(°)i3 /(°)i2 /(°)i1 /(°)
    H-ZLaF925155063.0524.6926.3157.16
    106063.0524.0626.9453.33
    200063.0523.7427.2651.57
    D-ZLaF85LS5555061.3526.8128.1956.93
    106061.3526.3428.6654.31
    200061.3526.0628.9452.82
    H-ZBaF216055059.5830.0529.9559.89
    106059.5829.9630.4258.26
    200059.5829.2930.7155.68
    Table 3. Calculation results of incident angle
    MaterialWavelength λ /nmFirst refractionSecond refractionThird refractionFourth refractionPolarization ratioAbsorption ratioTotal efficiency
    H-ZLaF925500.997740.991660.998210.99993500.9590.92814
    10600.997410.985320.992530.999770.9960.95188
    20000.996800.980850.990240.999990.9830.93266
    D-ZLaF85LS5500.998300.995950.999560.999970.9950.96905
    10600.997350.992360.997080.999960.9980.96512
    20000.997770.990180.996140.999990.9780.94324
    H-ZBaF215500.998890.999950.998590.999980.9940.97159
    10600.998660.999720.999630.999990.9980.97608
    20000.998520.998090.999900.999990.9740.95119
    Table 4. Calculation results of beam combining efficiency
    Jiang Lan, Hengxiang He, Jun Chen, Chen Wang, Shuai Cheng, Lingpeng Zhang, Kangwang Shi, Shuoyi Zhou, Junkai Cong. Laser Multibeam Method Based on Refractive Prisms[J]. Laser & Optoelectronics Progress, 2023, 60(17): 1714002
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