Author Affiliations
1Anhui Institute of Optics and Fine Mechanics, Hefei Institute of Physical Science, Chinese Academy of Sciences, Hefei 230031, Anhui , China2University of Science and Technology of China, Hefei 230026, Anhui ,Chinashow less
Fig. 1. Diagram of emission bandwidth and photon energy of excimer laser
[4] Fig. 2. Layout of high power excimer laser target experiment platform
[19] 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
Fig. 4. Typical excimer potential energy curves
[20,34] Fig. 5. Structure diagram of excimer laser excited by discharge
[4] Fig. 6. CC energy transfer circuit based on thyratron
Fig. 7. Diagram of all solid state excitation circuit
Fig. 8. Gas discharge chamber indication
[34] 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
Fig. 10. Commonly used preionization structure indication. (a) Corona preionization
[55]; (b) bare spark pre-ionization
[56]; (c) surface creepage preionization
[57] 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
Fig. 12. Typical excimer laser beam distribution
Fig. 13. Positively supported unstable cavity in standard mode
[4] Fig. 14. TWINSCAN NXT: 2050i, ASML, Netherlands
[75] Fig. 15. Diagram of MOPA excimer laser system
[76] Fig. 16. Coherent's two-cavity synchronous combination technology scheme
[93] Fig. 17. Application of multi-cavity plate annealing
[92] Fig. 18. A long pulse pump circuit
[114] Fig. 19. Principle of PLD
[5] Fig. 20. LA-ICP-MS system structure diagram
ArF | KrF | XeCl | XeF |
---|
193 nm | 248 nm | 308 nm | 351 nm |
|
Table 1. Excimer gas media and emission wavelength