• High Power Laser and Particle Beams
  • Vol. 35, Issue 7, 071002 (2023)
Jingguo Zhu, Ye Tian, Ying Yang, Xin Zhang, Shengheng Zheng, De’en Wang, and Wei Han*
Author Affiliations
  • Laser Fusion Research Center, CAEP, Mianyang 621900, China
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    DOI: 10.11884/HPLPB202335.220245 Cite this Article
    Jingguo Zhu, Ye Tian, Ying Yang, Xin Zhang, Shengheng Zheng, De’en Wang, Wei Han. Review on laser damage fatigue effects of fused silica and other optical materials[J]. High Power Laser and Particle Beams, 2023, 35(7): 071002 Copy Citation Text show less
    Schematic diagram of fatigue effect of several materials
    Fig. 1. Schematic diagram of fatigue effect of several materials
    Influence of wavelength on fatigue effect under ultraviolet condition
    Fig. 2. Influence of wavelength on fatigue effect under ultraviolet condition
    Evolution of fatigue effect at 10 Hz for silica surface and bulk
    Fig. 3. Evolution of fatigue effect at 10 Hz for silica surface and bulk
    Frequency effect on the laser damage probability after 10 subsequent shots
    Fig. 4. Frequency effect on the laser damage probability after 10 subsequent shots
    Relationship between incident energy and the number of pulses before damage at various pump pulse durations
    Fig. 5. Relationship between incident energy and the number of pulses before damage at various pump pulse durations
    Fatigue effects at different wavelengths
    Fig. 6. Fatigue effects at different wavelengths
    Relation diagram of the number of pulses to induce damage in materials at different laser fluence
    Fig. 7. Relation diagram of the number of pulses to induce damage in materials at different laser fluence
    Relaxation of induced absorption in fused silica
    Fig. 8. Relaxation of induced absorption in fused silica
    Relaxation test of fatigue effect
    Fig. 9. Relaxation test of fatigue effect
    Damage micromorphologies of HfO2/SiO2 high reflection coatings at 532 nm
    Fig. 10. Damage micromorphologies of HfO2/SiO2 high reflection coatings at 532 nm
    Absorption coefficient of fused silica increases with the shots
    Fig. 11. Absorption coefficient of fused silica increases with the shots
    In the fixed electric field E, electron density and temperature snapshots of the irradiated regions subject to one pulse N = 1 and few pulses N = 3 irradiation. The electron density is normalized to the critical value Ncr
    Fig. 12. In the fixed electric field E, electron density and temperature snapshots of the irradiated regions subject to one pulse N = 1 and few pulses N = 3 irradiation. The electron density is normalized to the critical value Ncr
    Number of several types of defects in fused silica increases with the increase of laser excitation times
    Fig. 13. Number of several types of defects in fused silica increases with the increase of laser excitation times
    Evolution in the distribution of rings in v-SiO2 after 800 times irradiation
    Fig. 14. Evolution in the distribution of rings in v-SiO2 after 800 times irradiation
    Jingguo Zhu, Ye Tian, Ying Yang, Xin Zhang, Shengheng Zheng, De’en Wang, Wei Han. Review on laser damage fatigue effects of fused silica and other optical materials[J]. High Power Laser and Particle Beams, 2023, 35(7): 071002
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