• Laser & Optoelectronics Progress
  • Vol. 60, Issue 19, 1900006 (2023)
Xu Liang1、*, Qihui Shen1、2, Jingzhen Shao1, and Ying Lin1
Author Affiliations
  • 1Anhui Institute of Optics and Fine Mechanics, Hefei Institute of Physical Science, Chinese Academy of Sciences, Hefei 230031, Anhui , China
  • 2University of Science and Technology of China, Hefei 230026, Anhui ,China
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    DOI: 10.3788/LOP221521 Cite this Article Set citation alerts
    Xu Liang, Qihui Shen, Jingzhen Shao, Ying Lin. Discharge-Pumped Excimer Laser Technologies and Applications[J]. Laser & Optoelectronics Progress, 2023, 60(19): 1900006 Copy Citation Text show less
    Diagram of emission bandwidth and photon energy of excimer laser[4]
    Fig. 1. Diagram of emission bandwidth and photon energy of excimer laser[4]
    Layout of high power excimer laser target experiment platform[19]
    Fig. 2. Layout of high power excimer laser target experiment platform[19]
    A series of excimer laser products of Anhui Institute of Optics and Fine Mechanics, Chinese Academy of Sciences. (a) FBG 200 excimer laser; (b) PLD 20 excimer laser
    Fig. 3. A series of excimer laser products of Anhui Institute of Optics and Fine Mechanics, Chinese Academy of Sciences. (a) FBG 200 excimer laser; (b) PLD 20 excimer laser
    Typical excimer potential energy curves[20,34]
    Fig. 4. Typical excimer potential energy curves[20,34]
    Structure diagram of excimer laser excited by discharge [4]
    Fig. 5. Structure diagram of excimer laser excited by discharge [4]
    CC energy transfer circuit based on thyratron
    Fig. 6. CC energy transfer circuit based on thyratron
    Diagram of all solid state excitation circuit
    Fig. 7. Diagram of all solid state excitation circuit
    Gas discharge chamber indication[34]
    Fig. 8. Gas discharge chamber indication[34]
    Different electric field cloud images of the same electrode structure[51]. (a) Compact Chang’s surface electrode; (b) compact Chang’s surface electrode with preionization plate
    Fig. 9. Different electric field cloud images of the same electrode structure[51]. (a) Compact Chang’s surface electrode; (b) compact Chang’s surface electrode with preionization plate
    Commonly used preionization structure indication. (a) Corona preionization[55]; (b) bare spark pre-ionization[56]; (c) surface creepage preionization[57]
    Fig. 10. Commonly used preionization structure indication. (a) Corona preionization55; (b) bare spark pre-ionization56; (c) surface creepage preionization57
    Flow field simulation in discharge chamber[60]. (a) Cloud map of velocity of gas inside chamber; (b) vector graph of gas flow velocity between electrodes
    Fig. 11. Flow field simulation in discharge chamber[60]. (a) Cloud map of velocity of gas inside chamber; (b) vector graph of gas flow velocity between electrodes
    Typical excimer laser beam distribution
    Fig. 12. Typical excimer laser beam distribution
    Positively supported unstable cavity in standard mode[4]
    Fig. 13. Positively supported unstable cavity in standard mode[4]
    TWINSCAN NXT: 2050i, ASML, Netherlands[75]
    Fig. 14. TWINSCAN NXT: 2050i, ASML, Netherlands[75]
    Diagram of MOPA excimer laser system[76]
    Fig. 15. Diagram of MOPA excimer laser system[76]
    Coherent's two-cavity synchronous combination technology scheme[93]
    Fig. 16. Coherent's two-cavity synchronous combination technology scheme[93]
    Application of multi-cavity plate annealing[92]
    Fig. 17. Application of multi-cavity plate annealing[92]
    A long pulse pump circuit[114]
    Fig. 18. A long pulse pump circuit[114]
    Principle of PLD[5]
    Fig. 19. Principle of PLD[5]
    LA-ICP-MS system structure diagram
    Fig. 20. LA-ICP-MS system structure diagram
    ArFKrFXeClXeF
    193 nm248 nm308 nm351 nm
    Table 1. Excimer gas media and emission wavelength
    Xu Liang, Qihui Shen, Jingzhen Shao, Ying Lin. Discharge-Pumped Excimer Laser Technologies and Applications[J]. Laser & Optoelectronics Progress, 2023, 60(19): 1900006
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