The excimer laser, with advantages of short wavelength, high energy, and tunable repetition rate, serves as an alternative device for inertial confinement fusion (ICF). However, the current bulky size of excimer lasers presents challenges for engineering implementation, leading to significant engineering difficulties. Modularization of diodes proves to be an effective approach for reducing device volume and engineering complexity. The goal of modularization is to achieve higher efficiency and reliability within a smaller footprint, where numerical calculations of electrostatic fields play a crucial role in realizing these objectives. This paper introduces the applications of electrostatic field numerical calculations in diode insulation structure design, suppression of cathode edge emission effects, and mitigation of electron beam scrapping effects, underscoring the scenarios where excimer laser diodes necessitate the utilization of electrostatic field calculations in their design. The research presented herein can serve as a reference for enhancing the efficiency and reliability of electron-beam-pumped excimer laser diodes.
In the high-power laser device, through precisely positioning the target and pointing multiple laser beams at a very small area on the target surface, the laser power density coupled with the target can be greatly improved and is conducive to the research of laser-induced plasma experiments. This paper proposes a set of target positioning and laser beam pointing system, which has advantages of high experiment efficiency, high target positioning and laser pointing accuracy. This system can automatically correct the attitude and position of targets, and make all laser converge together by adjusting their incident directions. It was verified that the target positioning error is 14.83 µm and the beam guidance accuracy is 9.70 µm.
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