Chinese Journal of Lasers, Volume. 47, Issue 9, 901001(2020)
Simulation of Discharge Shock Waves in Excimer Laser
Fig. 3. Typical circuit of high repetition excimer laser power supply with solid state switch
Fig. 4. Simulation results of background flow field. (a) Contours of density; (b) contours of velocity; (c) contours of temperature; (d) contours of pressure
Fig. 5. Simulation results of shock waves at 0.5 μs. (a) Contours of density; (b) contours of velocity; (c) contours of temperature; (d) contours of pressure
Fig. 6. Distribution of density, pressure, and temperature in discharge area. (a) Distribution in X direction; (b) distribution in Y direction
Fig. 7. Simulation results of shock waves at 10 μs. (a) Contours of density; (b) contours of velocity; (c) contours of temperature; (d) contours of pressure
Fig. 9. Simulation results of shock waves at 40 μs. (a) Contours of density; (b) contours of velocity; (c) contours of temperature; (d) contours of pressure
Fig. 10. Simulation results of shock waves at 100 μs. (a) Contours of density; (b) contours of velocity; (c) contours of temperature; (d) contours of pressure
Fig. 11. Simulation results of shock waves at 300 μs. (a) Contours of density; (b) contours of velocity; (c) contours of temperature; (d) contours of pressure
Fig. 14. Reflection points of shock wave to be concerned at different frequencies
Fig. 15. Schematic of processing method of parts fitting. (a) Design to avoid; (b) suggested design
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Liu Bin, Ding Jinbin, Zhou Yi, Jiang Rui, Wang Yu. Simulation of Discharge Shock Waves in Excimer Laser[J]. Chinese Journal of Lasers, 2020, 47(9): 901001
Category: laser devices and laser physics
Received: Mar. 2, 2020
Accepted: --
Published Online: Sep. 16, 2020
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